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OBG Management is a leading publication in the ObGyn specialty addressing patient care and practice management under one cover.
gambling
compulsive behaviors
ammunition
assault rifle
black jack
Boko Haram
bondage
child abuse
cocaine
Daech
drug paraphernalia
explosion
gun
human trafficking
ISIL
ISIS
Islamic caliphate
Islamic state
mixed martial arts
MMA
molestation
national rifle association
NRA
nsfw
pedophile
pedophilia
poker
porn
pornography
psychedelic drug
recreational drug
sex slave rings
slot machine
terrorism
terrorist
Texas hold 'em
UFC
substance abuse
abuseed
abuseer
abusees
abuseing
abusely
abuses
aeolus
aeolused
aeoluser
aeoluses
aeolusing
aeolusly
aeoluss
ahole
aholeed
aholeer
aholees
aholeing
aholely
aholes
alcohol
alcoholed
alcoholer
alcoholes
alcoholing
alcoholly
alcohols
allman
allmaned
allmaner
allmanes
allmaning
allmanly
allmans
alted
altes
alting
altly
alts
analed
analer
anales
analing
anally
analprobe
analprobeed
analprobeer
analprobees
analprobeing
analprobely
analprobes
anals
anilingus
anilingused
anilinguser
anilinguses
anilingusing
anilingusly
anilinguss
anus
anused
anuser
anuses
anusing
anusly
anuss
areola
areolaed
areolaer
areolaes
areolaing
areolaly
areolas
areole
areoleed
areoleer
areolees
areoleing
areolely
areoles
arian
arianed
arianer
arianes
arianing
arianly
arians
aryan
aryaned
aryaner
aryanes
aryaning
aryanly
aryans
asiaed
asiaer
asiaes
asiaing
asialy
asias
ass
ass hole
ass lick
ass licked
ass licker
ass lickes
ass licking
ass lickly
ass licks
assbang
assbanged
assbangeded
assbangeder
assbangedes
assbangeding
assbangedly
assbangeds
assbanger
assbanges
assbanging
assbangly
assbangs
assbangsed
assbangser
assbangses
assbangsing
assbangsly
assbangss
assed
asser
asses
assesed
asseser
asseses
assesing
assesly
assess
assfuck
assfucked
assfucker
assfuckered
assfuckerer
assfuckeres
assfuckering
assfuckerly
assfuckers
assfuckes
assfucking
assfuckly
assfucks
asshat
asshated
asshater
asshates
asshating
asshatly
asshats
assholeed
assholeer
assholees
assholeing
assholely
assholes
assholesed
assholeser
assholeses
assholesing
assholesly
assholess
assing
assly
assmaster
assmastered
assmasterer
assmasteres
assmastering
assmasterly
assmasters
assmunch
assmunched
assmuncher
assmunches
assmunching
assmunchly
assmunchs
asss
asswipe
asswipeed
asswipeer
asswipees
asswipeing
asswipely
asswipes
asswipesed
asswipeser
asswipeses
asswipesing
asswipesly
asswipess
azz
azzed
azzer
azzes
azzing
azzly
azzs
babeed
babeer
babees
babeing
babely
babes
babesed
babeser
babeses
babesing
babesly
babess
ballsac
ballsaced
ballsacer
ballsaces
ballsacing
ballsack
ballsacked
ballsacker
ballsackes
ballsacking
ballsackly
ballsacks
ballsacly
ballsacs
ballsed
ballser
ballses
ballsing
ballsly
ballss
barf
barfed
barfer
barfes
barfing
barfly
barfs
bastard
bastarded
bastarder
bastardes
bastarding
bastardly
bastards
bastardsed
bastardser
bastardses
bastardsing
bastardsly
bastardss
bawdy
bawdyed
bawdyer
bawdyes
bawdying
bawdyly
bawdys
beaner
beanered
beanerer
beaneres
beanering
beanerly
beaners
beardedclam
beardedclamed
beardedclamer
beardedclames
beardedclaming
beardedclamly
beardedclams
beastiality
beastialityed
beastialityer
beastialityes
beastialitying
beastialityly
beastialitys
beatch
beatched
beatcher
beatches
beatching
beatchly
beatchs
beater
beatered
beaterer
beateres
beatering
beaterly
beaters
beered
beerer
beeres
beering
beerly
beeyotch
beeyotched
beeyotcher
beeyotches
beeyotching
beeyotchly
beeyotchs
beotch
beotched
beotcher
beotches
beotching
beotchly
beotchs
biatch
biatched
biatcher
biatches
biatching
biatchly
biatchs
big tits
big titsed
big titser
big titses
big titsing
big titsly
big titss
bigtits
bigtitsed
bigtitser
bigtitses
bigtitsing
bigtitsly
bigtitss
bimbo
bimboed
bimboer
bimboes
bimboing
bimboly
bimbos
bisexualed
bisexualer
bisexuales
bisexualing
bisexually
bisexuals
bitch
bitched
bitcheded
bitcheder
bitchedes
bitcheding
bitchedly
bitcheds
bitcher
bitches
bitchesed
bitcheser
bitcheses
bitchesing
bitchesly
bitchess
bitching
bitchly
bitchs
bitchy
bitchyed
bitchyer
bitchyes
bitchying
bitchyly
bitchys
bleached
bleacher
bleaches
bleaching
bleachly
bleachs
blow job
blow jobed
blow jober
blow jobes
blow jobing
blow jobly
blow jobs
blowed
blower
blowes
blowing
blowjob
blowjobed
blowjober
blowjobes
blowjobing
blowjobly
blowjobs
blowjobsed
blowjobser
blowjobses
blowjobsing
blowjobsly
blowjobss
blowly
blows
boink
boinked
boinker
boinkes
boinking
boinkly
boinks
bollock
bollocked
bollocker
bollockes
bollocking
bollockly
bollocks
bollocksed
bollockser
bollockses
bollocksing
bollocksly
bollockss
bollok
bolloked
bolloker
bollokes
bolloking
bollokly
bolloks
boner
bonered
bonerer
boneres
bonering
bonerly
boners
bonersed
bonerser
bonerses
bonersing
bonersly
bonerss
bong
bonged
bonger
bonges
bonging
bongly
bongs
boob
boobed
boober
boobes
boobies
boobiesed
boobieser
boobieses
boobiesing
boobiesly
boobiess
boobing
boobly
boobs
boobsed
boobser
boobses
boobsing
boobsly
boobss
booby
boobyed
boobyer
boobyes
boobying
boobyly
boobys
booger
boogered
boogerer
boogeres
boogering
boogerly
boogers
bookie
bookieed
bookieer
bookiees
bookieing
bookiely
bookies
bootee
booteeed
booteeer
booteees
booteeing
booteely
bootees
bootie
bootieed
bootieer
bootiees
bootieing
bootiely
booties
booty
bootyed
bootyer
bootyes
bootying
bootyly
bootys
boozeed
boozeer
boozees
boozeing
boozely
boozer
boozered
boozerer
boozeres
boozering
boozerly
boozers
boozes
boozy
boozyed
boozyer
boozyes
boozying
boozyly
boozys
bosomed
bosomer
bosomes
bosoming
bosomly
bosoms
bosomy
bosomyed
bosomyer
bosomyes
bosomying
bosomyly
bosomys
bugger
buggered
buggerer
buggeres
buggering
buggerly
buggers
bukkake
bukkakeed
bukkakeer
bukkakees
bukkakeing
bukkakely
bukkakes
bull shit
bull shited
bull shiter
bull shites
bull shiting
bull shitly
bull shits
bullshit
bullshited
bullshiter
bullshites
bullshiting
bullshitly
bullshits
bullshitsed
bullshitser
bullshitses
bullshitsing
bullshitsly
bullshitss
bullshitted
bullshitteded
bullshitteder
bullshittedes
bullshitteding
bullshittedly
bullshitteds
bullturds
bullturdsed
bullturdser
bullturdses
bullturdsing
bullturdsly
bullturdss
bung
bunged
bunger
bunges
bunging
bungly
bungs
busty
bustyed
bustyer
bustyes
bustying
bustyly
bustys
butt
butt fuck
butt fucked
butt fucker
butt fuckes
butt fucking
butt fuckly
butt fucks
butted
buttes
buttfuck
buttfucked
buttfucker
buttfuckered
buttfuckerer
buttfuckeres
buttfuckering
buttfuckerly
buttfuckers
buttfuckes
buttfucking
buttfuckly
buttfucks
butting
buttly
buttplug
buttpluged
buttpluger
buttpluges
buttpluging
buttplugly
buttplugs
butts
caca
cacaed
cacaer
cacaes
cacaing
cacaly
cacas
cahone
cahoneed
cahoneer
cahonees
cahoneing
cahonely
cahones
cameltoe
cameltoeed
cameltoeer
cameltoees
cameltoeing
cameltoely
cameltoes
carpetmuncher
carpetmunchered
carpetmuncherer
carpetmuncheres
carpetmunchering
carpetmuncherly
carpetmunchers
cawk
cawked
cawker
cawkes
cawking
cawkly
cawks
chinc
chinced
chincer
chinces
chincing
chincly
chincs
chincsed
chincser
chincses
chincsing
chincsly
chincss
chink
chinked
chinker
chinkes
chinking
chinkly
chinks
chode
chodeed
chodeer
chodees
chodeing
chodely
chodes
chodesed
chodeser
chodeses
chodesing
chodesly
chodess
clit
clited
cliter
clites
cliting
clitly
clitoris
clitorised
clitoriser
clitorises
clitorising
clitorisly
clitoriss
clitorus
clitorused
clitoruser
clitoruses
clitorusing
clitorusly
clitoruss
clits
clitsed
clitser
clitses
clitsing
clitsly
clitss
clitty
clittyed
clittyer
clittyes
clittying
clittyly
clittys
cocain
cocaine
cocained
cocaineed
cocaineer
cocainees
cocaineing
cocainely
cocainer
cocaines
cocaining
cocainly
cocains
cock
cock sucker
cock suckered
cock suckerer
cock suckeres
cock suckering
cock suckerly
cock suckers
cockblock
cockblocked
cockblocker
cockblockes
cockblocking
cockblockly
cockblocks
cocked
cocker
cockes
cockholster
cockholstered
cockholsterer
cockholsteres
cockholstering
cockholsterly
cockholsters
cocking
cockknocker
cockknockered
cockknockerer
cockknockeres
cockknockering
cockknockerly
cockknockers
cockly
cocks
cocksed
cockser
cockses
cocksing
cocksly
cocksmoker
cocksmokered
cocksmokerer
cocksmokeres
cocksmokering
cocksmokerly
cocksmokers
cockss
cocksucker
cocksuckered
cocksuckerer
cocksuckeres
cocksuckering
cocksuckerly
cocksuckers
coital
coitaled
coitaler
coitales
coitaling
coitally
coitals
commie
commieed
commieer
commiees
commieing
commiely
commies
condomed
condomer
condomes
condoming
condomly
condoms
coon
cooned
cooner
coones
cooning
coonly
coons
coonsed
coonser
coonses
coonsing
coonsly
coonss
corksucker
corksuckered
corksuckerer
corksuckeres
corksuckering
corksuckerly
corksuckers
cracked
crackwhore
crackwhoreed
crackwhoreer
crackwhorees
crackwhoreing
crackwhorely
crackwhores
crap
craped
craper
crapes
craping
craply
crappy
crappyed
crappyer
crappyes
crappying
crappyly
crappys
cum
cumed
cumer
cumes
cuming
cumly
cummin
cummined
cumminer
cummines
cumming
cumminged
cumminger
cumminges
cumminging
cummingly
cummings
cummining
cumminly
cummins
cums
cumshot
cumshoted
cumshoter
cumshotes
cumshoting
cumshotly
cumshots
cumshotsed
cumshotser
cumshotses
cumshotsing
cumshotsly
cumshotss
cumslut
cumsluted
cumsluter
cumslutes
cumsluting
cumslutly
cumsluts
cumstain
cumstained
cumstainer
cumstaines
cumstaining
cumstainly
cumstains
cunilingus
cunilingused
cunilinguser
cunilinguses
cunilingusing
cunilingusly
cunilinguss
cunnilingus
cunnilingused
cunnilinguser
cunnilinguses
cunnilingusing
cunnilingusly
cunnilinguss
cunny
cunnyed
cunnyer
cunnyes
cunnying
cunnyly
cunnys
cunt
cunted
cunter
cuntes
cuntface
cuntfaceed
cuntfaceer
cuntfacees
cuntfaceing
cuntfacely
cuntfaces
cunthunter
cunthuntered
cunthunterer
cunthunteres
cunthuntering
cunthunterly
cunthunters
cunting
cuntlick
cuntlicked
cuntlicker
cuntlickered
cuntlickerer
cuntlickeres
cuntlickering
cuntlickerly
cuntlickers
cuntlickes
cuntlicking
cuntlickly
cuntlicks
cuntly
cunts
cuntsed
cuntser
cuntses
cuntsing
cuntsly
cuntss
dago
dagoed
dagoer
dagoes
dagoing
dagoly
dagos
dagosed
dagoser
dagoses
dagosing
dagosly
dagoss
dammit
dammited
dammiter
dammites
dammiting
dammitly
dammits
damn
damned
damneded
damneder
damnedes
damneding
damnedly
damneds
damner
damnes
damning
damnit
damnited
damniter
damnites
damniting
damnitly
damnits
damnly
damns
dick
dickbag
dickbaged
dickbager
dickbages
dickbaging
dickbagly
dickbags
dickdipper
dickdippered
dickdipperer
dickdipperes
dickdippering
dickdipperly
dickdippers
dicked
dicker
dickes
dickface
dickfaceed
dickfaceer
dickfacees
dickfaceing
dickfacely
dickfaces
dickflipper
dickflippered
dickflipperer
dickflipperes
dickflippering
dickflipperly
dickflippers
dickhead
dickheaded
dickheader
dickheades
dickheading
dickheadly
dickheads
dickheadsed
dickheadser
dickheadses
dickheadsing
dickheadsly
dickheadss
dicking
dickish
dickished
dickisher
dickishes
dickishing
dickishly
dickishs
dickly
dickripper
dickrippered
dickripperer
dickripperes
dickrippering
dickripperly
dickrippers
dicks
dicksipper
dicksippered
dicksipperer
dicksipperes
dicksippering
dicksipperly
dicksippers
dickweed
dickweeded
dickweeder
dickweedes
dickweeding
dickweedly
dickweeds
dickwhipper
dickwhippered
dickwhipperer
dickwhipperes
dickwhippering
dickwhipperly
dickwhippers
dickzipper
dickzippered
dickzipperer
dickzipperes
dickzippering
dickzipperly
dickzippers
diddle
diddleed
diddleer
diddlees
diddleing
diddlely
diddles
dike
dikeed
dikeer
dikees
dikeing
dikely
dikes
dildo
dildoed
dildoer
dildoes
dildoing
dildoly
dildos
dildosed
dildoser
dildoses
dildosing
dildosly
dildoss
diligaf
diligafed
diligafer
diligafes
diligafing
diligafly
diligafs
dillweed
dillweeded
dillweeder
dillweedes
dillweeding
dillweedly
dillweeds
dimwit
dimwited
dimwiter
dimwites
dimwiting
dimwitly
dimwits
dingle
dingleed
dingleer
dinglees
dingleing
dinglely
dingles
dipship
dipshiped
dipshiper
dipshipes
dipshiping
dipshiply
dipships
dizzyed
dizzyer
dizzyes
dizzying
dizzyly
dizzys
doggiestyleed
doggiestyleer
doggiestylees
doggiestyleing
doggiestylely
doggiestyles
doggystyleed
doggystyleer
doggystylees
doggystyleing
doggystylely
doggystyles
dong
donged
donger
donges
donging
dongly
dongs
doofus
doofused
doofuser
doofuses
doofusing
doofusly
doofuss
doosh
dooshed
doosher
dooshes
dooshing
dooshly
dooshs
dopeyed
dopeyer
dopeyes
dopeying
dopeyly
dopeys
douchebag
douchebaged
douchebager
douchebages
douchebaging
douchebagly
douchebags
douchebagsed
douchebagser
douchebagses
douchebagsing
douchebagsly
douchebagss
doucheed
doucheer
douchees
doucheing
douchely
douches
douchey
doucheyed
doucheyer
doucheyes
doucheying
doucheyly
doucheys
drunk
drunked
drunker
drunkes
drunking
drunkly
drunks
dumass
dumassed
dumasser
dumasses
dumassing
dumassly
dumasss
dumbass
dumbassed
dumbasser
dumbasses
dumbassesed
dumbasseser
dumbasseses
dumbassesing
dumbassesly
dumbassess
dumbassing
dumbassly
dumbasss
dummy
dummyed
dummyer
dummyes
dummying
dummyly
dummys
dyke
dykeed
dykeer
dykees
dykeing
dykely
dykes
dykesed
dykeser
dykeses
dykesing
dykesly
dykess
erotic
eroticed
eroticer
erotices
eroticing
eroticly
erotics
extacy
extacyed
extacyer
extacyes
extacying
extacyly
extacys
extasy
extasyed
extasyer
extasyes
extasying
extasyly
extasys
fack
facked
facker
fackes
facking
fackly
facks
fag
faged
fager
fages
fagg
fagged
faggeded
faggeder
faggedes
faggeding
faggedly
faggeds
fagger
fagges
fagging
faggit
faggited
faggiter
faggites
faggiting
faggitly
faggits
faggly
faggot
faggoted
faggoter
faggotes
faggoting
faggotly
faggots
faggs
faging
fagly
fagot
fagoted
fagoter
fagotes
fagoting
fagotly
fagots
fags
fagsed
fagser
fagses
fagsing
fagsly
fagss
faig
faiged
faiger
faiges
faiging
faigly
faigs
faigt
faigted
faigter
faigtes
faigting
faigtly
faigts
fannybandit
fannybandited
fannybanditer
fannybandites
fannybanditing
fannybanditly
fannybandits
farted
farter
fartes
farting
fartknocker
fartknockered
fartknockerer
fartknockeres
fartknockering
fartknockerly
fartknockers
fartly
farts
felch
felched
felcher
felchered
felcherer
felcheres
felchering
felcherly
felchers
felches
felching
felchinged
felchinger
felchinges
felchinging
felchingly
felchings
felchly
felchs
fellate
fellateed
fellateer
fellatees
fellateing
fellately
fellates
fellatio
fellatioed
fellatioer
fellatioes
fellatioing
fellatioly
fellatios
feltch
feltched
feltcher
feltchered
feltcherer
feltcheres
feltchering
feltcherly
feltchers
feltches
feltching
feltchly
feltchs
feom
feomed
feomer
feomes
feoming
feomly
feoms
fisted
fisteded
fisteder
fistedes
fisteding
fistedly
fisteds
fisting
fistinged
fistinger
fistinges
fistinging
fistingly
fistings
fisty
fistyed
fistyer
fistyes
fistying
fistyly
fistys
floozy
floozyed
floozyer
floozyes
floozying
floozyly
floozys
foad
foaded
foader
foades
foading
foadly
foads
fondleed
fondleer
fondlees
fondleing
fondlely
fondles
foobar
foobared
foobarer
foobares
foobaring
foobarly
foobars
freex
freexed
freexer
freexes
freexing
freexly
freexs
frigg
frigga
friggaed
friggaer
friggaes
friggaing
friggaly
friggas
frigged
frigger
frigges
frigging
friggly
friggs
fubar
fubared
fubarer
fubares
fubaring
fubarly
fubars
fuck
fuckass
fuckassed
fuckasser
fuckasses
fuckassing
fuckassly
fuckasss
fucked
fuckeded
fuckeder
fuckedes
fuckeding
fuckedly
fuckeds
fucker
fuckered
fuckerer
fuckeres
fuckering
fuckerly
fuckers
fuckes
fuckface
fuckfaceed
fuckfaceer
fuckfacees
fuckfaceing
fuckfacely
fuckfaces
fuckin
fuckined
fuckiner
fuckines
fucking
fuckinged
fuckinger
fuckinges
fuckinging
fuckingly
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feom
fuck
gfc
humira AND expensive
illegal
madvocate
masturbation
nuccitelli
overdose
porn
shit
snort
texarkana
What does Liletta cost to non-340B providers?
“YOUR TEENAGE PATIENT AND CONTRACEPTION: THINK
‘LONG-ACTING’ FIRST”
DAVID R. KATTAN, MD, MPH, AND
RONALD T. BURKMAN, MD (SEPTEMBER 2015)
What does Liletta cost
to non-340B providers?
Drs. Kattan and Burkman state in their article: “For providers who practice in settings eligible for 340B pricing, Liletta costs $50, a fraction of the cost of alternative intrauterine devices (IUDs). The cost is slightly higher for non-340B providers but is still significantly lower than the cost of other IUDs.”
Could you provide a cost range and the source for the non-340B cost?
Sharon J. Hawthorne, MBA
St. Louis, Missouri
Drs. Kattan and Burkman respond:
Thank you for your question and for allowing us to clarify. The manufacturer of Liletta, Actavis, offers a Patient Savings Program for private insurance patients to limit their out-of-pocket cost to $75. This program will end on December 31, 2015. Information is available at http://www.lilettacard.com.
For non-340B providers, the cost per IUD is higher, although this should be reimbursed by the patient’s insurance program. After volume discounts, the price per device is as low as $537. Without volume discounts, the price per device is $600. For more information, visit: https://www.lilettahcp.com/content/pdf/LILETTA-Quick-Reference-Guide.pdf.
Medicines360, the nonprofit partner of Actavis, states the following on its Web site (http://medicines360.org/our-mission): “Through our pharmaceutical partnerships, commercial product sales help support an affordable price to public sector clinics. This allows low income women or those without insurance the opportunity to access more healthcare choices.”
“DOES PREOPERATIVE URODYNAMICS IMPROVE OUTCOMES FOR WOMEN UNDERGOING SURGERY FOR STRESS URINARY INCONTINENCE?”
CHARLES W. NAGER, MD
(EXAMINING THE EVIDENCE; AUGUST 2015)
Priorities for determining the etiology of incontinence
While I believe Dr. Nager’s approach accurately interprets current clinical evidence, it also reflects an inadequate paradigm. Whether or not incontinence surgery should be preceded by formal invasive urodynamic evaluation is not the question. As director of urodynamics at UConn, I understand that even the most advanced clinical urodynamics evaluation is limited in what it can measure. Nowhere in that data set is “determine the etiology of incontinence.” Therefore, the more appropriate question is: When should one consider
urodynamic evaluation before making a diagnosis requiring therapy? The answer: By prioritizing aspects of lower urinary tract function.
As recommended by the International Continence Society, the diagnosing physician actually must conduct the urodynamic testing. This physician’s first priority is to determine if the bladder can maintain low storage pressures. History and physical examination must include an acknowledgment of potential causes, including chronic urethral obstruction or failure of autonomic/sympathetic regulation. Yes, in an otherwise healthy 45-year-old vaginally parous woman with stress urinary incontinence (SUI) symptoms, it is unlikely that storage pressures aren’t normally regulated. It takes little office visit time to reach that conclusion.
The diagnosing physician’s second priority is to determine the actual functional size of the urinary reservoir. Only the bladder can expel urine actively. Is there a bladder diverticulum or reflux into the upper tracts augmenting the reservoir? Bladder/urethral function is about volume management, yet the sphincteric mechanism is not tolerant of very high volumes, even in “normal” patients. Knowing reservoir volumes when leakage occurs and the relationship of these volumes to perceptions of “empty” and “full” is critical to determining how to respond to sphincteric insufficiency that produces SUI symptoms. I agree that an otherwise healthy 45-year-old vaginally parous woman with SUI symptoms will have a problem here. However, if the diagnosing physician has any reason to doubt that the urinary reservoir has the same functionality as the bladder and that operational volumes are “normal,” then videourodynamic investigation is the most direct approach.
The third priority during evaluation is to determine how the reservoir empties. What is the source of the expulsive pressure of voiding? What is the interaction of the expulsive pressure and the urethral opening? How effectively does the bladder empty? In an otherwise healthy 45-year-old vaginally parous woman with SUI symptoms, it is unlikely that there is a problem, but if the physician doesn’t consider how this patient’s bladder empties, determining how the sphincter is stressed during storage and how the patient might respond to intervention is impossible. If normal efficient voiding by detrusor pressurization cannot be assured by office evaluation, then urodynamic examination, including a pressure/flow study, is necessary.
The last priority is to determine how the urine storage/emptying system is controlled. This is most important to the patient but least important for diagnosis. Often this can be deduced from a simple office evaluation that includes urinalysis, a voiding diary, standing stress test, possibly simple “office cystometry” (with a large Toomey syringe, a straight catheter, and saline solution), and the patient’s history. No aspect of this last priority requires invasive computerized urodynamics—unless the physician just cannot figure it out even after considering results of the first 3 steps.
Once these evaluative priorities have been completed, a diagnosis can be considered and treatment options determined. But only then.
Phillip P. Smith, MD
Farmington, Connecticut
Dr. Nager responds:
Dr. Smith provides a very nice review of what the bladder and urethra need to do. As he points out, the most appropriate question is: When should one consider urodynamic evaluation before making a diagnosis requiring therapy? Well, when a reliable diagnosis cannot be made by history, physical examination, and simple office tests.
The literature suggests that a neurologically normal woman without prolapse and without previous incontinence surgeries can receive a reliable diagnosis without urodynamic testing. If she demonstrates SUI on office stress testing, she is not storing urine normally and urodynamics will confirm urodynamic stress incontinence 97% of the time.1 If she voluntarily voids with a normal postvoid residual, her emptying function has been assessed and is normal.
I think Dr. Smith and I both agree that, “In an otherwise healthy 45-year-old vaginally parous woman with SUI symptoms, it is unlikely that there is a problem.” We also both agree that whenever the diagnosis is unclear, or the situation is complicated, urodynamic testing is a helpful tool to assess the bladder’s storage and emptying function. I perform urodynamics regularly in my practice; it just is not necessary before surgery in a woman without prolapse and without previous incontinence surgeries who demonstrates her SUI and has a normal urinalysis and normal postvoid residual. We seem to agree on that point also.
Reference
- Nager C, Brubaker L, Litman H, et al; Urinary Incontinence Treatment Network. A randomized trial of urodynamic testing before stress-incontinence surgery. N Engl J Med. 2012;366(21):1987–1997.
“UPDATE ON MENOPAUSE”
ANDREW M. KAUNITZ, MD (JUNE 2015)
Should Provera still be used?
Dr. Kaunitz provided an excellent review of the Women’s Health Initiative (WHI) study and a recent testosterone trial in women in his update on hormone therapy in menopause.
After the WHI revealed differences between the estrogen-alone and estrogen–progestin study arms, implicating medroxyprogesterone acetate for increased risk of breast cancer, why is Provera still being advocated by the American College of Obstetricians and Gynecologists as a progestin safe for use in menopause?
Kathleen Norman, MD
Phoenix, Arizona
Dr. Barbieri responds:
Many insurance formularies favor the use of Provera because it is inexpensive. I try to avoid using it in my practice. Many experts do not yet diligently avoid the use of Provera; some are worried about the cost impact for patients.
For additional information on reducing the use of Provera, see my July 2014 editorial, “Hormone therapy for menopausal vasomotor symptoms,” at obgmanagement.com.
Dr. Kaunitz responds:
My preference is to use micronized oral progesterone (formulated in peanut oil) for endometrial protection in menopausal women using estrogen. I use progesterone 100 mg nightly in women taking standard-dose estrogen (estradiol patch 0.05 mg, oral estradiol 1 mg, or conjugated equine estrogen 0.625 mg). However, some patients request generic medroxyprogesterone acetate because it is so inexpensive (often $4 each month).
Share your thoughts on this article! Send your Letter to the Editor to rbarbieri@frontlinemedcom.com. Please include your name and the city and state in which you practice.
“YOUR TEENAGE PATIENT AND CONTRACEPTION: THINK
‘LONG-ACTING’ FIRST”
DAVID R. KATTAN, MD, MPH, AND
RONALD T. BURKMAN, MD (SEPTEMBER 2015)
What does Liletta cost
to non-340B providers?
Drs. Kattan and Burkman state in their article: “For providers who practice in settings eligible for 340B pricing, Liletta costs $50, a fraction of the cost of alternative intrauterine devices (IUDs). The cost is slightly higher for non-340B providers but is still significantly lower than the cost of other IUDs.”
Could you provide a cost range and the source for the non-340B cost?
Sharon J. Hawthorne, MBA
St. Louis, Missouri
Drs. Kattan and Burkman respond:
Thank you for your question and for allowing us to clarify. The manufacturer of Liletta, Actavis, offers a Patient Savings Program for private insurance patients to limit their out-of-pocket cost to $75. This program will end on December 31, 2015. Information is available at http://www.lilettacard.com.
For non-340B providers, the cost per IUD is higher, although this should be reimbursed by the patient’s insurance program. After volume discounts, the price per device is as low as $537. Without volume discounts, the price per device is $600. For more information, visit: https://www.lilettahcp.com/content/pdf/LILETTA-Quick-Reference-Guide.pdf.
Medicines360, the nonprofit partner of Actavis, states the following on its Web site (http://medicines360.org/our-mission): “Through our pharmaceutical partnerships, commercial product sales help support an affordable price to public sector clinics. This allows low income women or those without insurance the opportunity to access more healthcare choices.”
“DOES PREOPERATIVE URODYNAMICS IMPROVE OUTCOMES FOR WOMEN UNDERGOING SURGERY FOR STRESS URINARY INCONTINENCE?”
CHARLES W. NAGER, MD
(EXAMINING THE EVIDENCE; AUGUST 2015)
Priorities for determining the etiology of incontinence
While I believe Dr. Nager’s approach accurately interprets current clinical evidence, it also reflects an inadequate paradigm. Whether or not incontinence surgery should be preceded by formal invasive urodynamic evaluation is not the question. As director of urodynamics at UConn, I understand that even the most advanced clinical urodynamics evaluation is limited in what it can measure. Nowhere in that data set is “determine the etiology of incontinence.” Therefore, the more appropriate question is: When should one consider
urodynamic evaluation before making a diagnosis requiring therapy? The answer: By prioritizing aspects of lower urinary tract function.
As recommended by the International Continence Society, the diagnosing physician actually must conduct the urodynamic testing. This physician’s first priority is to determine if the bladder can maintain low storage pressures. History and physical examination must include an acknowledgment of potential causes, including chronic urethral obstruction or failure of autonomic/sympathetic regulation. Yes, in an otherwise healthy 45-year-old vaginally parous woman with stress urinary incontinence (SUI) symptoms, it is unlikely that storage pressures aren’t normally regulated. It takes little office visit time to reach that conclusion.
The diagnosing physician’s second priority is to determine the actual functional size of the urinary reservoir. Only the bladder can expel urine actively. Is there a bladder diverticulum or reflux into the upper tracts augmenting the reservoir? Bladder/urethral function is about volume management, yet the sphincteric mechanism is not tolerant of very high volumes, even in “normal” patients. Knowing reservoir volumes when leakage occurs and the relationship of these volumes to perceptions of “empty” and “full” is critical to determining how to respond to sphincteric insufficiency that produces SUI symptoms. I agree that an otherwise healthy 45-year-old vaginally parous woman with SUI symptoms will have a problem here. However, if the diagnosing physician has any reason to doubt that the urinary reservoir has the same functionality as the bladder and that operational volumes are “normal,” then videourodynamic investigation is the most direct approach.
The third priority during evaluation is to determine how the reservoir empties. What is the source of the expulsive pressure of voiding? What is the interaction of the expulsive pressure and the urethral opening? How effectively does the bladder empty? In an otherwise healthy 45-year-old vaginally parous woman with SUI symptoms, it is unlikely that there is a problem, but if the physician doesn’t consider how this patient’s bladder empties, determining how the sphincter is stressed during storage and how the patient might respond to intervention is impossible. If normal efficient voiding by detrusor pressurization cannot be assured by office evaluation, then urodynamic examination, including a pressure/flow study, is necessary.
The last priority is to determine how the urine storage/emptying system is controlled. This is most important to the patient but least important for diagnosis. Often this can be deduced from a simple office evaluation that includes urinalysis, a voiding diary, standing stress test, possibly simple “office cystometry” (with a large Toomey syringe, a straight catheter, and saline solution), and the patient’s history. No aspect of this last priority requires invasive computerized urodynamics—unless the physician just cannot figure it out even after considering results of the first 3 steps.
Once these evaluative priorities have been completed, a diagnosis can be considered and treatment options determined. But only then.
Phillip P. Smith, MD
Farmington, Connecticut
Dr. Nager responds:
Dr. Smith provides a very nice review of what the bladder and urethra need to do. As he points out, the most appropriate question is: When should one consider urodynamic evaluation before making a diagnosis requiring therapy? Well, when a reliable diagnosis cannot be made by history, physical examination, and simple office tests.
The literature suggests that a neurologically normal woman without prolapse and without previous incontinence surgeries can receive a reliable diagnosis without urodynamic testing. If she demonstrates SUI on office stress testing, she is not storing urine normally and urodynamics will confirm urodynamic stress incontinence 97% of the time.1 If she voluntarily voids with a normal postvoid residual, her emptying function has been assessed and is normal.
I think Dr. Smith and I both agree that, “In an otherwise healthy 45-year-old vaginally parous woman with SUI symptoms, it is unlikely that there is a problem.” We also both agree that whenever the diagnosis is unclear, or the situation is complicated, urodynamic testing is a helpful tool to assess the bladder’s storage and emptying function. I perform urodynamics regularly in my practice; it just is not necessary before surgery in a woman without prolapse and without previous incontinence surgeries who demonstrates her SUI and has a normal urinalysis and normal postvoid residual. We seem to agree on that point also.
Reference
- Nager C, Brubaker L, Litman H, et al; Urinary Incontinence Treatment Network. A randomized trial of urodynamic testing before stress-incontinence surgery. N Engl J Med. 2012;366(21):1987–1997.
“UPDATE ON MENOPAUSE”
ANDREW M. KAUNITZ, MD (JUNE 2015)
Should Provera still be used?
Dr. Kaunitz provided an excellent review of the Women’s Health Initiative (WHI) study and a recent testosterone trial in women in his update on hormone therapy in menopause.
After the WHI revealed differences between the estrogen-alone and estrogen–progestin study arms, implicating medroxyprogesterone acetate for increased risk of breast cancer, why is Provera still being advocated by the American College of Obstetricians and Gynecologists as a progestin safe for use in menopause?
Kathleen Norman, MD
Phoenix, Arizona
Dr. Barbieri responds:
Many insurance formularies favor the use of Provera because it is inexpensive. I try to avoid using it in my practice. Many experts do not yet diligently avoid the use of Provera; some are worried about the cost impact for patients.
For additional information on reducing the use of Provera, see my July 2014 editorial, “Hormone therapy for menopausal vasomotor symptoms,” at obgmanagement.com.
Dr. Kaunitz responds:
My preference is to use micronized oral progesterone (formulated in peanut oil) for endometrial protection in menopausal women using estrogen. I use progesterone 100 mg nightly in women taking standard-dose estrogen (estradiol patch 0.05 mg, oral estradiol 1 mg, or conjugated equine estrogen 0.625 mg). However, some patients request generic medroxyprogesterone acetate because it is so inexpensive (often $4 each month).
Share your thoughts on this article! Send your Letter to the Editor to rbarbieri@frontlinemedcom.com. Please include your name and the city and state in which you practice.
“YOUR TEENAGE PATIENT AND CONTRACEPTION: THINK
‘LONG-ACTING’ FIRST”
DAVID R. KATTAN, MD, MPH, AND
RONALD T. BURKMAN, MD (SEPTEMBER 2015)
What does Liletta cost
to non-340B providers?
Drs. Kattan and Burkman state in their article: “For providers who practice in settings eligible for 340B pricing, Liletta costs $50, a fraction of the cost of alternative intrauterine devices (IUDs). The cost is slightly higher for non-340B providers but is still significantly lower than the cost of other IUDs.”
Could you provide a cost range and the source for the non-340B cost?
Sharon J. Hawthorne, MBA
St. Louis, Missouri
Drs. Kattan and Burkman respond:
Thank you for your question and for allowing us to clarify. The manufacturer of Liletta, Actavis, offers a Patient Savings Program for private insurance patients to limit their out-of-pocket cost to $75. This program will end on December 31, 2015. Information is available at http://www.lilettacard.com.
For non-340B providers, the cost per IUD is higher, although this should be reimbursed by the patient’s insurance program. After volume discounts, the price per device is as low as $537. Without volume discounts, the price per device is $600. For more information, visit: https://www.lilettahcp.com/content/pdf/LILETTA-Quick-Reference-Guide.pdf.
Medicines360, the nonprofit partner of Actavis, states the following on its Web site (http://medicines360.org/our-mission): “Through our pharmaceutical partnerships, commercial product sales help support an affordable price to public sector clinics. This allows low income women or those without insurance the opportunity to access more healthcare choices.”
“DOES PREOPERATIVE URODYNAMICS IMPROVE OUTCOMES FOR WOMEN UNDERGOING SURGERY FOR STRESS URINARY INCONTINENCE?”
CHARLES W. NAGER, MD
(EXAMINING THE EVIDENCE; AUGUST 2015)
Priorities for determining the etiology of incontinence
While I believe Dr. Nager’s approach accurately interprets current clinical evidence, it also reflects an inadequate paradigm. Whether or not incontinence surgery should be preceded by formal invasive urodynamic evaluation is not the question. As director of urodynamics at UConn, I understand that even the most advanced clinical urodynamics evaluation is limited in what it can measure. Nowhere in that data set is “determine the etiology of incontinence.” Therefore, the more appropriate question is: When should one consider
urodynamic evaluation before making a diagnosis requiring therapy? The answer: By prioritizing aspects of lower urinary tract function.
As recommended by the International Continence Society, the diagnosing physician actually must conduct the urodynamic testing. This physician’s first priority is to determine if the bladder can maintain low storage pressures. History and physical examination must include an acknowledgment of potential causes, including chronic urethral obstruction or failure of autonomic/sympathetic regulation. Yes, in an otherwise healthy 45-year-old vaginally parous woman with stress urinary incontinence (SUI) symptoms, it is unlikely that storage pressures aren’t normally regulated. It takes little office visit time to reach that conclusion.
The diagnosing physician’s second priority is to determine the actual functional size of the urinary reservoir. Only the bladder can expel urine actively. Is there a bladder diverticulum or reflux into the upper tracts augmenting the reservoir? Bladder/urethral function is about volume management, yet the sphincteric mechanism is not tolerant of very high volumes, even in “normal” patients. Knowing reservoir volumes when leakage occurs and the relationship of these volumes to perceptions of “empty” and “full” is critical to determining how to respond to sphincteric insufficiency that produces SUI symptoms. I agree that an otherwise healthy 45-year-old vaginally parous woman with SUI symptoms will have a problem here. However, if the diagnosing physician has any reason to doubt that the urinary reservoir has the same functionality as the bladder and that operational volumes are “normal,” then videourodynamic investigation is the most direct approach.
The third priority during evaluation is to determine how the reservoir empties. What is the source of the expulsive pressure of voiding? What is the interaction of the expulsive pressure and the urethral opening? How effectively does the bladder empty? In an otherwise healthy 45-year-old vaginally parous woman with SUI symptoms, it is unlikely that there is a problem, but if the physician doesn’t consider how this patient’s bladder empties, determining how the sphincter is stressed during storage and how the patient might respond to intervention is impossible. If normal efficient voiding by detrusor pressurization cannot be assured by office evaluation, then urodynamic examination, including a pressure/flow study, is necessary.
The last priority is to determine how the urine storage/emptying system is controlled. This is most important to the patient but least important for diagnosis. Often this can be deduced from a simple office evaluation that includes urinalysis, a voiding diary, standing stress test, possibly simple “office cystometry” (with a large Toomey syringe, a straight catheter, and saline solution), and the patient’s history. No aspect of this last priority requires invasive computerized urodynamics—unless the physician just cannot figure it out even after considering results of the first 3 steps.
Once these evaluative priorities have been completed, a diagnosis can be considered and treatment options determined. But only then.
Phillip P. Smith, MD
Farmington, Connecticut
Dr. Nager responds:
Dr. Smith provides a very nice review of what the bladder and urethra need to do. As he points out, the most appropriate question is: When should one consider urodynamic evaluation before making a diagnosis requiring therapy? Well, when a reliable diagnosis cannot be made by history, physical examination, and simple office tests.
The literature suggests that a neurologically normal woman without prolapse and without previous incontinence surgeries can receive a reliable diagnosis without urodynamic testing. If she demonstrates SUI on office stress testing, she is not storing urine normally and urodynamics will confirm urodynamic stress incontinence 97% of the time.1 If she voluntarily voids with a normal postvoid residual, her emptying function has been assessed and is normal.
I think Dr. Smith and I both agree that, “In an otherwise healthy 45-year-old vaginally parous woman with SUI symptoms, it is unlikely that there is a problem.” We also both agree that whenever the diagnosis is unclear, or the situation is complicated, urodynamic testing is a helpful tool to assess the bladder’s storage and emptying function. I perform urodynamics regularly in my practice; it just is not necessary before surgery in a woman without prolapse and without previous incontinence surgeries who demonstrates her SUI and has a normal urinalysis and normal postvoid residual. We seem to agree on that point also.
Reference
- Nager C, Brubaker L, Litman H, et al; Urinary Incontinence Treatment Network. A randomized trial of urodynamic testing before stress-incontinence surgery. N Engl J Med. 2012;366(21):1987–1997.
“UPDATE ON MENOPAUSE”
ANDREW M. KAUNITZ, MD (JUNE 2015)
Should Provera still be used?
Dr. Kaunitz provided an excellent review of the Women’s Health Initiative (WHI) study and a recent testosterone trial in women in his update on hormone therapy in menopause.
After the WHI revealed differences between the estrogen-alone and estrogen–progestin study arms, implicating medroxyprogesterone acetate for increased risk of breast cancer, why is Provera still being advocated by the American College of Obstetricians and Gynecologists as a progestin safe for use in menopause?
Kathleen Norman, MD
Phoenix, Arizona
Dr. Barbieri responds:
Many insurance formularies favor the use of Provera because it is inexpensive. I try to avoid using it in my practice. Many experts do not yet diligently avoid the use of Provera; some are worried about the cost impact for patients.
For additional information on reducing the use of Provera, see my July 2014 editorial, “Hormone therapy for menopausal vasomotor symptoms,” at obgmanagement.com.
Dr. Kaunitz responds:
My preference is to use micronized oral progesterone (formulated in peanut oil) for endometrial protection in menopausal women using estrogen. I use progesterone 100 mg nightly in women taking standard-dose estrogen (estradiol patch 0.05 mg, oral estradiol 1 mg, or conjugated equine estrogen 0.625 mg). However, some patients request generic medroxyprogesterone acetate because it is so inexpensive (often $4 each month).
Share your thoughts on this article! Send your Letter to the Editor to rbarbieri@frontlinemedcom.com. Please include your name and the city and state in which you practice.
What you should know about the latest change in mammography screening guidelines
When the American Cancer Society (ACS) updated its guidelines for screening mammography earlier this week,1 the effect was that of a stone being tossed into a tranquil pond, generating ripples in all directions.
The new guidelines focus on women at average risk for breast cancer (TABLE 1) and were updated for the first time since 2003, based on new evidence, a new emphasis on eliminating as many screening harms as possible, and a goal of “supporting the interplay among values, preferences, informed decision making, and recommendations.”1 Earlier ACS guidelines recommended annual screening starting at age 40.
TABLE 1 What constitutes “average risk” of breast cancer?
|
The new guidelines are graded according to the strength of the rec ommendation as being either “strong” or “qualified.” The ACS defines a “strong” recommendation as one that most individuals should follow. “Adherence to this recommendation according to the guideline could be used as a quality criterion or performance indicator,” the guidelines note.1
A “qualified” recommendation indicates that “Clinicians should acknowledge that different choices will be appropriate for different patients and that clinicians must help each patient arrive at a management decision consistent with her or his values and preferences.”1
The recommendations are:
- Regular screening mammography should start at age 45 years (strong recommendation)
- Screening should be annual in women aged 45 to 54 years (qualified recommendation)
- Screening should shift to biennial intervals at age 55, unless the patient prefers to continue screening annually (qualified recommendation)
- Women who desire to initiate annual screening between the ages of 40 and 44 years should be accommodated (qualified recommendation)
- Screening mammography should continue as long as the woman is in good health and has a life expectancy of at least 10 years (qualified recommendation)
- Clinical breast examination (CBE) is not recommended at any age (qualified recommendation).1
ACOG weighs in
Shortly after publication of the new ACS guidelines, the American College of Obstetricians and Gynecologists (ACOG) issued a formal statement in response2:
Response of the USPSTF
The US Preventive Services Task Force (USPSTF) also issued a statement in response to the new ACS guidelines:
The USPSTF currently recommends biennial screening beginning at age 50.
A leader in breast health cites pros and cons of ACS recommendations
Mark Pearlman, MD, professor of obstetrics and gynecology at the University of Michigan health system, is a nationally recognized expert on breast cancer screening. He sits on the National Comprehensive Cancer Network (NCCN) breast cancer screening and diagnosis group, helped author ACOG guidelines on mammography screening, and serves as a Contributing Editor to OBG Management.
“I believe the overall ACS mammography benefit evidence synthesis is reasonable and is in keeping with both NCCN and ACOG’s current recommendations. NCCN and ACOG mammography screening recommendations have both valued lives saved more highly than the ‘harms’ such as recalls and needle biopsies,” Dr. Pearlman says.
“If one combines ACS ‘strong’ and ‘qualified’ recommendations, ACS recommendations are similar to current ACOG and NCCN recommendations for mammography,” he adds.
Dr. Pearlman finds 7 areas of agreement between NCCN/ACOG and ACS recommendations, using both strong and qualified recommendations:
- “They reaffirm that screening from age 40 to 69 years is associated with a reduction in breast cancer deaths.
- They support annual screening for women in their 40s [although the ACS’ ‘strong’ recommendation is that regular screening begin at age 45 instead of 40].
- They support screening for women 70 and older who are in good health (10-year life expectancy).
- They support the finding that annual screening yields a larger mortality reduction than biennial screening.
- They confirm much uncertainty about the “over-diagnosis/overtreatment” issue.
- They endorse insurance coverage at all ages and intervals of screening (not just USPSTF ‘A’ or ‘B’ recommendations).
- They involve the patient in informed decision making.”
Where the ACS and ACOG/NCCN disagree is over the issue of the physical exam (abandoning CBE in average-risk women).
In regard to this last item, Dr. Pearlman says, “The ACS made a qualified recommendation against clinical breast exam. There is no high-level data to support such a marked change in practice. For example, when recommendations against breast self-examinations (BSE) were made, there were randomized controlled trials (RCTs) showing a lack of benefit and significant harms with BSE. With RCT-level data, it made sense to make a recommendation against the long-taught practice of SBE in average-risk women. That was not the case here. In fact, there are small amounts of data showing benefits of clinical breast exam.”
“One of my biggest concerns is not just the recommendation against CBE,” says Dr. Pearlman, “but that this may lead many women to interpret [this statement] as if they do not need to see their health care provider anymore. As you may recall, the American College of Physicians (ACP) recommended against annual pelvic examinations in asymptomatic patients. The ACS recommendation statement—taken together with the ACP statement—basically suggests that average-risk women don’t ever need to see a provider for a pelvic or breast examination except every 5 years for a Pap smear. That thinking does not recognize the importance of the clinical encounter (not just the CBE or pelvic exam), which is the opportunity to perform risk assessment and provide risk-reduction recommendations and healthy lifestyle recommendations.”
Radiologists resist new recommendations
Although the American College of Radiology (ACR) and the Society of Breast Imaging (SBI) agree with the ACS that mammography screening saves lives and should be available to women aged 40 and older, the 2 imaging organizations continue to recommend that annual screening begin at age 40. Their rationale: The latest ACS breast cancer screening guidelines, and earlier data used by the USPSTF to create its recommendations, both note that starting annual mammography at age 40 “saves the most lives.”
Where the organizations differ from the ACR is summed up by a formal statement on the ACR Web site: “The ACR and SBI strongly encourage women to obtain the maximum lifesaving benefits from mammography by continuing to get annual screening.”4
When OBG Management touched base with radiologist Barbara Monsees, MD, professor of radiology and Evens Professor of Women’s Health at Washington University Medical Center in St. Louis, Missouri, she expressed dismay at early news reports on the ACS guidelines.
“I’m dismayed that the headlines don’t seem to correlate with what the ACS actually recommended. The ACS did not state that women should wait until age 45 to begin screening. I believe the ACS was going for a more nuanced approach, but since that’s a bit complicated, I think that reporters have misconstrued what was intended,” Dr. Monsees says.
“The ACS guideline says that women between 40 and 44 years should have the opportunity to begin annual screening,” she says, noting that this recommendation was graded as “qualified.”
“The ACS states that a qualified recommendation indicates that ‘there is clear evidence of benefit of screening, but less certainty about the balance of benefits and harms, or about patients’ values and preferences, which could lead to different decisions about screening.’” The guideline also articulates the view “that the meaning of a qualified recommendation for patients is that the ‘majority of individuals in this situation would want the suggested course of action, but many would not.’ Therefore, I find it mind-boggling that this has been interpreted to mean that women should not begin screening until age 45.”1
“It is my opinion that it is clear that if women want to achieve the most lifesaving benefit from screening, they should adhere to a schedule of yearly mammograms beginning at age 40,” says Dr. Monsees. However, she also agrees with the ACS notation that clinicians should acknowledge that “different choices will be appropriate for different patients and that clinicians must help each patient arrive at a management decision consistent with her values and preferences.”1
The word from an expert ObGyn
“By changing its guidance to begin screening at age 45 instead of 40, and in recommending biennial rather than annual screens in women 55 years of age and older, the updated ACS guidance will reduce harms (overdiagnosis and unnecessary additional imaging and biopsies) and moves closer to USPSTF guidance,” says Andrew M. Kaunitz, MD. He is University of Florida Research Foundation Professor and Associate Chairman, Department of Obstetrics and Gynecology, at the University of Florida College of Medicine–Jacksonville. He also serves on the OBG Management Board of Editors.
“As one editorialist points out, the ACS recommendation that women begin screening at age 45 years is based on observational comparisons of screened and unscreened cohorts—a type of analysis which the USPSTF does not consider due to concerns regarding bias,” notes Dr. Kaunitz.5
“The ACS recommendation for annual screening in women aged 45 to 54 is largely based on the findings of a report showing that, for premenopausal (but not postmenopausal) women, tumor stage was higher and size larger for screen-detected lesions among women undergoing biennial screens."6
As for the recommendation against screening CBE, Dr. Kaunitz considers that “a dramatic change from prior guidance. It is based on the absence of data finding benefits with CBE (alone or with screening mammography). Furthermore, the updated ACS guidance does not change its 2003 guidance, which does not support routine performance of or instruction regarding SBE.”
“These updated ACS guidelines should result in more women starting screening mammograms later in life, and they endorse biennial screening for many women, meaning that patients following ACS guidance will have fewer lifetime screens than with earlier recommendations,” says Dr. Kaunitz.
“Another plus is that performing fewer breast examinations during well-woman visits will allow us more time to assess family history and other risk factors for breast cancer, and to discuss screening recommendations.”
The bottom line
What is one to make of the many viewpoints on screening? For now, it probably is best to adhere to either the new ACS guidelines or current ACOG guidelines (TABLE 2), says OBG Management Editor in Chief Robert L. Barbieri, MD. He is chief of the Department of Obstetrics and Gynecology at Brigham and Women’s Hospital in Boston, and Kate Macy Ladd Professor of Obstetrics, Gynecology, and Reproductive Biology at Harvard Medical School.
TABLE 2 What are ACOG’s current recommendations?
|
ACOG recommends screening mammography every year for women starting at age 40. ACOG also states that “breast self-awareness has the potential to detect palpable breast cancer and can be recommended”; it also recommends CBE every year for women aged 19 or older.
These recommendations may change early next year, after ACOG convenes a consensus conference on the subject. The aim: “To develop a consistent set of uniform guidelines for breast cancer screening that can be implemented nationwide. Major organizations and providers of women’s health care, including ACS, will gather to evaluate and interpret the data in greater detail.”2
Share your thoughts! Send your Letter to the Editor to rbarbieri@frontlinemedcom.com. Please include your name and the city and state in which you practice.
- Oeffinger KC, Fontham ET, Etzioni R, et al. Breast cancer screening for women at average risk. 2015 guideline update from the American Cancer Society. JAMA. 2015;314(15):1599–1614.
- American College of Obstetricians and Gynecologists. ACOG Statement on Revised American Cancer Society Recommendations on Breast Cancer Screening. http://www.acog.org/About-ACOG/News-Room/Statements/2015/ACOG-Statement-on-Recommendations-on-Breast-Cancer-Screening. Published October 20, 2015. Accessed October 20, 2015.
- US Preventive Services Task Force. Email communication, USPSTF Newsroom, October 20, 2015.
- American College of Radiology. News Release: ACR and SBI Continue to Recommend Regular Mammography Starting at Age 40. http://www.acr.org/About-Us/Media-Center/Press-Releases/2015-Press-Releases/20151020-ACR-SBI-Recommend-Mammography-at-Age-40. Published October 20, 2015. Accessed October 21, 2015.
- Kerlikowske K. Progress toward consensus on breast cancer screening guidelines and reducing screening harms [published online ahead of print October 20, 2015]. JAMA Intern Med. doi:10.1001/jamainternmed.2015.6466.
- Miglioretti DL, Zhu W, Kerlikowske K, et al; Breast Cancer Surveillance Consortium. Breast tumor prognostic characteristics and biennial vs annual mammography, age, and menopausal status [published online ahead of print October 20, 2015]. JAMA. doi:10.1001/jamaoncol.2015.3084.
When the American Cancer Society (ACS) updated its guidelines for screening mammography earlier this week,1 the effect was that of a stone being tossed into a tranquil pond, generating ripples in all directions.
The new guidelines focus on women at average risk for breast cancer (TABLE 1) and were updated for the first time since 2003, based on new evidence, a new emphasis on eliminating as many screening harms as possible, and a goal of “supporting the interplay among values, preferences, informed decision making, and recommendations.”1 Earlier ACS guidelines recommended annual screening starting at age 40.
TABLE 1 What constitutes “average risk” of breast cancer?
|
The new guidelines are graded according to the strength of the rec ommendation as being either “strong” or “qualified.” The ACS defines a “strong” recommendation as one that most individuals should follow. “Adherence to this recommendation according to the guideline could be used as a quality criterion or performance indicator,” the guidelines note.1
A “qualified” recommendation indicates that “Clinicians should acknowledge that different choices will be appropriate for different patients and that clinicians must help each patient arrive at a management decision consistent with her or his values and preferences.”1
The recommendations are:
- Regular screening mammography should start at age 45 years (strong recommendation)
- Screening should be annual in women aged 45 to 54 years (qualified recommendation)
- Screening should shift to biennial intervals at age 55, unless the patient prefers to continue screening annually (qualified recommendation)
- Women who desire to initiate annual screening between the ages of 40 and 44 years should be accommodated (qualified recommendation)
- Screening mammography should continue as long as the woman is in good health and has a life expectancy of at least 10 years (qualified recommendation)
- Clinical breast examination (CBE) is not recommended at any age (qualified recommendation).1
ACOG weighs in
Shortly after publication of the new ACS guidelines, the American College of Obstetricians and Gynecologists (ACOG) issued a formal statement in response2:
Response of the USPSTF
The US Preventive Services Task Force (USPSTF) also issued a statement in response to the new ACS guidelines:
The USPSTF currently recommends biennial screening beginning at age 50.
A leader in breast health cites pros and cons of ACS recommendations
Mark Pearlman, MD, professor of obstetrics and gynecology at the University of Michigan health system, is a nationally recognized expert on breast cancer screening. He sits on the National Comprehensive Cancer Network (NCCN) breast cancer screening and diagnosis group, helped author ACOG guidelines on mammography screening, and serves as a Contributing Editor to OBG Management.
“I believe the overall ACS mammography benefit evidence synthesis is reasonable and is in keeping with both NCCN and ACOG’s current recommendations. NCCN and ACOG mammography screening recommendations have both valued lives saved more highly than the ‘harms’ such as recalls and needle biopsies,” Dr. Pearlman says.
“If one combines ACS ‘strong’ and ‘qualified’ recommendations, ACS recommendations are similar to current ACOG and NCCN recommendations for mammography,” he adds.
Dr. Pearlman finds 7 areas of agreement between NCCN/ACOG and ACS recommendations, using both strong and qualified recommendations:
- “They reaffirm that screening from age 40 to 69 years is associated with a reduction in breast cancer deaths.
- They support annual screening for women in their 40s [although the ACS’ ‘strong’ recommendation is that regular screening begin at age 45 instead of 40].
- They support screening for women 70 and older who are in good health (10-year life expectancy).
- They support the finding that annual screening yields a larger mortality reduction than biennial screening.
- They confirm much uncertainty about the “over-diagnosis/overtreatment” issue.
- They endorse insurance coverage at all ages and intervals of screening (not just USPSTF ‘A’ or ‘B’ recommendations).
- They involve the patient in informed decision making.”
Where the ACS and ACOG/NCCN disagree is over the issue of the physical exam (abandoning CBE in average-risk women).
In regard to this last item, Dr. Pearlman says, “The ACS made a qualified recommendation against clinical breast exam. There is no high-level data to support such a marked change in practice. For example, when recommendations against breast self-examinations (BSE) were made, there were randomized controlled trials (RCTs) showing a lack of benefit and significant harms with BSE. With RCT-level data, it made sense to make a recommendation against the long-taught practice of SBE in average-risk women. That was not the case here. In fact, there are small amounts of data showing benefits of clinical breast exam.”
“One of my biggest concerns is not just the recommendation against CBE,” says Dr. Pearlman, “but that this may lead many women to interpret [this statement] as if they do not need to see their health care provider anymore. As you may recall, the American College of Physicians (ACP) recommended against annual pelvic examinations in asymptomatic patients. The ACS recommendation statement—taken together with the ACP statement—basically suggests that average-risk women don’t ever need to see a provider for a pelvic or breast examination except every 5 years for a Pap smear. That thinking does not recognize the importance of the clinical encounter (not just the CBE or pelvic exam), which is the opportunity to perform risk assessment and provide risk-reduction recommendations and healthy lifestyle recommendations.”
Radiologists resist new recommendations
Although the American College of Radiology (ACR) and the Society of Breast Imaging (SBI) agree with the ACS that mammography screening saves lives and should be available to women aged 40 and older, the 2 imaging organizations continue to recommend that annual screening begin at age 40. Their rationale: The latest ACS breast cancer screening guidelines, and earlier data used by the USPSTF to create its recommendations, both note that starting annual mammography at age 40 “saves the most lives.”
Where the organizations differ from the ACR is summed up by a formal statement on the ACR Web site: “The ACR and SBI strongly encourage women to obtain the maximum lifesaving benefits from mammography by continuing to get annual screening.”4
When OBG Management touched base with radiologist Barbara Monsees, MD, professor of radiology and Evens Professor of Women’s Health at Washington University Medical Center in St. Louis, Missouri, she expressed dismay at early news reports on the ACS guidelines.
“I’m dismayed that the headlines don’t seem to correlate with what the ACS actually recommended. The ACS did not state that women should wait until age 45 to begin screening. I believe the ACS was going for a more nuanced approach, but since that’s a bit complicated, I think that reporters have misconstrued what was intended,” Dr. Monsees says.
“The ACS guideline says that women between 40 and 44 years should have the opportunity to begin annual screening,” she says, noting that this recommendation was graded as “qualified.”
“The ACS states that a qualified recommendation indicates that ‘there is clear evidence of benefit of screening, but less certainty about the balance of benefits and harms, or about patients’ values and preferences, which could lead to different decisions about screening.’” The guideline also articulates the view “that the meaning of a qualified recommendation for patients is that the ‘majority of individuals in this situation would want the suggested course of action, but many would not.’ Therefore, I find it mind-boggling that this has been interpreted to mean that women should not begin screening until age 45.”1
“It is my opinion that it is clear that if women want to achieve the most lifesaving benefit from screening, they should adhere to a schedule of yearly mammograms beginning at age 40,” says Dr. Monsees. However, she also agrees with the ACS notation that clinicians should acknowledge that “different choices will be appropriate for different patients and that clinicians must help each patient arrive at a management decision consistent with her values and preferences.”1
The word from an expert ObGyn
“By changing its guidance to begin screening at age 45 instead of 40, and in recommending biennial rather than annual screens in women 55 years of age and older, the updated ACS guidance will reduce harms (overdiagnosis and unnecessary additional imaging and biopsies) and moves closer to USPSTF guidance,” says Andrew M. Kaunitz, MD. He is University of Florida Research Foundation Professor and Associate Chairman, Department of Obstetrics and Gynecology, at the University of Florida College of Medicine–Jacksonville. He also serves on the OBG Management Board of Editors.
“As one editorialist points out, the ACS recommendation that women begin screening at age 45 years is based on observational comparisons of screened and unscreened cohorts—a type of analysis which the USPSTF does not consider due to concerns regarding bias,” notes Dr. Kaunitz.5
“The ACS recommendation for annual screening in women aged 45 to 54 is largely based on the findings of a report showing that, for premenopausal (but not postmenopausal) women, tumor stage was higher and size larger for screen-detected lesions among women undergoing biennial screens."6
As for the recommendation against screening CBE, Dr. Kaunitz considers that “a dramatic change from prior guidance. It is based on the absence of data finding benefits with CBE (alone or with screening mammography). Furthermore, the updated ACS guidance does not change its 2003 guidance, which does not support routine performance of or instruction regarding SBE.”
“These updated ACS guidelines should result in more women starting screening mammograms later in life, and they endorse biennial screening for many women, meaning that patients following ACS guidance will have fewer lifetime screens than with earlier recommendations,” says Dr. Kaunitz.
“Another plus is that performing fewer breast examinations during well-woman visits will allow us more time to assess family history and other risk factors for breast cancer, and to discuss screening recommendations.”
The bottom line
What is one to make of the many viewpoints on screening? For now, it probably is best to adhere to either the new ACS guidelines or current ACOG guidelines (TABLE 2), says OBG Management Editor in Chief Robert L. Barbieri, MD. He is chief of the Department of Obstetrics and Gynecology at Brigham and Women’s Hospital in Boston, and Kate Macy Ladd Professor of Obstetrics, Gynecology, and Reproductive Biology at Harvard Medical School.
TABLE 2 What are ACOG’s current recommendations?
|
ACOG recommends screening mammography every year for women starting at age 40. ACOG also states that “breast self-awareness has the potential to detect palpable breast cancer and can be recommended”; it also recommends CBE every year for women aged 19 or older.
These recommendations may change early next year, after ACOG convenes a consensus conference on the subject. The aim: “To develop a consistent set of uniform guidelines for breast cancer screening that can be implemented nationwide. Major organizations and providers of women’s health care, including ACS, will gather to evaluate and interpret the data in greater detail.”2
Share your thoughts! Send your Letter to the Editor to rbarbieri@frontlinemedcom.com. Please include your name and the city and state in which you practice.
When the American Cancer Society (ACS) updated its guidelines for screening mammography earlier this week,1 the effect was that of a stone being tossed into a tranquil pond, generating ripples in all directions.
The new guidelines focus on women at average risk for breast cancer (TABLE 1) and were updated for the first time since 2003, based on new evidence, a new emphasis on eliminating as many screening harms as possible, and a goal of “supporting the interplay among values, preferences, informed decision making, and recommendations.”1 Earlier ACS guidelines recommended annual screening starting at age 40.
TABLE 1 What constitutes “average risk” of breast cancer?
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The new guidelines are graded according to the strength of the rec ommendation as being either “strong” or “qualified.” The ACS defines a “strong” recommendation as one that most individuals should follow. “Adherence to this recommendation according to the guideline could be used as a quality criterion or performance indicator,” the guidelines note.1
A “qualified” recommendation indicates that “Clinicians should acknowledge that different choices will be appropriate for different patients and that clinicians must help each patient arrive at a management decision consistent with her or his values and preferences.”1
The recommendations are:
- Regular screening mammography should start at age 45 years (strong recommendation)
- Screening should be annual in women aged 45 to 54 years (qualified recommendation)
- Screening should shift to biennial intervals at age 55, unless the patient prefers to continue screening annually (qualified recommendation)
- Women who desire to initiate annual screening between the ages of 40 and 44 years should be accommodated (qualified recommendation)
- Screening mammography should continue as long as the woman is in good health and has a life expectancy of at least 10 years (qualified recommendation)
- Clinical breast examination (CBE) is not recommended at any age (qualified recommendation).1
ACOG weighs in
Shortly after publication of the new ACS guidelines, the American College of Obstetricians and Gynecologists (ACOG) issued a formal statement in response2:
Response of the USPSTF
The US Preventive Services Task Force (USPSTF) also issued a statement in response to the new ACS guidelines:
The USPSTF currently recommends biennial screening beginning at age 50.
A leader in breast health cites pros and cons of ACS recommendations
Mark Pearlman, MD, professor of obstetrics and gynecology at the University of Michigan health system, is a nationally recognized expert on breast cancer screening. He sits on the National Comprehensive Cancer Network (NCCN) breast cancer screening and diagnosis group, helped author ACOG guidelines on mammography screening, and serves as a Contributing Editor to OBG Management.
“I believe the overall ACS mammography benefit evidence synthesis is reasonable and is in keeping with both NCCN and ACOG’s current recommendations. NCCN and ACOG mammography screening recommendations have both valued lives saved more highly than the ‘harms’ such as recalls and needle biopsies,” Dr. Pearlman says.
“If one combines ACS ‘strong’ and ‘qualified’ recommendations, ACS recommendations are similar to current ACOG and NCCN recommendations for mammography,” he adds.
Dr. Pearlman finds 7 areas of agreement between NCCN/ACOG and ACS recommendations, using both strong and qualified recommendations:
- “They reaffirm that screening from age 40 to 69 years is associated with a reduction in breast cancer deaths.
- They support annual screening for women in their 40s [although the ACS’ ‘strong’ recommendation is that regular screening begin at age 45 instead of 40].
- They support screening for women 70 and older who are in good health (10-year life expectancy).
- They support the finding that annual screening yields a larger mortality reduction than biennial screening.
- They confirm much uncertainty about the “over-diagnosis/overtreatment” issue.
- They endorse insurance coverage at all ages and intervals of screening (not just USPSTF ‘A’ or ‘B’ recommendations).
- They involve the patient in informed decision making.”
Where the ACS and ACOG/NCCN disagree is over the issue of the physical exam (abandoning CBE in average-risk women).
In regard to this last item, Dr. Pearlman says, “The ACS made a qualified recommendation against clinical breast exam. There is no high-level data to support such a marked change in practice. For example, when recommendations against breast self-examinations (BSE) were made, there were randomized controlled trials (RCTs) showing a lack of benefit and significant harms with BSE. With RCT-level data, it made sense to make a recommendation against the long-taught practice of SBE in average-risk women. That was not the case here. In fact, there are small amounts of data showing benefits of clinical breast exam.”
“One of my biggest concerns is not just the recommendation against CBE,” says Dr. Pearlman, “but that this may lead many women to interpret [this statement] as if they do not need to see their health care provider anymore. As you may recall, the American College of Physicians (ACP) recommended against annual pelvic examinations in asymptomatic patients. The ACS recommendation statement—taken together with the ACP statement—basically suggests that average-risk women don’t ever need to see a provider for a pelvic or breast examination except every 5 years for a Pap smear. That thinking does not recognize the importance of the clinical encounter (not just the CBE or pelvic exam), which is the opportunity to perform risk assessment and provide risk-reduction recommendations and healthy lifestyle recommendations.”
Radiologists resist new recommendations
Although the American College of Radiology (ACR) and the Society of Breast Imaging (SBI) agree with the ACS that mammography screening saves lives and should be available to women aged 40 and older, the 2 imaging organizations continue to recommend that annual screening begin at age 40. Their rationale: The latest ACS breast cancer screening guidelines, and earlier data used by the USPSTF to create its recommendations, both note that starting annual mammography at age 40 “saves the most lives.”
Where the organizations differ from the ACR is summed up by a formal statement on the ACR Web site: “The ACR and SBI strongly encourage women to obtain the maximum lifesaving benefits from mammography by continuing to get annual screening.”4
When OBG Management touched base with radiologist Barbara Monsees, MD, professor of radiology and Evens Professor of Women’s Health at Washington University Medical Center in St. Louis, Missouri, she expressed dismay at early news reports on the ACS guidelines.
“I’m dismayed that the headlines don’t seem to correlate with what the ACS actually recommended. The ACS did not state that women should wait until age 45 to begin screening. I believe the ACS was going for a more nuanced approach, but since that’s a bit complicated, I think that reporters have misconstrued what was intended,” Dr. Monsees says.
“The ACS guideline says that women between 40 and 44 years should have the opportunity to begin annual screening,” she says, noting that this recommendation was graded as “qualified.”
“The ACS states that a qualified recommendation indicates that ‘there is clear evidence of benefit of screening, but less certainty about the balance of benefits and harms, or about patients’ values and preferences, which could lead to different decisions about screening.’” The guideline also articulates the view “that the meaning of a qualified recommendation for patients is that the ‘majority of individuals in this situation would want the suggested course of action, but many would not.’ Therefore, I find it mind-boggling that this has been interpreted to mean that women should not begin screening until age 45.”1
“It is my opinion that it is clear that if women want to achieve the most lifesaving benefit from screening, they should adhere to a schedule of yearly mammograms beginning at age 40,” says Dr. Monsees. However, she also agrees with the ACS notation that clinicians should acknowledge that “different choices will be appropriate for different patients and that clinicians must help each patient arrive at a management decision consistent with her values and preferences.”1
The word from an expert ObGyn
“By changing its guidance to begin screening at age 45 instead of 40, and in recommending biennial rather than annual screens in women 55 years of age and older, the updated ACS guidance will reduce harms (overdiagnosis and unnecessary additional imaging and biopsies) and moves closer to USPSTF guidance,” says Andrew M. Kaunitz, MD. He is University of Florida Research Foundation Professor and Associate Chairman, Department of Obstetrics and Gynecology, at the University of Florida College of Medicine–Jacksonville. He also serves on the OBG Management Board of Editors.
“As one editorialist points out, the ACS recommendation that women begin screening at age 45 years is based on observational comparisons of screened and unscreened cohorts—a type of analysis which the USPSTF does not consider due to concerns regarding bias,” notes Dr. Kaunitz.5
“The ACS recommendation for annual screening in women aged 45 to 54 is largely based on the findings of a report showing that, for premenopausal (but not postmenopausal) women, tumor stage was higher and size larger for screen-detected lesions among women undergoing biennial screens."6
As for the recommendation against screening CBE, Dr. Kaunitz considers that “a dramatic change from prior guidance. It is based on the absence of data finding benefits with CBE (alone or with screening mammography). Furthermore, the updated ACS guidance does not change its 2003 guidance, which does not support routine performance of or instruction regarding SBE.”
“These updated ACS guidelines should result in more women starting screening mammograms later in life, and they endorse biennial screening for many women, meaning that patients following ACS guidance will have fewer lifetime screens than with earlier recommendations,” says Dr. Kaunitz.
“Another plus is that performing fewer breast examinations during well-woman visits will allow us more time to assess family history and other risk factors for breast cancer, and to discuss screening recommendations.”
The bottom line
What is one to make of the many viewpoints on screening? For now, it probably is best to adhere to either the new ACS guidelines or current ACOG guidelines (TABLE 2), says OBG Management Editor in Chief Robert L. Barbieri, MD. He is chief of the Department of Obstetrics and Gynecology at Brigham and Women’s Hospital in Boston, and Kate Macy Ladd Professor of Obstetrics, Gynecology, and Reproductive Biology at Harvard Medical School.
TABLE 2 What are ACOG’s current recommendations?
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ACOG recommends screening mammography every year for women starting at age 40. ACOG also states that “breast self-awareness has the potential to detect palpable breast cancer and can be recommended”; it also recommends CBE every year for women aged 19 or older.
These recommendations may change early next year, after ACOG convenes a consensus conference on the subject. The aim: “To develop a consistent set of uniform guidelines for breast cancer screening that can be implemented nationwide. Major organizations and providers of women’s health care, including ACS, will gather to evaluate and interpret the data in greater detail.”2
Share your thoughts! Send your Letter to the Editor to rbarbieri@frontlinemedcom.com. Please include your name and the city and state in which you practice.
- Oeffinger KC, Fontham ET, Etzioni R, et al. Breast cancer screening for women at average risk. 2015 guideline update from the American Cancer Society. JAMA. 2015;314(15):1599–1614.
- American College of Obstetricians and Gynecologists. ACOG Statement on Revised American Cancer Society Recommendations on Breast Cancer Screening. http://www.acog.org/About-ACOG/News-Room/Statements/2015/ACOG-Statement-on-Recommendations-on-Breast-Cancer-Screening. Published October 20, 2015. Accessed October 20, 2015.
- US Preventive Services Task Force. Email communication, USPSTF Newsroom, October 20, 2015.
- American College of Radiology. News Release: ACR and SBI Continue to Recommend Regular Mammography Starting at Age 40. http://www.acr.org/About-Us/Media-Center/Press-Releases/2015-Press-Releases/20151020-ACR-SBI-Recommend-Mammography-at-Age-40. Published October 20, 2015. Accessed October 21, 2015.
- Kerlikowske K. Progress toward consensus on breast cancer screening guidelines and reducing screening harms [published online ahead of print October 20, 2015]. JAMA Intern Med. doi:10.1001/jamainternmed.2015.6466.
- Miglioretti DL, Zhu W, Kerlikowske K, et al; Breast Cancer Surveillance Consortium. Breast tumor prognostic characteristics and biennial vs annual mammography, age, and menopausal status [published online ahead of print October 20, 2015]. JAMA. doi:10.1001/jamaoncol.2015.3084.
- Oeffinger KC, Fontham ET, Etzioni R, et al. Breast cancer screening for women at average risk. 2015 guideline update from the American Cancer Society. JAMA. 2015;314(15):1599–1614.
- American College of Obstetricians and Gynecologists. ACOG Statement on Revised American Cancer Society Recommendations on Breast Cancer Screening. http://www.acog.org/About-ACOG/News-Room/Statements/2015/ACOG-Statement-on-Recommendations-on-Breast-Cancer-Screening. Published October 20, 2015. Accessed October 20, 2015.
- US Preventive Services Task Force. Email communication, USPSTF Newsroom, October 20, 2015.
- American College of Radiology. News Release: ACR and SBI Continue to Recommend Regular Mammography Starting at Age 40. http://www.acr.org/About-Us/Media-Center/Press-Releases/2015-Press-Releases/20151020-ACR-SBI-Recommend-Mammography-at-Age-40. Published October 20, 2015. Accessed October 21, 2015.
- Kerlikowske K. Progress toward consensus on breast cancer screening guidelines and reducing screening harms [published online ahead of print October 20, 2015]. JAMA Intern Med. doi:10.1001/jamainternmed.2015.6466.
- Miglioretti DL, Zhu W, Kerlikowske K, et al; Breast Cancer Surveillance Consortium. Breast tumor prognostic characteristics and biennial vs annual mammography, age, and menopausal status [published online ahead of print October 20, 2015]. JAMA. doi:10.1001/jamaoncol.2015.3084.
DenseBreast-info.org: What this resource can offer you, and your patients
Read the article Get smart about dense breasts by Wendie Berg, MD, PhD, JoAnn Pushkin, and Cindy Henke-Sarmento (October 2015)
Read the article Get smart about dense breasts by Wendie Berg, MD, PhD, JoAnn Pushkin, and Cindy Henke-Sarmento (October 2015)
Read the article Get smart about dense breasts by Wendie Berg, MD, PhD, JoAnn Pushkin, and Cindy Henke-Sarmento (October 2015)
Access DenseBreast-info.org
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Managing menopausal symptoms in women with a BRCA mutation
This audiocast was recorded at the North American Menopause Society Annual Meeting held September 30 to October 3, 2015, in Las Vegas, Nevada
For more on this topic, read Dr. Kaunitz's August 2015 Cases in Menopause article, Is menopausal hormone therapy safe when your patient carries a BRCA mutation?
This audiocast was recorded at the North American Menopause Society Annual Meeting held September 30 to October 3, 2015, in Las Vegas, Nevada
For more on this topic, read Dr. Kaunitz's August 2015 Cases in Menopause article, Is menopausal hormone therapy safe when your patient carries a BRCA mutation?
This audiocast was recorded at the North American Menopause Society Annual Meeting held September 30 to October 3, 2015, in Las Vegas, Nevada
For more on this topic, read Dr. Kaunitz's August 2015 Cases in Menopause article, Is menopausal hormone therapy safe when your patient carries a BRCA mutation?
Get smart about dense breasts
It’s a movement that shows no signs of abating. Women in 24 states, encompassing 67% of American women, now receive some level of notification after their mammogram about breast density. Individual patient advocates continue to push for notification, and states are likely to continue to draft bills. On the national level, a federal standard is being pursued through both federal legislation and federal regulation. Clinicians practicing in states with an “inform” law, either already in effect or imminent, will be tasked with engaging in new patient conversations arising from density notification. Are you ready to answer your patients’ questions?
Navigating inconsistent data and expert comments about density and discerning which patients may benefit from additional screening can create challenges in addressing a patient’s questions about the implications of her dense tissue. If you feel less than equipped to address these issues, you are not alone. A recent survey of clinicians, con- ducted after California’s breast density notification law went into effect, showed that only 6% were comfortable answering patients’ questions relating to breast density. Seventy-five percent of respondents indicated they wanted more education on the topic.1
For women having mammography, dense breast tissue is most important because it can mask detection of cancers, and women may want to have additional screening beyond mammography. Women with dense breasts are also at increased risk for developing breast cancer. For clinicians who are on the front lines of care for women undergoing screening, the most important action items are:
- identifying who needs more screening
- weighing the risks and benefits of such additional screening.
To assist you in informing patient discussions, in this article we answer some of the most frequently asked questions of ObGyns.
Which breasts are considered dense?
The American College of Radiology recommends that density be reported in 1 of 4 categories depending on the relative amounts of fat and fibroglandular tissue2:
- almost entirely fatty—on mammography most of the tissue appears dark gray while small amounts of dense (or fibroglandular) tissue display as light gray or white.
- scattered fibroglandular density—scattered areas of dense tissue mixed with fat. Even in breasts with scattered areas of breast tissue, cancers sometimes can be missed when they resemble areas of normal tissue or are within an area of denser tissue.
- heterogeneously dense—there are large portions of the breast where dense tissue could hide masses.
- extremely dense—most of the breast appears to consist of dense tissue, creating a “white out” situation and making it extremely difficult to see through.
Breasts that are either heterogeneously dense or extremely dense are considered “dense.” About 40% of women older than age 40 have dense breasts.3
Case study: Imaging of a cancerous breast mass in a 48-year-old woman with dense breasts
This patient has heterogeneously dense breast tissue. Standard 2D mediolateral oblique (MLO) digital mammogram (A) and MLO tomosynthesis 1-mm slice (B) reveal subtle possible distortion (arrow) in the upper right breast. On tomosynthesis, the distortion is better seen, as is the underlying irregular mass (red circle).
Ultrasound (US) directed to the mass (C) shows an irregular hypoechoic (dark gray) mass (marked by calipers), compatible with cancer. US-guided core needle biopsy revealed grade 2 invasive ductal cancer with associated ductal carcinoma in situ.
Axial magnetic resonance imaging of the right breast obtained after contrast injection, and after computer subtraction of nonenhanced image (D), shows irregular spiculated enhancing (white) mass (arrow) due to the known carcinoma.
Images: Courtesy Wendie Berg, MD, PhD
Who needs more screening?
The FIGURE is a screening decision support tool representing the consensus opinion of several medical experts based on the best available scientific evidence to optimize breast cancer detection.
Do dense breasts affect the risk of developing breast cancer?
Yes. Dense breasts are a risk factor for breast cancer. According to the American Cancer Society’s Breast Cancer Facts & Figures 2013−2014, “The risk of breast cancer in-creases with increasing breast density; women with very high breast density have a 4- to 6-fold increased risk of breast cancer compared to women with the least dense breasts.”4,5
There are several reasons that dense tissue increases risk. First, the glands tend to be made up of relatively actively dividing cells that can mutate and become cancerous (the more glandular tissue present, the greater the risk). Second, the local environment around the glands may produce certain growth hormones that stimulate cells to divide, and this seems to occur more in fibrous tissue than in fatty tissue.
Most women have breast density somewhere in the middle range, with their risk for breast cancer falling in between those with extremely dense breasts and those with fatty breasts.6 The risk for developing breast cancer is influenced by a combination of many different factors, including age, family history of cancer (particularly breast or ovarian cancer), and prior atypical breast biopsies. There currently is no reliable way to fully account for the interplay of breast density, family history, prior biopsy results, and other factors in determining overall risk. Importantly, more than half of all women who develop breast cancer have no known risk factors other than being female and aging.
Is your medical support staff “density ready?”
We’re all familiar with the adage that a picture is worth a thousand words. While the medical support personnel in your office are likely quite familiar with imaging reports and the terminology used in describing dense breasts, they may be quite unfamiliar with what a fatty versus dense breast actually looks like on a mammogram, and how cancer may display in each. Illustrated examples, as seen here, are useful for reference.
In the fatty breast (A), a small cancer (arrow) is seen easily. In a breast categorized as scattered fibroglandular density (B), a large cancer is easily seen (arrow) in the relatively fatty portion of the breast, though a small cancer could have been hidden in areas with normal glandular tissue.
In a breast categorized as heterogeneously dense (C), a 4-cm (about 1.5-inch) cancer (arrows) is hidden by the dense breast tissue. This cancer also has spread to a lymph node under the arm (curved arrow).
In an extremely dense breast (D), a cancer is seen because part of it is located in the back of the breast where there is a small amount of dark fat making it easier to see (arrow and triangle marker indicating lump). If this cancer had been located near the nipple and completely surrounded by white (dense) tissue, it probably would not have been seen on mammography.
Image: Courtesy of Dr. Regina Hooley and DenseBreast-info.org
Are screening mammography outcomes different for women with dense versus fatty breasts?
Yes. Cancer is more likely to be clinically detected in the interval between mammography screens (defined as interval cancer) in women with dense breasts. Such interval cancers tend to be more aggressive and have worse outcomes. Compared with those in fatty breasts, cancers found in dense breasts more often7:
- are locally advanced (stage IIb and III)
- are multifocal or multicentric
- require a mastectomy (rather than a lumpectomy).
Does supplemental screening beyond mammography save lives?
Mammography is the only imaging screening modality that has been studied by multiple randomized controlled trials with mortality as an endpoint. Across those trials, mammography has been shown to reduce deaths due to breast cancer. The randomized trials that show a benefit from mammography are those in which mammography increased detection of invasive breast cancers before they spread to lymph nodes.8
No randomized controlled trial has yet been reported on any other imaging screening modality, but it is expected that other screening tests that increase detection of node-negative invasive breast cancers beyond mammography should further reduce breast cancer mortality.
Proving the mortality benefit of any supplemental screening modality would require a very large, very expensive randomized controlled trial with 15 to 20 years of follow-up. Given the speed of technologic developments, any results likely would be obsolete by the trial’s conclusion. What we do know is that women at high risk for breast cancer who undergo annual magnetic resonance imaging (MRI) screening are less likely to have advanced breast cancer than their counterparts who were not screened with MRI.9
We also know that average-risk women who are screened with ultrasonography in addition to mammography are unlikely to have palpable cancer in the interval between screens,10,11 with the rates of such interval cancers similar to women with fatty breasts screened only with mammography. The cancers found only on MRI or ultrasound are mostly small invasive cancers (average size, approximately 1 cm) that are mostly node negative.12,13 MRI also finds some ductal carcinoma in situ (DCIS).
These results suggest that there is a benefit to finding additional cancers with supplemental screening, though it is certainly possible that, as with mammography, some of the cancers found with supplemental screening are slow growing and may never have caused a woman harm even if left untreated.
Dense breasts: Medically sourced resources
Educational Web site
DenseBreast-info.org. This site is a collaborative, multidisciplinary educational resource. It features content for both patients and health care providers with separate data streams for each and includes:
a comprehensive list of FAQs; screening flow charts; a Patient Risk Checklist; an explanation of risks, risk assessment, and links to risk assessment tools; an illustrated round-up of technologies commonly used in screening; and state-by-state legislative analysis of density inform laws across the country.
State-specific Web sites
BreastDensity.info. This site was created by the California Breast Density Information Group (CBDIG), a working group of breast radiologists and breast cancer risk specialists. The content is primarily for health care providers and features screening scenarios as well as FAQs about breast density, breast cancer risk, and the breast density notification law in California.
MIdensebreasts.org. This is a Web-based education resource created for primary care providers by the University of Michigan Health System and the Michigan Department of Health and Human Services. It includes continuing medical education credit.
Medical society materials
American Cancer Society offers Breast Density and Your Mammogram Report for patients: http://www.cancer.org/acs/groups/content/@editorial/documents/document/acspc-039989.pdf
American College of Obstetricians and Gynecologists’ 2015 Density Policy statement is available online: http://www.acog.org/Resources-And-Publications/Committee-Opinions/Committee-on-Gynecologic-Practice/Management-of-Women-With-Dense-Breasts-Diagnosed-by-Mammography
American College of Radiology patient brochure details basic information about breast density and can be customized with your center’s information: http://www.acr.org/News-Publications/~/media/180321AF51AF4EA38FEC091461F5B695.pdf
What additional screening tests are available after a 2D mammogram for a woman with dense breasts?
Depending on the patient’s age, risk level, and breast density, additional screening tools—such as tomosynthesis (also known as 3D mammography), ultrasonography, or MRI—may be recommended in addition to mammography. Indeed, in some centers, tomosynthesis is performed alone and the radiologist also reviews computer-generated 2D mammograms.
The addition of another imaging tool after a mammogram will find more cancers than mammography alone (TABLE).14−17 Women at high risk for breast cancer, such as those with pathogenic BRCA mutations, and those who were treated with radiation therapy to their chest (typically for Hodgkin disease) before age 30 and at least 8 years earlier, should be referred for annual MRI in addition to mammography (see Screening Decision Support Tool FIGURE above). If tomosynthesis is performed, the added benefit of ultrasound will be lower; further study on the actual benefit of supplemental ultrasound screening after 3D mammography is needed.
Will insurance cover supplemental screening beyond mammography?
The answer depends on the type of screening, the patient’s insurance and risk factors, the state in which you practice, and whether or not a law is in effect requiring insurance coverage for additional screening. In Illinois, for example, a woman with dense breasts can receive a screening ultrasound without a copay or deductible if it is ordered by a physician. In Connecticut, an ultrasound copay for screening dense breasts cannot exceed $20. Generally, in other states, an ultrasound will be covered if ordered by a physician, but it is subject to the copay and deductible of an individual health plan. In New Jersey, insurance coverage is provided for additional testing if a woman has extremely dense breasts.
Regardless of state, an MRI generally will be covered by insurance (subject to copay and deductible) if the patient meets high-risk criteria. In Michigan, at least one insurance company will cover a screening MRI for normal-risk women with dense breasts at a cost that matches the copay and deductible of a screening mammogram. It is important for patients to check with their insurance carrier prior to having an MRI.
Should women with dense breasts still have mammography screening?
Yes. Mammography is the first step in screening for most women (except for those who are pregnant or breastfeeding, in which case ultrasound can be performed but is usually deferred until several months after the patient is no longer pregnant or breastfeeding). While additional screening may be recommended for women with dense breasts, and for women at high risk for developing breast cancer, there are still some cancers and precancerous changes that will show on a mammogram better than on ultrasound or MRI. Wherever possible, women with dense breasts should have digital mammography rather than film mammography, due to slightly improved cancer detection using digital mammography.18
Does tomosynthesis solve the problem of screening dense breasts?
Tomosynthesis (3D mammography) slightly improves detection of cancers compared with standard digital mammography, but some cancers will remain hidden by overlapping dense tissue. We do not yet know the benefit of annual screening tomosynthesis. Without question, women at high risk for breast cancer still should have MRI if they are able to tolerate it, even if they have had tomosynthesis.
If a patient with dense breasts undergoes screening tomosynthesis, will she also need a screening ultrasound?
Preliminary studies not yet published suggest that, for women with dense breasts, ultrasound does find another 2 to 3 invasive cancers per 1,000 women screened that are not found on tomosynthesis, but further study of this issue is needed.
If recommended for additional screening with ultrasound or MRI, will a patient need that screening every year?
Usually, yes, though age and other medical conditions will change a patient’s personal risk and benefit considerations. Therefore, screening recommendations may change from one year to the next. With technology advancements and evolving guidelines, additional screening recommendations will change in the future.
Prepare yourself and your patients will benefit
The foundation of a successful screening program involves buy-in from both patient and clinician. Patients confused as to what their density notification means may have little understanding as to what next steps should be considered. To allay confusion, your patient will be best served by being provided understandable and actionable information. Advanced preparation for these conversations about the implications of dense tissue will make for more effective patient engagement.
Acknowledgment
Much of the material within this article has been sourced from the educational Web site DenseBreast-info.org. For comprehensive lists of both patient and health care provider frequently asked questions, visit http://www.DenseBreast-info.org.
Share your thoughts! Send your Letter to the Editor to rbarbieri@frontlinemedcom.com. Please include your name and the city and state in which you practice.
- Khong KA, Hargreaves J, Aminololama-Shakeri S, Lindfors KK. Impact of the California breast density law on primary care physicians. J Am Coll Radiol. 2015;12(3):256–260.
- Sickles EA, D’Orsi CJ, Bassett LW, et al. ACR BI-RADS Mammography. In: ACR BI-RADS Atlas, Breast Imaging Reporting and Data System. Reston, VA: American College of Radiology; 2013.
- Sprague BL, Gangnon RE, Burt V, et al. Prevalence of mammographically dense breasts in the United States. J Natl Cancer Inst. 2014;106(10).
- American Cancer Society. Breast Cancer Facts & Figures 2013–2014. http://www.cancer.org/acs/groups/content/@research/documents/document/acspc-042725.pdf. Published 2013. Accessed September 15, 2015.
- Harvey JA, Bovbjerg VE. Quantitative assessment of mammographic breast density: relationship with breast cancer risk. Radiology. 2004;230(1):29–41.
- Kerlikowske K, Cook AJ, Buist DS, et al. Breast cancer risk by breast density, menopause, and postmenopausal hormone therapy use. J Clin Oncol. 2010;28(24):3830–3837.
- Arora N, King TA, Jacks LM, et al. Impact of breast density on the presenting features of malignancy. Ann Surg Oncol. 2010;17(suppl 3):211–218.
- Smith RA, Duffy SW, Gabe R, Tabar L, Yen AM, Chen TH. The randomized trials of breast cancer screening: what have we learned? Radiol Clin North Am. 2004;42(5):793–806, v.
- Warner E, Hill K, Causer P, et al. Prospective study of breast cancer incidence in women with a BRCA1 or BRCA2 mutation under surveillance with and without magnetic resonance imaging. J Clin Oncol. 2011;29(13):1664–1669.
- Corsetti V, Houssami N, Ghirardi M, et al. Evidence of the effect of adjunct ultrasound screening in women with mammography-negative dense breasts: interval breast cancers at 1 year follow-up. Eur J Cancer. 2011;47(7): 1021–1026.
- Berg WA, Zhang Z, Lehrer D, et al. Detection of breast cancer with addition of annual screening ultrasound or a single screening MRI to mammography in women with elevated breast cancer risk. JAMA. 2012;307(13):1394–1404.
- Berg WA. Tailored supplemental screening for breast cancer: what now and what next? AJR Am J Roentgenol. 2009;192(2):390–399.
- Brem RF, Lenihan MJ, Lieberman J, Torrente J. Screening breast ultrasound: past, present, and future. AJR Am J Roentgenol. 2015;204(2):234–240.
- Hooley R. Tomosynthesis. In: Berg WA, Yang WT, eds. Diagnostic Imaging: Breast. 2nd ed. Salt Lake City, UT: Amirsys; 2014:2–19.
- Friedewald SM, Rafferty EA, Rose SL, et al. Breast cancer screening using tomosynthesis in combination with digital mammography. JAMA. 2014;311(24):2499–2507.
- Berg WA. Screening Ultrasound. In: Berg WA, Yang WT, eds. Diagnostic Imaging: Breast. 2nd ed. Salt Lake City, UT: Amirsys; 2014:9–43.
- Berg WA. Screening MRI. In: Berg WA, Yang WT, eds. Diagnostic Imaging: Breast. 2nd ed. Salt Lake City, UT: Amirsys; 2014:9–49.
- Hooley R. Tomosynthesis. In: Berg WA, Yang WT, eds.Berg WA. Screening Ultrasound. In: Berg WA, Yang WT, eds.Berg WA. Screening MRI. In: Berg WA, Yang WT, eds.Pisano ED, Gatsonis C, Hendrick E, et al. Diagnostic performance of digital versus film mammography for breast-cancer screening. N Engl J Med. 2005;353(17):1773–1783.
It’s a movement that shows no signs of abating. Women in 24 states, encompassing 67% of American women, now receive some level of notification after their mammogram about breast density. Individual patient advocates continue to push for notification, and states are likely to continue to draft bills. On the national level, a federal standard is being pursued through both federal legislation and federal regulation. Clinicians practicing in states with an “inform” law, either already in effect or imminent, will be tasked with engaging in new patient conversations arising from density notification. Are you ready to answer your patients’ questions?
Navigating inconsistent data and expert comments about density and discerning which patients may benefit from additional screening can create challenges in addressing a patient’s questions about the implications of her dense tissue. If you feel less than equipped to address these issues, you are not alone. A recent survey of clinicians, con- ducted after California’s breast density notification law went into effect, showed that only 6% were comfortable answering patients’ questions relating to breast density. Seventy-five percent of respondents indicated they wanted more education on the topic.1
For women having mammography, dense breast tissue is most important because it can mask detection of cancers, and women may want to have additional screening beyond mammography. Women with dense breasts are also at increased risk for developing breast cancer. For clinicians who are on the front lines of care for women undergoing screening, the most important action items are:
- identifying who needs more screening
- weighing the risks and benefits of such additional screening.
To assist you in informing patient discussions, in this article we answer some of the most frequently asked questions of ObGyns.
Which breasts are considered dense?
The American College of Radiology recommends that density be reported in 1 of 4 categories depending on the relative amounts of fat and fibroglandular tissue2:
- almost entirely fatty—on mammography most of the tissue appears dark gray while small amounts of dense (or fibroglandular) tissue display as light gray or white.
- scattered fibroglandular density—scattered areas of dense tissue mixed with fat. Even in breasts with scattered areas of breast tissue, cancers sometimes can be missed when they resemble areas of normal tissue or are within an area of denser tissue.
- heterogeneously dense—there are large portions of the breast where dense tissue could hide masses.
- extremely dense—most of the breast appears to consist of dense tissue, creating a “white out” situation and making it extremely difficult to see through.
Breasts that are either heterogeneously dense or extremely dense are considered “dense.” About 40% of women older than age 40 have dense breasts.3
Case study: Imaging of a cancerous breast mass in a 48-year-old woman with dense breasts
This patient has heterogeneously dense breast tissue. Standard 2D mediolateral oblique (MLO) digital mammogram (A) and MLO tomosynthesis 1-mm slice (B) reveal subtle possible distortion (arrow) in the upper right breast. On tomosynthesis, the distortion is better seen, as is the underlying irregular mass (red circle).
Ultrasound (US) directed to the mass (C) shows an irregular hypoechoic (dark gray) mass (marked by calipers), compatible with cancer. US-guided core needle biopsy revealed grade 2 invasive ductal cancer with associated ductal carcinoma in situ.
Axial magnetic resonance imaging of the right breast obtained after contrast injection, and after computer subtraction of nonenhanced image (D), shows irregular spiculated enhancing (white) mass (arrow) due to the known carcinoma.
Images: Courtesy Wendie Berg, MD, PhD
Who needs more screening?
The FIGURE is a screening decision support tool representing the consensus opinion of several medical experts based on the best available scientific evidence to optimize breast cancer detection.
Do dense breasts affect the risk of developing breast cancer?
Yes. Dense breasts are a risk factor for breast cancer. According to the American Cancer Society’s Breast Cancer Facts & Figures 2013−2014, “The risk of breast cancer in-creases with increasing breast density; women with very high breast density have a 4- to 6-fold increased risk of breast cancer compared to women with the least dense breasts.”4,5
There are several reasons that dense tissue increases risk. First, the glands tend to be made up of relatively actively dividing cells that can mutate and become cancerous (the more glandular tissue present, the greater the risk). Second, the local environment around the glands may produce certain growth hormones that stimulate cells to divide, and this seems to occur more in fibrous tissue than in fatty tissue.
Most women have breast density somewhere in the middle range, with their risk for breast cancer falling in between those with extremely dense breasts and those with fatty breasts.6 The risk for developing breast cancer is influenced by a combination of many different factors, including age, family history of cancer (particularly breast or ovarian cancer), and prior atypical breast biopsies. There currently is no reliable way to fully account for the interplay of breast density, family history, prior biopsy results, and other factors in determining overall risk. Importantly, more than half of all women who develop breast cancer have no known risk factors other than being female and aging.
Is your medical support staff “density ready?”
We’re all familiar with the adage that a picture is worth a thousand words. While the medical support personnel in your office are likely quite familiar with imaging reports and the terminology used in describing dense breasts, they may be quite unfamiliar with what a fatty versus dense breast actually looks like on a mammogram, and how cancer may display in each. Illustrated examples, as seen here, are useful for reference.
In the fatty breast (A), a small cancer (arrow) is seen easily. In a breast categorized as scattered fibroglandular density (B), a large cancer is easily seen (arrow) in the relatively fatty portion of the breast, though a small cancer could have been hidden in areas with normal glandular tissue.
In a breast categorized as heterogeneously dense (C), a 4-cm (about 1.5-inch) cancer (arrows) is hidden by the dense breast tissue. This cancer also has spread to a lymph node under the arm (curved arrow).
In an extremely dense breast (D), a cancer is seen because part of it is located in the back of the breast where there is a small amount of dark fat making it easier to see (arrow and triangle marker indicating lump). If this cancer had been located near the nipple and completely surrounded by white (dense) tissue, it probably would not have been seen on mammography.
Image: Courtesy of Dr. Regina Hooley and DenseBreast-info.org
Are screening mammography outcomes different for women with dense versus fatty breasts?
Yes. Cancer is more likely to be clinically detected in the interval between mammography screens (defined as interval cancer) in women with dense breasts. Such interval cancers tend to be more aggressive and have worse outcomes. Compared with those in fatty breasts, cancers found in dense breasts more often7:
- are locally advanced (stage IIb and III)
- are multifocal or multicentric
- require a mastectomy (rather than a lumpectomy).
Does supplemental screening beyond mammography save lives?
Mammography is the only imaging screening modality that has been studied by multiple randomized controlled trials with mortality as an endpoint. Across those trials, mammography has been shown to reduce deaths due to breast cancer. The randomized trials that show a benefit from mammography are those in which mammography increased detection of invasive breast cancers before they spread to lymph nodes.8
No randomized controlled trial has yet been reported on any other imaging screening modality, but it is expected that other screening tests that increase detection of node-negative invasive breast cancers beyond mammography should further reduce breast cancer mortality.
Proving the mortality benefit of any supplemental screening modality would require a very large, very expensive randomized controlled trial with 15 to 20 years of follow-up. Given the speed of technologic developments, any results likely would be obsolete by the trial’s conclusion. What we do know is that women at high risk for breast cancer who undergo annual magnetic resonance imaging (MRI) screening are less likely to have advanced breast cancer than their counterparts who were not screened with MRI.9
We also know that average-risk women who are screened with ultrasonography in addition to mammography are unlikely to have palpable cancer in the interval between screens,10,11 with the rates of such interval cancers similar to women with fatty breasts screened only with mammography. The cancers found only on MRI or ultrasound are mostly small invasive cancers (average size, approximately 1 cm) that are mostly node negative.12,13 MRI also finds some ductal carcinoma in situ (DCIS).
These results suggest that there is a benefit to finding additional cancers with supplemental screening, though it is certainly possible that, as with mammography, some of the cancers found with supplemental screening are slow growing and may never have caused a woman harm even if left untreated.
Dense breasts: Medically sourced resources
Educational Web site
DenseBreast-info.org. This site is a collaborative, multidisciplinary educational resource. It features content for both patients and health care providers with separate data streams for each and includes:
a comprehensive list of FAQs; screening flow charts; a Patient Risk Checklist; an explanation of risks, risk assessment, and links to risk assessment tools; an illustrated round-up of technologies commonly used in screening; and state-by-state legislative analysis of density inform laws across the country.
State-specific Web sites
BreastDensity.info. This site was created by the California Breast Density Information Group (CBDIG), a working group of breast radiologists and breast cancer risk specialists. The content is primarily for health care providers and features screening scenarios as well as FAQs about breast density, breast cancer risk, and the breast density notification law in California.
MIdensebreasts.org. This is a Web-based education resource created for primary care providers by the University of Michigan Health System and the Michigan Department of Health and Human Services. It includes continuing medical education credit.
Medical society materials
American Cancer Society offers Breast Density and Your Mammogram Report for patients: http://www.cancer.org/acs/groups/content/@editorial/documents/document/acspc-039989.pdf
American College of Obstetricians and Gynecologists’ 2015 Density Policy statement is available online: http://www.acog.org/Resources-And-Publications/Committee-Opinions/Committee-on-Gynecologic-Practice/Management-of-Women-With-Dense-Breasts-Diagnosed-by-Mammography
American College of Radiology patient brochure details basic information about breast density and can be customized with your center’s information: http://www.acr.org/News-Publications/~/media/180321AF51AF4EA38FEC091461F5B695.pdf
What additional screening tests are available after a 2D mammogram for a woman with dense breasts?
Depending on the patient’s age, risk level, and breast density, additional screening tools—such as tomosynthesis (also known as 3D mammography), ultrasonography, or MRI—may be recommended in addition to mammography. Indeed, in some centers, tomosynthesis is performed alone and the radiologist also reviews computer-generated 2D mammograms.
The addition of another imaging tool after a mammogram will find more cancers than mammography alone (TABLE).14−17 Women at high risk for breast cancer, such as those with pathogenic BRCA mutations, and those who were treated with radiation therapy to their chest (typically for Hodgkin disease) before age 30 and at least 8 years earlier, should be referred for annual MRI in addition to mammography (see Screening Decision Support Tool FIGURE above). If tomosynthesis is performed, the added benefit of ultrasound will be lower; further study on the actual benefit of supplemental ultrasound screening after 3D mammography is needed.
Will insurance cover supplemental screening beyond mammography?
The answer depends on the type of screening, the patient’s insurance and risk factors, the state in which you practice, and whether or not a law is in effect requiring insurance coverage for additional screening. In Illinois, for example, a woman with dense breasts can receive a screening ultrasound without a copay or deductible if it is ordered by a physician. In Connecticut, an ultrasound copay for screening dense breasts cannot exceed $20. Generally, in other states, an ultrasound will be covered if ordered by a physician, but it is subject to the copay and deductible of an individual health plan. In New Jersey, insurance coverage is provided for additional testing if a woman has extremely dense breasts.
Regardless of state, an MRI generally will be covered by insurance (subject to copay and deductible) if the patient meets high-risk criteria. In Michigan, at least one insurance company will cover a screening MRI for normal-risk women with dense breasts at a cost that matches the copay and deductible of a screening mammogram. It is important for patients to check with their insurance carrier prior to having an MRI.
Should women with dense breasts still have mammography screening?
Yes. Mammography is the first step in screening for most women (except for those who are pregnant or breastfeeding, in which case ultrasound can be performed but is usually deferred until several months after the patient is no longer pregnant or breastfeeding). While additional screening may be recommended for women with dense breasts, and for women at high risk for developing breast cancer, there are still some cancers and precancerous changes that will show on a mammogram better than on ultrasound or MRI. Wherever possible, women with dense breasts should have digital mammography rather than film mammography, due to slightly improved cancer detection using digital mammography.18
Does tomosynthesis solve the problem of screening dense breasts?
Tomosynthesis (3D mammography) slightly improves detection of cancers compared with standard digital mammography, but some cancers will remain hidden by overlapping dense tissue. We do not yet know the benefit of annual screening tomosynthesis. Without question, women at high risk for breast cancer still should have MRI if they are able to tolerate it, even if they have had tomosynthesis.
If a patient with dense breasts undergoes screening tomosynthesis, will she also need a screening ultrasound?
Preliminary studies not yet published suggest that, for women with dense breasts, ultrasound does find another 2 to 3 invasive cancers per 1,000 women screened that are not found on tomosynthesis, but further study of this issue is needed.
If recommended for additional screening with ultrasound or MRI, will a patient need that screening every year?
Usually, yes, though age and other medical conditions will change a patient’s personal risk and benefit considerations. Therefore, screening recommendations may change from one year to the next. With technology advancements and evolving guidelines, additional screening recommendations will change in the future.
Prepare yourself and your patients will benefit
The foundation of a successful screening program involves buy-in from both patient and clinician. Patients confused as to what their density notification means may have little understanding as to what next steps should be considered. To allay confusion, your patient will be best served by being provided understandable and actionable information. Advanced preparation for these conversations about the implications of dense tissue will make for more effective patient engagement.
Acknowledgment
Much of the material within this article has been sourced from the educational Web site DenseBreast-info.org. For comprehensive lists of both patient and health care provider frequently asked questions, visit http://www.DenseBreast-info.org.
Share your thoughts! Send your Letter to the Editor to rbarbieri@frontlinemedcom.com. Please include your name and the city and state in which you practice.
It’s a movement that shows no signs of abating. Women in 24 states, encompassing 67% of American women, now receive some level of notification after their mammogram about breast density. Individual patient advocates continue to push for notification, and states are likely to continue to draft bills. On the national level, a federal standard is being pursued through both federal legislation and federal regulation. Clinicians practicing in states with an “inform” law, either already in effect or imminent, will be tasked with engaging in new patient conversations arising from density notification. Are you ready to answer your patients’ questions?
Navigating inconsistent data and expert comments about density and discerning which patients may benefit from additional screening can create challenges in addressing a patient’s questions about the implications of her dense tissue. If you feel less than equipped to address these issues, you are not alone. A recent survey of clinicians, con- ducted after California’s breast density notification law went into effect, showed that only 6% were comfortable answering patients’ questions relating to breast density. Seventy-five percent of respondents indicated they wanted more education on the topic.1
For women having mammography, dense breast tissue is most important because it can mask detection of cancers, and women may want to have additional screening beyond mammography. Women with dense breasts are also at increased risk for developing breast cancer. For clinicians who are on the front lines of care for women undergoing screening, the most important action items are:
- identifying who needs more screening
- weighing the risks and benefits of such additional screening.
To assist you in informing patient discussions, in this article we answer some of the most frequently asked questions of ObGyns.
Which breasts are considered dense?
The American College of Radiology recommends that density be reported in 1 of 4 categories depending on the relative amounts of fat and fibroglandular tissue2:
- almost entirely fatty—on mammography most of the tissue appears dark gray while small amounts of dense (or fibroglandular) tissue display as light gray or white.
- scattered fibroglandular density—scattered areas of dense tissue mixed with fat. Even in breasts with scattered areas of breast tissue, cancers sometimes can be missed when they resemble areas of normal tissue or are within an area of denser tissue.
- heterogeneously dense—there are large portions of the breast where dense tissue could hide masses.
- extremely dense—most of the breast appears to consist of dense tissue, creating a “white out” situation and making it extremely difficult to see through.
Breasts that are either heterogeneously dense or extremely dense are considered “dense.” About 40% of women older than age 40 have dense breasts.3
Case study: Imaging of a cancerous breast mass in a 48-year-old woman with dense breasts
This patient has heterogeneously dense breast tissue. Standard 2D mediolateral oblique (MLO) digital mammogram (A) and MLO tomosynthesis 1-mm slice (B) reveal subtle possible distortion (arrow) in the upper right breast. On tomosynthesis, the distortion is better seen, as is the underlying irregular mass (red circle).
Ultrasound (US) directed to the mass (C) shows an irregular hypoechoic (dark gray) mass (marked by calipers), compatible with cancer. US-guided core needle biopsy revealed grade 2 invasive ductal cancer with associated ductal carcinoma in situ.
Axial magnetic resonance imaging of the right breast obtained after contrast injection, and after computer subtraction of nonenhanced image (D), shows irregular spiculated enhancing (white) mass (arrow) due to the known carcinoma.
Images: Courtesy Wendie Berg, MD, PhD
Who needs more screening?
The FIGURE is a screening decision support tool representing the consensus opinion of several medical experts based on the best available scientific evidence to optimize breast cancer detection.
Do dense breasts affect the risk of developing breast cancer?
Yes. Dense breasts are a risk factor for breast cancer. According to the American Cancer Society’s Breast Cancer Facts & Figures 2013−2014, “The risk of breast cancer in-creases with increasing breast density; women with very high breast density have a 4- to 6-fold increased risk of breast cancer compared to women with the least dense breasts.”4,5
There are several reasons that dense tissue increases risk. First, the glands tend to be made up of relatively actively dividing cells that can mutate and become cancerous (the more glandular tissue present, the greater the risk). Second, the local environment around the glands may produce certain growth hormones that stimulate cells to divide, and this seems to occur more in fibrous tissue than in fatty tissue.
Most women have breast density somewhere in the middle range, with their risk for breast cancer falling in between those with extremely dense breasts and those with fatty breasts.6 The risk for developing breast cancer is influenced by a combination of many different factors, including age, family history of cancer (particularly breast or ovarian cancer), and prior atypical breast biopsies. There currently is no reliable way to fully account for the interplay of breast density, family history, prior biopsy results, and other factors in determining overall risk. Importantly, more than half of all women who develop breast cancer have no known risk factors other than being female and aging.
Is your medical support staff “density ready?”
We’re all familiar with the adage that a picture is worth a thousand words. While the medical support personnel in your office are likely quite familiar with imaging reports and the terminology used in describing dense breasts, they may be quite unfamiliar with what a fatty versus dense breast actually looks like on a mammogram, and how cancer may display in each. Illustrated examples, as seen here, are useful for reference.
In the fatty breast (A), a small cancer (arrow) is seen easily. In a breast categorized as scattered fibroglandular density (B), a large cancer is easily seen (arrow) in the relatively fatty portion of the breast, though a small cancer could have been hidden in areas with normal glandular tissue.
In a breast categorized as heterogeneously dense (C), a 4-cm (about 1.5-inch) cancer (arrows) is hidden by the dense breast tissue. This cancer also has spread to a lymph node under the arm (curved arrow).
In an extremely dense breast (D), a cancer is seen because part of it is located in the back of the breast where there is a small amount of dark fat making it easier to see (arrow and triangle marker indicating lump). If this cancer had been located near the nipple and completely surrounded by white (dense) tissue, it probably would not have been seen on mammography.
Image: Courtesy of Dr. Regina Hooley and DenseBreast-info.org
Are screening mammography outcomes different for women with dense versus fatty breasts?
Yes. Cancer is more likely to be clinically detected in the interval between mammography screens (defined as interval cancer) in women with dense breasts. Such interval cancers tend to be more aggressive and have worse outcomes. Compared with those in fatty breasts, cancers found in dense breasts more often7:
- are locally advanced (stage IIb and III)
- are multifocal or multicentric
- require a mastectomy (rather than a lumpectomy).
Does supplemental screening beyond mammography save lives?
Mammography is the only imaging screening modality that has been studied by multiple randomized controlled trials with mortality as an endpoint. Across those trials, mammography has been shown to reduce deaths due to breast cancer. The randomized trials that show a benefit from mammography are those in which mammography increased detection of invasive breast cancers before they spread to lymph nodes.8
No randomized controlled trial has yet been reported on any other imaging screening modality, but it is expected that other screening tests that increase detection of node-negative invasive breast cancers beyond mammography should further reduce breast cancer mortality.
Proving the mortality benefit of any supplemental screening modality would require a very large, very expensive randomized controlled trial with 15 to 20 years of follow-up. Given the speed of technologic developments, any results likely would be obsolete by the trial’s conclusion. What we do know is that women at high risk for breast cancer who undergo annual magnetic resonance imaging (MRI) screening are less likely to have advanced breast cancer than their counterparts who were not screened with MRI.9
We also know that average-risk women who are screened with ultrasonography in addition to mammography are unlikely to have palpable cancer in the interval between screens,10,11 with the rates of such interval cancers similar to women with fatty breasts screened only with mammography. The cancers found only on MRI or ultrasound are mostly small invasive cancers (average size, approximately 1 cm) that are mostly node negative.12,13 MRI also finds some ductal carcinoma in situ (DCIS).
These results suggest that there is a benefit to finding additional cancers with supplemental screening, though it is certainly possible that, as with mammography, some of the cancers found with supplemental screening are slow growing and may never have caused a woman harm even if left untreated.
Dense breasts: Medically sourced resources
Educational Web site
DenseBreast-info.org. This site is a collaborative, multidisciplinary educational resource. It features content for both patients and health care providers with separate data streams for each and includes:
a comprehensive list of FAQs; screening flow charts; a Patient Risk Checklist; an explanation of risks, risk assessment, and links to risk assessment tools; an illustrated round-up of technologies commonly used in screening; and state-by-state legislative analysis of density inform laws across the country.
State-specific Web sites
BreastDensity.info. This site was created by the California Breast Density Information Group (CBDIG), a working group of breast radiologists and breast cancer risk specialists. The content is primarily for health care providers and features screening scenarios as well as FAQs about breast density, breast cancer risk, and the breast density notification law in California.
MIdensebreasts.org. This is a Web-based education resource created for primary care providers by the University of Michigan Health System and the Michigan Department of Health and Human Services. It includes continuing medical education credit.
Medical society materials
American Cancer Society offers Breast Density and Your Mammogram Report for patients: http://www.cancer.org/acs/groups/content/@editorial/documents/document/acspc-039989.pdf
American College of Obstetricians and Gynecologists’ 2015 Density Policy statement is available online: http://www.acog.org/Resources-And-Publications/Committee-Opinions/Committee-on-Gynecologic-Practice/Management-of-Women-With-Dense-Breasts-Diagnosed-by-Mammography
American College of Radiology patient brochure details basic information about breast density and can be customized with your center’s information: http://www.acr.org/News-Publications/~/media/180321AF51AF4EA38FEC091461F5B695.pdf
What additional screening tests are available after a 2D mammogram for a woman with dense breasts?
Depending on the patient’s age, risk level, and breast density, additional screening tools—such as tomosynthesis (also known as 3D mammography), ultrasonography, or MRI—may be recommended in addition to mammography. Indeed, in some centers, tomosynthesis is performed alone and the radiologist also reviews computer-generated 2D mammograms.
The addition of another imaging tool after a mammogram will find more cancers than mammography alone (TABLE).14−17 Women at high risk for breast cancer, such as those with pathogenic BRCA mutations, and those who were treated with radiation therapy to their chest (typically for Hodgkin disease) before age 30 and at least 8 years earlier, should be referred for annual MRI in addition to mammography (see Screening Decision Support Tool FIGURE above). If tomosynthesis is performed, the added benefit of ultrasound will be lower; further study on the actual benefit of supplemental ultrasound screening after 3D mammography is needed.
Will insurance cover supplemental screening beyond mammography?
The answer depends on the type of screening, the patient’s insurance and risk factors, the state in which you practice, and whether or not a law is in effect requiring insurance coverage for additional screening. In Illinois, for example, a woman with dense breasts can receive a screening ultrasound without a copay or deductible if it is ordered by a physician. In Connecticut, an ultrasound copay for screening dense breasts cannot exceed $20. Generally, in other states, an ultrasound will be covered if ordered by a physician, but it is subject to the copay and deductible of an individual health plan. In New Jersey, insurance coverage is provided for additional testing if a woman has extremely dense breasts.
Regardless of state, an MRI generally will be covered by insurance (subject to copay and deductible) if the patient meets high-risk criteria. In Michigan, at least one insurance company will cover a screening MRI for normal-risk women with dense breasts at a cost that matches the copay and deductible of a screening mammogram. It is important for patients to check with their insurance carrier prior to having an MRI.
Should women with dense breasts still have mammography screening?
Yes. Mammography is the first step in screening for most women (except for those who are pregnant or breastfeeding, in which case ultrasound can be performed but is usually deferred until several months after the patient is no longer pregnant or breastfeeding). While additional screening may be recommended for women with dense breasts, and for women at high risk for developing breast cancer, there are still some cancers and precancerous changes that will show on a mammogram better than on ultrasound or MRI. Wherever possible, women with dense breasts should have digital mammography rather than film mammography, due to slightly improved cancer detection using digital mammography.18
Does tomosynthesis solve the problem of screening dense breasts?
Tomosynthesis (3D mammography) slightly improves detection of cancers compared with standard digital mammography, but some cancers will remain hidden by overlapping dense tissue. We do not yet know the benefit of annual screening tomosynthesis. Without question, women at high risk for breast cancer still should have MRI if they are able to tolerate it, even if they have had tomosynthesis.
If a patient with dense breasts undergoes screening tomosynthesis, will she also need a screening ultrasound?
Preliminary studies not yet published suggest that, for women with dense breasts, ultrasound does find another 2 to 3 invasive cancers per 1,000 women screened that are not found on tomosynthesis, but further study of this issue is needed.
If recommended for additional screening with ultrasound or MRI, will a patient need that screening every year?
Usually, yes, though age and other medical conditions will change a patient’s personal risk and benefit considerations. Therefore, screening recommendations may change from one year to the next. With technology advancements and evolving guidelines, additional screening recommendations will change in the future.
Prepare yourself and your patients will benefit
The foundation of a successful screening program involves buy-in from both patient and clinician. Patients confused as to what their density notification means may have little understanding as to what next steps should be considered. To allay confusion, your patient will be best served by being provided understandable and actionable information. Advanced preparation for these conversations about the implications of dense tissue will make for more effective patient engagement.
Acknowledgment
Much of the material within this article has been sourced from the educational Web site DenseBreast-info.org. For comprehensive lists of both patient and health care provider frequently asked questions, visit http://www.DenseBreast-info.org.
Share your thoughts! Send your Letter to the Editor to rbarbieri@frontlinemedcom.com. Please include your name and the city and state in which you practice.
- Khong KA, Hargreaves J, Aminololama-Shakeri S, Lindfors KK. Impact of the California breast density law on primary care physicians. J Am Coll Radiol. 2015;12(3):256–260.
- Sickles EA, D’Orsi CJ, Bassett LW, et al. ACR BI-RADS Mammography. In: ACR BI-RADS Atlas, Breast Imaging Reporting and Data System. Reston, VA: American College of Radiology; 2013.
- Sprague BL, Gangnon RE, Burt V, et al. Prevalence of mammographically dense breasts in the United States. J Natl Cancer Inst. 2014;106(10).
- American Cancer Society. Breast Cancer Facts & Figures 2013–2014. http://www.cancer.org/acs/groups/content/@research/documents/document/acspc-042725.pdf. Published 2013. Accessed September 15, 2015.
- Harvey JA, Bovbjerg VE. Quantitative assessment of mammographic breast density: relationship with breast cancer risk. Radiology. 2004;230(1):29–41.
- Kerlikowske K, Cook AJ, Buist DS, et al. Breast cancer risk by breast density, menopause, and postmenopausal hormone therapy use. J Clin Oncol. 2010;28(24):3830–3837.
- Arora N, King TA, Jacks LM, et al. Impact of breast density on the presenting features of malignancy. Ann Surg Oncol. 2010;17(suppl 3):211–218.
- Smith RA, Duffy SW, Gabe R, Tabar L, Yen AM, Chen TH. The randomized trials of breast cancer screening: what have we learned? Radiol Clin North Am. 2004;42(5):793–806, v.
- Warner E, Hill K, Causer P, et al. Prospective study of breast cancer incidence in women with a BRCA1 or BRCA2 mutation under surveillance with and without magnetic resonance imaging. J Clin Oncol. 2011;29(13):1664–1669.
- Corsetti V, Houssami N, Ghirardi M, et al. Evidence of the effect of adjunct ultrasound screening in women with mammography-negative dense breasts: interval breast cancers at 1 year follow-up. Eur J Cancer. 2011;47(7): 1021–1026.
- Berg WA, Zhang Z, Lehrer D, et al. Detection of breast cancer with addition of annual screening ultrasound or a single screening MRI to mammography in women with elevated breast cancer risk. JAMA. 2012;307(13):1394–1404.
- Berg WA. Tailored supplemental screening for breast cancer: what now and what next? AJR Am J Roentgenol. 2009;192(2):390–399.
- Brem RF, Lenihan MJ, Lieberman J, Torrente J. Screening breast ultrasound: past, present, and future. AJR Am J Roentgenol. 2015;204(2):234–240.
- Hooley R. Tomosynthesis. In: Berg WA, Yang WT, eds. Diagnostic Imaging: Breast. 2nd ed. Salt Lake City, UT: Amirsys; 2014:2–19.
- Friedewald SM, Rafferty EA, Rose SL, et al. Breast cancer screening using tomosynthesis in combination with digital mammography. JAMA. 2014;311(24):2499–2507.
- Berg WA. Screening Ultrasound. In: Berg WA, Yang WT, eds. Diagnostic Imaging: Breast. 2nd ed. Salt Lake City, UT: Amirsys; 2014:9–43.
- Berg WA. Screening MRI. In: Berg WA, Yang WT, eds. Diagnostic Imaging: Breast. 2nd ed. Salt Lake City, UT: Amirsys; 2014:9–49.
- Hooley R. Tomosynthesis. In: Berg WA, Yang WT, eds.Berg WA. Screening Ultrasound. In: Berg WA, Yang WT, eds.Berg WA. Screening MRI. In: Berg WA, Yang WT, eds.Pisano ED, Gatsonis C, Hendrick E, et al. Diagnostic performance of digital versus film mammography for breast-cancer screening. N Engl J Med. 2005;353(17):1773–1783.
- Khong KA, Hargreaves J, Aminololama-Shakeri S, Lindfors KK. Impact of the California breast density law on primary care physicians. J Am Coll Radiol. 2015;12(3):256–260.
- Sickles EA, D’Orsi CJ, Bassett LW, et al. ACR BI-RADS Mammography. In: ACR BI-RADS Atlas, Breast Imaging Reporting and Data System. Reston, VA: American College of Radiology; 2013.
- Sprague BL, Gangnon RE, Burt V, et al. Prevalence of mammographically dense breasts in the United States. J Natl Cancer Inst. 2014;106(10).
- American Cancer Society. Breast Cancer Facts & Figures 2013–2014. http://www.cancer.org/acs/groups/content/@research/documents/document/acspc-042725.pdf. Published 2013. Accessed September 15, 2015.
- Harvey JA, Bovbjerg VE. Quantitative assessment of mammographic breast density: relationship with breast cancer risk. Radiology. 2004;230(1):29–41.
- Kerlikowske K, Cook AJ, Buist DS, et al. Breast cancer risk by breast density, menopause, and postmenopausal hormone therapy use. J Clin Oncol. 2010;28(24):3830–3837.
- Arora N, King TA, Jacks LM, et al. Impact of breast density on the presenting features of malignancy. Ann Surg Oncol. 2010;17(suppl 3):211–218.
- Smith RA, Duffy SW, Gabe R, Tabar L, Yen AM, Chen TH. The randomized trials of breast cancer screening: what have we learned? Radiol Clin North Am. 2004;42(5):793–806, v.
- Warner E, Hill K, Causer P, et al. Prospective study of breast cancer incidence in women with a BRCA1 or BRCA2 mutation under surveillance with and without magnetic resonance imaging. J Clin Oncol. 2011;29(13):1664–1669.
- Corsetti V, Houssami N, Ghirardi M, et al. Evidence of the effect of adjunct ultrasound screening in women with mammography-negative dense breasts: interval breast cancers at 1 year follow-up. Eur J Cancer. 2011;47(7): 1021–1026.
- Berg WA, Zhang Z, Lehrer D, et al. Detection of breast cancer with addition of annual screening ultrasound or a single screening MRI to mammography in women with elevated breast cancer risk. JAMA. 2012;307(13):1394–1404.
- Berg WA. Tailored supplemental screening for breast cancer: what now and what next? AJR Am J Roentgenol. 2009;192(2):390–399.
- Brem RF, Lenihan MJ, Lieberman J, Torrente J. Screening breast ultrasound: past, present, and future. AJR Am J Roentgenol. 2015;204(2):234–240.
- Hooley R. Tomosynthesis. In: Berg WA, Yang WT, eds. Diagnostic Imaging: Breast. 2nd ed. Salt Lake City, UT: Amirsys; 2014:2–19.
- Friedewald SM, Rafferty EA, Rose SL, et al. Breast cancer screening using tomosynthesis in combination with digital mammography. JAMA. 2014;311(24):2499–2507.
- Berg WA. Screening Ultrasound. In: Berg WA, Yang WT, eds. Diagnostic Imaging: Breast. 2nd ed. Salt Lake City, UT: Amirsys; 2014:9–43.
- Berg WA. Screening MRI. In: Berg WA, Yang WT, eds. Diagnostic Imaging: Breast. 2nd ed. Salt Lake City, UT: Amirsys; 2014:9–49.
- Hooley R. Tomosynthesis. In: Berg WA, Yang WT, eds.Berg WA. Screening Ultrasound. In: Berg WA, Yang WT, eds.Berg WA. Screening MRI. In: Berg WA, Yang WT, eds.Pisano ED, Gatsonis C, Hendrick E, et al. Diagnostic performance of digital versus film mammography for breast-cancer screening. N Engl J Med. 2005;353(17):1773–1783.
In this Article
- Breast mass imaging case study
- Screening decision support tool
- Is your support staff “density” ready?
2015 Update on cancer
As the proportion of the elderly in the US population continues to increase, with life expectancy trending upward, we can expect to see more gynecologic cancers in our patients.1,2 At present, the most effective approach to these cancers commonly includes aggressive surgical resection with chemotherapy and, in some cases, radiation. It remains unclear whether elderly patients should be managed the same as younger patients, with minimal data to guide physicians. Some evidence suggests an increased risk of surgical complications in older adults.3
To optimize surgical care in our elderly patients, we need to understand the risks of perioperative mortality and morbidity in this population. For example, the current standard of care for advanced epithelial ovarian cancer is aggressive cytoreductive surgery followed by adjuvant chemotherapy,4 although neoadjuvant chemotherapy is gaining utility and popularity in certain circumstances. During pretreatment counseling, it is imperative that we communicate patient-specific outcomes so that patients and their families can make educated decisions in line with their goals. What should we know about age-dependent outcomes when counseling our patients?
To optimize surgical care in this population, we also need to develop and use new methods of surgical decision making. Although some data suggest that age is an independent risk factor for postoperative complications, not all elderly patients are the same in terms of comorbidities and functional status. In order to truly assess risks, we need to identify additional preoperative risk factors. Are there accurate scoring tools or predictors of outcomes available to help us assess the risks of postoperative mortality and morbidity?
In this article, we highlight recent developments in surgical treatment of the elderly, focusing on:
- postoperative mortality and morbidity in patients older than 80 years
- adjuncts to preoperative assessment for oncogeriatric surgical patients.
Risks rise sharply in older patients undergoing treatment for ovarian Ca
Moore KN, Reid MS, Fong DN, et al. Ovarian cancer in the octogenarian: does the paradigm of aggressive cytoreductive surgery and chemotherapy still apply? Gynecol Oncol. 2008;110(2):133–139.
Mahdi H, Wiechert A, Lockhart D, Rose PG. Impact of age on 30-day mortality and morbidity in patients undergoing surgery for ovarian cancer. Int J Gynecol Cancer. 2015;25(7):1216–1223.
The cornerstone of optimal survival from certain gynecologic cancers, such as advanced ovarian cancer, is aggressive debulking surgery. However, older adults are classically under-represented in clinical trials that guide this standard of care.
To determine whether patients aged 80 years or older respond differently from younger patients to conventional ovarian cancer management, Moore and colleagues retrospectively reviewed their institutional experience. They found that postoperative mortality increased from 5.4% in patients aged 80 to 84 years to 9.1% in those aged 85 to 89 and 14.4% in those older than 90. The rates for younger patients were 0.6% for patients younger than 60 years, 2.8% for those aged 60 to 69 years, and 2.5% for those aged 70 to 79 years (P<.001).
Notably, 13% of patients aged 80 years or older who underwent primary surgery died during their primary hospitalization. Of those who survived, 50% were discharged to skilled nursing facilities. Of patients who underwent cytoreductive surgery, 13% were unable to undergo any intended adjuvant therapy, and only 57% completed more than 3 cycles of chemotherapy, either due to demise or toxicities. Two-month survival for patients 80 years or older was comparable between patients who underwent primary surgery and those who had primary chemotherapy (20% and 26%, respectively).
With a similar objective, Mahdi and colleagues identified 2,087 patients with ovarian cancer who underwent surgery. After adjusting for confounders with multivariable analyses, they found that octogenarians whose initial management was surgery were 9 times more likely than younger patients to die and 70% more likely to develop complications within 30 days. Among patients who underwent neoadjuvant chemotherapy, there were no significant differences between older and younger patients in 30-day postoperative mortality or morbidity.
When evaluating elderly patients for surgery, the use of multiple risk-assessment strategies may improve accuracy
Huisman MG, Audisio RA, Ugolini G, et al. Screening for predictors of adverse outcome in onco-geriatric surgical patients: a multicenter prospective cohort study. Eur J Surg Oncol. 2015;41(7):844–851.
Uppal S, Igwe E, Rice L, Spencer R, Rose SL. Frailty index predicts severe complications in gynecologic oncology patients. Gynecol Oncol. 2015;137(1):98–101.
The National Comprehensive Cancer Network recommends that clinicians determine baseline life expectancy for older adults with cancer to aid in management decision making. The use of tools such as www.eprognosis.com, developed to determine anticipated life expectancy independent of cancer, can prove useful in determining a patient’s risk of dying or suffering from their cancer before dying of another cause.5
When it comes to the determination of risk related to a patient’s cancer diagnosis and selection of potential management options, many argue that the subgroup of elderly patients is not homogenous and that the use of age alone to guide management decisions may be unfair. Preoperative evaluation ideally should incorporate a global assessment of predictive risk factors.
Three assessment tools are especially useful
Huisman and colleagues set out to identify accurate preoperative assessment methods in elderly patients undergoing oncologic surgery. They prospectively recruited 328 patients aged 70 years or older and evaluated patients preoperatively using 11 well-known geriatric screening tools. They compared these evaluations with outcomes to determine which tools best predict the occurrence of major postoperative complications. They found the strongest correlation with outcomes when combining gender and type of surgery with the following 3 assessment tools:
- Timed Up and Go (TUG)—a walking test to measure functional status
- American Society of Anesthesiologists scale—a scoring system that quantifies preoperative physical status and estimates anesthetic risk
- Nutritional Risk Screening—an assessment of nutritional risk based on recent weight loss, overall condition, and reduction of food intake.
All 3 are simple and short screening tools. When used together, they can provide clinicians with accurate risk estimations.
The findings of Huisman and colleagues reinforce the importance of a global assessment of the patient’s comorbidities, functional status, and nutritional status when determining candidacy for oncologic surgery.
Functional index predicts need for postoperative ICU care and risk of death
Uppal and colleagues set out to quantify the predictive value of the modified Functional Index (mFI) in assessing the need for postoperative critical care support and/or the risk of death within 30 days after gynecologic cancer surgery. The mFI can be calculated by adding 1 point for each variable listed in the TABLE, with a score of 4 or higher representing a high-frailty cohort.
Of 6,551 patients who underwent gynecologic surgery, 188 were admitted to the intensive care unit (ICU) or died within 30 days after surgery. The mFI was calculated, with multivariate analyses of additional variables. An mFI score of 3 or higher was predictive of the need for critical care support and the risk of 30-day mortality and was associated with a significantly higher number of complications (P<.001).
Predictors significant for postoperative critical care support or death were:
- preoperative albumin level less than 3 g/dL (odds ratio [OR] = 6.5)
- operative time (OR = 1.003 per minute of increase)
- nonlaparoscopic surgery (OR = 3.3)
- mFI score, with a score of 0 serving as the reference (OR for a score of 1 = 1.26; score of 2 = 1.9; score of 3 = 2.33; and score of 4 or higher = 12.5).
When they combined the mFI and albumin scores—both readily available in the preoperative setting—Uppal and colleagues were able to develop an algorithm to determine patients who were at “low risk” versus “high risk” for ICU admission and/or death postoperatively (FIGURE).
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and modified Functional Index","field_file_image_credit[und][0][value]":"6"},"type":"media","attributes":{"height":"316","width":"665","class":"media-element file-medstat-image-full-text"}}]]
Bottom line
Older patients are more commonly affected by multiple medical comorbidities, as well as functional, cognitive, and nutritional deficiencies, which contribute to their increased risk of morbidity and mortality after surgery. The elderly experience greater morbidity with noncardiac surgery in general.
Clearly, the decision to operate on an elderly patient should be approached with caution, and a critical assessment of the patient’s risk factors should be performed to inform counseling about the patient’s management options. Future randomized prospective data will help us better understand the relationship between age and surgical outcomes.
Share your thoughts on this article! Send your Letter to the Editor to rbarbieri@frontlinemedcom.com. Please include your name and the city and state in which you practice.
- US Census Bureau. Population Projections: Projections of the Population by Sex and Selected Age Groups for the United States: 2015 to 2060. https://www.census.gov/population/projections/data/national/2014/summarytables.html. Published December 2014. Accessed August 31, 2015.
- US Census Bureau. Population Projections: Percent Distribution of the Projected Population by Sex and Selected Age Groups for the United States: 2015 to 2060. https://www.census.gov/population/projections/data/national/2014/summarytables.html. Published December 2014. Accessed August 31, 2015.
- Polanczyk CA, Marcantonio E, Goldman L, et al. Impact of age on perioperative complications and length of stay in patients undergoing noncardiac surgery. Ann Intern Med. 2001;134(8):637–643.
- Aletti G, Dowdy SC, Gostout BS, et al. Aggressive surgical effort and improved survival in advanced stage ovarian cancer. Obstet Gynecol. 2006;107(1):77–85.
- National Comprehensive Cancer Network. NCCN Guidelines for Age-Related Recommendations: Older Adult Oncology. . Published 2015. Accessed August 31, 2015.
- Uppal S, Igwe E, Rice L, Spencer R, Rose SL. Frailty index predicts severe complications in gynecologic oncology patients. Gynecol Oncol. 2015;137(1):98–101.
As the proportion of the elderly in the US population continues to increase, with life expectancy trending upward, we can expect to see more gynecologic cancers in our patients.1,2 At present, the most effective approach to these cancers commonly includes aggressive surgical resection with chemotherapy and, in some cases, radiation. It remains unclear whether elderly patients should be managed the same as younger patients, with minimal data to guide physicians. Some evidence suggests an increased risk of surgical complications in older adults.3
To optimize surgical care in our elderly patients, we need to understand the risks of perioperative mortality and morbidity in this population. For example, the current standard of care for advanced epithelial ovarian cancer is aggressive cytoreductive surgery followed by adjuvant chemotherapy,4 although neoadjuvant chemotherapy is gaining utility and popularity in certain circumstances. During pretreatment counseling, it is imperative that we communicate patient-specific outcomes so that patients and their families can make educated decisions in line with their goals. What should we know about age-dependent outcomes when counseling our patients?
To optimize surgical care in this population, we also need to develop and use new methods of surgical decision making. Although some data suggest that age is an independent risk factor for postoperative complications, not all elderly patients are the same in terms of comorbidities and functional status. In order to truly assess risks, we need to identify additional preoperative risk factors. Are there accurate scoring tools or predictors of outcomes available to help us assess the risks of postoperative mortality and morbidity?
In this article, we highlight recent developments in surgical treatment of the elderly, focusing on:
- postoperative mortality and morbidity in patients older than 80 years
- adjuncts to preoperative assessment for oncogeriatric surgical patients.
Risks rise sharply in older patients undergoing treatment for ovarian Ca
Moore KN, Reid MS, Fong DN, et al. Ovarian cancer in the octogenarian: does the paradigm of aggressive cytoreductive surgery and chemotherapy still apply? Gynecol Oncol. 2008;110(2):133–139.
Mahdi H, Wiechert A, Lockhart D, Rose PG. Impact of age on 30-day mortality and morbidity in patients undergoing surgery for ovarian cancer. Int J Gynecol Cancer. 2015;25(7):1216–1223.
The cornerstone of optimal survival from certain gynecologic cancers, such as advanced ovarian cancer, is aggressive debulking surgery. However, older adults are classically under-represented in clinical trials that guide this standard of care.
To determine whether patients aged 80 years or older respond differently from younger patients to conventional ovarian cancer management, Moore and colleagues retrospectively reviewed their institutional experience. They found that postoperative mortality increased from 5.4% in patients aged 80 to 84 years to 9.1% in those aged 85 to 89 and 14.4% in those older than 90. The rates for younger patients were 0.6% for patients younger than 60 years, 2.8% for those aged 60 to 69 years, and 2.5% for those aged 70 to 79 years (P<.001).
Notably, 13% of patients aged 80 years or older who underwent primary surgery died during their primary hospitalization. Of those who survived, 50% were discharged to skilled nursing facilities. Of patients who underwent cytoreductive surgery, 13% were unable to undergo any intended adjuvant therapy, and only 57% completed more than 3 cycles of chemotherapy, either due to demise or toxicities. Two-month survival for patients 80 years or older was comparable between patients who underwent primary surgery and those who had primary chemotherapy (20% and 26%, respectively).
With a similar objective, Mahdi and colleagues identified 2,087 patients with ovarian cancer who underwent surgery. After adjusting for confounders with multivariable analyses, they found that octogenarians whose initial management was surgery were 9 times more likely than younger patients to die and 70% more likely to develop complications within 30 days. Among patients who underwent neoadjuvant chemotherapy, there were no significant differences between older and younger patients in 30-day postoperative mortality or morbidity.
When evaluating elderly patients for surgery, the use of multiple risk-assessment strategies may improve accuracy
Huisman MG, Audisio RA, Ugolini G, et al. Screening for predictors of adverse outcome in onco-geriatric surgical patients: a multicenter prospective cohort study. Eur J Surg Oncol. 2015;41(7):844–851.
Uppal S, Igwe E, Rice L, Spencer R, Rose SL. Frailty index predicts severe complications in gynecologic oncology patients. Gynecol Oncol. 2015;137(1):98–101.
The National Comprehensive Cancer Network recommends that clinicians determine baseline life expectancy for older adults with cancer to aid in management decision making. The use of tools such as www.eprognosis.com, developed to determine anticipated life expectancy independent of cancer, can prove useful in determining a patient’s risk of dying or suffering from their cancer before dying of another cause.5
When it comes to the determination of risk related to a patient’s cancer diagnosis and selection of potential management options, many argue that the subgroup of elderly patients is not homogenous and that the use of age alone to guide management decisions may be unfair. Preoperative evaluation ideally should incorporate a global assessment of predictive risk factors.
Three assessment tools are especially useful
Huisman and colleagues set out to identify accurate preoperative assessment methods in elderly patients undergoing oncologic surgery. They prospectively recruited 328 patients aged 70 years or older and evaluated patients preoperatively using 11 well-known geriatric screening tools. They compared these evaluations with outcomes to determine which tools best predict the occurrence of major postoperative complications. They found the strongest correlation with outcomes when combining gender and type of surgery with the following 3 assessment tools:
- Timed Up and Go (TUG)—a walking test to measure functional status
- American Society of Anesthesiologists scale—a scoring system that quantifies preoperative physical status and estimates anesthetic risk
- Nutritional Risk Screening—an assessment of nutritional risk based on recent weight loss, overall condition, and reduction of food intake.
All 3 are simple and short screening tools. When used together, they can provide clinicians with accurate risk estimations.
The findings of Huisman and colleagues reinforce the importance of a global assessment of the patient’s comorbidities, functional status, and nutritional status when determining candidacy for oncologic surgery.
Functional index predicts need for postoperative ICU care and risk of death
Uppal and colleagues set out to quantify the predictive value of the modified Functional Index (mFI) in assessing the need for postoperative critical care support and/or the risk of death within 30 days after gynecologic cancer surgery. The mFI can be calculated by adding 1 point for each variable listed in the TABLE, with a score of 4 or higher representing a high-frailty cohort.
Of 6,551 patients who underwent gynecologic surgery, 188 were admitted to the intensive care unit (ICU) or died within 30 days after surgery. The mFI was calculated, with multivariate analyses of additional variables. An mFI score of 3 or higher was predictive of the need for critical care support and the risk of 30-day mortality and was associated with a significantly higher number of complications (P<.001).
Predictors significant for postoperative critical care support or death were:
- preoperative albumin level less than 3 g/dL (odds ratio [OR] = 6.5)
- operative time (OR = 1.003 per minute of increase)
- nonlaparoscopic surgery (OR = 3.3)
- mFI score, with a score of 0 serving as the reference (OR for a score of 1 = 1.26; score of 2 = 1.9; score of 3 = 2.33; and score of 4 or higher = 12.5).
When they combined the mFI and albumin scores—both readily available in the preoperative setting—Uppal and colleagues were able to develop an algorithm to determine patients who were at “low risk” versus “high risk” for ICU admission and/or death postoperatively (FIGURE).
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and modified Functional Index","field_file_image_credit[und][0][value]":"6"},"type":"media","attributes":{"height":"316","width":"665","class":"media-element file-medstat-image-full-text"}}]]
Bottom line
Older patients are more commonly affected by multiple medical comorbidities, as well as functional, cognitive, and nutritional deficiencies, which contribute to their increased risk of morbidity and mortality after surgery. The elderly experience greater morbidity with noncardiac surgery in general.
Clearly, the decision to operate on an elderly patient should be approached with caution, and a critical assessment of the patient’s risk factors should be performed to inform counseling about the patient’s management options. Future randomized prospective data will help us better understand the relationship between age and surgical outcomes.
Share your thoughts on this article! Send your Letter to the Editor to rbarbieri@frontlinemedcom.com. Please include your name and the city and state in which you practice.
As the proportion of the elderly in the US population continues to increase, with life expectancy trending upward, we can expect to see more gynecologic cancers in our patients.1,2 At present, the most effective approach to these cancers commonly includes aggressive surgical resection with chemotherapy and, in some cases, radiation. It remains unclear whether elderly patients should be managed the same as younger patients, with minimal data to guide physicians. Some evidence suggests an increased risk of surgical complications in older adults.3
To optimize surgical care in our elderly patients, we need to understand the risks of perioperative mortality and morbidity in this population. For example, the current standard of care for advanced epithelial ovarian cancer is aggressive cytoreductive surgery followed by adjuvant chemotherapy,4 although neoadjuvant chemotherapy is gaining utility and popularity in certain circumstances. During pretreatment counseling, it is imperative that we communicate patient-specific outcomes so that patients and their families can make educated decisions in line with their goals. What should we know about age-dependent outcomes when counseling our patients?
To optimize surgical care in this population, we also need to develop and use new methods of surgical decision making. Although some data suggest that age is an independent risk factor for postoperative complications, not all elderly patients are the same in terms of comorbidities and functional status. In order to truly assess risks, we need to identify additional preoperative risk factors. Are there accurate scoring tools or predictors of outcomes available to help us assess the risks of postoperative mortality and morbidity?
In this article, we highlight recent developments in surgical treatment of the elderly, focusing on:
- postoperative mortality and morbidity in patients older than 80 years
- adjuncts to preoperative assessment for oncogeriatric surgical patients.
Risks rise sharply in older patients undergoing treatment for ovarian Ca
Moore KN, Reid MS, Fong DN, et al. Ovarian cancer in the octogenarian: does the paradigm of aggressive cytoreductive surgery and chemotherapy still apply? Gynecol Oncol. 2008;110(2):133–139.
Mahdi H, Wiechert A, Lockhart D, Rose PG. Impact of age on 30-day mortality and morbidity in patients undergoing surgery for ovarian cancer. Int J Gynecol Cancer. 2015;25(7):1216–1223.
The cornerstone of optimal survival from certain gynecologic cancers, such as advanced ovarian cancer, is aggressive debulking surgery. However, older adults are classically under-represented in clinical trials that guide this standard of care.
To determine whether patients aged 80 years or older respond differently from younger patients to conventional ovarian cancer management, Moore and colleagues retrospectively reviewed their institutional experience. They found that postoperative mortality increased from 5.4% in patients aged 80 to 84 years to 9.1% in those aged 85 to 89 and 14.4% in those older than 90. The rates for younger patients were 0.6% for patients younger than 60 years, 2.8% for those aged 60 to 69 years, and 2.5% for those aged 70 to 79 years (P<.001).
Notably, 13% of patients aged 80 years or older who underwent primary surgery died during their primary hospitalization. Of those who survived, 50% were discharged to skilled nursing facilities. Of patients who underwent cytoreductive surgery, 13% were unable to undergo any intended adjuvant therapy, and only 57% completed more than 3 cycles of chemotherapy, either due to demise or toxicities. Two-month survival for patients 80 years or older was comparable between patients who underwent primary surgery and those who had primary chemotherapy (20% and 26%, respectively).
With a similar objective, Mahdi and colleagues identified 2,087 patients with ovarian cancer who underwent surgery. After adjusting for confounders with multivariable analyses, they found that octogenarians whose initial management was surgery were 9 times more likely than younger patients to die and 70% more likely to develop complications within 30 days. Among patients who underwent neoadjuvant chemotherapy, there were no significant differences between older and younger patients in 30-day postoperative mortality or morbidity.
When evaluating elderly patients for surgery, the use of multiple risk-assessment strategies may improve accuracy
Huisman MG, Audisio RA, Ugolini G, et al. Screening for predictors of adverse outcome in onco-geriatric surgical patients: a multicenter prospective cohort study. Eur J Surg Oncol. 2015;41(7):844–851.
Uppal S, Igwe E, Rice L, Spencer R, Rose SL. Frailty index predicts severe complications in gynecologic oncology patients. Gynecol Oncol. 2015;137(1):98–101.
The National Comprehensive Cancer Network recommends that clinicians determine baseline life expectancy for older adults with cancer to aid in management decision making. The use of tools such as www.eprognosis.com, developed to determine anticipated life expectancy independent of cancer, can prove useful in determining a patient’s risk of dying or suffering from their cancer before dying of another cause.5
When it comes to the determination of risk related to a patient’s cancer diagnosis and selection of potential management options, many argue that the subgroup of elderly patients is not homogenous and that the use of age alone to guide management decisions may be unfair. Preoperative evaluation ideally should incorporate a global assessment of predictive risk factors.
Three assessment tools are especially useful
Huisman and colleagues set out to identify accurate preoperative assessment methods in elderly patients undergoing oncologic surgery. They prospectively recruited 328 patients aged 70 years or older and evaluated patients preoperatively using 11 well-known geriatric screening tools. They compared these evaluations with outcomes to determine which tools best predict the occurrence of major postoperative complications. They found the strongest correlation with outcomes when combining gender and type of surgery with the following 3 assessment tools:
- Timed Up and Go (TUG)—a walking test to measure functional status
- American Society of Anesthesiologists scale—a scoring system that quantifies preoperative physical status and estimates anesthetic risk
- Nutritional Risk Screening—an assessment of nutritional risk based on recent weight loss, overall condition, and reduction of food intake.
All 3 are simple and short screening tools. When used together, they can provide clinicians with accurate risk estimations.
The findings of Huisman and colleagues reinforce the importance of a global assessment of the patient’s comorbidities, functional status, and nutritional status when determining candidacy for oncologic surgery.
Functional index predicts need for postoperative ICU care and risk of death
Uppal and colleagues set out to quantify the predictive value of the modified Functional Index (mFI) in assessing the need for postoperative critical care support and/or the risk of death within 30 days after gynecologic cancer surgery. The mFI can be calculated by adding 1 point for each variable listed in the TABLE, with a score of 4 or higher representing a high-frailty cohort.
Of 6,551 patients who underwent gynecologic surgery, 188 were admitted to the intensive care unit (ICU) or died within 30 days after surgery. The mFI was calculated, with multivariate analyses of additional variables. An mFI score of 3 or higher was predictive of the need for critical care support and the risk of 30-day mortality and was associated with a significantly higher number of complications (P<.001).
Predictors significant for postoperative critical care support or death were:
- preoperative albumin level less than 3 g/dL (odds ratio [OR] = 6.5)
- operative time (OR = 1.003 per minute of increase)
- nonlaparoscopic surgery (OR = 3.3)
- mFI score, with a score of 0 serving as the reference (OR for a score of 1 = 1.26; score of 2 = 1.9; score of 3 = 2.33; and score of 4 or higher = 12.5).
When they combined the mFI and albumin scores—both readily available in the preoperative setting—Uppal and colleagues were able to develop an algorithm to determine patients who were at “low risk” versus “high risk” for ICU admission and/or death postoperatively (FIGURE).
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and modified Functional Index","field_file_image_credit[und][0][value]":"6"},"type":"media","attributes":{"height":"316","width":"665","class":"media-element file-medstat-image-full-text"}}]]
Bottom line
Older patients are more commonly affected by multiple medical comorbidities, as well as functional, cognitive, and nutritional deficiencies, which contribute to their increased risk of morbidity and mortality after surgery. The elderly experience greater morbidity with noncardiac surgery in general.
Clearly, the decision to operate on an elderly patient should be approached with caution, and a critical assessment of the patient’s risk factors should be performed to inform counseling about the patient’s management options. Future randomized prospective data will help us better understand the relationship between age and surgical outcomes.
Share your thoughts on this article! Send your Letter to the Editor to rbarbieri@frontlinemedcom.com. Please include your name and the city and state in which you practice.
- US Census Bureau. Population Projections: Projections of the Population by Sex and Selected Age Groups for the United States: 2015 to 2060. https://www.census.gov/population/projections/data/national/2014/summarytables.html. Published December 2014. Accessed August 31, 2015.
- US Census Bureau. Population Projections: Percent Distribution of the Projected Population by Sex and Selected Age Groups for the United States: 2015 to 2060. https://www.census.gov/population/projections/data/national/2014/summarytables.html. Published December 2014. Accessed August 31, 2015.
- Polanczyk CA, Marcantonio E, Goldman L, et al. Impact of age on perioperative complications and length of stay in patients undergoing noncardiac surgery. Ann Intern Med. 2001;134(8):637–643.
- Aletti G, Dowdy SC, Gostout BS, et al. Aggressive surgical effort and improved survival in advanced stage ovarian cancer. Obstet Gynecol. 2006;107(1):77–85.
- National Comprehensive Cancer Network. NCCN Guidelines for Age-Related Recommendations: Older Adult Oncology. . Published 2015. Accessed August 31, 2015.
- Uppal S, Igwe E, Rice L, Spencer R, Rose SL. Frailty index predicts severe complications in gynecologic oncology patients. Gynecol Oncol. 2015;137(1):98–101.
- US Census Bureau. Population Projections: Projections of the Population by Sex and Selected Age Groups for the United States: 2015 to 2060. https://www.census.gov/population/projections/data/national/2014/summarytables.html. Published December 2014. Accessed August 31, 2015.
- US Census Bureau. Population Projections: Percent Distribution of the Projected Population by Sex and Selected Age Groups for the United States: 2015 to 2060. https://www.census.gov/population/projections/data/national/2014/summarytables.html. Published December 2014. Accessed August 31, 2015.
- Polanczyk CA, Marcantonio E, Goldman L, et al. Impact of age on perioperative complications and length of stay in patients undergoing noncardiac surgery. Ann Intern Med. 2001;134(8):637–643.
- Aletti G, Dowdy SC, Gostout BS, et al. Aggressive surgical effort and improved survival in advanced stage ovarian cancer. Obstet Gynecol. 2006;107(1):77–85.
- National Comprehensive Cancer Network. NCCN Guidelines for Age-Related Recommendations: Older Adult Oncology. . Published 2015. Accessed August 31, 2015.
- Uppal S, Igwe E, Rice L, Spencer R, Rose SL. Frailty index predicts severe complications in gynecologic oncology patients. Gynecol Oncol. 2015;137(1):98–101.
IN THIS ARTICLE
- Preoperative risk-assessment strategies
- The 11-item modified Functional Index
- Using the Functional Index in practice
Does episiotomy at vacuum delivery increase maternal morbidity?
Episiotomy refers to an incision into the perineal body made during the second stage of labor to expedite delivery. It comes in 2 main flavors (midline and mediolateral), and neither one is particularly palatable. Routine use of episiotomy is strongly discouraged, for several reasons:
- There is little evidence of benefit
- It is associated with an increased risk of short- and long-term complications to both the mother and neonate, including postpartum hemorrhage, severe perineal injury, and pelvic floor dysfunction.1,2
Whether to perform an episiotomy at the time of operative vaginal delivery (forceps or vacuum), however, remains controversial.
Sagi-Dain and Sagi performed a meta- analysis of the existing literature in an effort to answer a single clinically relevant question: Should an episiotomy be performed at the time of vacuum delivery?
Details of the study
The primary endpoint was obstetric anal sphincter injuries (OASIS), which are more commonly referred to in the United States as severe perineal injury (3rd- and 4th-degree perineal laceration). Secondary endpoints were, among others, neonatal outcomes (including Apgar scores, neonatal trauma, shoulder dystocia, neonatal resuscitation, and admission to the neonatal intensive care unit) and maternal complications (including postpartum hemorrhage, perineal infection, urinary retention, urinary/fecal incontinence, prolonged hospital stay, and analgesia use).
Of 812 original research reports initially identified that examined the effect of episiotomy at vacuum delivery on any measure of maternal or neonatal outcome, 15 articles encompassing 350,764 deliveries were included in the final analysis. Of these, 14 were observational cohort studies (13 retrospective and 1 prospective) plus 1 case-control analysis; no randomized trials were identified.
Overall, episiotomy was performed in 64.3% (SD, 18.8%; range, 28.7%-86.0%) of vacuum deliveries and was more common in nulliparous (58.7%; SD, 17.8%) than in multiparous women (34.2%; SD, 14.6%; P = .035). The investigators found that US and Canadian studies reported using mainly median episiotomy, whereas European, Scandinavian, and Australian studies used mainly mediolateral episiotomy.
Overall, OASIS occurred in 8.5% (SD, 10.6%; range 1.0%-23.6%) of vacuum deliveries, with a higher rate occurring in nulliparous compared with multiparous women (9.6%; [SD, 6.2%] vs 1.7% [SD, 1.3%], respectively; P = .031).
Median (midline) episiotomy at the time of vacuum delivery was associated with a significant increase in OASIS in both nulliparous (odds ratio [OR], 5.11; 95% confidence interval [CI], 3.23-8.08) and multip- arous women (OR, 89.4; 95% CI, 11.8-677.1). A similar increase in OASIS was seen when a mediolateral episiotomy was performed at vacuum delivery in multiparous women (OR, 1.27; 95% CI, 1.05-1.53), although no statistically significant relationship was evident between mediolateral episiotomy at vacuum delivery and OASIS in nulliparous women (OR, 0.68; 95% CI, 0.43-1.07). Mediolateral episiotomy also was linked to increased rates of postpartum hemorrhage (OR, 1.82; 95% CI, 1.16-2.86) and analgesia use (OR, 2.10; 95% CI, 1.39-3.17).
Strengths and limitations
Meta-analysis (systematic review) is not synonymous with a review of the literature. It has a very specific methodology and should be treated as original research, albeit in silico. Meta-analyses use precise statistical methods to combine and contrast results from a number of independent original research reports. The current study is an exemplary illustration of just how such an analysis should be conducted. As prescribed by the Meta-analysis Of Observational Studies in Epidemiology (MOOSE) guidelines,3 it included all study designs, both published and unpublished data, and was not limited to English language reports.
In addition, if results were unclear or data were missing, the investigators contacted the authors directly to verify the information. Prior published statistical analyses were disregarded, and the investigators conducted an independent evaluation of the pooled data using each patient as a separate data point. Data classification and coding were clearly described; the analysis was performed independently by 2 separate investigators; and a detailed assessment of data quality, heterogeneity, and sensitivity testing was included.
What this evidence means for practice
Episiotomy at the time of vacuum delivery does not appear to be of benefit, and it more likely than not increases maternal morbidity. This is especially true of median episiotomy (the type used most commonly in the United States), which increases the risk of OASIS at the time of vacuum delivery 5-fold in nulliparous and 89-fold in multiparous women.
Confidence in these conclusions is guarded. Based on the small number of reports, the lack of randomized trials, and the significant heterogeneity between the studies, the authors rated the overall quality of evidence as “low” to “very low” using the Grading of Recommendations Assessment, Development and Evaluation (GRADE) working group criteria. Additional large prospective clinical trials are needed to definitively answer the question of whether episiotomy at vacuum delivery increases maternal morbidity.
Until such studies are available, however, it would be best if obstetric care providers avoid episiotomy at the time of vacuum delivery. On a personal note, I look forward to the day when a medical student turns to an attending and asks: “What is an episiotomy?” And the attending responds: “I don’t know. I’ve never seen one.” Only then will I be ready to retire.
>> Errol R. Norwitz, MD, PhD
1. Carroli G, Mignini L. Episiotomy for vaginal birth. Cochrane Database Syst Rev. 2009;(1):CD000081.
2. Ali U, Norwitz ER. Vacuum-assisted vaginal delivery. Rev Obstet Gynecol. 2009;2(1):5-17.
3. Stroup DF, Berlin JA, Morton SC, et al. Meta-analysis of observational studies in epidemiology: a proposal for reporting. Meta-analysis Of Observational Studies in Epidemiology (MOOSE) group. JAMA. 2000;283(15):2008-2012.
Episiotomy refers to an incision into the perineal body made during the second stage of labor to expedite delivery. It comes in 2 main flavors (midline and mediolateral), and neither one is particularly palatable. Routine use of episiotomy is strongly discouraged, for several reasons:
- There is little evidence of benefit
- It is associated with an increased risk of short- and long-term complications to both the mother and neonate, including postpartum hemorrhage, severe perineal injury, and pelvic floor dysfunction.1,2
Whether to perform an episiotomy at the time of operative vaginal delivery (forceps or vacuum), however, remains controversial.
Sagi-Dain and Sagi performed a meta- analysis of the existing literature in an effort to answer a single clinically relevant question: Should an episiotomy be performed at the time of vacuum delivery?
Details of the study
The primary endpoint was obstetric anal sphincter injuries (OASIS), which are more commonly referred to in the United States as severe perineal injury (3rd- and 4th-degree perineal laceration). Secondary endpoints were, among others, neonatal outcomes (including Apgar scores, neonatal trauma, shoulder dystocia, neonatal resuscitation, and admission to the neonatal intensive care unit) and maternal complications (including postpartum hemorrhage, perineal infection, urinary retention, urinary/fecal incontinence, prolonged hospital stay, and analgesia use).
Of 812 original research reports initially identified that examined the effect of episiotomy at vacuum delivery on any measure of maternal or neonatal outcome, 15 articles encompassing 350,764 deliveries were included in the final analysis. Of these, 14 were observational cohort studies (13 retrospective and 1 prospective) plus 1 case-control analysis; no randomized trials were identified.
Overall, episiotomy was performed in 64.3% (SD, 18.8%; range, 28.7%-86.0%) of vacuum deliveries and was more common in nulliparous (58.7%; SD, 17.8%) than in multiparous women (34.2%; SD, 14.6%; P = .035). The investigators found that US and Canadian studies reported using mainly median episiotomy, whereas European, Scandinavian, and Australian studies used mainly mediolateral episiotomy.
Overall, OASIS occurred in 8.5% (SD, 10.6%; range 1.0%-23.6%) of vacuum deliveries, with a higher rate occurring in nulliparous compared with multiparous women (9.6%; [SD, 6.2%] vs 1.7% [SD, 1.3%], respectively; P = .031).
Median (midline) episiotomy at the time of vacuum delivery was associated with a significant increase in OASIS in both nulliparous (odds ratio [OR], 5.11; 95% confidence interval [CI], 3.23-8.08) and multip- arous women (OR, 89.4; 95% CI, 11.8-677.1). A similar increase in OASIS was seen when a mediolateral episiotomy was performed at vacuum delivery in multiparous women (OR, 1.27; 95% CI, 1.05-1.53), although no statistically significant relationship was evident between mediolateral episiotomy at vacuum delivery and OASIS in nulliparous women (OR, 0.68; 95% CI, 0.43-1.07). Mediolateral episiotomy also was linked to increased rates of postpartum hemorrhage (OR, 1.82; 95% CI, 1.16-2.86) and analgesia use (OR, 2.10; 95% CI, 1.39-3.17).
Strengths and limitations
Meta-analysis (systematic review) is not synonymous with a review of the literature. It has a very specific methodology and should be treated as original research, albeit in silico. Meta-analyses use precise statistical methods to combine and contrast results from a number of independent original research reports. The current study is an exemplary illustration of just how such an analysis should be conducted. As prescribed by the Meta-analysis Of Observational Studies in Epidemiology (MOOSE) guidelines,3 it included all study designs, both published and unpublished data, and was not limited to English language reports.
In addition, if results were unclear or data were missing, the investigators contacted the authors directly to verify the information. Prior published statistical analyses were disregarded, and the investigators conducted an independent evaluation of the pooled data using each patient as a separate data point. Data classification and coding were clearly described; the analysis was performed independently by 2 separate investigators; and a detailed assessment of data quality, heterogeneity, and sensitivity testing was included.
What this evidence means for practice
Episiotomy at the time of vacuum delivery does not appear to be of benefit, and it more likely than not increases maternal morbidity. This is especially true of median episiotomy (the type used most commonly in the United States), which increases the risk of OASIS at the time of vacuum delivery 5-fold in nulliparous and 89-fold in multiparous women.
Confidence in these conclusions is guarded. Based on the small number of reports, the lack of randomized trials, and the significant heterogeneity between the studies, the authors rated the overall quality of evidence as “low” to “very low” using the Grading of Recommendations Assessment, Development and Evaluation (GRADE) working group criteria. Additional large prospective clinical trials are needed to definitively answer the question of whether episiotomy at vacuum delivery increases maternal morbidity.
Until such studies are available, however, it would be best if obstetric care providers avoid episiotomy at the time of vacuum delivery. On a personal note, I look forward to the day when a medical student turns to an attending and asks: “What is an episiotomy?” And the attending responds: “I don’t know. I’ve never seen one.” Only then will I be ready to retire.
>> Errol R. Norwitz, MD, PhD
Episiotomy refers to an incision into the perineal body made during the second stage of labor to expedite delivery. It comes in 2 main flavors (midline and mediolateral), and neither one is particularly palatable. Routine use of episiotomy is strongly discouraged, for several reasons:
- There is little evidence of benefit
- It is associated with an increased risk of short- and long-term complications to both the mother and neonate, including postpartum hemorrhage, severe perineal injury, and pelvic floor dysfunction.1,2
Whether to perform an episiotomy at the time of operative vaginal delivery (forceps or vacuum), however, remains controversial.
Sagi-Dain and Sagi performed a meta- analysis of the existing literature in an effort to answer a single clinically relevant question: Should an episiotomy be performed at the time of vacuum delivery?
Details of the study
The primary endpoint was obstetric anal sphincter injuries (OASIS), which are more commonly referred to in the United States as severe perineal injury (3rd- and 4th-degree perineal laceration). Secondary endpoints were, among others, neonatal outcomes (including Apgar scores, neonatal trauma, shoulder dystocia, neonatal resuscitation, and admission to the neonatal intensive care unit) and maternal complications (including postpartum hemorrhage, perineal infection, urinary retention, urinary/fecal incontinence, prolonged hospital stay, and analgesia use).
Of 812 original research reports initially identified that examined the effect of episiotomy at vacuum delivery on any measure of maternal or neonatal outcome, 15 articles encompassing 350,764 deliveries were included in the final analysis. Of these, 14 were observational cohort studies (13 retrospective and 1 prospective) plus 1 case-control analysis; no randomized trials were identified.
Overall, episiotomy was performed in 64.3% (SD, 18.8%; range, 28.7%-86.0%) of vacuum deliveries and was more common in nulliparous (58.7%; SD, 17.8%) than in multiparous women (34.2%; SD, 14.6%; P = .035). The investigators found that US and Canadian studies reported using mainly median episiotomy, whereas European, Scandinavian, and Australian studies used mainly mediolateral episiotomy.
Overall, OASIS occurred in 8.5% (SD, 10.6%; range 1.0%-23.6%) of vacuum deliveries, with a higher rate occurring in nulliparous compared with multiparous women (9.6%; [SD, 6.2%] vs 1.7% [SD, 1.3%], respectively; P = .031).
Median (midline) episiotomy at the time of vacuum delivery was associated with a significant increase in OASIS in both nulliparous (odds ratio [OR], 5.11; 95% confidence interval [CI], 3.23-8.08) and multip- arous women (OR, 89.4; 95% CI, 11.8-677.1). A similar increase in OASIS was seen when a mediolateral episiotomy was performed at vacuum delivery in multiparous women (OR, 1.27; 95% CI, 1.05-1.53), although no statistically significant relationship was evident between mediolateral episiotomy at vacuum delivery and OASIS in nulliparous women (OR, 0.68; 95% CI, 0.43-1.07). Mediolateral episiotomy also was linked to increased rates of postpartum hemorrhage (OR, 1.82; 95% CI, 1.16-2.86) and analgesia use (OR, 2.10; 95% CI, 1.39-3.17).
Strengths and limitations
Meta-analysis (systematic review) is not synonymous with a review of the literature. It has a very specific methodology and should be treated as original research, albeit in silico. Meta-analyses use precise statistical methods to combine and contrast results from a number of independent original research reports. The current study is an exemplary illustration of just how such an analysis should be conducted. As prescribed by the Meta-analysis Of Observational Studies in Epidemiology (MOOSE) guidelines,3 it included all study designs, both published and unpublished data, and was not limited to English language reports.
In addition, if results were unclear or data were missing, the investigators contacted the authors directly to verify the information. Prior published statistical analyses were disregarded, and the investigators conducted an independent evaluation of the pooled data using each patient as a separate data point. Data classification and coding were clearly described; the analysis was performed independently by 2 separate investigators; and a detailed assessment of data quality, heterogeneity, and sensitivity testing was included.
What this evidence means for practice
Episiotomy at the time of vacuum delivery does not appear to be of benefit, and it more likely than not increases maternal morbidity. This is especially true of median episiotomy (the type used most commonly in the United States), which increases the risk of OASIS at the time of vacuum delivery 5-fold in nulliparous and 89-fold in multiparous women.
Confidence in these conclusions is guarded. Based on the small number of reports, the lack of randomized trials, and the significant heterogeneity between the studies, the authors rated the overall quality of evidence as “low” to “very low” using the Grading of Recommendations Assessment, Development and Evaluation (GRADE) working group criteria. Additional large prospective clinical trials are needed to definitively answer the question of whether episiotomy at vacuum delivery increases maternal morbidity.
Until such studies are available, however, it would be best if obstetric care providers avoid episiotomy at the time of vacuum delivery. On a personal note, I look forward to the day when a medical student turns to an attending and asks: “What is an episiotomy?” And the attending responds: “I don’t know. I’ve never seen one.” Only then will I be ready to retire.
>> Errol R. Norwitz, MD, PhD
1. Carroli G, Mignini L. Episiotomy for vaginal birth. Cochrane Database Syst Rev. 2009;(1):CD000081.
2. Ali U, Norwitz ER. Vacuum-assisted vaginal delivery. Rev Obstet Gynecol. 2009;2(1):5-17.
3. Stroup DF, Berlin JA, Morton SC, et al. Meta-analysis of observational studies in epidemiology: a proposal for reporting. Meta-analysis Of Observational Studies in Epidemiology (MOOSE) group. JAMA. 2000;283(15):2008-2012.
1. Carroli G, Mignini L. Episiotomy for vaginal birth. Cochrane Database Syst Rev. 2009;(1):CD000081.
2. Ali U, Norwitz ER. Vacuum-assisted vaginal delivery. Rev Obstet Gynecol. 2009;2(1):5-17.
3. Stroup DF, Berlin JA, Morton SC, et al. Meta-analysis of observational studies in epidemiology: a proposal for reporting. Meta-analysis Of Observational Studies in Epidemiology (MOOSE) group. JAMA. 2000;283(15):2008-2012.
Should the 30-minute rule for emergent cesarean delivery be applied universally?
CASE 1: Term delivery: 45 minutes from decision to incision
P. G. is a 27-year-old woman (G2P1) at 38.2 weeks’ gestation who presents to the labor and delivery unit reporting painful contractions after uncomplicated prenatal care. She has a body mass index (BMI) of 40 kg/m2. Upon admission, her fetal heart-rate (FHR) tracing falls into Category 1. An examination reveals a cervix dilated to 4 cm and 70% effaced. Epidural analgesia is administered for pain control.
After 4 hours, the FHR tracing reveals minimal variability with occasional variable decelerations. The obstetrician is informed but issues no specific instructions. After 2 more hours, the FHR tracing lacks variability, with late decelerations and no spontaneous accelerations—a Category 3 tracing, which is predictive of abnormal acid-base status. Contractions occur every 3 to 4 minutes.
When fetal scalp stimulation by the nurse fails to elicit any accelerations, intrauterine resuscitation is attempted with an intravenous fluid bolus, left lateral positioning, and oxygen administration. Despite these measures, the FHR pattern fails to improve.
Although she is apprised of the need for prompt delivery, the patient hopes to avoid cesarean delivery, if possible, and insists on more time before a decision is made to proceed to cesarean. After another 2 hours, the FHR pattern has not improved and cervical dilation remains at 4 cm. The patient gives her consent for cesarean delivery.
Approximately 35 minutes are needed to take the patient to the operating room (OR). About 45 minutes after informed consent, the incision is made. Forty-seven minutes later, a male infant is delivered with Apgar scores of 1, 3, and 4 at 1, 5, and 10 minutes, respectively. Umbilical arterial analysis reveals a pH level of 6.9, with a base excess of –21. The infant has a neonatal seizure within 3 hours and is eventually diagnosed with cerebral palsy.
A claim against the clinicians alleges that deviation from the “standard of care 30-minute rule more than likely caused” hypoxic ische- mic injury and cerebral palsy.
Does the literature support this claim?
Approximately 3% of all births involve cesarean delivery for a nonreassuring FHR tracing.1 Much has been written about the “30-minute rule” for decision to incision time. In this article, we highlight current limitations of this standard in the context of 4 distinct clinical scenarios.
Case 1 highlights several limitations and ambiguities in the obstetric literature. Although a timely delivery is always desirable, it may not always be possible to achieve safely due to intrinsic patient characteristics or situational constraints. Conditions prevailing before the decision to proceed to cesarean delivery also affect overall pregnancy outcomes. Not all cases have the same starting point; fetal status at the time of the cesarean decision also determines the acuity and urgency of the case.
A widely promulgated rule— but is it valid?
Both the American College of Obstetricians and Gynecologists (ACOG) and the Royal College of Obstetricians and Gynaecologists have published guidelines stating that any hospital offering obstetric care should have the capability to perform emergent cesarean delivery within 30 minutes.2,3 This general statement has been touted as the standard by which obstetric services should be evaluated. Regardless of the clinical situation, obstetric providers are expected to abide by this rule.
These guidelines recently have come under scrutiny. For example, a 2014 meta-analysis involving more than 30 studies and 22,000 women revealed that only 36% of all cases with a Category 2 FHR tracing were delivered within 30 minutes.4 Interestingly, investigators reported that infants with a shorter delivery interval had a higher likelihood of having a 5-minute Apgar score below 7 and an umbilical artery pH level below 7.1, with no difference in the rate of admission to a neonatal intensive care unit (NICU) when the time from decision to delivery was examined.4 This finding highlights the questionable nature of the current clinical standard, as well as the conflicting findings currently present in the literature.
In general, patients who have graver clinical findings will be delivered at a shorter interval but may still have worse neonatal outcomes than infants delivered 30 minutes or more after the decision for cesarean is made.
Although Case 1 is complicated by FHR abnormalities, the association between such abnormalities and adverse long-term outcomes in neonates is questionable. Fewer than 1% of cases involving late decelerations or decreased variability during labor lead to cerebral palsy,5 highlighting the weak association between FHR abnormalities and neurologic sequelae. Most adverse neurologic neonatal outcomes are multifactorial in nature and may not be attributable to a single prenatal event.
With such limitations, the application and use of the 30-minute “standard” by hospitals, professional societies, and the medicolegal community may not be appropriate. The literature may not justify using this arbitrary rule as the standard of care. Clearly, there are gaps in our knowledge and understanding of FHR abnormalities and the optimal interval for cesarean delivery. Therefore, it may be unfair and inappropriate to group all cases and clinical situations together.
CASE 2: 25 minutes from decision to preterm delivery
J. P. (G2P1) undergoes an ultrasonographic examination at 33.4 weeks’ gestation because of concern about a discrepancy between fetal size and gestational age. The estimated fetal weight is in the 5th percentile. Amniotic fluid level is normal, but the biophysical profile is 6/8, with no breathing for 30 seconds. Umbilical artery Doppler imaging reveals absent end-diastolic flow, and FHR monitoring reveals repetitive late decelerations.
The patient is admitted immediately to the labor and delivery unit and placed on continuous electronic fetal monitoring. Betamethasone is given to enhance fetal lung maturity. FHR monitoring continues to show repetitive late decelerations with every contraction.
After 10 minutes on the labor floor, a decision is made to proceed to emergent cesarean delivery. Within 25 minutes of that decision, a female infant weighing 1,731 g (3rd percentile) is delivered, with Apgar scores of 1, 1, and 4 at 1, 5, and 10 minutes, respectively. The infant is eventually diagnosed with moderate cerebral palsy.
Could this outcome have been prevented?
Published reports on the association between abnormal FHR patterns and adverse perinatal outcomes in preterm infants are even more scarce than they are for infants delivered at term. Case 2 highlights the fact that achievement of a 30-minute interval from decision to delivery doesn’t necessarily eliminate the risk of adverse neonatal outcomes and long-term morbidity.
One of the best evaluations of this association was published by Shy and colleagues in the 1980s.6 In that study, investigators randomly assigned 173 preterm infants to intermittent auscultation or continuous external fetal monitoring. Use of external fetal monitoring did not improve neurologic outcomes at 18 months of age. Nor did the duration of FHR abnormalities predict the development of cerebral palsy.6
A recent secondary analysis from a randomized trial evaluating the use of antenatal magnesium sulfate to prevent cerebral palsy revealed that preterm FHR patterns labeled as “fetal distress” by the treating physician were associated with an increased risk of cerebral palsy in the newborn.7 Although this analysis revealed an association, a causal link could not be established. Damage to a preterm infant’s central nervous system can occur before the mother presents to the ultrasound unit or clinic, and alterations to FHR patterns can reflect previous injury. In such cases, a short decision to incision interval would not prevent damage to the central nervous system of the preterm infant.
CASE 3: 5 minutes from decision to incision after uterine rupture
G. P. is a patient (G2P1) at 38 weeks’ gestation who has had a previous low uterine transverse cesarean delivery. She strongly wishes to attempt vaginal birth after cesarean (VBAC) and has been extensively counseled about the risks and benefits of this approach. This counseling has been appropriately documented in her chart. Her predicted likelihood of success is 54%.
Upon arrival in the triage unit, she reiterates that she hopes to deliver her child vaginally. Upon examination, she is found to be dilated to 4 cm. She is admitted to the labor and delivery unit, with reevaluation planned 2 hours after epidural administration. At that time, her labor is noted to be progressing at an appropriate rate.
After 5 hours of labor, the baseline FHR drops into the 70s. Immediate evaluation reveals significant uterine bleeding, with the fetus no longer engaged in the pelvis. The attending physician immediately suspects uterine rupture.
The patient is rushed to the OR, and delivery is complicated by the presence of extensive adhesions to the uterus and anterior abdominal wall. After 20 minutes, a female infant is delivered, with Apgar scores of 0, 0, and 1 at 1, 5, and 10 minutes, respectively. Medical care is withdrawn after 3 days in the NICU.
In a true obstetric catastrophe such as uterine rupture, should the decision to incision interval be 30 minutes?
Although it is rare, uterine rupture is a known complication of VBAC attempts. The actual rate varies across the literature but appears to be approximately 0.5% to 0.9% in women attempting vaginal birth after a prior lower uterine incision.8
If uterine rupture develops, both mother and fetus are at increased risk of morbidity and mortality. The risk of hypoxic ischemic encephalopathy after uterine rupture is about 6.2% (95% confidence interval [CI], 1.8–10.6), and the risk of neonatal death is about 1.8% (95% CI, 0–4.2).9 Uterine rupture also has been linked to an increase in:
- severe postpartum hemorrhage (odds ratio [OR], 8.51; 95% CI, 4.6–15.1)
- general anesthesia exposure (OR, 14.20; 95% CI, 9.1–22.2)
- hysterectomy (OR, 51.36; 95% CI, 13.6–193.4)
- serious perinatal outcome (OR, 24.51; 95% CI, 11.9–51.9).10
- serious perinatal outcome (OR, 24.51; 95% CI, 11.9–51.9).
Case 3 again highlights the limitations and difficulties of encompassing all cases within a 30-minute timeframe. Although the newborn was delivered within this interval after the initial insult, the intervention was insufficient to prevent severe and long-term damage.
In cases of true obstetric emergency, the catastrophic nature of the event may lead to adverse long-term neonatal outcomes even if the standard of care is met. Immediate delivery still may not allow for the prevention of neurologic morbidity in the fetus. When evaluating such cases retrospectively, all parties involved always should consider these facts before drawing any conclusions on causality and prevention.
CASE 4: Twins delivered 20 minutes after cesarean decision
P. R. (G1P0) presents for routine prenatal care at 36 weeks’ gestation. She is carrying a dichorionic/diamniotic twin gestation that so far has been uncomplicated. She has been experiencing contractions for the past 2 weeks, but they have intensified during the past 2 days. When an examination reveals that she is dilated to 4 cm, she is admitted to the labor and delivery unit.
Both fetuses are evaluated via external FHR monitoring. Initially, both have Category 1 tracings but, approximately 1 hour later, both tracings are noted to have minimal variability with variable decelerations, with a nadir at 80 bpm that lasts 30 to 45 seconds. These abnormalities persist even after intrauterine resuscitation is attempted. The cervix remains dilated at 4 cm.
After a Category 2 tracing persists for 1 hour, the attending physician proceeds to cesarean delivery. Both infants are delivered within 20 minutes after the decision is made. Two female infants of appropriate gestational size are delivered, with Apgar scores of 7 and 8 for Twin A and 8 and 9 for Twin B. The newborns eventually are discharged home with the mother. Twin B is subsequently given a diagnosis of cerebral palsy.
Should the decision to incision rule be applied to twin gestations?
Multifetal gestations carry an increased risk not only of fetal and neonatal death but also of handicap among survivors, compared with singleton pregnancies.11 The literature evaluating the link between abnormal FHR patterns and adverse neonatal outcomes in twin pregnancies is sparse. Adding to the confusion is the fact that signal loss from fetal monitoring during labor occurs more frequently in twins than in singletons, with a reported incidence of 26% to 33% during the 1st stage of labor and 41% to 63% during the 2nd stage.12 Moreover, the FHR pattern of one twin may be recorded twice inadvertently and the same tracing erroneously attributed to both twins.
The decision to incision and delivery time in twin gestations should be evaluated in the context of all the limitations the clinician faces when managing labor in a twin gestation. The 30-minute rule never has been specifically evaluated in the context of multifetal gestations. The pathway and contributing factors that lead to adverse neonatal outcomes in twin gestations may be very different from those related to singleton pregnancies and may be more relevant to antepartum than intrapartum events.
Take-home message
The 4 cases presented here call into question the applicability and generalizability of the 30-minute decision to incision rule. Diverse clinical situations encountered in practice should lead to different interpretations of this standard. No single rule can encompass all possible scenarios; therefore, a single rule should not be touted as universal. All clinical variables should be weighed and interpreted in the retrospective evaluation of a case involving a cesarean delivery performed after a 30-minute decision to incision interval.
Share your thoughts! Send your Letter to the Editor to rbarbieri@frontlinemedcom.com. Please include your name and the city and state in which you practice.
- Chauhan SP, Magann EF, Scott JR, Scardo JA, Hendrix NW, Martin JN Jr. Cesarean delivery for fetal distress: rate and risk factors. Obstet Gynecol Surv. 2003;58(5):337–350.
- American College of Obstetricians and Gynecologists, Committee on Professional Standards. Standards for Obstetric-Gynecologic Hospital Services. 7th ed. Washington, DC: ACOG; 1989.
- National Institute for Health and Care Excellence. Caesarean Section Guideline. London, UK: NICE; 2011.
- Tolcher MC, Johnson RL, El-Nashar SA, West CP. Decision-to-incision time and neonatal outcomes: a systematic review and meta-analysis. Obstet Gynecol. 2014;123(3):536–548.
- Nelson KB, Dambrosia JM, Ting TY, Grether JK. Uncertain values of electronic fetal monitoring in predicting cerebral palsy. N Engl J Med. 1996;334(10):613–618.
- Shy KK, Luthy DA, Bennett FC, et al. Effects of electronic fetal heart-rate monitoring, as compared with periodic auscultation, on the neurologic development of premature infants. N Engl J Med. 1990;322(9):588–593.
- Mendez-Figueroa H, Chauhan SP, Pedroza C, Refuerzo JS, Dahlke JD, Rouse DJ. Preterm cesarean delivery for nonreassuring fetal heart rate: neonatal and neurologic morbidity. Obstet Gynecol. 2015;125(3):636–642.
- Macones GA, Cahill AG, Samilio DM, Odibo A, Peipert J, Stevens EJ. Can uterine rupture in patients attempting vaginal birth after cesarean delivery be predicted? Am J Obstet Gynecol. 2006;195(4):1148–1152.
- Landon MB, Hauth JC, Leveno KJ, et al. Maternal and perinatal outcomes associated with a trial of labor after prior cesarean delivery. N Engl J Med. 2004;351(25):2581–2589.
- Al-Zirqi I, Stray-Pedersen B, Forsen L, Daltveit AK, Vangen S. Uterine rupture: trends over 40 years [published online ahead of print April 2, 2015]. BJOG. doi: 10.1111/1471-0528.13394.
- Ramsey PS, Repke JT. Intrapartum management of multifetal pregnancies. Semin Perinatol. 2003;27(1):54–72.
- Bakker PC, Colenbrander GJ, Verstraeten AA, Van Geijn HP. Quality of intrapartum cardiotocography in twin deliveries. Am J Obstet Gynecol. 2004;191(6):2114–2119.
CASE 1: Term delivery: 45 minutes from decision to incision
P. G. is a 27-year-old woman (G2P1) at 38.2 weeks’ gestation who presents to the labor and delivery unit reporting painful contractions after uncomplicated prenatal care. She has a body mass index (BMI) of 40 kg/m2. Upon admission, her fetal heart-rate (FHR) tracing falls into Category 1. An examination reveals a cervix dilated to 4 cm and 70% effaced. Epidural analgesia is administered for pain control.
After 4 hours, the FHR tracing reveals minimal variability with occasional variable decelerations. The obstetrician is informed but issues no specific instructions. After 2 more hours, the FHR tracing lacks variability, with late decelerations and no spontaneous accelerations—a Category 3 tracing, which is predictive of abnormal acid-base status. Contractions occur every 3 to 4 minutes.
When fetal scalp stimulation by the nurse fails to elicit any accelerations, intrauterine resuscitation is attempted with an intravenous fluid bolus, left lateral positioning, and oxygen administration. Despite these measures, the FHR pattern fails to improve.
Although she is apprised of the need for prompt delivery, the patient hopes to avoid cesarean delivery, if possible, and insists on more time before a decision is made to proceed to cesarean. After another 2 hours, the FHR pattern has not improved and cervical dilation remains at 4 cm. The patient gives her consent for cesarean delivery.
Approximately 35 minutes are needed to take the patient to the operating room (OR). About 45 minutes after informed consent, the incision is made. Forty-seven minutes later, a male infant is delivered with Apgar scores of 1, 3, and 4 at 1, 5, and 10 minutes, respectively. Umbilical arterial analysis reveals a pH level of 6.9, with a base excess of –21. The infant has a neonatal seizure within 3 hours and is eventually diagnosed with cerebral palsy.
A claim against the clinicians alleges that deviation from the “standard of care 30-minute rule more than likely caused” hypoxic ische- mic injury and cerebral palsy.
Does the literature support this claim?
Approximately 3% of all births involve cesarean delivery for a nonreassuring FHR tracing.1 Much has been written about the “30-minute rule” for decision to incision time. In this article, we highlight current limitations of this standard in the context of 4 distinct clinical scenarios.
Case 1 highlights several limitations and ambiguities in the obstetric literature. Although a timely delivery is always desirable, it may not always be possible to achieve safely due to intrinsic patient characteristics or situational constraints. Conditions prevailing before the decision to proceed to cesarean delivery also affect overall pregnancy outcomes. Not all cases have the same starting point; fetal status at the time of the cesarean decision also determines the acuity and urgency of the case.
A widely promulgated rule— but is it valid?
Both the American College of Obstetricians and Gynecologists (ACOG) and the Royal College of Obstetricians and Gynaecologists have published guidelines stating that any hospital offering obstetric care should have the capability to perform emergent cesarean delivery within 30 minutes.2,3 This general statement has been touted as the standard by which obstetric services should be evaluated. Regardless of the clinical situation, obstetric providers are expected to abide by this rule.
These guidelines recently have come under scrutiny. For example, a 2014 meta-analysis involving more than 30 studies and 22,000 women revealed that only 36% of all cases with a Category 2 FHR tracing were delivered within 30 minutes.4 Interestingly, investigators reported that infants with a shorter delivery interval had a higher likelihood of having a 5-minute Apgar score below 7 and an umbilical artery pH level below 7.1, with no difference in the rate of admission to a neonatal intensive care unit (NICU) when the time from decision to delivery was examined.4 This finding highlights the questionable nature of the current clinical standard, as well as the conflicting findings currently present in the literature.
In general, patients who have graver clinical findings will be delivered at a shorter interval but may still have worse neonatal outcomes than infants delivered 30 minutes or more after the decision for cesarean is made.
Although Case 1 is complicated by FHR abnormalities, the association between such abnormalities and adverse long-term outcomes in neonates is questionable. Fewer than 1% of cases involving late decelerations or decreased variability during labor lead to cerebral palsy,5 highlighting the weak association between FHR abnormalities and neurologic sequelae. Most adverse neurologic neonatal outcomes are multifactorial in nature and may not be attributable to a single prenatal event.
With such limitations, the application and use of the 30-minute “standard” by hospitals, professional societies, and the medicolegal community may not be appropriate. The literature may not justify using this arbitrary rule as the standard of care. Clearly, there are gaps in our knowledge and understanding of FHR abnormalities and the optimal interval for cesarean delivery. Therefore, it may be unfair and inappropriate to group all cases and clinical situations together.
CASE 2: 25 minutes from decision to preterm delivery
J. P. (G2P1) undergoes an ultrasonographic examination at 33.4 weeks’ gestation because of concern about a discrepancy between fetal size and gestational age. The estimated fetal weight is in the 5th percentile. Amniotic fluid level is normal, but the biophysical profile is 6/8, with no breathing for 30 seconds. Umbilical artery Doppler imaging reveals absent end-diastolic flow, and FHR monitoring reveals repetitive late decelerations.
The patient is admitted immediately to the labor and delivery unit and placed on continuous electronic fetal monitoring. Betamethasone is given to enhance fetal lung maturity. FHR monitoring continues to show repetitive late decelerations with every contraction.
After 10 minutes on the labor floor, a decision is made to proceed to emergent cesarean delivery. Within 25 minutes of that decision, a female infant weighing 1,731 g (3rd percentile) is delivered, with Apgar scores of 1, 1, and 4 at 1, 5, and 10 minutes, respectively. The infant is eventually diagnosed with moderate cerebral palsy.
Could this outcome have been prevented?
Published reports on the association between abnormal FHR patterns and adverse perinatal outcomes in preterm infants are even more scarce than they are for infants delivered at term. Case 2 highlights the fact that achievement of a 30-minute interval from decision to delivery doesn’t necessarily eliminate the risk of adverse neonatal outcomes and long-term morbidity.
One of the best evaluations of this association was published by Shy and colleagues in the 1980s.6 In that study, investigators randomly assigned 173 preterm infants to intermittent auscultation or continuous external fetal monitoring. Use of external fetal monitoring did not improve neurologic outcomes at 18 months of age. Nor did the duration of FHR abnormalities predict the development of cerebral palsy.6
A recent secondary analysis from a randomized trial evaluating the use of antenatal magnesium sulfate to prevent cerebral palsy revealed that preterm FHR patterns labeled as “fetal distress” by the treating physician were associated with an increased risk of cerebral palsy in the newborn.7 Although this analysis revealed an association, a causal link could not be established. Damage to a preterm infant’s central nervous system can occur before the mother presents to the ultrasound unit or clinic, and alterations to FHR patterns can reflect previous injury. In such cases, a short decision to incision interval would not prevent damage to the central nervous system of the preterm infant.
CASE 3: 5 minutes from decision to incision after uterine rupture
G. P. is a patient (G2P1) at 38 weeks’ gestation who has had a previous low uterine transverse cesarean delivery. She strongly wishes to attempt vaginal birth after cesarean (VBAC) and has been extensively counseled about the risks and benefits of this approach. This counseling has been appropriately documented in her chart. Her predicted likelihood of success is 54%.
Upon arrival in the triage unit, she reiterates that she hopes to deliver her child vaginally. Upon examination, she is found to be dilated to 4 cm. She is admitted to the labor and delivery unit, with reevaluation planned 2 hours after epidural administration. At that time, her labor is noted to be progressing at an appropriate rate.
After 5 hours of labor, the baseline FHR drops into the 70s. Immediate evaluation reveals significant uterine bleeding, with the fetus no longer engaged in the pelvis. The attending physician immediately suspects uterine rupture.
The patient is rushed to the OR, and delivery is complicated by the presence of extensive adhesions to the uterus and anterior abdominal wall. After 20 minutes, a female infant is delivered, with Apgar scores of 0, 0, and 1 at 1, 5, and 10 minutes, respectively. Medical care is withdrawn after 3 days in the NICU.
In a true obstetric catastrophe such as uterine rupture, should the decision to incision interval be 30 minutes?
Although it is rare, uterine rupture is a known complication of VBAC attempts. The actual rate varies across the literature but appears to be approximately 0.5% to 0.9% in women attempting vaginal birth after a prior lower uterine incision.8
If uterine rupture develops, both mother and fetus are at increased risk of morbidity and mortality. The risk of hypoxic ischemic encephalopathy after uterine rupture is about 6.2% (95% confidence interval [CI], 1.8–10.6), and the risk of neonatal death is about 1.8% (95% CI, 0–4.2).9 Uterine rupture also has been linked to an increase in:
- severe postpartum hemorrhage (odds ratio [OR], 8.51; 95% CI, 4.6–15.1)
- general anesthesia exposure (OR, 14.20; 95% CI, 9.1–22.2)
- hysterectomy (OR, 51.36; 95% CI, 13.6–193.4)
- serious perinatal outcome (OR, 24.51; 95% CI, 11.9–51.9).10
- serious perinatal outcome (OR, 24.51; 95% CI, 11.9–51.9).
Case 3 again highlights the limitations and difficulties of encompassing all cases within a 30-minute timeframe. Although the newborn was delivered within this interval after the initial insult, the intervention was insufficient to prevent severe and long-term damage.
In cases of true obstetric emergency, the catastrophic nature of the event may lead to adverse long-term neonatal outcomes even if the standard of care is met. Immediate delivery still may not allow for the prevention of neurologic morbidity in the fetus. When evaluating such cases retrospectively, all parties involved always should consider these facts before drawing any conclusions on causality and prevention.
CASE 4: Twins delivered 20 minutes after cesarean decision
P. R. (G1P0) presents for routine prenatal care at 36 weeks’ gestation. She is carrying a dichorionic/diamniotic twin gestation that so far has been uncomplicated. She has been experiencing contractions for the past 2 weeks, but they have intensified during the past 2 days. When an examination reveals that she is dilated to 4 cm, she is admitted to the labor and delivery unit.
Both fetuses are evaluated via external FHR monitoring. Initially, both have Category 1 tracings but, approximately 1 hour later, both tracings are noted to have minimal variability with variable decelerations, with a nadir at 80 bpm that lasts 30 to 45 seconds. These abnormalities persist even after intrauterine resuscitation is attempted. The cervix remains dilated at 4 cm.
After a Category 2 tracing persists for 1 hour, the attending physician proceeds to cesarean delivery. Both infants are delivered within 20 minutes after the decision is made. Two female infants of appropriate gestational size are delivered, with Apgar scores of 7 and 8 for Twin A and 8 and 9 for Twin B. The newborns eventually are discharged home with the mother. Twin B is subsequently given a diagnosis of cerebral palsy.
Should the decision to incision rule be applied to twin gestations?
Multifetal gestations carry an increased risk not only of fetal and neonatal death but also of handicap among survivors, compared with singleton pregnancies.11 The literature evaluating the link between abnormal FHR patterns and adverse neonatal outcomes in twin pregnancies is sparse. Adding to the confusion is the fact that signal loss from fetal monitoring during labor occurs more frequently in twins than in singletons, with a reported incidence of 26% to 33% during the 1st stage of labor and 41% to 63% during the 2nd stage.12 Moreover, the FHR pattern of one twin may be recorded twice inadvertently and the same tracing erroneously attributed to both twins.
The decision to incision and delivery time in twin gestations should be evaluated in the context of all the limitations the clinician faces when managing labor in a twin gestation. The 30-minute rule never has been specifically evaluated in the context of multifetal gestations. The pathway and contributing factors that lead to adverse neonatal outcomes in twin gestations may be very different from those related to singleton pregnancies and may be more relevant to antepartum than intrapartum events.
Take-home message
The 4 cases presented here call into question the applicability and generalizability of the 30-minute decision to incision rule. Diverse clinical situations encountered in practice should lead to different interpretations of this standard. No single rule can encompass all possible scenarios; therefore, a single rule should not be touted as universal. All clinical variables should be weighed and interpreted in the retrospective evaluation of a case involving a cesarean delivery performed after a 30-minute decision to incision interval.
Share your thoughts! Send your Letter to the Editor to rbarbieri@frontlinemedcom.com. Please include your name and the city and state in which you practice.
CASE 1: Term delivery: 45 minutes from decision to incision
P. G. is a 27-year-old woman (G2P1) at 38.2 weeks’ gestation who presents to the labor and delivery unit reporting painful contractions after uncomplicated prenatal care. She has a body mass index (BMI) of 40 kg/m2. Upon admission, her fetal heart-rate (FHR) tracing falls into Category 1. An examination reveals a cervix dilated to 4 cm and 70% effaced. Epidural analgesia is administered for pain control.
After 4 hours, the FHR tracing reveals minimal variability with occasional variable decelerations. The obstetrician is informed but issues no specific instructions. After 2 more hours, the FHR tracing lacks variability, with late decelerations and no spontaneous accelerations—a Category 3 tracing, which is predictive of abnormal acid-base status. Contractions occur every 3 to 4 minutes.
When fetal scalp stimulation by the nurse fails to elicit any accelerations, intrauterine resuscitation is attempted with an intravenous fluid bolus, left lateral positioning, and oxygen administration. Despite these measures, the FHR pattern fails to improve.
Although she is apprised of the need for prompt delivery, the patient hopes to avoid cesarean delivery, if possible, and insists on more time before a decision is made to proceed to cesarean. After another 2 hours, the FHR pattern has not improved and cervical dilation remains at 4 cm. The patient gives her consent for cesarean delivery.
Approximately 35 minutes are needed to take the patient to the operating room (OR). About 45 minutes after informed consent, the incision is made. Forty-seven minutes later, a male infant is delivered with Apgar scores of 1, 3, and 4 at 1, 5, and 10 minutes, respectively. Umbilical arterial analysis reveals a pH level of 6.9, with a base excess of –21. The infant has a neonatal seizure within 3 hours and is eventually diagnosed with cerebral palsy.
A claim against the clinicians alleges that deviation from the “standard of care 30-minute rule more than likely caused” hypoxic ische- mic injury and cerebral palsy.
Does the literature support this claim?
Approximately 3% of all births involve cesarean delivery for a nonreassuring FHR tracing.1 Much has been written about the “30-minute rule” for decision to incision time. In this article, we highlight current limitations of this standard in the context of 4 distinct clinical scenarios.
Case 1 highlights several limitations and ambiguities in the obstetric literature. Although a timely delivery is always desirable, it may not always be possible to achieve safely due to intrinsic patient characteristics or situational constraints. Conditions prevailing before the decision to proceed to cesarean delivery also affect overall pregnancy outcomes. Not all cases have the same starting point; fetal status at the time of the cesarean decision also determines the acuity and urgency of the case.
A widely promulgated rule— but is it valid?
Both the American College of Obstetricians and Gynecologists (ACOG) and the Royal College of Obstetricians and Gynaecologists have published guidelines stating that any hospital offering obstetric care should have the capability to perform emergent cesarean delivery within 30 minutes.2,3 This general statement has been touted as the standard by which obstetric services should be evaluated. Regardless of the clinical situation, obstetric providers are expected to abide by this rule.
These guidelines recently have come under scrutiny. For example, a 2014 meta-analysis involving more than 30 studies and 22,000 women revealed that only 36% of all cases with a Category 2 FHR tracing were delivered within 30 minutes.4 Interestingly, investigators reported that infants with a shorter delivery interval had a higher likelihood of having a 5-minute Apgar score below 7 and an umbilical artery pH level below 7.1, with no difference in the rate of admission to a neonatal intensive care unit (NICU) when the time from decision to delivery was examined.4 This finding highlights the questionable nature of the current clinical standard, as well as the conflicting findings currently present in the literature.
In general, patients who have graver clinical findings will be delivered at a shorter interval but may still have worse neonatal outcomes than infants delivered 30 minutes or more after the decision for cesarean is made.
Although Case 1 is complicated by FHR abnormalities, the association between such abnormalities and adverse long-term outcomes in neonates is questionable. Fewer than 1% of cases involving late decelerations or decreased variability during labor lead to cerebral palsy,5 highlighting the weak association between FHR abnormalities and neurologic sequelae. Most adverse neurologic neonatal outcomes are multifactorial in nature and may not be attributable to a single prenatal event.
With such limitations, the application and use of the 30-minute “standard” by hospitals, professional societies, and the medicolegal community may not be appropriate. The literature may not justify using this arbitrary rule as the standard of care. Clearly, there are gaps in our knowledge and understanding of FHR abnormalities and the optimal interval for cesarean delivery. Therefore, it may be unfair and inappropriate to group all cases and clinical situations together.
CASE 2: 25 minutes from decision to preterm delivery
J. P. (G2P1) undergoes an ultrasonographic examination at 33.4 weeks’ gestation because of concern about a discrepancy between fetal size and gestational age. The estimated fetal weight is in the 5th percentile. Amniotic fluid level is normal, but the biophysical profile is 6/8, with no breathing for 30 seconds. Umbilical artery Doppler imaging reveals absent end-diastolic flow, and FHR monitoring reveals repetitive late decelerations.
The patient is admitted immediately to the labor and delivery unit and placed on continuous electronic fetal monitoring. Betamethasone is given to enhance fetal lung maturity. FHR monitoring continues to show repetitive late decelerations with every contraction.
After 10 minutes on the labor floor, a decision is made to proceed to emergent cesarean delivery. Within 25 minutes of that decision, a female infant weighing 1,731 g (3rd percentile) is delivered, with Apgar scores of 1, 1, and 4 at 1, 5, and 10 minutes, respectively. The infant is eventually diagnosed with moderate cerebral palsy.
Could this outcome have been prevented?
Published reports on the association between abnormal FHR patterns and adverse perinatal outcomes in preterm infants are even more scarce than they are for infants delivered at term. Case 2 highlights the fact that achievement of a 30-minute interval from decision to delivery doesn’t necessarily eliminate the risk of adverse neonatal outcomes and long-term morbidity.
One of the best evaluations of this association was published by Shy and colleagues in the 1980s.6 In that study, investigators randomly assigned 173 preterm infants to intermittent auscultation or continuous external fetal monitoring. Use of external fetal monitoring did not improve neurologic outcomes at 18 months of age. Nor did the duration of FHR abnormalities predict the development of cerebral palsy.6
A recent secondary analysis from a randomized trial evaluating the use of antenatal magnesium sulfate to prevent cerebral palsy revealed that preterm FHR patterns labeled as “fetal distress” by the treating physician were associated with an increased risk of cerebral palsy in the newborn.7 Although this analysis revealed an association, a causal link could not be established. Damage to a preterm infant’s central nervous system can occur before the mother presents to the ultrasound unit or clinic, and alterations to FHR patterns can reflect previous injury. In such cases, a short decision to incision interval would not prevent damage to the central nervous system of the preterm infant.
CASE 3: 5 minutes from decision to incision after uterine rupture
G. P. is a patient (G2P1) at 38 weeks’ gestation who has had a previous low uterine transverse cesarean delivery. She strongly wishes to attempt vaginal birth after cesarean (VBAC) and has been extensively counseled about the risks and benefits of this approach. This counseling has been appropriately documented in her chart. Her predicted likelihood of success is 54%.
Upon arrival in the triage unit, she reiterates that she hopes to deliver her child vaginally. Upon examination, she is found to be dilated to 4 cm. She is admitted to the labor and delivery unit, with reevaluation planned 2 hours after epidural administration. At that time, her labor is noted to be progressing at an appropriate rate.
After 5 hours of labor, the baseline FHR drops into the 70s. Immediate evaluation reveals significant uterine bleeding, with the fetus no longer engaged in the pelvis. The attending physician immediately suspects uterine rupture.
The patient is rushed to the OR, and delivery is complicated by the presence of extensive adhesions to the uterus and anterior abdominal wall. After 20 minutes, a female infant is delivered, with Apgar scores of 0, 0, and 1 at 1, 5, and 10 minutes, respectively. Medical care is withdrawn after 3 days in the NICU.
In a true obstetric catastrophe such as uterine rupture, should the decision to incision interval be 30 minutes?
Although it is rare, uterine rupture is a known complication of VBAC attempts. The actual rate varies across the literature but appears to be approximately 0.5% to 0.9% in women attempting vaginal birth after a prior lower uterine incision.8
If uterine rupture develops, both mother and fetus are at increased risk of morbidity and mortality. The risk of hypoxic ischemic encephalopathy after uterine rupture is about 6.2% (95% confidence interval [CI], 1.8–10.6), and the risk of neonatal death is about 1.8% (95% CI, 0–4.2).9 Uterine rupture also has been linked to an increase in:
- severe postpartum hemorrhage (odds ratio [OR], 8.51; 95% CI, 4.6–15.1)
- general anesthesia exposure (OR, 14.20; 95% CI, 9.1–22.2)
- hysterectomy (OR, 51.36; 95% CI, 13.6–193.4)
- serious perinatal outcome (OR, 24.51; 95% CI, 11.9–51.9).10
- serious perinatal outcome (OR, 24.51; 95% CI, 11.9–51.9).
Case 3 again highlights the limitations and difficulties of encompassing all cases within a 30-minute timeframe. Although the newborn was delivered within this interval after the initial insult, the intervention was insufficient to prevent severe and long-term damage.
In cases of true obstetric emergency, the catastrophic nature of the event may lead to adverse long-term neonatal outcomes even if the standard of care is met. Immediate delivery still may not allow for the prevention of neurologic morbidity in the fetus. When evaluating such cases retrospectively, all parties involved always should consider these facts before drawing any conclusions on causality and prevention.
CASE 4: Twins delivered 20 minutes after cesarean decision
P. R. (G1P0) presents for routine prenatal care at 36 weeks’ gestation. She is carrying a dichorionic/diamniotic twin gestation that so far has been uncomplicated. She has been experiencing contractions for the past 2 weeks, but they have intensified during the past 2 days. When an examination reveals that she is dilated to 4 cm, she is admitted to the labor and delivery unit.
Both fetuses are evaluated via external FHR monitoring. Initially, both have Category 1 tracings but, approximately 1 hour later, both tracings are noted to have minimal variability with variable decelerations, with a nadir at 80 bpm that lasts 30 to 45 seconds. These abnormalities persist even after intrauterine resuscitation is attempted. The cervix remains dilated at 4 cm.
After a Category 2 tracing persists for 1 hour, the attending physician proceeds to cesarean delivery. Both infants are delivered within 20 minutes after the decision is made. Two female infants of appropriate gestational size are delivered, with Apgar scores of 7 and 8 for Twin A and 8 and 9 for Twin B. The newborns eventually are discharged home with the mother. Twin B is subsequently given a diagnosis of cerebral palsy.
Should the decision to incision rule be applied to twin gestations?
Multifetal gestations carry an increased risk not only of fetal and neonatal death but also of handicap among survivors, compared with singleton pregnancies.11 The literature evaluating the link between abnormal FHR patterns and adverse neonatal outcomes in twin pregnancies is sparse. Adding to the confusion is the fact that signal loss from fetal monitoring during labor occurs more frequently in twins than in singletons, with a reported incidence of 26% to 33% during the 1st stage of labor and 41% to 63% during the 2nd stage.12 Moreover, the FHR pattern of one twin may be recorded twice inadvertently and the same tracing erroneously attributed to both twins.
The decision to incision and delivery time in twin gestations should be evaluated in the context of all the limitations the clinician faces when managing labor in a twin gestation. The 30-minute rule never has been specifically evaluated in the context of multifetal gestations. The pathway and contributing factors that lead to adverse neonatal outcomes in twin gestations may be very different from those related to singleton pregnancies and may be more relevant to antepartum than intrapartum events.
Take-home message
The 4 cases presented here call into question the applicability and generalizability of the 30-minute decision to incision rule. Diverse clinical situations encountered in practice should lead to different interpretations of this standard. No single rule can encompass all possible scenarios; therefore, a single rule should not be touted as universal. All clinical variables should be weighed and interpreted in the retrospective evaluation of a case involving a cesarean delivery performed after a 30-minute decision to incision interval.
Share your thoughts! Send your Letter to the Editor to rbarbieri@frontlinemedcom.com. Please include your name and the city and state in which you practice.
- Chauhan SP, Magann EF, Scott JR, Scardo JA, Hendrix NW, Martin JN Jr. Cesarean delivery for fetal distress: rate and risk factors. Obstet Gynecol Surv. 2003;58(5):337–350.
- American College of Obstetricians and Gynecologists, Committee on Professional Standards. Standards for Obstetric-Gynecologic Hospital Services. 7th ed. Washington, DC: ACOG; 1989.
- National Institute for Health and Care Excellence. Caesarean Section Guideline. London, UK: NICE; 2011.
- Tolcher MC, Johnson RL, El-Nashar SA, West CP. Decision-to-incision time and neonatal outcomes: a systematic review and meta-analysis. Obstet Gynecol. 2014;123(3):536–548.
- Nelson KB, Dambrosia JM, Ting TY, Grether JK. Uncertain values of electronic fetal monitoring in predicting cerebral palsy. N Engl J Med. 1996;334(10):613–618.
- Shy KK, Luthy DA, Bennett FC, et al. Effects of electronic fetal heart-rate monitoring, as compared with periodic auscultation, on the neurologic development of premature infants. N Engl J Med. 1990;322(9):588–593.
- Mendez-Figueroa H, Chauhan SP, Pedroza C, Refuerzo JS, Dahlke JD, Rouse DJ. Preterm cesarean delivery for nonreassuring fetal heart rate: neonatal and neurologic morbidity. Obstet Gynecol. 2015;125(3):636–642.
- Macones GA, Cahill AG, Samilio DM, Odibo A, Peipert J, Stevens EJ. Can uterine rupture in patients attempting vaginal birth after cesarean delivery be predicted? Am J Obstet Gynecol. 2006;195(4):1148–1152.
- Landon MB, Hauth JC, Leveno KJ, et al. Maternal and perinatal outcomes associated with a trial of labor after prior cesarean delivery. N Engl J Med. 2004;351(25):2581–2589.
- Al-Zirqi I, Stray-Pedersen B, Forsen L, Daltveit AK, Vangen S. Uterine rupture: trends over 40 years [published online ahead of print April 2, 2015]. BJOG. doi: 10.1111/1471-0528.13394.
- Ramsey PS, Repke JT. Intrapartum management of multifetal pregnancies. Semin Perinatol. 2003;27(1):54–72.
- Bakker PC, Colenbrander GJ, Verstraeten AA, Van Geijn HP. Quality of intrapartum cardiotocography in twin deliveries. Am J Obstet Gynecol. 2004;191(6):2114–2119.
- Chauhan SP, Magann EF, Scott JR, Scardo JA, Hendrix NW, Martin JN Jr. Cesarean delivery for fetal distress: rate and risk factors. Obstet Gynecol Surv. 2003;58(5):337–350.
- American College of Obstetricians and Gynecologists, Committee on Professional Standards. Standards for Obstetric-Gynecologic Hospital Services. 7th ed. Washington, DC: ACOG; 1989.
- National Institute for Health and Care Excellence. Caesarean Section Guideline. London, UK: NICE; 2011.
- Tolcher MC, Johnson RL, El-Nashar SA, West CP. Decision-to-incision time and neonatal outcomes: a systematic review and meta-analysis. Obstet Gynecol. 2014;123(3):536–548.
- Nelson KB, Dambrosia JM, Ting TY, Grether JK. Uncertain values of electronic fetal monitoring in predicting cerebral palsy. N Engl J Med. 1996;334(10):613–618.
- Shy KK, Luthy DA, Bennett FC, et al. Effects of electronic fetal heart-rate monitoring, as compared with periodic auscultation, on the neurologic development of premature infants. N Engl J Med. 1990;322(9):588–593.
- Mendez-Figueroa H, Chauhan SP, Pedroza C, Refuerzo JS, Dahlke JD, Rouse DJ. Preterm cesarean delivery for nonreassuring fetal heart rate: neonatal and neurologic morbidity. Obstet Gynecol. 2015;125(3):636–642.
- Macones GA, Cahill AG, Samilio DM, Odibo A, Peipert J, Stevens EJ. Can uterine rupture in patients attempting vaginal birth after cesarean delivery be predicted? Am J Obstet Gynecol. 2006;195(4):1148–1152.
- Landon MB, Hauth JC, Leveno KJ, et al. Maternal and perinatal outcomes associated with a trial of labor after prior cesarean delivery. N Engl J Med. 2004;351(25):2581–2589.
- Al-Zirqi I, Stray-Pedersen B, Forsen L, Daltveit AK, Vangen S. Uterine rupture: trends over 40 years [published online ahead of print April 2, 2015]. BJOG. doi: 10.1111/1471-0528.13394.
- Ramsey PS, Repke JT. Intrapartum management of multifetal pregnancies. Semin Perinatol. 2003;27(1):54–72.
- Bakker PC, Colenbrander GJ, Verstraeten AA, Van Geijn HP. Quality of intrapartum cardiotocography in twin deliveries. Am J Obstet Gynecol. 2004;191(6):2114–2119.
In this Article
- Is the 30-minute rule valid?
- A case of uterine rupture
- Take-home message