Amicus Curiae Brief — Food and Drug Administration, et al., Petitioners v. Alliance for Hippocratic Medicine, et al.
Supreme Court briefJan 30, 2024
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Nos. 23-235 & 23-236
IN THE
Supreme Court of the United States
————
U.S. FOOD & DRUG ADMINISTRATION, ET AL.,
Petitioners,
v.
ALLIANCE FOR HIPPOCRATIC MEDICINE, ET AL.,
Respondents.
————
DANCO LABORATORIES, L.L.C.,
Petitioner,
v.
ALLIANCE FOR HIPPOCRATIC MEDICINE, ET AL.,
Respondents.
————
On Writs of Certiorari to the
United States Court of Appeals
for the Fifth Circuit
————
BRIEF OF OVER 300 REPRODUCTIVE
HEALTH RESEARCHERS AS AMICI CURIAE
IN SUPPORT OF PETITIONERS
————
MELISSA GOODMAN
Counsel of Record
AMANDA BARROW
CATHREN COHEN
JACLYN SERPICO
CENTER ON REPRODUCTIVE
HEALTH, LAW, AND POLICY
UCLA SCHOOL OF LAW
1060 Veteran Avenue
Los Angeles, CA 90095
(310) 267-4382
goodmanm@law.ucla.edu
Counsel for Amici Curiae
CLAUDIA HAMMERMAN
AARON DELANEY
PAUL, WEISS, RIFKIND,
WHARTON & GARRISON LLP
1285 Avenue of the Americas
New York, NY 10019
(212) 373-3000
chammerman@paulweiss.com
January 30, 2024
WILSON-EPES PRINTING CO., INC. – (202) 789-0096 – WASHINGTON, D.C. 20002
TABLE OF CONTENTS
Page
TABLE OF AUTHORITIES ................................
iii
INTEREST OF THE AMICI CURIAE................
1
SUMMARY OF ARGUMENT .............................
1
ARGUMENT ........................................................
4
I. FDA’s
2016
Decision,
Modifying
Mifepristone’s REMS and Labeling, Was
Supported by Ample Scientific Evidence .
4
A. Extensive Scientific Evidence Supported
Permitting Prescribing Healthcare
Providers to Be Certified Prescribers
of Mifepristone .....................................
5
B. Extensive Scientific Evidence Supported
the Safety and Effectiveness of the
Amended Dosing Regimen Indicated
on the Label .........................................
7
C. Extensive Scientific Evidence Supported
the Safety and Effectiveness of
Increasing the Gestational Limit
Indicated on the Label.........................
11
D. Extensive Scientific Evidence Supported
the Safety and Effectiveness of Reducing
the Number of In-Person Clinical Visits
Indicated on the Label.........................
12
E. FDA’s Judgment that the Individual
Changes in 2016 Were Collectively Safe
and Effective Was Supported by a
Robust Record of Scientific Evidence ....
16
(i)
ii
TABLE OF CONTENTS—Continued
Page
F. Modification of the Adverse Event
Reporting Requirement Was Supported
by More Than Adequate Rationale .....
21
II. FDA’s 2021 Decision Removing the InPerson Dispensing Requirement from the
REMS, Formalized in 2023, Was
Supported by Ample Scientific Evidence .
22
A. FDA Relied upon Ample Scientific
Evidence Supporting the Safety and
Effectiveness of Removing the InPerson Dispensing Requirement ........
22
1. The April 2021 Nonenforcement
Decision Was Supported by Ample
Scientific Evidence .........................
23
2. Additional Studies Before FDA in
2021 and Relied on in its December
2021 Analyses Supported the
removal of the In-Person Dispensing
Requirement ...................................
26
B. Additional Evidence Supports the Safety
and Effectiveness of Removing the InPerson Dispensing Requirement ........
29
CONCLUSION ....................................................
31
APPENDIX
iii
TABLE OF AUTHORITIES
STATUTES
Page(s)
21 U.S.C. § 355(d) .........................................
3, 4
21 U.S.C. § 355-1(f)(2) ..................................
3
21 U.S.C. § 355-1(f)(2)(C) .............................
30
21 U.S.C. § 355-1(g) ......................................
3
21 U.S.C. § 355-1(g)(4)(a) .............................
4
21 U.S.C. § 505(b) .........................................
4
COURT FILINGS
Brief of Amici Food and Drug Law Scholars
as Amicus Curiae in Support of Petitions
for Writ of Certiorari, FDA v. Alliance for
Hippocratic Medicine (Oct. 12, 2023) .......
22
OTHER AUTHORITIES
Aiken et al., Effectiveness, safety and
acceptability of no-test medical abortion
(termination of pregnancy) provided via
telemedicine: a national cohort study, 128
BJOG 1464 (2021) ..................................... 25, 26
Anger et al., Clinical and service delivery
implications of omitting ultrasound
before medication abortion provided via
direct-to-patient telemedicine and mail in
the US, 104 CONTRACEPTION 659 (2021) ..
27
iv
TABLE OF AUTHORITIES—Continued
Page(s)
Boersma et al., Mifepristone followed by
home administration of buccal misoprostol
for medical abortion up to 70 days of
amenorrhoea in a general practice in
Curaçao, 16 EUR. J. CONTRACEPT.
REPROD. HEALTH CARE 61 (2011) .............
12
Cameron et al. Can women determine the
success of early medical termination of
pregnancy themselves? 91 CONTRACEPTION
6 (2015) ......................................................
16
Chen et al., Mifepristone with buccal
misoprostol for medical abortion, a
systematic review, 126 OBSTET. GYNECOL.
12 (2015) ...................................... 8, 9, 12, 18, 24
Chong et al., A randomized controlled trial
of different buccal misoprostol doses in
mifepristone medical abortion, 86
CONTRACEPTION 251 (2012) ......................
9
Chong et al., Expansion of direct-to-patient
telemedicine abortion service in the
United States and experience during the
COVID-19 pandemic, 104 CONTRACEPTION 43 (2021) ..................................... 24, 26, 27
Diaz Olavarrieta et al., Nurse versus
physician-provision of early medical
abortion in Mexico: a randomized
controlled non-inferiority trial, 93 BULL.
WORLD HEALTH ORG. 249 (2015) .............. 7, 17
v
TABLE OF AUTHORITIES—Continued
Page(s)
Fjerstad et al., Effectiveness of medical
abortion with mifepristone and buccal
misoprostol though 59 gestational days,
80 CONTRACEPTION 282 (2009) .................
9
Gallo et al., A systematic review of more
than one dose of misoprostol after
mifepristone for abortion up to 10 weeks
of gestation, 74 CONTRACEPTION 36
(2006) .........................................................
10
Gatter et al., Efficacy and safety of medical
abortion using mifepristone and buccal
misoprostol though 63 days, 91
CONTRACEPTION 269 (2015) ......................
14
Grossman et al., Alternatives to ultrasound
for follow-up after medication abortion: a
systematic review, 83 CONTRACEPTION
504 (2011) ..................................................
15
Grossman et al., Effectiveness and acceptability of medical abortion provided through
telemedicine, 118 OBSTET. GYNECOL. 296
(2011) .........................................................
10
Grossman et al., Mail-order pharmacy
dispensing of mifepristone for medication
abortion after in-person clinical assessment,
107 CONTRACEPTION 36 (2022) ................. 27, 28
Grossman et al., Medication abortion with
pharmacist dispensing of mifepristone,
137 OBSTET. GYNECOL. 613 (2021) ...........
28
vi
TABLE OF AUTHORITIES—Continued
Page(s)
Kaplan et al., Review of evidence supporting
2022 US Food and Drug Administration
drug approvals, 6 JAMA Network Open
e2327650 (2023) ........................................
3, 4
Kerestes et al., Provision of medication
abortion in Hawaii during COVID-19:
practical experience with multiple care
delivery models, 104 CONTRACEPTION 49
(2021) ......................................................... 25, 27
Koenig et al., The role of telehealth in
promoting equitable abortion access in
the United States: a spatial analysis, 9
JMIR PUB. HEALTH & SURVEILLANCE
e45671 (2023) ............................................
30
Koenig et al., Mailing abortion pills does
not delay care: A cohort study comparing
mailed in-person dispensing of abortion
medications in the United States, 121
CONTRACEPTION 109962 (2023) ................
31
Kopp Kallner et al., The efficacy, safety and
acceptability of medical termination of
pregnancy provided by standard care by
doctors or by nurse-midwives:
a
randomized controlled equivalence trial,
122 BJOG 510 (2015) ................................ 6, 18
Ngo et al., Comparative effectiveness, safety
and acceptability of medical abortion at
home and in a clinic: a systematic review,
89 BULL. WORLD HEALTH ORG. 360
(2011) .........................................................
14
vii
TABLE OF AUTHORITIES—Continued
Page(s)
Pena et al., Telemedicine for medical
abortion service provision in Mexico: a
safety, feasibility, and acceptability
study, 114 CONTRACEPTION 67 (2022) ......
30
Puri et al., The role of auxiliary nursemidwives and community health volunteers
in expanding access to medical abortion
in rural Nepal, 22 REPROD. HEALTH
MATTERS 94 (2015) ....................................
18
Raymond et al., First-trimester medical
abortion with mifepristone 200 mg and
misoprostol: a systematic review, 87
CONTRACEPTION 26 (2013) ........................ 13-15
Raymond et al., TelAbortion: evaluation of
a direct to patient telemedicine abortion
service in the United States, 100
CONTRACEPTION 173 (2019) ......................
27
Reynolds-Wright et al., Telemedicine medical
abortion at home under 12 weeks’
gestation: a prospective observational
cohort study during the COVID-19
pandemic, 47 BMJ SEX REPROD. HEALTH
246 (2021) ..................................................
26
Rocca et al., Effectiveness and safety of early
medication abortion provided in pharmacies by auxiliary nurse-midwives: A noninferiority study in Nepal, PLOS ONE
(2018) .........................................................
7
viii
TABLE OF AUTHORITIES—Continued
Page(s)
Sanhueza Smith et al., Safety, efficacy and
acceptability of outpatient mifepristonemisoprostol medical abortion through 70
days since last menstrual period in public
sector facilities in Mexico City, 22
REPROD. HEALTH MATTERS 75 (2015) ....... 12, 17
Schummers et al., Abortion safety and use
with normally prescribed mifepristone in
Canada, 386 N. ENG. J. MED. 57 (2022) ...
30
Swica et al., Acceptability of home use of
mifepristone for medical abortion, 88
CONTRACEPTION 122 (2013) ......................
15
Upadhyay et al., Comparison of outcomes
before and after Ohio’s law mandating
use of the FDA-approved protocol for
medication abortion: a retrospective
cohort study. PLOS MED. (2016) ...............
19
Upadhyay et al., Effectiveness and safety of
telehealth medication abortion in the
United States, NATURE MED. (2024) .........
29
Upadhyay et al., Incidence of emergency
department visits and complications after
abortion, 125 OBSTET. GYNECOL. 175
(2015) .........................................................
21
Upadhyay et al., Outcomes and safety of
history-based screening for medication
abortion: a retrospective multicenter
cohort study, 182 JAMA INTERNAL MED.
482 (2022) ..................................................
29
ix
TABLE OF AUTHORITIES—Continued
Page(s)
Upadhyay et al., Safety and efficacy of
telehealth medication abortion in the US
during the COVID-19 pandemic, 4 JAMA
NETWORK OPEN e2122320 (2021) ............. 20, 28
Warriner et al., Can midlevel health-care
providers administer early medical abortion
as safely and effectively as doctors? A
randomised controlled equivalence trial
in Nepal, 377 THE LANCET 1155 (2011) ....
6
Winikoff et al., Extending outpatient
medical abortion services through 70
days of gestational age, 120 OBSTET.
GYNECOL. 1070 (2012)............................... 11, 17
Winikoff et al., Two distinct oral routes of
misoprostol in mifepristone medical
abortion, 112 OBSTET. GYNECOL. 1303
(2008) .........................................................
9
INTEREST OF THE AMICI CURIAE1
Amici curiae are leading reproductive health
researchers in the United States and worldwide.
Amici are trained and experienced in conducting or
evaluating clinical and social science studies on
reproductive health issues, including studies on the
safety and effectiveness of mifepristone. Amici share
a significant interest in evidence-based reproductive
health care, and submit this brief to explain the ample
scientific evidence of mifepristone’s safety and effectiveness supporting the Food and Drug Administration’s
2016 and 2021 decisions.
SUMMARY OF ARGUMENT
This Court should not allow the politics of abortion
to obscure the clear, abundant, and plainly sufficient
scientific record supporting FDA’s decision-making in
this case. In approving certain modifications to mifepristone’s Risk Evaluation and Mitigation Strategy
(“REMS”) and labeling in 2016 and 2021, FDA
reviewed and relied on extensive scientific evidence
conclusively showing the safety and effectiveness of
the changes.
In 2016, FDA modified the mifepristone REMS to
permit healthcare providers with prescriptive authority
under state law (such as nurse practitioners and
physician assistants) to become certified prescribers of
mifepristone, and updated the dosing regimen, gestational limit, and number of required in-clinic visits
included in mifepristone’s labeling. In evaluating the
1
No counsel for a party authored this brief in whole or in part,
and no party or counsel for a party made a monetary contribution
intended to fund its preparation or submission. No person other
than amici or amici’s counsel made a monetary contribution to
the preparation or submission of this brief.
2
safety and effectiveness of these changes, FDA reviewed
58 scientific studies, which together analyzed tens of
thousands of patient experiences. These studies were
conducted by qualified experts and adhered to rigorous
standards of reliability and validity, as demonstrated
by their selection for publication in reputable scientific
journals, subject to the rigorous academic peer-review
process. The record makes clear that FDA extensively
studied each individual change and that, contrary to
the Fifth Circuit’s conclusion, FDA also analyzed the
individual changes as “interrelated,” including reviewing many studies containing all or almost all the
changes in combination. Without exception, these
studies demonstrated that the modifications to the
REMS and the labeling continued to ensure that
mifepristone remained extremely safe—with rates of
serious adverse events generally far below 1.0%—and
extremely effective—generally resulting in complete
pregnancy termination without procedural intervention in over 96% of cases. These rates are comparable
or superior to those observed in studies assessing
safety and effectiveness of medication abortion care
under the prior, more restrictive REMS and labeling.
FDA’s decision to eliminate the in-person dispensing
requirement from the REMS in 2021, formalized in
2023, was also supported by ample scientific evidence.
FDA’s multiple analyses of this REMS requirement
during 2021 encompassed 25 high quality scientific
studies, which together covered more than 50,000
patient experiences. These studies confirmed conclusively that mifepristone remains extremely safe and
effective without the requirement that the medication
be dispensed only at a hospital, clinic, or medical office.
Other studies considered by FDA also demonstrated
that the in-person dispensing requirement reduced
access to mifepristone. Given this evidence, FDA
3
properly determined that the in-person dispensing
requirement was inconsistent with the statutory
requirements for maintaining REMS elements to
assure safe use, and appropriately removed it. See 21
U.S.C. § 355-1(f)(2) (elements to assure safe use within
a REMS must be “commensurate with [a] specific
serious risk listed in the labeling of the drug,” and
cannot be “unduly burdensome on patient access to the
drug, considering in particular . . . patients who have
difficulty accessing health care (such as patients in
rural or medically underserved areas)”).
It is clear that the evidentiary support for FDA’s
2016 and 2021 decisions far exceeded the statutory
requirements. See 21 U.S.C. 355(d) (“[D]ata from one
adequate and well-controlled clinical investigation and
confirmatory evidence” may be sufficient) (emphasis
added); 21 U.S.C. § 355-1(g) (modification of a REMS
need only be supported by an assessment and an
“adequate rationale”). Pursuant to the statutory requirements, FDA regularly approves drugs supported by
only one clinical study.2 In this case, the record supporting the 2016 and 2021 changes to mifepristone’s
REMS and labeling demonstrates that FDA not only
met its statutory requirements, but also went well
beyond them.
Amici submit this brief to explain the vast scientific
evidence supporting each component and the totality
of FDA’s 2016 and 2021 Decisions. The studies leave
no doubt as to the safety and effectiveness of mifepristone’s modified REMS and labeling. Consistent with
2
See Kaplan et al., Review of evidence supporting 2022 US Food
and Drug Administration drug approvals, 6 JAMA NETWORK OPEN
e2327650 (2023) (finding that 65% percent of approved novel
drugs in 2022 were supported by one clinical study).
4
this overwhelming evidence, this Court should reverse
the Fifth Circuit’s decision.
ARGUMENT
I. FDA’s
2016
Decision,
Modifying
Mifepristone’s REMS and Labeling, Was
Supported by Ample Scientific Evidence.
Extensive data from many rigorous scientific studies
supported FDA’s 2016 Decision to modify its regulation of mifepristone. Indeed, FDA reviewed robust
evidence far exceeding the statutory requirements for
modifications of the REMS3 and for changes to a label’s
conditions of use.4 The data clearly demonstrated that
medication abortion using mifepristone and misoprostol
is both extremely effective—defined as resulting in a
complete abortion without need for procedural
3
FDA has wide discretion in determining the information
needed to support modifying a REMS; modifications to a REMS
need only be supported by “adequate rationale.” 21 U.S.C. § 3551(g)(4)(a).
4
A supplemental application seeking changes to conditions of
use must be supported by sufficient evidence of safety and
substantial evidence of effectiveness. 21 U.S.C. § 505(b); 21 U.S.C.
355(d). “Substantial evidence” is defined as “evidence consisting
of adequate and well-controlled investigations, including clinical
investigations, by experts qualified by scientific training and
experience to evaluate the effectiveness of the drug involved, on
the basis of which it could fairly and responsibly be concluded by
such experts that the drug will have the effect it purports or is
represented to have under the conditions of use prescribed,
recommended, or suggested in the labeling or proposed labeling
thereof.” 21 U.S.C. 355(d). “[D]ata from one adequate and wellcontrolled clinical investigation and confirmatory evidence (obtained
prior to or after such investigation) . . . [may] constitute
substantial evidence.” Id. (emphasis added). Pursuant to the
statutory requirements, FDA regularly approves drugs supported
by only one clinical study. See supra note 2.
5
intervention—and extremely safe—defined as the
absence of serious adverse events such as hospital
admission, major surgery, or blood transfusion.
To be clear, the Fifth Circuit did not conclude—and
could not conclude, consistent with the record—that
there was insufficient evidence supporting each individual
2016 change. See App. 53a-56a.5 Rather, the Fifth
Circuit concluded that the 2016 Decision was likely
arbitrary and capricious because FDA failed to evaluate
the individual changes in combination. Id. The record
plainly refutes that conclusion. As set forth below,
FDA reviewed and relied on numerous studies conclusively demonstrating that the changes were safe and
effective both individually and in combination.6
A. Extensive Scientific Evidence Supported
Permitting Prescribing Healthcare
Providers to Be Certified Prescribers of
Mifepristone.
The Fifth Circuit did not conclude, and could not
conclude based on the record, that there was insufficient evidence of the safety and efficacy supporting
FDA’s 2016 determination to permit healthcare providers
with prescriptive authority under state law to become
certified prescribers of mifepristone. See App. 53a-56a.
In evaluating whether these providers could safely
and effectively prescribe and dispense mifepristone,
5
“App.” refers to the Appendix to the Petition for a Writ of
Certiorari filed by Petitioners U.S. Food and Drug Administration,
et al.
6
Although Sections I.A-D focus on the evidence supporting
each individual 2016 change, many of the studies discussed in
those Sections contained more than one relevant change. Section
I.E discusses the many studies evaluating all or almost all the
2016 changes in combination.
6
FDA relied primarily on three randomized controlled
trials with a combined 3,200 participants and one
cohort study with 596 participants. J.A. 302, 461-62,
495-98. Those studies found no differences in effectiveness or safety between patients who received
mifepristone from physicians compared to those who
were prescribed and dispensed mifepristone by other
healthcare professionals. J.A. 316.7
Two FDA-reviewed randomized controlled trials
designed to test for equivalence between nurses and
physicians both found that nurses could provide
equivalent care. The first evaluated outcomes of 938
patients and found equivalent safety and efficacy
between nurse-midwives and physicians.8 Indeed, the
nurse-midwife group actually demonstrated higher
efficacy at 99.0% vs. 97.4% among the physician
group.9 The second, with 1,077 participants, also found
that nurses and auxiliary nurse-midwives provided
medication abortion with statistically equivalent efficacy
to physicians, reporting complete abortion rates of
97.3% compared to 96.1% for physicians.10
Another FDA-reviewed randomized controlled trial
designed to test for non-inferiority between nurses and
physicians included 884 participants and determined
7
“J.A.” refers to the Joint Appendix filed by Petitioners U.S.
Food and Drug Administration, et al. on January 23, 2024.
8
Kopp Kallner et al., The efficacy, safety and acceptability of
medical termination of pregnancy provided by standard care by
doctors or by nurse-midwives: a randomized controlled equivalence
trial, 122 BJOG 510 (2015).
9
Id.
10
Warriner et al., Can midlevel health-care providers administer
early medical abortion as safely and effectively as doctors? A
randomised controlled equivalence trial in Nepal, 377 THE
LANCET 1155 (2011).
7
that nurse provision of medication abortion was not
inferior to physician provision, with complete abortion
rates of 97.9% in the nurse group compared to 98.4%
in the physician group.11 Only one serious adverse
event (bleeding) was reported in the trial, by a patient
who had been seen by a physician.12
Further research has continued to confirm that
healthcare providers with prescriptive authority can
safely and effectively provide medication abortion
care. For example, a 2018 study of 605 patients found
that nurse-midwives could provide effective medication
abortion care at both health facilities (97.4% efficacy)
and pharmacies (98.7% efficacy), without any serious
adverse events.13
There was ample evidence supporting the REMS
modification, and evidence gathered since the 2016
Decision has only affirmed the safety and effectiveness
of provision by these healthcare providers.
B. Extensive Scientific Evidence Supported
the Safety and Effectiveness of the
Amended Dosing Regimen Indicated on
the Label.
The Fifth Circuit did not conclude, and could not
conclude based on the record, that there was insufficient evidence supporting the safety and effectiveness
of the amended dosing regimen indicated on the
11
Diaz Olavarrieta et al., Nurse versus physician-provision of
early medical abortion in Mexico: a randomized controlled noninferiority trial, 93 BULL. WORLD HEALTH ORG. 249 (2015).
12
13
Id.
Rocca et al., Effectiveness and safety of early medication
abortion provided in pharmacies by auxiliary nurse-midwives: A
non-inferiority study in Nepal, PLOS ONE (2018).
8
label. See App. 53a-56a. Indeed, FDA reviewed and
relied upon at least 24 studies conclusively demonstrating the safety and effectiveness of the amended
dosing regimen, which decreased the oral dose of
mifepristone from 600 mg to 200 mg, changed the
misoprostol dose from 400 mcg administered orally 48
hours after administration of mifepristone to 800 mcg
administered buccally 24-48 hours after administration of mifepristone, and allowed for a repeat dose of
misoprostol to ensure completion. J.A. 299-301, 44250, 459-61, 478-79, 481-82.
14
FDA relied upon a systematic review of clinical
outcomes from twenty studies, including a total of
33,846 individuals, using 200 mg oral mifepristone
followed by 800 mcg buccal misoprostol.15 Of the
twenty studies using the amended dose and routes of
administration, fifteen studies used a 24-48 hour
dosing interval, and four studies allowed for repeat
dosing of misoprostol to ensure completion.16 The
review found that the effectiveness of the amended
dosing regimen was 96.7%, notably higher than the
92.1% efficacy rate of the regimen FDA approved in
2000.17 The review also demonstrated the overwhelming safety of the dosing regimen: across the 20 studies,
14
As relevant here, the “dosing regimen” consists of the “dose”
(the quantity of medication), the “route of administration” (how
the medication is taken), and the “dosing interval” (the time
between taking each medication).
15
Chen et al., Mifepristone with buccal misoprostol for medical
abortion, a systematic review, 126 OBSTET. GYNECOL. 12 (2015).
16
Id.
17
Id.
9
serious adverse events were extremely rare, ranging
between 0.01%-0.9%.18
In addition to the systematic review, FDA evaluated
many other studies providing conclusive evidence that
the amended dosing regimen was safe and effective. In
one such study, 1,349 individuals used the amended
dosing regimen resulting in a 98.3% effectiveness rate.19
Another FDA-reviewed study demonstrated through a
randomized controlled trial that buccal administration
of 800 mcg misoprostol after 200 mg mifepristone was
96.2% effective.20
Other FDA-reviewed studies similarly showed safety
and effectiveness of the amended dosing regimen, and
a higher effectiveness rate than the dosing regimen
included in the FDA labeling at the time. One study
showed that a dosing regimen of 200 mg oral mifepristone followed by either 400 mcg or 800 mcg buccal
misoprostol resulted in 96.4% effectiveness.21 Another
study using the amended dosing regimen found 98.7%
effectiveness rates for site-to-site telemedicine patients22
and 96.9% for face-to-face patients, with low rates of
serious adverse events among both groups of patients,
18
Id.
19
Fjerstad et al., Effectiveness of medical abortion with
mifepristone and buccal misoprostol though 59 gestational days,
80 CONTRACEPTION 282 (2009).
20
Winikoff et al., Two distinct oral routes of misoprostol in
mifepristone medical abortion, 112 OBSTET. GYNECOL. 1303
(2008).
21
Chong et al., A randomized controlled trial of different
buccal misoprostol doses in mifepristone medical abortion, 86
CONTRACEPTION 251 (2012).
22
This study used a site-to-site telemedicine model, in which
patients visit a health center to meet remotely with a clinician
located in another health center.
10
including zero deaths and zero hospitalizations out of
578 participants.23
Incomplete abortions are extremely rare when using
the amended dosing regimen, and FDA’s decision to
allow for an additional dose of misoprostol in cases of
incomplete abortion was also well supported. In
making this decision, FDA relied on several studies
totaling over 4,000 patients; of these, only 3.4% had an
incomplete abortion and took a second dose, which
resulted in complete abortion in 90% of those cases.
J.A. 460.24 In other words, among the small portion of
patients who experience incomplete abortion, the overwhelming majority can avert a procedural intervention
and complete their termination by taking an additional
dose of misoprostol. Indeed, FDA acknowledged in its
review that offering this additional dose was already
“standard protocol in many US clinics,” underscoring
that the change brought the label into alignment with
existing, evidence-based clinical practice. J.A. 461.
In sum, the evidence of the safety and effectiveness
of the amended dosing regimen indicated on the label
far exceeded the necessary showing to support a
change to the conditions of use.
23
Grossman et al., Effectiveness and acceptability of medical
abortion provided through telemedicine, 118 OBSTET. GYNECOL.
296 (2011).
24
See also Gallo et al., A systematic review of more than one
dose of misoprostol after mifepristone for abortion up to 10 weeks
of gestation, 74 CONTRACEPTION 36 (2006) (systematic review of
studies of additional dose of misoprostol, including three randomized controlled trials finding no differences in effectiveness and
no serious adverse events).
11
C. Extensive Scientific Evidence Supported
the Safety and Effectiveness of Increasing
the Gestational Limit Indicated on the
Label.
The Fifth Circuit did not, and could not based on the
record, conclude that there was insufficient evidence
supporting the safety and efficacy of increasing the
gestational limit listed in the mifepristone labeling
from 49 to 70 days. See App. 53a-56a. FDA reviewed
a number of studies providing strong support for
extending the gestational limit past 49 days, including
studies evaluating medication abortion safety and efficacy
at multiple gestational durations up through 70 days.
J.A. 299, 450-56, 478-79. Of critical importance were
several primary studies and the above-discussed systematic review, which together evaluated over 30,000
patients using the exact proposed dosing regimen
through 70 days’ gestation. Based on this extensive
evidence, FDA concluded that mifepristone’s efficacy
at 50-70 days was comparable to that of the initial
2000 approval for up to 49 days gestation. Furthermore,
FDA found “no association between adverse outcomes
and increasing gestational age.” J.A. 310.
A study using data from 629 patients across the
United States specifically compared outcomes of medication abortion patients between 57-63 days gestation
to those at 64-70 days and found that rates of complete
abortion were statistically equivalent at both gestational ranges.25 The study also found no significant
difference in serious adverse events based on gestation.26
25
Winikoff et al., Extending outpatient medical abortion
services through 70 days of gestational age, 120 OBSTET.
GYNECOL. 1070 (2012).
26
Id.
12
Another study reviewed by FDA also found equivalent
efficacy at 64-70 days compared to earlier gestations,
with data from 307 individuals using the 2016 dosing
regimen offered up to 70 days gestation, which was
effective in 97.7% of cases.27
FDA also evaluated a study including 960 patients
who received medication abortion up to 70 days
gestation, finding high effectiveness at all gestational
ranges, with an average of 93.3%, which is within the
range of other studies with similar protocols.28 Finally,
the systematic review, which evaluated the results of
20 studies for a combined total of 33,846 individuals,
found high effectiveness for medication abortion
through 64-70 days gestation (93.1%).29
The evidence before FDA in 2016 was more than
sufficient to support extending the gestational limit
indicated on the label, through 70 days.
D. Extensive Scientific Evidence Supported
the Safety and Effectiveness of
Reducing the Number of In-Person
Clinical Visits Indicated on the Label.
The Fifth Circuit did not conclude, and could not
conclude based on the record, that there was insufficient
evidence supporting FDA’s determination to reduce
27
Boersma et al., Mifepristone followed by home administration of buccal misoprostol for medical abortion up to 70 days of
amenorrhoea in a general practice in Curaçao, 16 EUR. J.
CONTRACEPT. REPROD. HEALTH CARE 61 (2011).
28
Sanhueza Smith et al., Safety, efficacy and acceptability of
outpatient mifepristone-misoprostol medical abortion through 70
days since last menstrual period in public sector facilities in
Mexico City, 22 REPROD. HEALTH MATTERS 75 (2015).
29
Chen et al., supra note 15.
13
the number of in-person clinical visits listed in the
mifepristone labeling. See App. 53a-56a. Prior to the
2016 changes, the approved dosing regimen involved
three in-person appointments: (1) administration of
mifepristone on the first day, (2) administration of
misoprostol on the third day, and (3) follow-up on the
fourteenth day to confirm pregnancy termination. The
evidence before FDA in 2016 strongly supported
reducing the number of in-person clinical visits
indicated in the labeling, given the well-documented
safety of patients taking misoprostol at home and
following up with their provider remotely.30 J.A. 300302, 456-59, 462, 479-85.
In evaluating whether to retain the language
indicating that misoprostol be administered in clinic,
FDA relied on nearly a dozen studies involving large
numbers of participants, all of which showed that it
is extremely effective and extremely safe for people
to complete the two-drug protocol at home, with
“exceedingly low” rates of serious adverse events. J.A.
308. This evidence included a systematic review which
analyzed 87 studies covering over 45,000 patients
using a range of mifepristone and misoprostol treatment regimens, about half of which involved home
administration of misoprostol.31
Efficacy of the
regimens was found to be similar whether or not
misoprostol was taken in clinic and there was “no
30
For discussion of the evidence before FDA in 2021 to remove
the first in-person clinical visit, see infra Section II.
31
Raymond et al., First-trimester medical abortion with
mifepristone 200 mg and misoprostol: a systematic review, 87
CONTRACEPTION 26 (2013).
14
evidence” that allowing home administration of
misoprostol increased rates of adverse events.32
FDA also considered individual studies, including
four U.S.-based studies totaling over 14,700 patients
and seven international studies totaling over 16,000
patients. These studies showed that medication abortion
with misoprostol administered at home is highly
effective, with rates of complete abortion ranging
between 91.9-97.7%. J.A. 458. In particular, the
largest U.S.-based study collected data on 13,373
patients over five years, using the dosing regimen
approved in 2016 with misoprostol taken at home.33
The regimen was effective in 97.7% of cases; only six
people over the entire study period developed a serious
adverse event requiring hospitalization, with incidence
of hospitalization less than or equal to 0.18% at all
gestations,34 which is consistent with research showing
similarly low prevalence of adverse events among
patients who take misoprostol at home and in clinic.35
Furthermore, the evidence available to FDA in 2016
supported home administration not only of misoprostol,
but also of mifepristone. In one study, 301 patients
were given the choice to take mifepristone at home or
in their physician’s office—46% chose to take mifepris-
32
Id. at 32.
33
Gatter et al., Efficacy and safety of medical abortion using
mifepristone and buccal misoprostol though 63 days, 91
CONTRACEPTION 269 (2015).
34
35
Id.
See, e.g., Ngo et al., Comparative effectiveness, safety and
acceptability of medical abortion at home and in a clinic: a
systematic review, 89 BULL. WORLD HEALTH ORG. 360 (2011).
15
tone at home, and all took misoprostol at home.36 The
authors found no differences in effectiveness or serious
adverse events between groups.37
Ample evidence also supported flexibility with
regards to timing and method of follow-up assessment.
In particular, FDA relied on the 2013 systematic
review of over 45,000 medication abortions, which
found no association between efficacy and timing of
follow-up.38 FDA also relied on a systematic review of
studies examining alternatives to in-person ultrasound
follow-up, which identified eight studies that together
enrolled almost 2,400 participants and evaluated a
variety of follow-up methods, including remote methods
such as phone screening, standardized questionnaires,
and at-home pregnancy tests.39 The studies analyzed
in the review identified remote methods that were
suitable alternatives to ultrasound follow-up (serum
human chorionic gonadotropin (hCG) measurement,
urine pregnancy test plus standardized self-assessment,
and standardized telephone consultation with a provider);
these methods identified over 90% of patients with
continuing pregnancy and produced fewer than 1%
false positives.40 Overall, FDA noted that the proportion of patients unable to be reached for follow-up in
these studies “do[es] not appear to exceed those
associated with a planned in-clinic follow-up.” J.A.
36
Swica et al., Acceptability of home use of mifepristone for
medical abortion, 88 CONTRACEPTION 122 (2013).
37
Id.
38
Raymond, supra note 31.
39
Grossman et al., Alternatives to ultrasound for follow-up after
medication abortion: a systematic review, 83 CONTRACEPTION 504
(2011).
40
Id.
16
484-85. In addition to these systematic reviews, FDA
also considered multiple individual studies permitting
remote follow-up; for example, one study of over 1700
patients who chose self-assessment follow-up, finding
no more delays in care than would be expected for inclinic follow-up.41
These extensive data, demonstrating the safety and
efficacy of home administration of misoprostol and
flexibility in follow-up assessments, were more than
sufficient to support FDA’s labeling change.
E. FDA’s Judgment that the Individual
Changes in 2016 Were Collectively Safe
and Effective Was Supported by a
Robust Record of Scientific Evidence.
Despite the vast data supporting each individual
change, the Fifth Circuit held that FDA’s 2016 decision
was likely arbitrary and capricious because FDA failed
to consider the effect of those changes “as a whole.”
App. 53a. Yet, the record makes clear that FDA relied
on many studies evaluating combined aspects of the
2016 changes and analyzed the individual changes as
“interrelated.” J.A. 298 (reasoning that “in some cases
data from a given study were relied on to provide
evidence to support multiple changes”); J.A. 299, 44649, 461.
For example, FDA reviewed and relied upon a
randomized controlled trial with over 800 participants
which supported the safety and effectiveness of provision by healthcare providers with prescriptive authority
and mirrored the other aspects of the 2016 changes:
41
Cameron et al. Can women determine the success of early
medical termination of pregnancy themselves? 91 CONTRACEPTION
6 (2015).
17
nurses provided the medication abortion, and participants had pregnancies of up to 70 days, used a dosing
regimen of 200 mg oral mifepristone and 800 mcg
buccal misoprostol with an additional misoprostol dose
if needed, and administered the misoprostol at home
24 hours after taking the mifepristone.42 These conditions, in combination, resulted in no serious adverse
events and a 97.9% efficacy rate, which is higher than
the 92.1% efficacy rate of the U.S. trial relied upon for
FDA’s approval of the regimen in 2000.43
Additionally, FDA reviewed and relied upon several
large studies that closely matched the 2016 label
changes by demonstrating the safety and effectiveness
of at-home administration of misoprostol through 70
days, while also utilizing the same dosing regimen as
the 2016 changes (200 mg oral mifepristone and 800
mcg misoprostol administered buccally 24-48 hours
later, with an additional dose of misoprostol if needed).
One such study found 92.8%-93.5% effectiveness and
extremely rare occurrence of serious adverse events
(between 0.41% and 0.69%).44 Another such study
found 93.3% effectiveness among 960 individuals
using the amended dosing regimen, with at-home
administration of misoprostol, through 70 days.45
FDA also considered studies showing the safety and
effectiveness of provision by healthcare providers with
prescriptive authority using the exact amended dosing
regimen included in the updated labeling. In one such
study of 938 individuals using 200 mg mifepristone
and 800 mcg misoprostol and the option of at-home
42
Diaz Olavarrieta, supra note 11.
43
Id.; J.A. 225.
44
Winikoff, supra note 25.
45
Sanhueza Smith, supra note 28.
18
misoprostol administration, 99% of patients treated by
nurse-midwives had complete abortions and 95.8% did
not need any unscheduled treatment—these numbers
were high both as an absolute matter and as relative
to physician prescription (97.4% effectiveness and 93.5%
without need for additional treatment).46 Moreover,
many of the studies FDA considered in evaluating the
amended dosing regimen also involved the provision of
mifepristone up to 70 days.47 As FDA observed in its
review, the 2016 changes brought the regimen in line
with World Health Organization guidelines. J.A. 445-46.
The foregoing evidence clearly demonstrates that
the record before FDA in 2016 was more than sufficient to conclude that the proposed changes would be
safe and effective in combination. Evidence gathered
contemporaneously and since has only further confirmed
that conclusion. Respondents assert that the 2016
changes created less safe conditions resulting in more
required follow-up care, when in fact the opposite is true.
In all areas of medicine, “off-label” use of medications
to reflect evolutions in evidence-based practice is
permissible, common, and necessary to ensure that
clinical care is not undermined by scientifically outdated
labeling. Thus, even before FDA updated the mifepristone
46
Kopp Kallner, supra note 8; see also Puri et al., The role of
auxiliary nurse-midwives and community health volunteers in
expanding access to medical abortion in rural Nepal, 22 REPROD.
HEALTH MATTERS 94 (2015) (study of nurse-midwife provision of
the same dosing regimen of 200 mg mifepristone and 800 mcg
misoprostol, with 82.3% self-administering misoprostol at home,
and no reported serious adverse events).
47
See, e.g., Chen, supra note 15 (review summarizing clinical
outcomes from 20 studies, including a total of 33,846 individuals,
finding high effectiveness rates (96.7%) and extremely low rates
of serious adverse events (0.01-0.9%).
19
labeling, prescribers were providing evidence-based
care consistent with the studies described above—
FDA’s 2016 updates brought the labeling in line with
that evidence-based clinical practice. But in 2011,
Ohio passed a law mandating fidelity with the outdated
conditions of use listed in the 2000 mifepristone
labeling. Researchers then examined the medical
records of 2,783 patients who obtained medication
abortion before and after the law took effect.48 The
studied protocol from the period before the Ohio law
took effect was very similar to the updated regimen
FDA would adopt in 2016 and included 200 mg
mifepristone and 800 mcg of misoprostol, with
misoprostol allowed to be taken at home, flexibility in
timing of follow-up (5-14 days), and a gestational limit
beyond 49 days (63 days).49 The research showed that
this updated protocol was safer and more effective
than the conditions of use in the original 2000 label
that were still in effect when Ohio enacted this law.
After the law mandating reversion to the outdated
2000 regimen, the proportion of patients requiring at
least one additional clinical intervention increased
from 4.9% to 14.3%; in other words, the odds of needing
an additional intervention were three times higher
under the pre-2016 regime.50 The rate of adverse
events (defined in this study as acute hemorrhage,
infection, continuing pregnancy or incomplete abortion)
increased from 2% to 5%.51 In short, the pre-2016
labeling Respondents prefer would recommend a
protocol that is actually less safe and would require
48
Upadhyay et al., Comparison of outcomes before and after
Ohio’s law mandating use of the FDA-approved protocol for
medication abortion: a retrospective cohort study. PLOS MED. (2016).
49
Id.
50
Id.
51
Id.
20
more clinical follow-up care—exactly what Respondents
profess to wish to avoid.
Additional studies conducted after the 2016 decision
contained all of the changes made in 2016 and further
support the safety and effectiveness of the changes in
combination. For example, a 2021 study of 110
patients using the same dosing regimen, a 70-day
gestational limit, provision by nurse practitioners, athome administration of misoprostol (and mifepristone),
and remote follow-up resulted in a 95% effectiveness
rate with no serious adverse events.52
In sum, the record clearly shows that FDA did
consider many studies examining the effect of multiple
proposed modifications prior to its 2016 decision, even
though as the Fifth Circuit acknowledged, “FDA is not
required to conduct a study that perfectly mirrors the
conditions under which the drug will be used.” App.
53a-54a. Indeed, FDA routinely approves drugs with
conditions of use that differ from clinical trial protocols,
as many clinical trial designs are more restrictive than
recommended in post-approval clinical use, with additional caution exercised until the safety and efficacy of
the product is demonstrated. In addition to the
evidence affirmatively showing the changes were safe
and effective in combination, there was also no
evidence—at the time of the 2016 decision or since—
suggesting that combining the proposed changes would
lead to unsafe or ineffective outcomes.
52
Upadhyay et al., Safety and efficacy of telehealth medication
abortion in the US during the COVID-19 pandemic, 4 JAMA
NETWORK OPEN e2122320 (2021); see also infra Section II (discussing studies assessing the removal of the in-person dispensing
requirement, many of which contained all of the 2016 changes in
combination).
21
F. Modification of the Adverse Event
Reporting Requirement Was Supported
by More Than Adequate Rationale.
Based on the extensive and rigorous scientific
evidence, FDA reasonably concluded that the 2016
changes would not alter the safety profile of the
original regimen approved in 2000. J.A. 310. Indeed,
the rates of serious adverse events in the studies
evaluating the proposed 2016 changes were “generally
far below 1.0%.” J.A. 474. And, FDA had already
received 15 years of reporting on serious adverse events
associated with mifepristone, which conclusively demonstrated that major adverse events such as excessive
blood loss, hospitalization, or surgery are exceedingly
rare.53 As a result, FDA reasonably concluded that
reporting on events other than deaths could be
collected in periodic safety updates. FDA’s modification of the adverse event reporting requirement was
reasonable at the time the decision was made, J.A. 506,
and confirmed by review of adverse reports submitted
in the FAERS database since 2016. J.A. 398.
53
See, e.g., Upadhyay et al., Incidence of emergency department
visits and complications after abortion, 125 OBSTET. GYNECOL.
175 (2015) (finding only a 0.31% serious adverse event rate
among the 11,319 patients who had medication abortions).
22
II. FDA’s 2021 Decision Removing the InPerson Dispensing Requirement from the
REMS, Formalized in 2023, Was Supported
by Ample Scientific Evidence.
A. FDA Relied upon Ample Scientific
Evidence Supporting the Safety and
Effectiveness of Removing the InPerson Dispensing Requirement.
The Fifth Circuit held that FDA’s 2021 nonenforcement decision was likely arbitrary and capricious
because the literature FDA relied upon “did not
affirmatively support its position.”54
App. 61a.
However, this conclusion conflicts with the record FDA
considered and relied upon while evaluating the inperson dispensing requirement. FDA’s decision not to
enforce and ultimately to remove the in-person dispensing requirement from the REMS was supported
by a thorough scientific review. In addition to reviewing the in-person dispensing requirement in support of
54
In addition, the Fifth Circuit found that FDA’s decision was
likely arbitrary and capricious because the Agency relied upon
adverse event report data that no longer had data from
prescribers because reporting requirements had been modified by
the 2016 Amendments. App. 59a. However, FDA had ample
evidence to support this change given over 15 years of adverse
event reporting indicating that risks occurred rarely. J.A. 319.
Further, even after the 2016 change, more extensive reporting of
adverse events is required for mifepristone than the vast majority
of other medications. See Brief of Amici Food and Drug Law
Scholars as Amicus Curiae in Support of Petitions for Writ of
Certiorari, FDA v. Alliance for Hippocratic Medicine at 15 (Oct.
12, 2023). The Fifth Circuit’s reasoning, which disregards data
from such rigorous reporting requirements would have disruptive
effects throughout the regulatory landscape, and prevent FDA
from relying on adverse events data derived from anything less
than the most stringent reporting requirements.
23
the April 2021 nonenforcement decision, FDA further
analyzed the requirement in December 2021—as
described both in a REMS modification rationale
review directing manufacturers to apply for a modified
REMS, and in a denial of a citizen petition seeking to
roll back multiple REMS changes—before formally
removing the in-person dispensing requirement in
January 2023. FDA considered and cited scientific
studies each time that supported the Agency’s determination that the in-person dispensing requirement
was not necessary to ensure the safety and effectiveness of mifepristone for medication abortion. Indeed,
the FDA-reviewed studies far exceeded the statutory
requirements.
1. The April 2021 Nonenforcement
Decision Was Supported by Ample
Scientific Evidence.
As the basis for its April 2021 nonenforcement
decision, FDA relied on studies that included clinical
outcome data for over 50,000 instances of medication
abortion provision. J.A. 364. These studies reviewed
safety and effectiveness of care delivered in person, via
telemedicine, and through hybrid options in which
some but not all stages of care were provided in person
(i.e., screening took place via telemedicine but pills
were picked up in person, or patients visited a clinic of
their choice to receive an ultrasound prior to pills
being sent by mail). Id. The studies also compared
outcomes before and after the COVID-19 public health
emergency, which permitted the use of telemedicine for
mifepristone and provided a natural experiment for
assessing the safety of telemedicine abortion provision. Id. FDA concluded that the “overall findings
from these studies do not appear to show increases in
safety concerns” in the absence of an in-person
24
dispensing requirement. J.A. 365. Each study FDA
relied upon found high effectiveness and high safety
rates for medication abortion provision via telemedicine, with patient outcomes consistent with in-person
dispensing of mifepristone. Id. FDA thus had ample
evidence to find that the in-person dispensing requirement was not necessary to ensure the safety and
effectiveness of mifepristone.
One such study was an assessment of the
TelAbortion Project, a pilot program which was the
first in the United States through which patients could
obtain an abortion legally without an in-person visit.55
The study found 95% effectiveness across 1157 patients
receiving medication abortion, of which almost all did
not have in-person dispensing.56 This effectiveness
rate is comparable to effectiveness for in-person care
demonstrated by prior research.57 Only 0.9% of
patients experienced serious adverse events, which is
also consistent with serious adverse event rates when
mifepristone is delivered in-person.58 The authors
concluded that their “data disprove[d] the notion that
medication abortion must be dispensed in-person[.]”59
In addition, FDA relied upon a study that directly
compared rates of success and safety for 334 patients
receiving medication abortion via three methods:
telemedicine consultation with pills sent by mail,
telemedicine consultation with in-person medication
55
Chong et al., Expansion of direct-to-patient telemedicine
abortion service in the United States and experience during the
COVID-19 pandemic, 104 CONTRACEPTION 43 (2021).
56
Id.
57
Id. (citing Chen, supra note 15).
58
Id.
59
Id. at 48.
25
pick-up, and in-person care provision.60 The study
found similar rates of completion for each method,
with entirely remote care having the highest effectiveness (97.1% for mailed pills, 95.8% for in-person pill
pick-up, and 93.6% for in-clinic care).61 The study
found that all three provision methods had similarly
low rates of serious adverse events, and the study
authors concluded that the data “does not support that
the REMS [requiring an in-person visit] increases the
safety of medication abortion.”62
Further, FDA considered two international studies,
one of which included data from a total of 52,142
patients, including 85% of medication abortions taking
place in England and Wales during the two months
before and two months after COVID-19-related guidelines lifted in-person ultrasound requirements and
shifted medication abortion care to telemedicine.63
This study compared outcomes from 22,158 traditional
clinic-based abortions with 29,984 telemedicine abortions.
The authors found successful abortions for 98.8% of
telemedicine patients compared to 98.2% success rates
for in-clinic care, and extremely low rates of serious
adverse events for both groups (.02% telemedicine
compared to .04% in-clinic).64 The study also found
that telemedicine increased access to care with
60
Kerestes et al., Provision of medication abortion in Hawaii
during COVID-19: practical experience with multiple care delivery
models, 104 CONTRACEPTION 49 (2021).
61
Id.
62
Id. at 53.
63
Aiken et al., Effectiveness, safety and acceptability of no-test
medical abortion (termination of pregnancy) provided via
telemedicine: a national cohort study, 128 BJOG 1464 (2021).
64
Id.
26
significant reductions in waiting times and gestation
at the time of abortion.65
A Scotland-based study of 663 patients found 98%
completion rates for patients receiving medication
abortion following a telephone consultation.66 All
patients took mifepristone at home, and 78.7% of
patients determined gestation using last menstrual
period, i.e. they did not have an in-person visit prior to
obtaining the medication.67 Low rates of serious
adverse events were reported, with only 2 patients
(0.3%) being admitted to the hospital.68
Based on this extensive data, FDA appropriately
determined that waiving and ultimately removing the
in-person dispensing requirement would not affect the
safety and effectiveness of mifepristone used for
medication abortion.
2. Additional Studies Before FDA
in 2021 and Relied on in its
December 2021 Analyses Supported
the Removal of the In-Person
Dispensing Requirement.
Additional studies FDA considered in 2021 supported
the removal of the in-person dispensing requirement.
In analyses issued by FDA in December 2021, the
Agency relied on a set of studies which included over
3,000 patients. Two of these studies (Chong et al. and
65
Id.
66
Reynolds-Wright et al., Telemedicine medical abortion at
home under 12 weeks’ gestation: a prospective observational
cohort study during the COVID-19 pandemic, 47 BMJ SEX
REPROD. HEALTH 246 (2021).
67
Id.
68
Id.
27
Kerestes et al.) had also been considered by FDA in
April 2021 and are described above. Two other studies
discussed by FDA were additional assessments of the
TelAbortion Project, which, like Chong et al., found
very low rates of serious adverse events and high rates
of completion without follow-up care.69 One found a
94% completion rate with only two serious adverse
events among 217 patients (1%).70 The other found a
95.6% completion rate and only three serious adverse
events among 412 patients (0.7%).71 The Anger et al.
study also compared groups of patients who had a
pretreatment ultrasound or pelvic exam to patients
who did not and found no statistically significant
differences in serious adverse events.72
Additional studies analyzed by FDA provided further
evidence of the safety and effectiveness of the provision
of mifepristone without in-person dispensing. One
such study included outcome data for 227 patients who
were evaluated for eligibility during a clinic visit and
received the medication through a mail-order pharmacy
rather than at the clinic visit.73 The study found a
69
Raymond et al., TelAbortion: evaluation of a direct to patient
telemedicine abortion service in the United States, 100
CONTRACEPTION 173 (2019); Anger et al., Clinical and service
delivery implications of omitting ultrasound before medication
abortion provided via direct-to-patient telemedicine and mail in
the US, 104 CONTRACEPTION 659 (2021). Many of the participants
in these two studies were also in the Chong study. See supra note
55.
70
Raymond et al., supra note 69.
71
Anger et al., supra note 69.
72
Id.
73
Grossman et al., Mail-order pharmacy dispensing of
mifepristone for medication abortion after in-person clinical
assessment, 107 CONTRACEPTION 36 (2022).
28
96.9% completion rate with only two (0.9%) serious
adverse events, which is comparable to wholly in-clinic
care.74 Another study involved 141 patients receiving
medication abortion delivered by a mail-order pharmacy
after being evaluated through an online form that
collected information on pregnancy and medical history.75
The study found 95% of participants experienced
complete abortion without the need for follow-up care,
and no serious adverse events were reported.76 An
additional study evaluated the provision of mifepristone through retail pharmacies, including outcomes
of 243 patients who received mifepristone in a retail
pharmacy following in-clinic evaluation.77 The study
found a 93.5% effectiveness rate, with no serious
adverse events.78
Based on the record of scientific evidence considered,
FDA reasonably concluded that removing the inperson dispensing requirement would not reduce the
safety or effectiveness of mifepristone for medication
abortion. FDA’s decision to remove the requirement
was well-supported by the medical evidence, both at
the time the decision was made in April 2021 and at
later moments of consideration in December 2021.
74
Id.
75
Upadhyay (2021), supra note 52.
76
Id.
77
Grossman et al., Medication abortion with pharmacist
dispensing of mifepristone, 137 OBSTET. GYNECOL. 613 (2021).
78
Id.
29
B. Additional Evidence Supports the
Safety and Effectiveness of Removing
the In-Person Dispensing Requirement.
While FDA announced its intention to remove the
in-person dispensing requirement in 2021, this decision
was formalized in 2023. In the interim, additional
studies were published that supported the removal of
the in-person dispensing requirement. These studies
documented how patients’ real-life experiences with
medication abortion via telemedicine have continued
to be safe and effective, with high effectiveness and low
rates of serious adverse events that are very similar to
in-clinic dispensing.
One such study examined a cohort of nearly 4,000
patients living across 24 states receiving medication
abortion in different settings and found similar rates
of effectiveness when medications were dispensed by
mail (93.3%) compared to in-person (95.4%); serious
adverse events occurred rarely whether medications
were dispensed in-person or mailed.79 A study currently
in press assessing the experiences of 6,034 patients
across 20 states evaluated the effectiveness and safety
of asynchronous telemedicine for medication abortion,
finding 97.7% effectiveness with only 0.3% of patients
experiencing serious adverse events, with no significant differences between synchronous or asynchronous
models of care.80 Yet another study evaluating 330
patients found a 93% success rate with only one
79
Upadhyay et al., Outcomes and safety of history-based
screening for medication abortion: a retrospective multicenter
cohort study, 182 JAMA INTERNAL MED. 482 (2022).
80
Upadhyay et al., Effectiveness and safety of telehealth
medication abortion in the United States, NATURE MED. (2024).
30
serious adverse event (0.3%).81 Further, a study
reviewing the safety and effectiveness of medication
abortion before and after Canada eliminated its
REMS-like restrictions on mifepristone and made it
available with a normal prescription included outcome
data for nearly 280,000 abortions, and found there
were no material changes in the incidence of serious
adverse events.82
In addition, recent studies demonstrate that
removal of the in-person dispensing requirement is
consistent with the statutory requirements for REMS,
which must “not be unduly burdensome on patient
access to the drug, considering in particular . . .
patients who have difficulty accessing health care
(such as patients in rural or medically underserved
areas) . . . and . . . patients with functional limitations.”
21 U.S.C. §§ 355-1(f)(2)(C). For example, a geospatial
analysis of over 6,000 patients living in 31 states and
Washington D.C. found that patients who obtained
abortion care via telemedicine averted significant travel
time by not needing to visit a clinic; virtual care was
particularly beneficial for patients who used public
transit, who saved a median of 1 hour and 25 minutes
of travel time.83 Given this evidence, the in-person
81
Pena et al., Telemedicine for medical abortion service
provision in Mexico: a safety, feasibility, and acceptability study,
114 CONTRACEPTION 67 (2022).
82
Schummers et al., Abortion safety and use with normally
prescribed mifepristone in Canada, 386 N. ENG. J. MED. 57 (2022).
83
Koenig et al., The role of telehealth in promoting equitable
abortion access in the United States: a spatial analysis, 9 JMIR
PUB. HEALTH & SURVEILLANCE e45671 (2023). Additionally, a
retrospective study of medication abortion patients found that
dispensing mifepristone by mail did not significantly prolong time
from patients’ first contact with the clinic to the time of
mifepristone ingestion or increase pregnancy duration at
31
dispensing requirement was inconsistent with the
statutory requirements for imposing the REMS elements
and was appropriately removed.
These recent studies demonstrating continued
safety of telemedicine abortion care further show that
FDA’s decision to remove the in-person dispensing
requirement was reasonable and supported by extensive evidence, consistent with statutory requirements.
CONCLUSION
The Court should grant the relief requested by
Petitioners.
Respectfully submitted,
CLAUDIA HAMMERMAN
AARON DELANEY
PAUL, WEISS, RIFKIND,
WHARTON & GARRISON LLP
1285 Avenue of the Americas
New York, NY 10019
(212) 373-3000
chammerman@paulweiss.com
MELISSA GOODMAN
Counsel of Record
AMANDA BARROW
CATHREN COHEN
JACLYN SERPICO
CENTER ON REPRODUCTIVE
HEALTH, LAW, AND POLICY
UCLA SCHOOL OF LAW
1060 Veteran Avenue
Los Angeles, CA 90095
(310) 267-4382
goodmanm@law.ucla.edu
Counsel for Amici Curiae
January 30, 2024
ingestion. Koenig et al., Mailing abortion pills does not delay
care: A cohort study comparing mailed in-person dispensing of
abortion medications in the United States, 121 CONTRACEPTION
109962 (2023).
APPENDIX
APPENDIX TABLE OF CONTENTS
Page
APPENDIX: List of Amici Reproductive Health
Researchers ......................................................
1a
1a
APPENDIX
List of Amici
Reproductive Health Researchers1
Alice M. Abernathy, MD, MSHP, Assistant
Professor, University of Pennsylvania
Chris E. Adkins, PhD, Associate Professor of
Pharmaceutical Sciences, South University School
of Pharmacy
Abigail R.A. Aiken, MD, MPH, PhD, Associate
Professor, University of Texas at Austin
Clayton A. Alfonso, MD, Assistant Professor,
Duke University
Amy E. Alspaugh, PhD, MSN, Assistant
Professor, University of Tennessee
Amy E. Alterman, PhD, MPH, Research
Associate, University of California, Los Angeles
Stephanie I. Amaya, MD, Fellow, Stanford
University
Miranda Aragón, MD, Assistant Professor,
Associate Residency Program Director, University
of New Mexico School of Medicine
Andrea Arena, MD, Associate Professor, Brown
University
Whitney Arey, PhD, Postdoctoral Trainee,
Maternal and Child Health, University of North
Carolina at Chapel Hill
1
The listed institutions are the current places of employment
of the amici. The institution is listed for identification purposes
only and the views expressed in this brief do not necessarily
reflect the views of amici’s affiliated institutions.
2a
Ifeyinwa Asiodu, PhD, MS, RN, Associate
Professor, University of California, San Francisco
Samantha L. Auerbach, PhD, WHNP-BC,
Postdoctoral Fellow, University of California, San
Francisco
Amy Autry, MD, Professor, Interim Chief
Obstetrics and Gynecology, University of
California, San Francisco, Fresno
Sarah Averbach, MD, MAS, Associate Professor,
Researcher, Clinician, University of California, San
Diego
C. Finley Baba, MPH, Senior Project Manager,
Advancing New Standards in Reproductive Health,
University of California, San Francisco
Lela Bachrach, MD, MS, Health Sciences
Clinical Professor, University of California, San
Francisco
Carrie N. Baker, MA, JD, PhD, Professor, Smith
College
Maureen K. Baldwin, MD, MPH, Associate
Professor of Obstetrics and Gynecology, Oregon
Health & Science University
Aleta Baldwin, MPH, PhD, Associate Professor,
California
State
University
Sacramento,
Department of Public Health
Jill Barr-Walker, MPH, MS, Clinical Librarian,
University of California, San Francisco
Maya Bass, MD, MA FAAFP, Program Director,
Cooper University Hospital
Molly Frances Battistelli, MPH, Director of
Policy and Administration, Advancing New
3a
Standards in Reproductive Health, University of
California, San Francisco
Sarah E. Baum, MPH, Senior Research Scientist,
Ibis Reproductive Health
Lisa Bayer, MD, MPH, Associate Professor,
Oregon Health & Science University
Jonathan Marc Bearak, PhD, Senior Research
Scientist, Guttmacher Institute
Andrea Becker, PhD, MA, Postdoctoral Fellow,
Advancing New Standards in Reproductive Health,
University of California, San Francisco
Suzanne O. Bell, PhD, MPH, Assistant Professor,
Johns Hopkins Bloomberg School of Public Health
April J. Bell, PhD, MPH, Assistant Professor,
University of California, San Francisco
Ian Bennett, MD, PhD, Professor, University of
Washington
Ariana H. Bennett, DrPH, MPH, Postdoctoral
Scholar, University of California, Berkeley
Lyndsey S. Benson, MD, MS, Assistant Professor,
University of Washington
Nancy F. Berglas, DrPH, Public Health Social
Scientist, University of California, San Francisco
Caitlin Bernard, MD, MSCI, FACOG, Assistant
Professor, Indiana University School of Medicine
Erin Berry, MD, MPH, Medical Director and
Director of Research, Planned Parenthood
Danielle Bessett, MA, PhD,
Sociology, University of Cincinnati
Professor
of
4a
M. Antonia Biggs, PhD, Associate Professor,
Advancing New Standards in Reproductive Health,
University of California, San Francisco
Natalie D. Bingham, MD, MPH, FACOG,
Associate Clinical Professor, Prisma Health
Kelly Blanchard, MSc, President, Ibis Reproductive Health
Paul D. Blumenthal, MD, MPH, Professor of
Obstetrics and Gynecology, Emeritus, Stanford
University
Christy Boraas, MD, MPH, Associate Professor,
University of Minnesota
Lynn Borgatta, MD, MPH, Board Member,
Institutional Review Boards
Sonya Borrero, MD, MS, Professor, University of
Pittsburgh
Elizabeth Heger Boyle, PhD, JD, Professor,
University of Minnesota, Twin Cities
Kari Braaten, MD, MPH, Physician, Brigham
and Women’s Hospital
Caila Brander, MSc, Research Manager, Ibis
Reproductive Health
Sofia Braunstein, MPH, Research Manager, Ibis
Reproductive Health
Claire D. Brindis, DrPH, MPH, Distinguished
Professor, University of California, San Francisco
Kathleen Broussard, PhD, Assistant Professor,
University of South Carolina
Katherine Brown, MD, MAS, Assistant
Professor, University of California, San Francisco
5a
Benjamin Patterson Brown, MD, MS, Mimi
Pichey Assistant Professor of Obstetrics and
Gynecology, The Warren Alpert Medical School of
Brown University
Mara Buchbinder, PhD, Professor, University of
North Carolina at Chapel Hill
Alice F. Cartwright, PhD, MPH,
Research Scientist, Guttmacher Institute
Senior
Diana Carvajal, MD, MPH, Associate Professor
and Attending Physician, University of Maryland
School of Medicine
Philicia W. Castillo, MPH, Researcher
Aaron Caughey, MD, MPP, MPH, PhD,
Professor and Chair, Oregon Health & Science
University
Shawna Chan, MD, Resident Physician, University of California, Los Angeles
Wendy Chavkin, MD, MPH, Professor Emerita,
Columbia University Mailman School of Public
Health and College of Physicians and Surgeons
Beatrice Chen, MD, MPH, Associate Professor,
University of Pittsburgh
Shibani Chettri, MPH, Researcher and PhD
Student, The Ohio State University
Erica Chong, MPH, Executive
Montefiore Medical Center, RHEDI
Director,
Cynthia Chuang, MD, MSc, Professor of
Medicine and Public Health Sciences, Penn State
College of Medicine
Kathryn Church, MA, MSc, PhD, Honorary
Assistant Professor in Sexual and Reproductive
6a
Health, London School of Hygiene & Tropical
Medicine
Damian Clarke, DPhil, Associate Professor,
Universidad de Chile
Kelly Cleland, MPA, MPH, Executive Director,
American Society for Emergency Contraception
Francine M. Coeytaux, MPH, Co-Founder,
Plan C
Kate Coleman-Minahan, PhD, RN, FNP-BC,
Assistant Professor, University of Colorado College
of Nursing
Alyssa Covelli Colwill, MD, MCR, Assistant
Professor, Oregon Health & Science University
Sarah K. Cowan, PhD, MA, Associate Professor,
New York University
Allison Cowett, MD, MPH, Health Systems
Clinician, Northwestern University Feinberg
School of Medicine
Chris Creatura, MD, Clinical Assistant Professor
of Obstetrics and Gynecology, Weill-Cornell
Medical College
Mitchell D. Creinin, MD, Professor of Obstetrics
and Gynecology, University of California, Davis
Halley P. Crissman, MD, MPH, Adjunct
Assistant Clinical Professor, University of
Michigan
Kelly R. Culwell, MD, MPH, Assistant Professor,
University of California, San Diego
Sara Daniel, MPH, Doctoral Candidate, Johns
Hopkins Bloomberg School of Public Health
7a
Chelsea Daniels, MD, Staff Physician, Planned
Parenthood of South, East and North Florida
Cynthia R. Daniels, PhD, Professor and Project
Director, The Informed Consent Project, Rutgers
University
Philip Dempsey Darney, MD, MSc, Distinguished Research Professor Emeritus, University
of California, San Francisco
Blair G. Darney, PhD, MPH, Associate Professor,
Oregon Health & Science University
Camelia Davtyan, MD, Professor, University of
California, Los Angeles
Christine Dehlendorf, MD, MAS, Professor,
University of California, San Francisco
Amanda Dennis, DrPH, MBE,
Director, Society of Family Planning
Executive
Teresa DePiñeres, MD, MPH, FACOG, Coach
and Reproductive Health Consultant
Sheila Desai, DrPH, MPH, Research Director,
Coalition to Expand Contraceptive Access
Divya
Dethier,
Permanente
MD,
Shokoufeh Dianat,
Dandelion Health
DO,
Physician,
MAS,
Kaiser
Physician,
Claudia Diaz Olavarrieta, MA, PhD, Professor
and Researcher, National Autonomous University
of Mexico, School of Medicine
Samuel L. Dickman, MD, Chief Medical Officer,
Planned Parenthood of Montana
8a
Justin T. Diedrich, MD, MSCI, FACOG,
Physician, Planned Parenthood
Alesha E. Doan, MA, PhD, Professor, University
of Kansas
Monica V. Dragoman, MD, MPH, System
Director, Complex Family Planning Division, Icahn
School of Medicine at Mount Sinai
Eleanor Drey, MD, EdM, Professor, University of
California, San Francisco
Nicole I. Economou, MD, MPH, Assistant
Clinical Professor, University of California, Davis
Alison Edelman, MD, MPH, Professor of Obstetrics and Gynecology, Oregon Health & Science
University
Katherine Ehrenreich, MSc, Senior Project
Manager, Advancing New Standards in Reproductive Health, University of California, San Francisco
David L. Eisenberg, MD, MPH, Professor,
Washington University in St. Louis School of
Medicine
Gretchen E. Ely, PhD, Professor, University of
Tennessee
Margit Endler, MD, PhD, Associate Professor,
Karolinska Institutet
Anna Fiastro, PhD, MPH, MEM, Research
Scientist, University of Washington
Alecia Fields, DO, OBGYN Generalist, Complex
Family Planning Specialist, Cumberland Family
Medical Center
Jason Fletcher, PhD, Professor, University of
Wisconsin
9a
Catherine S. Forest, MD, MOH, Clinical
Associate Professor of Medicine, University of
California, San Francisco Natividad Family
Medicine Residency
Angel M. Foster, DPhil, MD, AM, Professor,
University of Ottawa
Diana Greene Foster, PhD, Professor, University
of California, San Francisco
Dov Fox, LLM, JD, DPhil, Herzog Research
Professor of Law, University Professor, and
Director, Center for Health Law Policy & Bioethics,
University of San Diego School of Law
Linda S. Franck, RN, PhD, Professor, University
of California, San Francisco
Valerie French, MD, MAS, Associate Professor,
University of Kansas
Juliana Friend, PhD, MPhil, Philip R. Lee
Postdoctoral Fellow in Health Policy, University of
California, San Francisco
Lori Frohwirth, BA, Researcher
Laura J. Frye, MPH, Researcher
Liza Fuentes, DPH, MPH, Director of Research,
Health Equity, Boston Medical Center
Maria F. Gallo, PhD, Professor and Associate
Dean of Research, College of Public Health, The
Ohio State University
Aileen Gariepy, MD, MPH, MHS, Associate
Professor, Director of Complex Family Planning,
Weill Cornell Medicine
Kristina
Professor,
Gemzell-Danielsson, MD, PhD,
Senior Consultant, and Head of
10a
Department, Karolinska Institutet, Department of
Women’s and Children’s Health
Caitlin Elisabeth Gerdts, PhD, MHS, Vice
President for Research, Ibis Reproductive Health
Adrienne R. Ghorashi, JD, Lead Law and Policy
Analyst, Center for Public Health Law Research
Jessica D. Gipson, MPH, PhD, Professor and
Director, University of California, Los Angeles
Bixby Center to Advance Sexual and Reproductive
Health Equity, University of California, Los
Angeles Fielding School of Public Health
Natalie Gladstein, MD,
Northland Family Planning
MSc,
Physician,
Emily M. Godfrey, MD,
University of Washington
MPH,
Professor,
Marji Gold, MD, Professor, Teaching and
Research Faculty, Albert Einstein College of
Medicine
Alisa B. Goldberg, MD, MPH, Director, Division
of Family Planning, Brigham and Women’s
Hospital
Bethany Golden, RN, MSN, PhD(c), PreDoctoral Fellow, ACTIONS, School of Nursing,
University of California, San Francisco
Anu Manchikanti Gomez, PhD, MSc, Associate
Professor, University of California, Berkeley
Rebecca Gomperts, MD, MPP, PhD, Director,
Aid Access
Joel R. Gonzalez, MPH, MPP, University of
California, Merced
11a
Suzan Goodman, MD, MPH, Clinical Professor
and Training Director, University of California,
San Francisco
Heather Gould, MPH, Research Project Director,
University of California, San Francisco
Wendy Terese Grace, MD, MS, MA, Medical
Doctor
Melissa S. Grant, BA, Chief Operations Officer,
Carafem
Daniel Grossman, MD, Professor, Advancing
New Standards in Reproductive Health, University
of California, San Francisco
Sofia Gruskin, JD, MIA, Professor and Director,
Institute on Inequalities in Global Health,
University of Southern California
Kelli Stidham Hall, PhD,
Professor, Columbia University
MS, Associate
Cynthia Harper, PhD, Professor, Obstetrics,
Gynecology & Reproductive Sciences, University of
California, San Francisco
Elizabeth K. Harrington, MD, MPH, Assistant
Professor, University of Washington
Maria Harvey, MPH, DrPH, Distinguished
Professor of Public Health, Associate Dean for
Research, Oregon State University
Lee Hasselbacher, JD, Research Assistant
Professor, The University of Chicago
Jennifer Hastings, MAT, MD, Clinical Professor,
University
of
California,
San
Francisco
Department of Family and Community Medicine
12a
Jillian T. Henderson, PhD, MPH, Senior
Investigator, Kaiser Permanente Center for Health
Research
Andrea Henkel, MD, MS, Clinical Assistant
Professor, Stanford University
Jenny A. Higgins, PhD, MPH, Professor,
University of Wisconsin – Madison
Stephanie Ho, MD, MPH, Physician, Alameda
Health System
Kelsey Holt, ScD, MA, Associate Professor,
University of California, San Francisco
Sarah Horvath, MD, MSHP, Assistant Professor,
Penn State Hershey Medical Center
Safiyah Hosein, MD, Assistant Professor, Brown
University Women and Infants Hospital
Melody Y. Hou, MD, MPH, Professor in Clinical
Obstetrics and Gynecology, University of
California, Davis
Michele Hugin, MD, MS, Clinical Assistant
Professor, Stanford University
Sara L. Imershein, MD, MPH, Clinical Professor,
George Washington University School of Medicine
& Health Sciences
Luu Ireland, MD, MPH, Assistant Professor,
UMass Memorial Health
Andrea V. Jackson, MD, MAS, Professor,
University of California San Francisco
Laura E. Jacobson, MPH, PhD(c), PhD
Candidate, OHSU-PSU School of Public Health
13a
Marian Jarlenski, PhD, MPH,
Professor, University of Pittsburgh
Associate
Ruvani Jayaweera, MPH, PhD, Research
Scientist, Ibis Reproductive Health
Carole Joffe, PhD, Professor, University of
California, San Francisco
Nicole E. Johns, MPH, Research Data Analyst,
University of California, San Diego
Dana M. Johnson, PhD, Senior Associate
Research Scientist, Ibis Reproductive Health
Heidi E. Jones, PhD, MPH, Associate Professor,
City University of New York School of Public
Health
Rachel K. Jones, PhD, Principal Research
Scientist, Guttmacher Institute
Rebecca B. Joseph, MD, MPH, Physician,
Greater Lawrence Family Health Center
Shelly Kaller, MPH, Project Director, Advancing
New Standards of Reproductive Health, University
of California, San Francisco
Bliss Kaneshiro,
University of Hawaii
MD,
MPH,
Professor,
Nathalie Kapp, MD, MPH, Chief Medical
Advisor, International Planned Parenthood
Federation
Jennifer Karlin, MD, PhD, Assistant Professor,
University of California, Davis
Megan L. Kavanaugh, DrPH, Principal Research
Scientist, Guttmacher Institute
14a
Kimberly Kelly, PhD, MA, MA, BA, Professor of
Sociology, Mississippi State University
Katherine Key, MPH, Associate
Scientist, Ibis Reproductive Health
Research
Katrina Kimport, PhD, Professor, University of
California, San Francisco
Elizabeth Kinsey, MD, Fellow, Complex Family
Planning, University of California, San Francisco
Gail Kligman, PhD, Distinguished Professor of
Sociology, University of California, Los Angeles
Jennifer Ko, BS, MLIS, Project
University of California, San Francisco
Director,
Leah R. Koenig, MSPH, PhD Candidate,
Research Analyst, Advancing New Standards in
Reproductive Health, University of California, San
Francisco
Helena Kopp Kallner, MD, PhD, Associate
Professor, Karolinska Institutet
Kathryn Kost, PhD, Director of Domestic
Research, Guttmacher Institute
Stephanie Lambert, MD, MPH, Assistant
Professor, Penn State Hershey Medical Center
Uta Landy, PhD, Senior Advisor, University of
California, San Francisco
Kathryn J. LaRoche, PhD, MSc, Assistant
Professor, Purdue University
Klaira Lerma, MPH, Research
University of Wisconsin – Madison
Amy Levi, PhD, MSN, Project Director
Director,
15a
Laura Lindberg, PhD, MA, Professor, Rutgers
School of Public Health
Kelsey Loeliger, MD, PhD, Complex Family
Planning Fellow, University of California, San
Diego
Patricia A. Lohr, MD, MPH, Medical Director
and Director, Centre for Reproductive Research &
Communication, British Pregnancy Advisory
Service
Melanie MacLennan, MD, MPH, MFA, Director,
Elmhurst Hospital New York City
Isaac Maddow-Zimet,
Guttmacher Institute
MS,
Data
Scientist,
Jennifer Manegold, MD, MS, Fellow, University
of California, Los Angeles Semel Institute
Alice Mark, MD, MSc,
Independent Consultant
Medical
Advisor,
Megan M. Masten, MD, Fellow, University of
Colorado
Namrata Mastey, MD, Associate Medical
Director, Planned Parenthood Mar Monte
Michelle L. McGowan, PhD, Professor of
Biomedical Ethics, Mayo Clinic
Monica R. McLemore, PhD,
Professor, University of Washington
MPH,
RN,
Colleen P. McNicholas, DO, MSCI, Chief
Medical Officer, Planned Parenthood
Karen R. Meckstroth, MD, MPH, Professor,
University of California, San Francisco
16a
Annie Menzel, PhD, Associate
University of Wisconsin – Madison
Professor,
Rebecca J. Mercier, MD, MPH, Associate
Professor, Thomas Jefferson University
Tamer Middleton, MD, Medical Director, Atlanta
Comprehensive Wellness Clinic
Hayley Miller, MD, Fellow, Stanford University
Ghazaleh Moayedi, DO, MPH, President,
Founder, Pegasus Health Justice Center
Sepideh Modrek, MA, PhD, Professor, San
Francisco State University
Sheila Mody, MD, MPH, Professor, University of
California, San Diego
Melissa Montoya, MD, MA, Fellow, University of
Pennsylvania
Caroline Moreau, MD, MPH, PhD, Associate
Professor, Bloomberg School of Public Health,
Johns Hopkins University
Natalie Morris, MPH, Project Manager,
Advancing New Standards of Reproductive Health,
University of California, San Francisco
Joann Elizabeth Moschella, DO, MA, Associate
Professor, Family and Community Medicine
Residency, University of California, San Francisco,
San Francisco General Hospital
Heidi Moseson, PhD, MPH, Senior Research
Scientist, Ibis Reproductive Health
Elizabeth A. Mosley, PhD, MSN, Assistant
Professor, University of Pittsburgh
17a
Isabel Muñoz, MPH, Research Manager and PhD
Student, University of California, San Francisco
Sarah Munro, PhD, MA, Assistant Professor,
University of Washington
Pamela M. Murnane, PhD, MPH, Assistant
Professor, University of California San Francisco
Caitlin Myers, PhD, John G. McCullough
Professor of Economics, Middlebury College
Subasri Narasimhan, PhD, MPH, Assistant
Professor, Emory University
Ashley Navarro, MD, MPH, Clinical Faculty,
Mountain Area Health Education Center & PPSAT
Monika Nayak, PhD Candidate, University of
California, Los Angeles
Rachel Neal, MD, Staff Physician, Endeavor
Health
Anita Lorraine Nelson, MD, Professor Emeritus,
Obstetrics and Gynecology, David Geffen School of
Medicine at University of California, Los Angeles
Alison Norris, MD, PhD, Professor, The Ohio
State University
Jenny O’Donnell, ScD, MS, Senior Director of
Research and Evaluation, Society of Family
Planning
Harika Pal, MD, Physician, Parsley Health
Amy E. Paris, MD, MS, Assistant Professor of
Obstetrics and Gynecology, The Geisel School of
Medicine at Dartmouth
Marit Pearlman Shapiro, MD, MPH, Assistant
Professor, University of Southern California
18a
Beth Phillips, MPH, Project Director, University
of California, San Francisco
Mayra Pineda-Torres, PhD, Georgia Institute of
Technology
Michael S. Policar, MD, MPH, Professor
Emeritus
of
Obstetrics, Gynecology,
and
Reproductive Sciences, University of California,
San Francisco, and Senior Medical Advisor,
California Prevention Training Center
Amy M. Potter, MD, Physician,
Parenthood of Greater Ohio
Planned
Joseph E. Potter, PhD, MPA, Professor
Emeritus, University of Texas at Austin
Allison Power, MPH, Senior Fellow, CDC
Sarah Ward Prager, MD, MAS, Professor,
University of Washington
Kimala Price, PhD, Professor and Chair, San
Diego State University
Sally Rafie, PharmD, Pharmacist Specialist,
University of California San Diego Health
Shandhini Raidoo, MD, MPH,
Professor, University of Hawaii
Associate
Sarah E. Raifman, MSc, Project Director,
Advancing New Standards in Reproductive Health,
University of California, San Francisco
Tina Raine-Bennett, MD, MPH, Physician
Medical Staff, University of California, San
Francisco
Lauren J. Ralph, PhD, MPH, Associate Professor
of Obstetrics, Gynecology, and Reproductive
Sciences, University of California, San Francisco
19a
Jessika Ralph, MD, MSCI, Assistant Professor of
Obstetrics and Gynecology, University of
Minnesota
Ana Maria Ramirez, MPH, Project Director, Ibis
Reproductive Health
Stephanie Rand, MAS, MD, Director of Family
Planning, Harlem Hospital
Elizabeth Gray
Researcher, Gynuity
Raymond,
MD,
MPH,
Na’amah Razon, MD, PhD, Assistant Professor,
University of California, Davis
Sara K. Redd, PhD, MSPH, Assistant Professor,
Emory University
Whitney S. Rice, DrPH, MPH, Rollins Assistant
Professor and Director, Emory University
JaNelle M. Ricks, DrPH, MPA, Assistant
Professor, The Ohio State University College of
Public Health
Sarah CM Roberts, DrPH, Professor, University
of California, San Francisco
Corinne Rocca, PhD, MPH, Professor,
University of California, San Francisco
Roger Rochat, MD, Emeritus Professor, Emory
University
Andrea H. Roe, MD, MPH, Assistant Professor,
University of Pennsylvania School of Medicine
Susan E. Rubin, MD, MPH, Reproductive Health
Research Director, The Institute for Family Health
Jessica Rubino, MD, Physician
20a
Samantha Ruggiero, MA, Project Manager, Ibis
Reproductive Health
Jennefer Russo, MD, MPH, Chief Medical
Officer, DuPont Clinic
Jessica Sanders, PhD, MSPH, Assistant
Professor and Director of Research, University of
Utah
John Santelli, MD, MPH, Professor, Columbia
University
Raffaela Schiavon, MD, Researcher and Doctor
of Medicine, Former Country Director of Ipas
Mexico and Former Deputy General Director of
Sexual and Reproductive Health at the Federal
Ministry of Health, Mexico
Robyn Schickler, MD, MSc, Chief Medical
Officer, Planned Parenthood of Southwest and
Central Florida
Courtney A. Schreiber, MD MPH, University of
Pennsylvania
Hayley Schultz, MD, Resident, University of
California, San Diego
Julie Schultz, MD, MPH, Faculty Attending
Physician, MedStar Franklin Square
Laura Schummers, ScD, Assistant Professor,
University of British Columbia
Eleanor Bimla Schwarz, MD, MS, Professor,
Chief Division of General Internal Medicine,
University of California, San Francisco
Susan Seibold-Simpson, PhD, MPH, RN, FNP,
Nurse Practitioner, Southern Tier Women’s Health
Services, LLC
21a
Dominika Seidman, MD, MAS, Associate
Professor, University of California, San Francisco
Leigh G. Senderowicz, ScD, MPH, Assistant
Professor, University of Wisconsin – Madison
Leslie G. Serrano, MPH, Research Data Analyst,
University of California, Los Angeles
Jane W. Seymour, PhD, MPH, Research
Scientist, University of Wisconsin – Madison
Collaborative for Reproductive Equity
Meera Shah, MD, MPH, MS, Chief Medical
Officer, Planned Parenthood Hudson Peconic
Tara Shochet, PhD, MPH, Director of Programs
and Grants, Family Planning Council of Iowa
Hannah Simons, DrPH, National Director,
Research & Evaluation, Planned Parenthood
Federation of America
Gretchen Sisson, PhD, Researcher, Advancing
New Standards in Reproductive Health, University
of California, San Francisco
Mikaela Smith, PhD, Research Scientist, The
Ohio State University
Mindy Sobota, MD, MS, MPhil, Associate
Professor of Medicine, Alpert Medical School of
Brown University
Reni Soon, MD, MPH, Professor, University of
Hawaii
Silpa Srinivasulu, MPH, Director, Reproductive
Health Access Project
Jody Steinauer, MD, PhD, Professor, University
of California, San Francisco
22a
Julia R. Steinberg, PhD, Associate Professor,
Department of Family Science, School of Public
Health, University of Maryland, College Park
Rachel Steward, MD, MSc, Medical Director,
FPA Women’s Health
Julia Strasser, DrPH, MPH, Director, Jacobs
Institute of Women’s Health; Assistant Research
Professor, Health Policy & Management, George
Washington University
Debra Stulberg, MD, MA, Professor and Chair of
Family Medicine, University of Chicago
Siri Suh, PhD, MPH, Associate Professor of
Sociology, Brandeis University
Renee Sullender, MD, MPH, Resident Physician,
University of California, San Diego
Elizabeth Sully, MA, PhD, Principal Research
Scientist, Guttmacher Institute
Jonas Swartz, MD, MPH, Assistant Professor,
Duke University Medical Center
Jennifer H. Tang, MD, MSCR,
Professor, University of North Carolina
FACOG,
Julia Tasset, MD, MPH, Fellow, Oregon Health &
Science University
Paula Tavrow, PhD, Adjunct Professor,
University of California, Los Angeles Fielding
School of Public Health
Stephanie Teal, MD, MPH, Professor and Chair,
Obstetrics and Gynecology and Reproductive
Biology, Case Western Reserve University School of
Medicine
23a
Terri-Ann M. Thompson, PhD, Senior Research
Scientist, Ibis Reproductive Health
Olivia Thornton, MD, MPH, Complex Family
Planning Fellow, Brigham & Women’s Hospital
Mary S. Tschann, PhD, MPH, Complex Family
Planning Scientist, The Queen’s Medical Center
Janet M. Turan, PhD, MPH,
University of Alabama at Birmingham
Professor,
Jema K. Turk, PhD, MA, MPA, Director of
Evaluation, University of California, San Francisco
David Turok, MD, MPH, Professor, University of
Utah
Erinma Ukoha, MD, MPH, Clinical Fellow,
Columbia University Irving Medical Center
Ushma Upadhyay, PhD, MPH, Professor,
University of California, San Francisco
Ena Suseth Valladares, MPH, MSN Student,
Charles R. Drew University of Medicine and
Science
Suzanne Veldhuis, MD, MSc, PhD(c), PhD
Candidate, El Colegio de la Frontera Sur
(ECOSUR)
Robin Wallace, MD, MAS, Physician Director,
Medical Services, Planned Parenthood Federation
of America
Lin-Fan Wang, MD, MPH, Assistant Professor
Carol S. Weisman, PhD, Distinguished Professor
Emerita of Public Health Sciences, Pennsylvania
State University College of Medicine
24a
Tracy A. Weitz, PhD, MPA, Professor of Sociology
and Director of the Center on Health, Risk, and
Society, American University
Elisa S. Wells, MPH, Co-Founder, Co-Director,
Plan C
Carolyn L. Westhoff, MD, Professor, Columbia
University
Libby Wetterer, MD, Assistant Professor,
University of Pennsylvania, Philadelphia
Sara Whetstone, MD, MHS, Associate Professor,
University of California, San Francisco
Kari White, PhD, MPH, Executive and Scientific
Director, Resound Research for Reproductive
Health
Caitlin R. Williams, MSPH, PhD(c), Research
Consultant and PhD Candidate, Gillings School of
Global Public Health, University of North Carolina
at Chapel Hill
Erin Wingo, MSPH, Project Director, University
of California, San Francisco
Beverly Winikoff, MD, MPH, President, Gynuity
Health Projects
Diana Wohler, MD, Assistant Clinical Professor,
Warren Alpert Medical School at Brown University
Alexandra Wollum, PhD, MPH,
Scientist, Ibis Reproductive Health
Research
Melissa L. Wong, MD, Professor, Montefiore
Medical Center
Emily T. Wood, MD, PhD, Clinical Assistant
Professor, Charles R. Drew University
25a
Katie Woodruff, DrPH, Researcher, University of
California, San Francisco
Tricia E. Wright, MD, MS, Professor, University
of California, San Francisco
Diana Wu, MD, Physician Staff, Asian Health
Services
Gail Elizabeth Wyatt, PhD, Professor, University
of California, Los Angeles
Carmela Zuniga, MA, Associate
Scientist, Ibis Reproductive Health
Research
Enav Zusman, PharmD, MSc, Pharmacist,
Graduate Researcher, The University of British
Columbia
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