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Am 7.15 shulman
1. Lee P. Shulman MD
The Anna Ross Lapham Professor of Obstetrics and Gynecology and Chief
Division of Clinical Genetics
Director, Northwestern Ovarian Cancer Early Detection and Prevention
Program
Co-Director, Cancer Genetics Program
The Robert S. Lurie Comprehensive Cancer Center
Feinberg School of Medicine of Northwestern University
Chicago, Illinois
3. Inherited Cancer
Earlier age of onset
Higher rate of bilaterality
Associated tumors
Not distinguished by pathology, metastatic
pattern or survival characteristics
4. KNUDSON
Two-step process
First: germinal or somatic mutation
Second: somatic mutation
5. The Genetics of Cancer
Intact Tumor Suppressor Gene X
XX Killed Cell
XXX
Normal Cell
Tumor Suppressor Gene Mutation
X
XXX
XX
XXX
XX
XX
Cancerous Cell
6. Comparison of Oncogenes and Tumor-
Suppressing Genes
ONCOGENES TUMOR-SUPPRESSING
Gene active Gene inactive
Specific translocations Deletions or mutations
Translocations somatic Mutations auto dominant or
nonhereditary
Dominant at cell level Recessive at cell level
Leukemia/lymphoma Solid tumors
7. Why do cancer risk assessment and genetic
testing for hereditary cancer syndromes?
Our best opportunity to determine risk for
cancer development
For carriers, positive status will impact
surveillance/prevention recommendations
For non-carriers in families with
mutation, avoids unnecessary interventions
For non-carriers in families without a delineated
mutations, may not alter risk
Offer risk-reducing surgery
Information for family members
Reproductive decision-making
9. Genetic cancer syndromes in
women’s health
Hereditary Breast Ovary Cancer Syndrome
BRCA1/BRCA2 (HBOC: 17q21/13q12-13)
Breast
Ovarian Epithelial (OEC)
Lynch Syndrome (HNPCC)
Multiplex mismatch repair (MMR) genes
Colorectal
Endometrial
OEC
10. Genetic cancer syndromes in women’s
health
Cowden syndrome (10q23.3)
Multiple hamartomas
Thyroid cancer
Male and female breast cancer
Endometrial cancer
Li-Fraumeni syndrome (TP53)
Early onset breast cancer
Childhood malignancies:
brain, stomach, lung, pancreas, ovary, melanoma
50% risk fo cancer by age 40, 90% by age 60
11. BRCA1/2
Tumor suppressing genes
Role in cell cycle regulation
Dominant inheritance with relatively
high penetrance
12. BRCA1/2
Tumor suppressing genes
Role in cell cycle regulation
Dominant inheritance with relatively
high penetrance
13. BRCA1
17q21
Female mutation carriers
85% lifetime risk of breast CA
○ 20% develop by age 40
○ 51% by age 50
○ 85% by age 70
10% of women with breast CA under the age of
35 are mutation carriers
40-60% lifetime risk of ovarian CA
Shulman LP. Obstet Gynecol Clin N Am 2010
14. Breast & Ovarian Cancer Risks Associated with BRCA1 Alterations
90
80
70
60
50
40
30
20
10
0
AGE020406080
BRCA 1 - Breast
General Population - Breast
BRCA 1 - Ovarian
General Population - Ovarian
15. BRCA2
13q12-13
Lifetime breast cancer risk: 80%
Lifetime ovarian cancer risk: 12-15%
Lifetime male breast cancer risk: 6%
100-fold increase in male breast cancer risk
compared to general population
Shulman LP. Obstet Gynecol Clin N Am 2010
16. Breast & Ovarian Cancer Risks Associated with BRCA2 Alterations
90
80
70
60
50
40
30
20
10
0
AGE020406080
BRCA 2 - Breast
General Population - Breast
BRCA 2 - Ovarian
General Population - Ovarian
17. BRCA1/2 Founder Mutations
Frequency of BRCA1/2 mutations in general
population approximately 1/500
Frequency of BRCA1/2 mutations in Ashkenazi
Jewish community approximately 1/40
3 mutations comprise 98% of mutations detected in AJ
community
○ BRCA1: 185delAG, 5382insC
○ BRCA2: 6174delT
Icelandic founder mutation in BRCA2: 999delG
accounts for 7% of all EOC cases in Iceland
Shulman LP. Obstet Gynecol Clin N Am 2010
18. Ovarian Cancer
Lynch (HNPCC)
Colon
Endometrial
Breast
8-10% lifetime risk for developing OEC
Specific criteria for genetic screening:
microsatellite instability (MSI genes) per Bethesda
criteria
Colonoscopy and endometrial surveillance remain
the main screening modalities
Shulman LP. Obstet Gynecol Clin N Am 2010
19. Lynch syndrome – Genetics
Multistep mismatch repair (MMR) system
Gene products are involved in correcting
single base pair mistakes that can occur
during DNA replication
○ MLH1cloned in 1994 (3p21)
○ MSH2cloned in 1993 (2p21-22)
○ MSH6cloned in 1997 (2p15)
○ PMS2cloned in 1994 (7p22)
Shulman LP. Obstet Gynecol Clin N Am 2010
20. Mismatch Repair Genes
MSH6
MLH1
MSH2
PMS2
PMS1?
Chr 7
Chr 3
Chr 2
HNPCC is associated with germline mutations
in any one of four mismatch repair genes
21. Lynch
Syndrome
Few adenomas
80% CRC risk, mean 44 yrs
More proximal colonic
Frequent synchronous and
metachronous CRC
MMR mutations:
MLH1, MSH2, MSH6, PMS2
Burt, J Natl Compr Canc Netw 2010; 8:8-61
Jasperson, Burt, Gastroenterol, 2010; 138:2044
23. Other Cancer Predisposition
Genes: KRAS?
Ratner et al 2010
○ Genetic marker for non-small-cell lung cancer
○ Present in fewer than 18% of other solid tumors
○ KRAS-variant associated with more than 25% of nonselectedOEC
cases.
○ Marker for significant increased risk of developing OC
○ KRAS-variant present in 61% of HBOC patients without BRCA1 or
BRCA2mutations
○ KRAS-variant may be a new genetic marker of cancer risk for
HBOC families without other known genetic abnormalities.
Ratner et al. Cancer Res 2010
24. Other Putative Genetic Etiologies for OEC
RAD15C germline mutations
Clague et al PLoS ONE 6(9) 2011
Genome-wide Association Studies
19p13 (Bolton et al, Nat Genet 2010)
2q31 (Goode et al, Nat Genet 2010)
8q24 (Goode et al, Nat Genet 2010)
Telomeres
Structures at end of chromosomes that contribute to genomic
stability
Shortening with repeated cell divisions may lead to genomic
instability and carcinogenesis
Women with serous OEC had shorter telomeres than age-matched
controls (Mirabello et al Cancer Causes Control 2010)
25. BRCA1/2 Counseling
Family/personal history is the primary method
to determine risk for cancer predisposition
syndrome, likelihood of mutation and risk for
cancer development
Advise of current limitations of screening
Negative results IN NO WAY guarantee
protection
Positive results do not guarantee malignancy
Implications of negative/positive results with
regard to screening/diagnostic and therapeutic
options
26. Criteria for Further Risk Evaluation
Affected individual with one or more of the following:
Early-age-onset breast cancer
Triple negative (ER-, PR-, HER2-) breast cancer ·
Two breast cancer primaries
Breast cancer at any age, with
○ > 1 close blood relative with breast cancer < 50 y
○ > 1 close blood relative with OEC/FT cancer at any age
○ >2 close blood relatives with breast cancer/pancreatic cancer at any age
A combination of breast cancer with one or more of the following: thyroid cancer, sarcoma,
adrenocortical carcinoma, endometrial cancer, pancreatic cancer, brain tumors, diffuse gastric
cancer,dermatologic manifestations or leukemia/lymphoma on the same side of family
Ovarian/fallopian tube/primary peritoneal cancer
Male breast cancer
An unaffected individual with a family history of one or more of the following:
○ > 2 breast primaries from the same side of family (maternal or paternal)
○ >1 ovarian primary from the same side of family (maternal or paternal)
○ A combination of breast cancer with one or more of the following: thyroid cancer, sarcoma,
adrenocortical carcinoma, endometrial cancer, pancreatic cancer, brain tumors, diffuse gastric
cancer, dermatologic manifestations or leukemia/lymphoma on the same side of family
A known mutation in a breast cancer susceptibility gene ·
From a population at risk
Male breast cancer
NCCN Guidelines, Version 1.2011
27. Assessment
Patient needs and concerns: ·
Knowledge of genetic testing for cancer risk, including benefits, risks, and limitations
Goals for cancer family risk assessment
Detailed family history
Expanded pedigree to include first-, second-, and third- degree relatives (parents, children,
siblings, aunts, uncles, nieces, nephews, grandparents, grandchildren, half-siblings, great-
grandparents, great-aunts, great-uncles, great-grandchildren, first-cousins
Types of cancer
Bilaterality
Age at diagnosis
History of chemoprevention and/or risk-reducing surgery
Medical record documentation, particularly pathology reports of primary cancers
Detailed medical and surgical history
Any personal cancer history
Carcinogen exposure (eg, history of radiation therapy)
Reproductive history
Hormone use
Previous breast biopsies
Focused physical exam (refer to specific syndrome)
Breast/ovarian
Dermatologic,f including oral mucosa
Head circumference
Thyroid
NCCN Guidelines, Version 1.2011
28. Hereditary Breast/Ovarian Genetic
Testing Criteria
Individual from a family with a known deleterious BRCA1/BRCA2
mutation
Personal history of breast cancer + one or more of the following:
Diagnosed age <45 y
Diagnosed age <50 y with >1 close blood relative with breast cancer <50 y and/or >1
close blood relative with epithelial ovarian/fallopian tube/primary peritoneal cancer at
any age
Two breast primaries when first breast cancer diagnosis occurred prior to age 50 y
Diagnosed age < 60 y with a triple negative breast cancer
Diagnosed age < 50 y with a limited family history (e.g., adoption)
Diagnosed at any age, with >2 close blood relatives with breast and/or epithelial
ovarian/ fallopian tube/ primary peritoneal cancer at any age
Close male blood relative with breast cancer
Personal history of epithelial ovarian/fallopian tube/primary peritoneal cancer
For an individual of ethnicity associated with higher mutation frequency (e.g., Ashkenazi
Jewish, Icelandic), no additional family history may be required.
NCCN Guidelines, Version 1.2011
29. Hereditary Breast/Ovarian Genetic
Testing Criteria (cont’d)
Personal history of epithelial ovarian g/fallopian tube/ primary peritoneal
cancer
Personal history of male breast cancer
Personal history of breast and/or ovarian cancer at any age with >2 close
blood relatives with pancreatic cancer at any age
Personal history of pancreatic cancer at any age with >2 close blood
relatives with breast and/or ovarian and/or pancreatic cancer at any age
Family history only:
First- or second-degree blood relative meeting any of the above criteria
Third-degree blood relative with breast cancer and/or ovarian/fallopian tube/ primary
peritoneal cancer with >2 close blood relatives with breast cancer (at least one with
breast cancer <50 y) and/or ovarian cancer
NCCN Guidelines, Version 1.2011
30. BRCA1/2 Testing
Bestto first assess affected
family members whenever
possible (insurance
issues, costs), especially in cases
of sporadic disease
31. Variant of Uncertain Significance (VUS)
A sequence within a gene not typically
found in the general population and not
consistently associated with disease
VUS found in approximately 12% of
women tested for BRCA1/2 status1
VUS should be discussed in all genetic
counseling sessions for individuals
considering genetic testing2
1. Domchek et al. J Clin Oncol 2008
2. Miller-Samuel et al. Semin Oncol 2011
32. Variant of Uncertain Significance (VUS)
Clinical response to VUS is based on the
reason for undergoing testing
Clinical response also based on
ethnic/racial background if gene mutations
are found in certain ethnic/racial groups
More detailed family history (e.g., medical
records) will help to better delineate risk if
VUS is found
Testing of other family members, especially
those with cancer, is invaluable to
determine the clinical implication of VUS
Miller-Samuel et al. Semin Oncol 2011
33. Variant of Uncertain Significance (VUS)
Over time, the status of some VUS will
change based on studies of the
sequence in other individuals.
Deleterious mutation
Polymorphism
Favor deleterious
Favor polymorphism
Miller-Samuel et al. Semin Oncol 2011
34. Genetic predisposition to gynecologic
cancer syndromes
Summary
Family/personal history-taking remains THE
vital component of cancer risk assessment
At-risk women should be offered genetic
testing when appropriate
“If you have a hammer, everything is a nail”
Not every woman at increased for OEC is at risk for
BRCA1/2; consider associated malignancies in family
Surveillance and conservative prevention
strategies available
Effective surveillance for breast cancer
Effective prevention for ovarian cancer
35.
36. Breast and Ovarian Cancer
Epidemiology
Estimates for 2012
Breast cancer
226,870 new cases (26% of all cancer)
○ Up from 212,920 (31%) in 2006
39,920 deaths (15% of all cancer deaths)
○ Down from 40,970 (15%) in 2006
1975 to 2002 – survival improved 75 to 89%
Second behind lung cancer as a cause of cancer
death in women
Ovarian cancer
22,280 new cases (3% of all cancers)
○ Up from 20,180 in 2006
15,500 deaths (6% of all cancer deaths)
○ Up from 15,310 in 2006
Causes most deaths from cancers of the female
reproductive system
Data from http://www.cancer.org, 2 February 2012
37. Clinical Implications
Improved ability to assess risk
Limited ability to provide clinically useful
interventions
Little information regarding interaction
of multiple risk factors
Few options for women at increased risk
for breast cancer – increased
surveillance but few conservative
preventative options
39. Patients with 5-10% chance of being in
HBOC family
Breast cancer ≤40
Bilateral breast cancer (esp. if 1st occurred
<50)
Breast cancer ≤50 and close relative with
breast cancer ≤50
Jewish women with breast cancer ≤50
2 or more close relatives with any of these
criteria
SGO Committee Statement, 2007
40. Patients with > 25% chance of being in
HBOC family
Personal hx of both breast and ovarian cancer
Have ovarian cancer AND close relative with
ovarian cancer (any age) or breast cancer
(<50)
Jewish women with ovarian cancer (any age)
or breast cancer (<40)
Have breast cancer (<50) and close relative
with ovarian cancer (any age) or male with
breast ca
1° or 2° relative with known BRCA1 or BRCA2
mutation
SGO Committee Statement, 2007
41. 2007 ACS Guidelines for MRI
Women at high risk (> 20% lifetime
risk)
MRI plus mammogram every year
Women at moderately increased risk
(15-20%)
Consult with their doctors about benefits
and limitations of adding MRI to yearly
mammograms
Women with lifetime risk < 15%
Yearly MRI screening is not recommended
42. Recommendations for TamoxifenCandidates
Women with 5-year risk of breast cancer >
1.66% should be offered option of tamoxifen
Greatest benefit seen with least side effects
Premenopausal women
Women without a uterus
Women > 5% 5-year risk
Chlebowski RT, et al. J Clin Oncol. 2002;20(15):3328-43
IBIS Investigators. Lancet. 2002;360:817-24
43. Prophylactic Mastectomy
Total (simple) mastectomy appears more
effective than subcutaneous mastectomy
Shown to reduce risk of breast cancer in
women with BRCA mutations by 90-94%
New Engl J Med 2001;345:159-64
44. Typical Intraoperative Appearance of Stage III Epithelial Ovarian Cancer
Advanced epithelial ovarian cancer
No “precursor
lesion”
Most diagnosed in
Stage 3 or 4
Mortality rates
directly correlated
with stage at
diagnosis
Cannistra, S. A. N Engl J Med 2004;351:2519-2529
45. Lifetime
Family History of Ovarian Cancer Risk
None 1.5%
1 first-degree relative 5%
2 first-degree relatives 7%
Hereditary ovarian cancer
40%
syndrome
Known BRCA1, BRCA2, Lynch
10-50%
mutation
Shulman LP. Obstet Gynecol N Am 2010
46. Ovarian Cancer: Risk Reduction
Birth control pills
First full-term pregnancy < age 25;
number of pregnancies
Breast-feeding
BTL/hysterectomy RR 0.33/0.67
Prophylactic salpingo-oophorectomy
Reduced risk of primary peritoneal cancer
remains
Shulman LP. Obstet Gynecol N Am 2010
47. Chemoprevention of Ovarian
Cancer
Oral Contraceptives
The risk of ovarian cancer was 60% lower
among women with mutations in BRCA1 and
BRCA2 who used oral contraceptives for > 6
years
New Engl J Med 1998; 339:424-8
New Engl J Med 2001;345:235-40
48. Chemoprevention of Ovarian
Cancer
RCGP Oral Contraception Study
• 339,000 wy never users compared to
744,000 wy ever users
• Relative Risks
• Breast 0.98
• Uterine Body 0.58*
• Ovary 0.54*
Hannaford et al. BMJ 2007;335:651.
49. Breast Cancer in Women at High-
Risk for Ovarian Cancer Using OCs
Comparative study: 1,156 cases of invasive breast
cancer (47 BRCA1 and 36 BRCA2) and 815 controls
using low dose oral contraceptives
OC use for at least 12 months reduced risk of breast
cancer for BRCA1 (OR 0.22) and no change for BRCA
2 (1.02) or noncarriers (0.93)
OC use in women who are BRCA mutation carriers will
not increase the risk for breast cancer and will likely
reduce the risk for ovarian cancer
Milne et al 2005
50. Ovarian Cancer
OC use will reduce the risk of developing
ovarian cancer1
5 years of use: 27% reduction
15 years of use: 80% reduction
Average 5% risk reduction per year of OC use2
Protective effect diminishes 10 years after
cessation
Effects are associated with all combination OCs
Tubal ligation will reduce the risk of
developing ovarian cancer by 50%3
1. Cibula D et al Hum Reprod Update 2010
2. Lurie G et al Epidemiology 2008
3. Cibula D et al Hum Reprod Update 2011
51. Why Tubal Ligation?
Initially thought to be associated with reduced
blood flow to ovaries resulting from tubal
ligation1
Theories as to tubal ligation causing a
separation of the ovaries from the rest of the
genital tract to reduce ovarian inflammation2,3
Studies of inflammation and decreases in
estrogen levels and follicle numbers and activity
have failed to support the aforementioned
theories4,5
1. Hankinson SE et al. JAMA 1993
2. Green A et al. Int J Cancer 1997
3. Ness RB, et al. Epidemiology 2000
4. Merritt MA et al. Int J Cancer 2007
5. Carmona F, et al. AJOB 2003
52. Ovarian Cancer: Fallopian
Tube?
122 BRCA1/2 positive women undergoing
prophylactic BSO
7 early malignancies (5.7%)
All 7 originated in the fimbrial and ampullary
regions of the fallopian tubes
○ 2 with surface implants on the ovarian surface
○ 2 cases required more detailed sectioning of the FT
to detect malignancy
Callahan et al. J Clin Oncol 2007
53. Ovarian Cancer: Fallopian
Tube?
Serous tubal intraepithelial carcinomas (STICs)
Secretory cells showing significant atypia
By immunohistochemistry, STICs contain p53
mutations and are mostly highlighted by nuclear
accumulation of mutated p53 protein
Highly proliferative
p53 signature
Benign secretory outgrowth in fimbria and is a putative
cancer precursor
1. Crum CP. Mol Oncol 2009
2. Chen EY et al. J Pathol 2010
55. Population-Based Screening for
Ovarian Cancer: NO!
The Prostate, Lung, Colorectal and Ovarian
(PLCO) Cancer Screening Randomized
Controlled Trial
78,216 women 55-74
Annual screening vs. usual care
Annual screening: CA-125 for 6 years and TV-
USG for 4 years.
○ CA-125 > 35U/ml
○ Ovarian volume greater than 10 cm3
○ Cyst volume greater than 10 cm3
○ Any solid area or papillary projection extening into
the cavity of a cystic ovarian tumor of any size
○ Any mixed (solid and cystic) component
Buys SS et al. JAMA 2011
56. PLCO
OEC diagnosed
○ 5.7/10,000 person-years in intervention group
○ 4.7/10,000 person-years in routine care group
○ Rate ratio 1.21 (95% CI: 0.99-1.48)
Deaths
○ 3.1/10,000 person-years in intervention group
○ 2.6/10,000 person-years in routine care group
○ Rate ratio 1.18 (95% CI: 0.82-1.71)
Buys SS et al. JAMA 2011
57. Current Screening
Guidelines
“…annual screening for ovarian cancer,
as performed in the PLCO trial…does
not reduce disease-specific mortality in
women at average risk for ovarian
cancer but DOES (emphasis added)
increase invasive medical procedures
and assocaited harms.”
Buys SS, et al. JAMA 2011
58. Screening for Ovarian Cancer in a
High-Risk Community: Not Yet!
Increased surveillance
Serum biomarkers
Transvaginal ultrasound
59. Screening approaches
Genetic
Imaging
Biochemical
Symptom index
Combination/Multiplex
None have been shown to
consistently detect early lesions or
reduce mortality
60. Increased surveillance
No evidence to support a decrease in
mortality from increased surveillance
Genetic counseling and testing increased
surveillance and led to risk-reducing
surgeries that resulted in the prevention
of OEC and the detection of early-stage
tumors in women with BRCA1 and
BRCA2 mutations
Scheuer L et al. J Clin Oncol 2002
62. NOCEDPP
Ultrasound Screening in a high-risk population
12,709 scans in 4,526 “high-risk” women
Ultrasound screening alone ineffective for detecting
early stage ovarian cancer
Fishman, Cohen, Blank, Shulman et al. Am J Obstet Gynecol 2005
63. University of Kentucky Ovarian Cancer
Screening Project Update: 2009
31,748 women
22.8% with a positive family history
TVS better than Symptom Index (SI) for the detection of
malignancies
DR: 73.3% v. 20%
SI better than TVS for delineating benign lesions
91.3% v. 74.4%
Use of TVS and SI resulted in poor identification of
malignancies (16.7%) but improved distinguishing of benign
lesions (97.9%)
Pavlik EJ, et al. Cancer
Volume 115, Issue 16, pages 3689-3698, 14 JUL 2009 DOI: 10.1002/cncr.24407
64. Use of symptom index
Major associated symptoms
Pelvic pain
Abdominal pain
Increased abdominal size
Bloating
Feeling full early
Difficulty eating
Sensitivity: 56.7% early st
Screen “positive” if any symptoms
79.5% adv st
present for < 1yr, but occurred >12 times
2-3% of general population
per month
had positive screen
Goff et al, Cancer 2007
65. Ovarian cancer biomarkers
CA-125
Elevated in about 1% normal
women, 80% of epithelial ovarian
cancers (50% of St I disease)
PPV alone <10%, around 20% in combo
with sonography
May perform better as serial assay
66.
67. Lynch syndrome: Screening/Management
Annual colonoscopy
Colon initiated between 20-25
Endometrial/Ovarian Annual TVU w/ color
Doppler, CA-125 and
endometrial aspirate
beginning at age 25-35
Annual
Gastric esophagogastroduodenosc
opy (EGD) beginning at
age 30
Upper Epithelial Tract (also Annual urinanalysis w/
with MTS) cytology and renal
ultrasound beginning at
age 30
Liver Annual LFTs beginning at
age 30
Skin Tumors (MTS) Annual dermatologic exam
68.
69. Women with a Pelvic Mass are at Risk for
OEC
20% of women will be diagnosed with an
adnexal mass1
300,000 per annum in U.S.
5-10% of women will have surgery for an
ovarian neoplasm2
13-21% of these masses will be malignant2
1.Curtin JP. Gynecol Oncol. 1994;55:S42-S46.
2. NIH Consensus Development Conference Statement. Gynecol Oncol. 1994;55:S4-S14.
70. Work-up of Adnexal Mass
Must first categorize as functional, benign neoplastic
or potentially malignant
Diagnostic approach depends on:
Age Ultrasound configuration
Size of mass Color-flow Doppler flow
Unilateral vs. bilateral Presence of symptoms
CA-125 levels
71. ACOG and SGO Referral Guidelines
Newly Diagnosed Pelvic Mass
Premenopausal Postmenopausal
(<50 years of age) (≥50 years of age)
CA 125 >200U/ml) CA 125 >35U/ml
Ascites Ascites
Nodular or fixed pelvis mass
Evidence of abdominal or
Evidence of abdominal or
distant metastasis (by distant metastasis (by exam or
exam or imaging study) imaging study)
Family history of breast or Family history of breast or
OC(in a first-degree OC(in a first-degree relative)
relative)
ACOG Practice Bulletin No. 83. Obstet Gynecol. 2007;110:201-14.
Im SS, et al. Obstet Gynecol. 2005;105:35-41.
72. Significantly Higher Survival
Rates with Oncology
Specialists
Type of Surgeon Impacts Type of Hospital Impacts
Survival Rates Survival Rates
1.0 1.0
0.8 0.8
Cumulative Survival
Cumulative Survival
0.6 0.6
TH: Teaching hospital
0.4 0.4
NTH: Nonteaching hospital
0.2 0.2
0.0 0.0
0 200 400 600 800 1000 0 200 400 600 800 1000
Survival in days Survival in days
Paulsen T et al. Int J Gynecol Cancer. 2006:16(suppl 1):11-17.
73. ACOG and SGO Referral Guidelines
Newly Diagnosed Pelvic Mass
Premenopausal Postmenopausal
(<50 years of age) (≥50 years of age)
CA 125 >200 U/ml) CA 125 >35 U/ml
Ascites Ascites
Evidence of abdominal or Nodular or fixed pelvis mass
distant metastasis (by Evidence of abdominal or
exam or imaging study) distant metastasis (by exam or
imaging study)
Family history of breast or
Family history of breast or OC
OC(in a first-degree
(in a first-degree relative)
relative)
ACOG Practice Bulletin No. 83. Obstet Gynecol. 2007;110:201-14.
Im SS, et al. Obstet Gynecol. 2005;105:35-41.
74. Ultrasound Evaluation
of a Pelvic Mass
Sensitivity Specificity PPV NPV
Study
(%) (%) (%) (%)
DePriest et al.
88 40 28 93
(1993)
Pavlik et al. (2009) 73.3 74.4 26.2 95.7
PPV = positive predictive value
DePriest PD, et al. Gynecol Oncol. 1993;51:7-11.
NPV = negative predictive value
NA = not available Pavlik EJ, et al. Cancer. 2009;115:3689-98.
76. RMI
Risk of Malignancy Index
RMI = USG x [M]eno status x serum CA 125 level
USG = 0 for imaging score of 0
= 1 for imaging score of 1
= 3 for imaging score of 2-5
M = 1 if premenopausal
= 3 if postmenopausal
• (1990) 85% sensitivity/97% specificity1
• (2012) 80% sensitivity/92% specificity/PPV 83%2
1. Jacobs I et al. Br J Obstet Gynecol.1990; 97:992-929.
2. Hakansson et al Acta Obstet Gynecol Scand 2012
77. OVA-1™ Multiple Serum Markers
• Approved for presurgical evaluation of women with
ovarian adnexal mass1
• 5 biomarkers2
– 2-microgobulin
– Apolipoprotein A1
– CA125
– Transferrin
– Transthyretin (prealbumin)
• Single numerical score (0-10) that indicates the
likelihood of malignancy1
1. OVA-1 package insert: Executive summary; Vermillion, Inc.2011.
2. OVA-1 test summary; Quest Diagnostics.2011.
78. ROMATM
Risk of Ovarian Malignancy Algorithm
• HE4 and CA125 + menopausal status
• Estimate the risk of malignancy in women
presenting with adnexal mass who will
undergo surgical intervention
• Calculation is performed on internet
Determine if patient should be referred to an
advanced cancer center
79. Pilot Study
Cross-validated Estimates of
Sensitivity Benign vs. Ovarian Cancer:
Average from Sensitivity at
Leave-One-Out Analysis
90% 95% 98%
Marker Combination Specificity Specificity Specificity
CA125 61.2% 43.3% 23.9%
HE4 77.6% 72.9% 64.2%
CA125 + HE4 80.7% 76.4% 71.6%
CA125 + HE4 + SMRP 80.6% 74.7% 71.7%
CA125 + HE4 + CA72-4 82.1% 78.8% 71.5%
Moore RG et al. Gynecol Oncol 2008;108:402-8.
80. ROMA™ vs RMI
Increased Sensitivity with ROMA
Benign (n = 312) vs EOC (n = 123)
All Patients
Sensitivity* (95% CI) Specificity(95% CI)
RMI 83.7% (76.0% - 89.8%) 75%(69.8% - 79.7%)
ROMA™ 94.3% (88.6% - 97.7%) 75%(69.8% - 79.7%)
*Two Sample Test of Equality of Proportions p=0.0129
CI: Confidence Interval
Moore et al, Am J Obstet Gynecol. 2010;203(3):228.e1-6.
82. Summary
The delineation of risk for breast and
ovarian cancer is made primarily by
personal and family history
Offering genetic testing should be only to
those at increased risk – genetic testing is
not yet appropriate for the general
population
Breast cancer is amenable to effective
screening protocols while OEC is amenable
to effective prevention protocols
83. Summary
Genomic factors play an important role in
the risk for development of gynecologic
malignancies except for cervical cancer
Most gynecologic malignancies occur in
women with little or no family history of the
malignancy
Detection of gene(s) that increase the
likelihood of cancer development will likely
improve screening, diagnosis and prognosis
assessment
Notas del editor
Women at highest risk for being diagnosed with ovarian cancer are women that present with a pelvic mass or ovarian cyst. It is estimated that 1 in 5 women will be diagnosed with an ovarian cyst or adnexal mass sometime in their lifetime; and 5-10% of women will have surgery for an ovarian neoplasm each year in the US.Roughly 13% to 21% of these women will be diagnosed with an invasive epithelial ovarian cancer. ReferenceCurtin JP. Management of the adnexal mass. Gynecol Oncol. 1994;55:S42-S46. NIH Consensus Development Conference Statement. Gynecol Oncol. 1994;55:S4-S14.
ACOG and SGO provide joint guidelines for when to refer a women with a pelvic mass to a gynecological oncologists. ReferenceACOG Practice Bulletin, Clinical management Guidelines for Obstetrician-Gynecologists, Number 83, July 2007. Obstet Gynecol. 2007;110:201-14.Im SS, Gordon AN, Buttin BM, et al. Validation of referral guidelines for women with pelvic masses. Obstet Gynecol. 2005;105:35-41.
In a study, Paulsen demonstrated a significant survival advantage for patients with ovarian cancer that were operated on by gynecologic oncologists, compared with patients operated on by gynecologists or general surgeons. In addition, patients whose surgery was performed at a tertiary care hospital– versus a community hospital–also had a significant survival advantage.ReferencePaulsen T, Kjaerheim K, Kaern J, et al. Improved short-term survival for advanced ovarian, tubal, and peritoneal cancer patients operated at teaching hospitals. Int J Gynecol Cancer. 2006:16(suppl 1):11-17.
ACOG and SGO provide joint guidelines for when to refer a women with a pelvic mass to a gynecological oncologists. ReferenceACOG Practice Bulletin, Clinical management Guidelines for Obstetrician-Gynecologists, Number 83, July 2007. Obstet Gynecol. 2007;110:201-14.Im SS, Gordon AN, Buttin BM, et al. Validation of referral guidelines for women with pelvic masses. Obstet Gynecol. 2005;105:35-41.
ReferenceDePriest PD, Shenson D, Fried A, et al. A morphology index based on sonographic findings in ovarian cancer. Gynecol Oncol. 1993 Oct;51(1):7-11.Pavlik EJ, Saunders BA, Doran S, et al. The Search for Meaning—Symptoms and Transvaginal Sonography Screening for Ovarian Cancer. Cancer. 2009;115:3689–98.
ReferenceCopeland LJ. In Philip J. DiSaia & William T. Creasmann. Clinical Gynecology, 7th edition. Chapter 11 Epithelial Ovarian Cancer. Page 321.
Let’s examine how ROMA performs compared with risk assessment tools currently used in clinical practice.An algorithm that is used either formally or informally by clinicians to assess risk in a patient with a pelvic mass is the Risk of Malignancy Index or RMI developed by Ian Jacobs.The RMI employs an imaging score along with CA125 values and menopausal status to calculate a risk for malignancy. This is an algorithm that employs clinical findings on imaging and uses quantitative data to derive a patient’s risk for malignancy.ROMA was comparied to the RMI, which uses clinicopathologic variables to demonstrate that the performance of ROMA as a stand-alone test is superior to a currently used clinical algorithm.
OVA-1 is a risk-stratification tool intended for the presurgical evaluation of women with ovarian adnexal mass.1{PI, Exec Summary, p.1, para 2}OVA-1 utilizes the results of five biomarkers-- 2-microgobulin, apolipoprotein A1, CA125, transferrin, and transthyretin (prealbumin) to generate a numerical score between 0 and 10 that reflects the likelihood of ovarian malignancy.2{OVA1 test Summary, p.2, Method} The derived single score that separates low probability from high probability of malignancy is slightly different in premenopausal and postmenopausal women.1{PI, Exec Summary, p.2, last para}Low probability of malignancy in premenopausal women: < 5.0Low probability of malignancy in postmenopausal women: < 4.4References1. OVA-1 package insert: executive summary; Vermillion, Inc. (Accessed February 8, 2011, at http://www.ova-1.com/physicians/package-insert.)2. OVA-1 Test summary; Quest Diagnostics. (Accessed February 8, 2011, at http://www.questdiagnostics.com/hcp/intguide/jsp/showintguidepage.jsp?fn=HematOnc/Ovary/TS_OVA1.htm.)
The Risk of Ovarian Malignancy Algorithm, or ROMA, represents a risk assessment tool for ovarian cancer that combines HE4 and CA125 estimates, in conjunction with menopausal status. ROMA is intended to aid in estimating the risk of malignancy in premenopausal and postmenopausal women presenting with an adnexal mass who will undergo surgical intervention. ROMA findings must be interpreted in combination with independent clinical assessments.This tool will provide more useful information to physicians to ensure that patients are treated by the right physician in the right facility, and to better plan for and implement the most appropriate treatment and postoperative care.ReferenceROMA package insert {p.1, para 1}
We were able to calculate an RMI for 80% of the study patients. We compared these results to the ROMA for those individual patients. We found at a specificity of 75%, the RMI had a sensitivity of 85%, compared to the ROMA, which achieved a sensitivity of 94%. ReferenceMoore RG, Jabre-Raughley M, Brown AK, et al. Comparison of a novel multiple marker assay vs the Risk of Malignacy Index for the prediction of epithelial ovarian cancer in patients with a pelvic mass. Am J Obstet Gynecol. 2010;203(3):228.e1-6.
OVA-1 was evaluated in a multicenter, prospective, double-blind clinical study in a total of 516 women, 54.5% of whom were postmenopausal.1 {PI Exec Summary, p 2, para 1} For subjects evaluated by a nongynecological oncologist, the sensitivity for ovarian malignancy increased from 72% to 92% with the dual use of a presurgical assessment and OVA-1 versus a single presurgical assessment alone. Specificity for ovarian malignancy declined however from 83% with the single presurgical assessment to 42% with the dual assessment that included OVA-1.1{PI Exec Summary, p.3, Table 2, para 3}With the use of the dual assessment, positive predictive value also declined; however, negative predictive value increased from 89.1% 93.2%.For nongynecological oncologists and oncological oncologists, the dual assessment using OVA-1 and a presurgical assessment, detected 82.5% of the cases missed by the clinical assessment alone.1 {PI ExecSummary, p.3, para 3}ROMA—combination of pre and post menopausal women.Cost of OVA-1: $650.00 retail; $516.25 Medicare (As per Vermillion’s Director of Marketing, Scott Henderson, May 18, 2011)ReferenceOVA-1 package insert: executive summary; Vermillion, Inc. (Accessed February 8, 2011, at http://www.ova-1.com/physicians/package-insert.)Moore RM, et al. Obstet Gynecol. 2001, In press.ROMA CSR, page 60Vermillion, Inc Press Release? Cost of test