Ohio State University Reports That Ovarian Cancer Drug Bevacizumab Is Not Cost-Effective

An analysis conducted by Ohio State University cancer researchers found that adding the targeted therapy bevacizumab to the first-line treatment of patients with advanced ovarian cancer is not cost effective.

An analysis conducted by Ohio State University cancer researchers found that adding the targeted therapy bevacizumab [Avastin®] to the first-line treatment of patients with advanced ovarian cancer is not cost-effective.

The findings comparing the relative value of various clinical strategies were published online March 7 in the Journal of Clinical Oncology (JCO).

Dr. David E. Cohn is a gynecologic oncologist & researcher at The Ohio State University Comprehensive Cancer Center – Arthur G. James Cancer Hospital & Richard J. Solove Research Institute. He is also the lead author of the bevacizumab cost-effectiveness study.

The researchers performed a cost-effectiveness analysis looking at a clinical trial conducted by the Gynecologic Oncology Group (GOG) studying the use of bevacizumab along with standard chemotherapy for patients with advanced ovarian cancer, said first author Dr. David E. Cohn, a gynecologic surgical oncologist and researcher at The Ohio State University Comprehensive Cancer Center – Arthur G. James Cancer Hospital and Richard J. Solove Research Institute (OSUCCC – James).

Bevacizumab is a novel targeted therapy designed to inhibit angiogenesis, the process by which new blood vessels develop and carry vital nutrients to a tumor.

Although a discussion regarding cost-effectiveness of a potentially life-extending intervention invariably suggests the rationing of limited health care resources, the intent of this study was to provide a framework with which to evaluate the pending results of a clinical trial of three different interventions for ovarian cancer, said Cohn.

“We do not suggest that bevacizumab, also known by the brand name Avastin, should be withheld from a patient with ovarian cancer, but rather argue that studies evaluating the effectiveness of new treatments should also be interpreted with consideration of the expense,” says Cohn, who collaborated with Dr. J. Michael Straughn Jr., an associate professor of obstetrics and gynecology at the University of Alabama at Birmingham.

The results of the randomized phase III [GOG 218] clinical trial demonstrated an additional 3.8 months of progression-free survival (PFS) when maintenance bevacizumab was added for about one year following treatment with standard chemotherapy drugs carboplatin and paclitaxel along with bevacizumab.

“We put together a model looking at the variety of treatment arms on this clinical trial, each of which included 600 patients,” said Cohn. “Given the fact that the addition of the drug was associated with 3.8 months of additional survival without cancer, we set out to determine whether or not that benefit of survival was justified by the expense of the drug.”

The model showed that standard chemotherapy for patients in the clinical trial would cost $2.5 million, compared to $78.3 million for patients who were treated with standard chemotherapy and bevacizumab, plus additional maintenance treatments of bevacizumab for almost one year.

Bevacizumab has been used in the treatment of recurrent ovarian cancer, and the U.S. Food and Drug Administration has approved it for the treatment of colorectal, lung, breast, brain (glioblastoma) and renal cell [kidney] cancers.

Typically each treatment with bevacizumab costs $5,000, with most of those costs directly attributable to the cost of the drug, Cohn said.

Effectiveness was defined as months of progression-free survival, and costs were calculated as total costs per strategy. Cost-effectiveness strategies were defined as the cost per year of progression-free survival. Incremental cost-effectiveness ratio was defined as the costs per progression-free year of life saved.

“Ultimately, we found that if you reduced the drug cost to 25 percent of the baseline, it does become cost effective to treat patients with bevacizumab,” said Cohn. “Or, if the survival could be substantially increased above the 3.8 months of progression-free survival, that could lead to cost-effective treatment for patients with advanced ovarian cancer.”

Ovarian cancer is the most lethal gynecologic cancer, with almost 14,000 women expected to die from the disease this year, according to the American Cancer Society.

“It is anticipated that in the future, there will be increased scrutiny regarding the individual and societal costs of an effective medication,” said Cohn. “We hope that future clinical trials will incorporate the prospective collection of cost, toxicity and quality-of-life data to allow for a fully informed interpretation of the results.”

Other Ohio State researchers involved in the study are Kenneth H. Kim, Kimberly E. Resnick and David O’Malley.

Big Cost For Little Gain in Ovarian Cancer – JCO Editorial

Results of the cost-effectiveness model reported above by Cohen et. al. reveal that paclitaxel plus carboplatin plus bevacizumab, followed by bevacizumab maintenance (PCB-B), as tested in the GOG 218 phase III clinical trial, costs $78.3 million ($1,305,000 per patient) with an incremental cost-effectiveness ratio of $401,088 per progression-free year of life saved. It is important to note that traditional cost-effectiveness study models utilize the costs of improvements in overall survival, as compared to the traditional cost-effective standard of $50,000 per year of life saved, or more recently, $100,000 per year of life saved.  Cohen et. al. found that the traditional standard of $100,000 per progression free year of life saved can be achieved in calculating the incremental cost-effectiveness ratio, but only at a bevacizumab drug price point that is 25% below the actual drug cost.

Martee L. Hensley, M.D., Gynecologic Medical Oncology Service, Memorial Sloan-Kettering Cancer Center

In an accompanying JCO editorial, Martee L. Hensley, M.D., a board-certified medical oncologist who treats women with gynecologic cancers at the Memorial Sloan-Kettering Cancer Center in New York city, raises several important considerations with respect to the Ohio State University study.

First, Dr. Hensley notes that the “costs” accounted for by the Ohio State University researchers only refer to the additional monies incurred by adding bevacizumab to the standard of care paclitaxel-carboplatin treatment.  Specifically, the researchers used a standard cost metholodolgy based upon estimates of drug costs using Medicare reimbursement rates.  The model used does not include indirect costs (e.g., patient out-of-pocket expenses, time lost from work associated with 51 weeks of bevacizumab maintenance, etc.). The only costs related to toxicity of treatment included by researchers were those associated with management of intestinal perforations. Dr. Hensley highlights the fact that the cost model does not include management of grade 2 or worse hypertension or other potential problems that may be caused by bevacizumab or the other chemotherapy drugs.  To the extent that additional costs are added to the model, the cost-effectiveness ratio generated by the researchers would worsen.

Second, Dr. Hensley explains that out of necessity, the researchers’ cost-effectiveness model used PFS data due to the unavailability of overall survival or quality adjusted overall survival data in connection with the three most recent bevacizumab phase III clinical trials. This model construct assumes that the 3.8 month improvement in PFS (as reported by the GOG 218 trial investigators)  provides an improvement in the patient’s experience. Dr. Hensley emphasizes that most ovarian cancer recurrences are identified while the patient is still asymptomatic, with the help of CA-125 blood testing and computed tomography imaging (i.e., CT scan).  Stated differently, it may not be correct to assume that remaining radiographically progression-free for an addtional 3.8 months would improve a patient’s quality of life.  If GOG 218 ultimately finds that PCB-B does not improve overall survival, then the drug’s cost-effectiveness will drift farther away from an acceptable level, says Hensley.

Third, Dr. Hensley points out that only when PFS associated with PCB-B use was hypothetically extended to 32.1 months (observed PFS in GOG 218 was 14.1 months) by the researchers did the incremental cost-effectiveness ratio approach $100,000 per progression-free year of life saved.  Hensley believes that the bevacizumab data accrued to date suggests that a 32.1 month PFS is unlikely. Notably, median PFS is only 24 months among lower-risk patients with optimally debulked stage III ovarian cancer treated with intraperitoneal-based platinum drug/taxane drug therapy.

Fourth, Dr. Hensley explains that it may be possible to achieve a better incremental cost-effectiveness ratio based upon preliminary data derived from the Gynaecologic Cancer Intergroup (GCIG) phase III randomized clinical trail of paclitaxel plus carboplatin, with or without bevacizumab and bevacizumab maintenace therapy (ICON7 trial). The bevacizumab dose tested in ICON7 was only half of that used in GOG 218 (7.5 mg/kg versus 15 mg/kg), and the duration of maintenance therapy in ICON7 was only 36 weeks of continued treatment as compared to 51 weeks in GOG 218. Preliminary results reported by the GCIG in ICON7 indicate that bevacizumab creates a PFS advantage in line with that produced in GOG 218, but at half the dose. Based on these facts, Hensley states that potential use of lower-dose and shorter-duration bevacizumab would improve the incremental cost-effectiveness ratio. Moreover, if lower dose/shorter duration bevacizumab use is also found to reduce the frequency of grade 2 or worse hypertension, the overall costs associated with the drug would also be lower, says Hensley.

Dr. Hensley believes that there are additional steps to be taken (and questions to be answered) which could improve an evaluation of the role and costs of bevacizumab:

  • Is there a clinically meaningful overall survival advantage to PCB-B over paclitaxel plus carboplatin? If PCB-B is not effective, then by definition, it is not cost-effective.
  • Is the data from ICON7 sufficient to permit treatment at half the dose for 9 months instead of 12 months? If so, total bevacizumab costs would be lower.
  • Is there a subset of patients who benefit dramatically from PCB-B?
  • If there is a subset of patients who benefit dramatically from PCB-B, it is necessary to study this group of women to determine if potential biomarkers can identify which patients will or will not benefit from the addition of bevacizumab. Identifying biomarkers that can predict response means commitment to correlative studies as part of large clinical trials.

In sum, Dr. Hensley believes that buying bevacizumab at $78.3 million for 3.8 months of progression-free survival on behalf of approximately 600 women is not sustainable in today’s health care delivery system. Moreover, the incurrence of such costs may hinder basic clinical research to find better compounds that improve PFS by a more meaningful magnitude, says Dr. Hensley.  From Hensley’s perspective, it appears that the stage is set for a potential collision between medicine and policy with respect to where and how a finite number of health care dollars will be spent.

About the Ohio State University Comprehensive Cancer Center – Arthur G. James Cancer Hospital and Richard J. Solove Research Institute

The Ohio State University Comprehensive Cancer Center – Arthur G. James Cancer Hospital and Richard J. Solove Research Institute (cancer.osu.edu) is one of only 40 Comprehensive Cancer Centers in the United States designated by the National Cancer Institute. Ranked by U.S. News & World Report among the top cancer hospitals in the nation, The Arthur G. James Hospital is the 205-bed adult patient-care component of the cancer program at The Ohio State University. The OSUCCC – James is one of only seven funded programs in the country approved by the NCI to conduct both phase I and II clinical trials.

Sources:

2011 SGO Annual Meeting: Ovarian Cancer Abstracts Selected For Presentation

The March 2011 supplemental issue of Gynecologic Oncology sets forth the ovarian cancer and ovarian cancer-related medical abstracts selected by the Society of Gynecologic Oncologists for presentation at its 42nd Annual Meeting on Women’s Cancer™, which is being held in Orlando, Florida from March 6-9, 2011.

The Society of Gynecologic Oncologists (SGO) is hosting its 42nd Annual Meeting on Women’s Cancer™ (March 6–9, 2011) in Orlando, Florida. The SGO Annual Meeting attracts more than 1,700 gynecologic oncologists and other health professional from around the world.

In connection with this premier gynecologic cancer event, 651 abstracts, and 27 surgical films were submitted for consideration. After careful discussion and deliberation, the SGO selected 51 abstracts for oral presentation (27 Plenary session papers, 24 Focused Plenary papers, and 42 Featured Posters, presented in a new, electronic format), along with 227 for poster presentation. Of the 27 surgical films originally submitted, five films were selected for presentation during a featured Focused Plenary session.

The ovarian cancer abstracts listed below were obtained from the March 2011 supplemental issue of Gynecologic Oncology. Each abstract bears the number that it was assigned in the Gynecologic Oncology journal table of contents.

Please note that we provide below (under the heading “Additional Information”) Adobe Reader PDF copies of the 2011 SGO Annual Meeting program summary and the medical abstract booklet (includes all gynecologic cancer topics). If you require a free copy of the Adobe Reader software, please visit http://get.adobe.com/reader/otherversions/.

For your convenience, we listed the 2011 SGO Annual Meeting ovarian cancer abstracts under the following subject matter headings:  (1) ovarian cancer symptoms, (2) ovarian cancer screening, (3) pathology, (4) ovarian cancer staging, (5) chemotherapy, (6) diagnostic and prognostic biomarkers, (7) clinical trial drugs and results, (8) hereditary breast & ovarian cancer syndrome (BRCA gene deficiencies & Lynch Syndrome), (9) gynecologic practice, (10) gynecologic surgery, (11) genetic/molecular profiling, (12) immunotherapy, (13) medical imaging, (14) preclinical studies – general, (15) preclinical studies – potential therapeutic targets, (16) palliative and supportive care, (17) rare ovarian cancers, (18) survival data, (19) survivorship, (20) other, (21) late breaking abstracts.

Ovarian Cancer Symptoms

142. Utility of symptom index in women at increased risk for ovarian cancer. (SGO Abstract #140)

184. Symptom-triggered screening for ovarian cancer: A pilot study of feasibility and acceptability. (SGO Abstract #182)

187. Women without ovarian cancer reporting disease-specific symptoms. (SGO Abstract #185)

Ovarian Cancer Screening

12. Ovarian cancer: Predictors of primary care physicians’ referral to gynecologic oncologists. (SGO Abstract #10)

84. Long-term survival of patients with epithelial ovarian cancer detected by sonographic screening. (SGO Abstract #82)

90. Significant endometrial pathology detected during a transvaginal ultrasound screening trial for ovarian cancer. (SGO Abstract #88)

109. Detection of the tissue-derived biomarker peroxiredoxin 1 in serum of patients with ovarian cancer: A biomarker feasibility study. (SGO Abstract #107)

113. Epithelial ovarian cancer tumor microenvironment is a favorable biomarker resource. (SGO Abstract #111)

127. Stop and smell the volatile organic compounds: A novel breath-based bioassay for detection of ovarian cancer. (SGO Abstract #125)

144. Incidental gynecologic FDG-PET/CT findings in women with a history of breast cancer. (SGO Abstract #142)

156. Discovery of novel monoclonal antibodies (MC1–MC6) to detect ovarian cancer in serum and differentiate it from benign tumors. (SGO Abstract #154)

158. Evaluation of the risk of ovarian malignancy algorithm (ROMA) in women with a pelvic mass presenting to general gynecologists. (SGO Abstract #156)

162. Human epididymis protein 4 increases specificity for the detection of invasive epithelial ovarian cancer in premenopausal women presenting with an adnexal mass. (SGO Abstract #160)

163. Identification of biomarkers to improve specificity in preoperative assessment of ovarian tumor for risk of cancer. (SGO Abstract #161)

171. OVA1 has high sensitivity in identifying ovarian malignancy compared with preoperative assessment and CA-125. (SGO Abstract #169)

172. OVA1 improves the sensitivity of the ACOG referral guidelines for an ovarian mass. (SGO Abstract #170)

182. Sonographic predictors of ovarian malignancy. (SGO Abstract #180)

237. Management of complex pelvic masses using the OVA1 test: A decision analysis. (SGO Abstract #235)

241. Three-dimensional power doppler angiography as a three-step technique for differential diagnosis of adnexal masses: A prospective study. (SGO Abstract #239)

Pathology

145. Accuracy of frozen-section diagnosis of ovarian borderline tumor. (SGO Abstract #143)

Ovarian Cancer Staging

31. Should stage IIIC ovarian cancer be further stratified by intraperitoneal versus retroperitoneal-only disease? A Gynecologic Oncology Group study. (SGO Abstract #29)

173. Peritoneal staging biopsies in early-stage ovarian cancer: Are they necessary? (SGO Abstract #171)

Chemotherapy

29. Treatment of chemotherapy-induced anemia in patients with ovarian cancer: Does the use of erythropoiesis-stimulating agents worsen survival? (SGO Abstract #27)

69. Intraperitoneal chemotherapy for recurrent ovarian cancer appears efficacious with high completion rates and low complications. (SGO Abstract #67)

174. Predictors of severe and febrile neutropenia during primary chemotherapy for ovarian cancer. (SGO Abstract #172)

177. Sequencing of therapy and outcomes associated with use of neoadjuvant chemotherapy in advanced epithelial ovarian cancer in the Medicare population. (SGO Abstract #175)

179. Should we treat patients with ovarian cancer with positive retroperitoneal lymph nodes with intraperitoneal chemotherapy? Impact of lymph node status in women undergoing intraperitoneal chemotherapy. (SGO Abstract #177)

229. Predictors and effects of reduced relative dose intensity in women receiving their primary course of chemotherapy for ovarian cancer. (SGO Abstract #227)

Diagnostic & Prognostic Biomarkers

128. Stress and the metastatic switch in epithelial ovarian carcinoma. (SGO Abstract #126)

130. The cytoskeletal gateway for tumor aggressiveness in ovarian cancer is driven by class III β-tubulin. (SGO Abstract #128)

134. True blood: Platelets as a biomarker of ovarian cancer recurrence. (SGO Abstract #132)

148. CA-125 changes can predict optimal interval cytoreduction in patients with advanced-stage epithelial ovarian cancer treated with neoadjuvant chemotherapy. (SGO Abstract #146)

149. CA-125 surveillance for women with ovarian, fallopian tube or primary peritoneal cancers: What do survivors think? (SGO Abstract #147)

150. Calretinin as a prognostic indicator in granulosa cell tumor. (SGO Abstract #148)

135. Tumor expression of the type I insulin-like growth factor receptor is an independent prognostic factor in epithelial ovarian cancer. (SGO Abstract #133)

147. C-terminal binding protein 2: A potential marker for response to histone deacetylase inhibitors in epithelial ovarian cancer. (SGO Abstract #145)

157. Elevated serum adiponectin levels correlate with survival in epithelial ovarian cancers. (SGO Abstract #155)

175. Prognostic impact of prechemotherapy HE4 and CA-125 levels in patients with ovarian cancer. (SGO Abstract #175)

178. Serum HE4 level is an independent risk factor of surgical outcome and prognosis of epithelial ovarian cancer. (SGO Abstract #176)

Clinical Trial Drugs & Results

8. MicroRNA as a novel predictor of response to bevacizumab in recurrent serous ovarian cancer: An analysis of The Cancer Genome Atlas. (SGO Abstract #6)

9. Prospective investigation of risk factors for gastrointestinal adverse events in a phase III randomized trial of bevacizumab in first-line therapy of advanced epithelial ovarian cancer, primary peritoneal cancer or fallopian tube cancer: A Gynecologic Oncology Group study. (SGO Abstract #7)

10. First in human trial of the poly(ADP)-ribose polymerase inhibitor MK-4827 in patients with advanced cancer with antitumor activity in BRCA-deficient and sporadic ovarian cancers.  (SGO Abstract #8)

30. An economic analysis of intravenous carboplatin plus dose-dense weekly paclitaxel versus intravenous carboplatin plus every three-weeks paclitaxel in the upfront treatment of ovarian cancer. (SGO Abstract #28)

51. BRCA1-deficient tumors demonstrate enhanced cytotoxicity and T-cell recruitment following doxil treatment. (SGO Abstract #49)

54. A novel combination of a MEK inhibitor and fulvestrant shows synergistic antitumor activity in estrogen receptor-positive ovarian carcinoma. (SGO Abstract #52)

68. An economic analysis of bevacizumab in recurrent treatment of ovarian cancer. (SGO Abstract #66)

71. A phase II study of gemcitabine, carboplatin and bevacizumab for the treatment of platinum-sensitive recurrent ovarian cancer. (SGO Abstract #69)

72. A phase I clinical trial of a novel infectivity-enhanced suicide gene adenovirus with gene transfer imaging capacity in patients with recurrent gynecologic cancer. (SGO Abstract #70)

73. A phase I study of a novel lipopolymer-based interleukin-12 gene therapeutic in combination with chemotherapy for the treatment of platinum-sensitive recurrent ovarian cancer. (SGO Abstract #71)

74. AMG 386 combined with either pegylated liposomal doxorubicin or topotecan in patients with advanced ovarian cancer: Results from a phase Ib study. (SGO Abstract #72)

86. Pressure to respond: Hypertension predicts clinical benefit from bevacizumab in recurrent ovarian cancer. (SGO Abstract #84)

152. Changes in tumor blood flow as estimated by dynamic-contrast MRI may predict activity of single-agent bevacizumab in recurrent epithelial ovarian cancer and primary peritoneal cancer: An exploratory analysis of a Gynecologic Oncology Group phase II trial. (SGO Abstract #150)

153. Comparing overall survival in patients with epithelial ovarian, primary peritoneal or fallopian tube cancer who received chemotherapy alone versus neoadjuvant chemotherapy followed by delayed primary debulking. (SGO Abstract #151)

154. Consolidation paclitaxel is more cost-effective than bevacizumab following upfront treatment of advanced ovarian cancer. (SGO Abstract #152)

193. Pegylated liposomal doxorubicin with bevacizumab in the treatment of platinum-resistant ovarian cancer: Toxicity profile results. (SGO Abstract #191)

194. Phase II Trial of docetaxel and bevacizumab in recurrent ovarian cancer within 12 months of prior platinum-based chemotherapy. (SGO Abstract #192)

195. A phase I/II trial of IDD-6, an autologous dendritic cell vaccine for women with advanced ovarian cancer in remission. (SGO Abstract #193)

183. STAC: A phase II study of carboplatin/paclitaxel/bevacizumab followed by randomization to either bevacizumab alone or erlotinib and bevacizumab in the upfront management of patients with ovarian, fallopian tube or peritoneal cancer. (SGO Abstract #181)

228. Is it more cost-effective to use bevacizumab in the primary treatment setting or at recurrence? An economic analysis. (SGO Abstract #226)

240. The use of bevacizumab and cytotoxic and consolidation chemotherapy for the upfront treatment of advanced ovarian cancer: Practice patterns among medical and gynecologic oncology SGO members. (SGO Abstract #238)

Hereditary Breast & Ovarian Cancer Syndrome (BRCA gene deficiencies & Lynch Syndrome)

39. BRCAness profile of ovarian cancer predicts disease recurrence. (SGO Abstract #37)

52. A history of breast carcinoma predicts worse survival in BRCA1 and BRCA2 mutation carriers with ovarian carcinoma. (SGO Abstract #52)

137. Does genetic counseling for women at high risk of harboring a deleterious BRCA mutation alter risk-reduction strategies and cancer surveillance behaviors? (SGO Abstract #135)

138. Hereditary breast and ovarian cancer syndrome based on family history alone and implications for patients with serous carcinoma. (SGO Abstract #138)

139. Management and clinical outcomes of women with BRCA1/2 mutations found to have occult cancers at the time of risk-reducing salpingo-oophorectomy. (SGO Abstract #137)

141. The impact of BRCA testing on surgical treatment decisions for patients with breast cancer. (SGO Abstract #139)

136. Compliance with recommended genetic counseling for Lynch syndrome: Room for improvement. (SGO Abstract #134)

Gynecologic Practice

81. Availability of gynecologic oncologists for ovarian cancer care. (SGO Abstract #79)

Gynecologic Surgery

19. Single-port paraaortic lymph node dissection. (SGO Abstract #17)

20. Robotic nerve-sparing radical hysterectomy type C1. (SGO Abstract #18)

21. Urinary reconstruction after pelvic exenteration: Modified Indiana pouch. (SGO Abstract #19)

22. Intrathoracic cytoreductive surgery by video-assisted thoracic surgery in advanced ovarian carcinoma. (SGO Abstract #20)

26. Cost comparison of strategies for the management of venous thromboembolic event risk following laparotomy for ovarian cancer. (SGO Abstract #24)

28. Primary debulking surgery versus neoadjuvant chemotherapy in stage IV ovarian cancer. (SGO Abstract #26)

33. Does the bedside assistant matter in robotic surgery: An analysis of patient outcomes in gynecologic oncology. (SGO Abstract #31)

48. Defining the limits of radical cytoreductive surgery for ovarian cancer. (SGO Abstract #46)

87. Prognostic impact of lymphadenectomy in clinically early-stage ovarian malignant germ cell tumor. (SGO Abstract #85)

93. Secondary cytoreductive surgery: A key tool in the management of recurrent ovarian sex cord–stromal tumors. (SGO Abstract #91)

146. Advanced-stage ovarian cancer metastases to sigmoid colon mesenteric lymph nodes: Clinical consideration of tumor spread and biologic behavior. (SGO Abstract #144)

155. Cytoreductive surgery for serous ovarian cancer in patients 75 years and older. (SGO Abstract #153)

168. Intraperitoneal catheters placed at the time of bowel surgery: A review of complications. (SGO Abstract #166)

169. Laparoscopic versus laparotomic surgical staging for early-stage epithelial ovarian cancer. (SGO Abstract #167)

170. Oncologic and reproductive outcomes of cystectomy compared with oophorectomy as treatment for borderline ovarian tumor. (SGO Abstract #168)

180. Significance of perioperative infectious disease in patients with ovarian cancer. (SGO Abstract #178)

185. The feasibility of mediastinal lymphadenectomy in the management of advanced and recurrent ovarian carcinoma. (SGO Abstract #183)

235. Incidence of venous thromboembolism after robotic surgery for gynecologic malignancy: Is dual prophylaxis necessary? (SGO Abstract #233)

286. Charlson’s index: A validation study to predict surgical adverse events in gynecologic oncology. (SGO Abstract #284)

288. Cost-effectiveness of extended postoperative venous thromboembolism prophylaxis in gynecologic pncology patients. (SGO Abstract #286)

302. Integration of and training for robot-assisted surgery in a gynecologic oncology fellowship program. (SGO Abstract #300)

303. Outcomes of patients with gynecologic malignancies undergoing video-assisted thorascopic surgery and pleurodesis for malignant pleural effusion. (SGO Abstract #301)

304. Perioperative and pathologic outcomes following robot-assisted laparoscopic versus abdominal management of ovarian cancer. (SGO Abstract #302)

307. Predictive risk factors for prolonged hospitalizations after gynecologic laparoscopic surgery. (SGO Abstract #305)

309. Robot-assisted surgery for gynecologic cancer: A systematic review. (SGO Abstract #307)

310. Robotic radical hysterectomy: Extent of tumor resection and operative outcomes compared with laparoscopy and exploratory laparotomy. (SGO Abstract #308)

315. Utilization of specialized postoperative services in a comprehensive surgical cytoreduction program. (SGO Abstract #313)

Genetic/Molecular Profiling

5. A 3’ UTR KRAS variant as a biomarker of poor outcome and chemotherapy resistance in ovarian cancer. (SGO Abstract #3)

15. XPC single-nucleotide polymorphisms correlate with prolonged progression-free survival in advanced ovarian cancer. (SGO Abstract #13)

16. Genomewide methylation analyses reveal a prominent role of HINF1 network genes, via hypomethylation, in ovarian clear cell carcinoma. (SGO Abstract #14)

49. Loss of ARID1A is a frequent event in clear cell and endometrioid ovarian cancers. (SGO Abstract #47)

53. Genetic variants in the mammalian target of rapamycin (mTOR) signaling pathway as predictors of clinical response and survival in women with ovarian cancer. (SGO Abstract #51)

55. BAD apoptosis pathway expression and survival from cancer. (SGO Abstract #53)

59. Molecular profiling of advanced pelvic serous carcinoma associated with serous tubal intraepithelial carcinoma. (SGO Abstract #57)

82. Biologic roles of tumor and endothelial delta-like ligand 4 in ovarian cancer. (SGO Abstract #80)

85. MicroRNA 101 inhibits ovarian cancer xenografts by relieving the chromatin-mediated transcriptional repression of p21waf1/cip1. (SGO Abstract #83)

102. Association between global DNA hypomethylation in leukocytes and risk of ovarian cancer. (SGO Abstract #100)

103. Cisplatin, carboplatin, and paclitaxel: Unique and common pathways that underlie ovarian cancer response. (SGO Abstract #101)

106. Comparison of mTOR and HIF pathway alterations in the clear cell carcinoma variant of kidney, ovary and endometrium. (SGO Abstract #104)

107. Concordant gene expression profiles in matched primary and recurrent serous ovarian cancers predict platinum response. (SGO Abstract #105)

111. Differential microRNA expression in cis-platinum-resistant versus -sensitive ovarian cancer cell lines. (SGO Abstract #109)

112. DNA methylation markers associated with serous ovarian cancer subtypes. (SGO Abstract #110)

118. MicroRNA and messenger RNA pathways associated with ovarian cancer cell sensitivity to topotecan, gemcitabine and doxorubicin. (SGO Abstract #116)

119. Molecular profiling of patients with curatively treated advanced serous ovarian carcinoma from The Cancer Genome Atlas. (SGO Abstract #117)

125. Proteomic analysis demonstrates that BRCA1-deficient epithelial ovarian cancer cell lines activate alternative pathways following exposure to cisplatin. (SGO Abstract #123)

132. The tumor suppressor KLF6, lost in a majority of ovarian cancer cases, represses VEGF expression levels. (SGO Abstract #130)

126. Quantitative PCR array identification of microRNA clusters associated with epithelial ovarian cancer chemoresistance. (SGO Abstract #124)

160. Genes functionally regulated by methylation in ovarian cancer are involved in cell proliferation, development and morphogenesis. (SGO Abstract #158)

181. Single-nucleotide polymorphism in DNA repair and drug resistance genes alone or in combination in epithelail ovarian cancer. (SGO Abstract #179)

278. Expression patterns of p53 and p21 cell cycle regulators and clinical outcome in women with pure gynecologic sarcomas. (SGO Abstract #276)

Immunotherapy

98. Ab-IL2 fusion proteins mediate NK cell immune synapse formation in epithelial ovarian cancer by polarizing CD25 to the target cell–effector cell interface. (SGO Abstract #96)

124. Proteasome inhibition increases death receptors and decreases major histocompatibility complex I expression: Pathways to exploit in natural killer cell immunotherapy. (SGO Abstract #122)

Medical Imaging

164. Impact of FDG-PET in suspected recurrent ovarian cancer and optimization of patient selection for cytoreductive surgery. (SGO Abstract #162)

294. The clinical and financial implications of MRI of pelvic masses. (SGO Abstract #292)

Preclinical Studies

11. A unique microRNA locus at 19q13.41 sensitizes epithelial ovarian cancers to chemotherapy. (SGO Abstract #9)

14. Common single-nucleotide polymorphisms in the BNC2, HOXD1 and MERIT40 regions contribute significantly to racial differences in ovarian cancer incidence. (SGO Abstract #12)

46. Development of a preclinical serous ovarian cancer mouse model. (SGO Abstract #44)

56. Examination of matched primary and recurrent ovarian cancer specimens supports the cancer stem cell hypothesis. (SGO Abstract #54)

58. Modeling of early events in serous carcinogenesis: Molecular prerequisites for transformation of fallopian tube epithelial cells. (SGO Abstract #56)

101. Antiproliferative activity of a phenolic extract from a native Chilean Amaranthaceae plant in drug-resistant ovarian cancer cell lines. (SGO Abstract #99)

115. Identification and characterization of CD44+/CD24–ovarian cancer stem cell properties and their correlation with survival. (SGO Abstract #113)

Preclinical Studies – Potential Therapeutic Targets

57. Hypoxia-mediated activation of signal transducer and activator of transcription 3 (STAT3) in ovarian cancer: A novel therapeutic strategy using HO-3867, a STAT3 inhibitor (and novel curcumin analog). (SGO Abstract #55)

61. The ubiquitin ligase EDD mediates platinum resistance and is a target for therapy in epithelial ovarian cancer. (SGO Abstract #59)

97. A novel hedgehog pathway smoothened inhibitor (BMS-833923) demonstrates in vitro synergy with carboplatin in ovarian cancer cells. (SGO Abstract #95)

100. AMPK activation mimics glucose deprivation and induces cytotoxicity in ovarian cancer cells. (SGO Abstract #98)

104. Clinical significance of vascular cell adhesion molecule 1 (VCAM-1) in the ovarian cancer microenvironment. (SGO Abstract #102)

105. Combined erbB/VEGFR blockade has improved anticancer activity over single-pathway inhibition in ovarian cancer in vivo. (SGO Abstract #103)

114. EZH2 expression correlates with increased angiogenesis in ovarian carcinoma. (SGO Abstract #112)

116. Induction of apoptosis in cisplatin-resistant ovarian cancer cells by G-1, a specific agonist of the G-protein-coupled estrogen receptor GPR30. (SGO Abstract #114)

120. Neuropilin-1 blockade in the tumor microenvironment reduces tumor growth. (SGO Abstract #118)

129. Targeting the hedgehog pathway reverses taxane resistance in ovarian cancer. (SGO Abstract #127)

121. Ovarian cancer lymph node metastases express unique cellular structure and adhesion genes. (SGO Abstract #119)

122. Overexpression of fibroblast growth factor 1 and fibroblast growth factor receptor 4 in high-grade serous ovarian carcinoma: Correlation with survival and implications for therapeutic targeting. (SGO Abstract #120)

131. The pattern of H3K56 acetylation expression in ovarian cancer. (SGO Abstract #129)

133. Thinking outside of the tumor: Targeting the ovarian cancer microenvironment. (SGO Abstract #131)

161. Horm-A domain-containing protein 1 (HORMAD1) and outcomes in patients with ovarian cancer. (SGO Abstract #159)

165. Influence of the novel histone deacetylase inhibitor panobinostat (LBH589) on the growth of ovarian cancer. (SGO Abstract #163)

166. Inhibition of stress-induced phosphoprotein 1 decreases proliferation of ovarian cancer cell lines. (SGO Abstract #164)

167. Insulin-like growth factor receptor 1 pathway signature correlates with adverse clinical outcome in ovarian cancer. (SGO Abstract #165)

230. Therapeutic synergy and resensitization of drug-resistant ovarian carcinoma to cisplatin by HO-3867. (SGO Abstract #228)

Palliative & Supportive Care

159. Factors associated with hospice use in ovarian cancer. (SGO Abstract #226)

190. Age-related preferences regarding end-of-life care discussions among gynecologic oncology patients. (SGO Abstract #188)

192. Palliative care education in gynecologic oncology: A survey of the fellows. (SGO Abstract #190)

Rare Ovarian Cancers

151. Carcinosarcoma of the ovary: A case–control study. (SGO Abstract #149)

Survival Data

80. Ten-year relative survival for epithelial ovarian cancer. (SGO Abstract #78)

83. Impact of beta blockers on epithelial ovarian cancer survival. (SGO Abstract #81)

176. Revisiting the issue of race-related outcomes in patients with stage IIIC papillary serous ovarian cancer who receive similar treatment. (SGO Abstract #174)

186. The impact of diabetes on survival in women with ovarian cancer. (SGO Abstract #184)

284. Survival following ovarian versus uterine carcinosarcoma. (SGO Abstract #282)

285. The unique natural history of mucinous tumors of the ovary. (SGO Abstract #283)

292. Stage IC ovarian cancer: Tumor rupture versus ovarian surface involvement. (SGO Abstract #290)

Survivorship

191. Menopausal symptoms and use of hormone replacement therapy: The gynecologic cancer survivors’ perspective. (SGO Abstract #189)

Other

4. From guidelines to the front line: Only a minority of the Medicare population with advanced epithelial ovarian cancer receive optimal therapy. (SGO Abstract #2)

32. Efficacy of influenza vaccination in women with ovarian cancer. (SGO Abstract #30)

91. Women with invasive gynecologic malignancies are more than 12 times as likely to commit suicide as are women in the general population. (SGO Abstract #89)

231. Attrition of first-time faculty in gynecologic oncology: Is there a difference between men and women? (SGO Abstract #229)

238. Relative impact of cost drivers on the increasing expense of inpatient gynecologic oncology care. (SGO Abstract #236)

Late-Breaking Abstracts

About Society of Gynecologic Oncologists (SGO)

The SGO is a national medical specialty organization of physicians and allied healthcare professionals who are trained in the comprehensive management of women with malignancies of the reproductive tract. Its purpose is to improve the care of women with gynecologic cancer by encouraging research, disseminating knowledge which will raise the standards of practice in the prevention and treatment of gynecologic malignancies, and cooperating with other organizations interested in women’s health care, oncology and related fields. The Society’s membership, totaling more than 1,400, is primarily comprised of gynecologic oncologists, as well as other related medical specialists including medical oncologists, radiation oncologists, nurses, social workers and pathologists. SGO members provide multidisciplinary cancer treatment including chemotherapy, radiation therapy, surgery and supportive care. More information on the SGO can be found at www.sgo.org.

About Gynecologic Oncologists

Gynecologic oncologists are physicians committed to the comprehensive treatment of women with cancer. After completing four years of medical school and four years of residency in obstetrics and gynecology, these physicians pursue an additional three to four years of training in gynecologic oncology through a rigorous fellowship program overseen by the American Board of Obstetrics and Gynecology. Gynecologic oncologists are not only trained to be skilled surgeons capable of performing wide-ranging cancer operations, but they are also trained in prescribing the appropriate chemotherapy for those conditions and/or radiation therapy when indicated. Frequently, gynecologic oncologists are involved in research studies and clinical trials that are aimed at finding more effective and less toxic treatments to further advance the field and improve cure rates.

Studies on outcomes from gynecologic cancers demonstrate that women treated by a gynecologic oncologist have a better likelihood of prolonged survival compared to care rendered by non-specialists. Due to their extensive training and expertise, gynecologic oncologists often serve as the “team captain” who coordinates all aspects of a woman’s cancer care and recovery. Gynecologic oncologists understand the impact of cancer and its treatments on all aspects of women’s lives including future childbearing, sexuality, physical and emotional well-being—and the impact cancer can have on the patient’s whole family.

Sources:

Additional Information:


York University Researchers Identify Genetic Process That May Underlie Ovarian Cancer Chemoresistance

York University researchers have identified a genetic process that may allow ovarian cancer to resist chemotherapy.

York University researchers have zeroed in on a genetic process that may allow ovarian cancer to resist chemotherapy.

Researchers in the York University Faculty of Science & Engineering studied a tiny strand of our genetic makeup known as a microRNA (miRNA), involved in the regulation of gene expression. Cancer occurs when gene regulation goes haywire.

For many years, DNA and proteins have been viewed as the real movers and shakers in genomic studies, with RNA seen as little more than a messenger that shuttles information between the two. In fact, miRNA was considered relatively unimportant less than a decade ago; that is no longer the case. MiRNA seems to stifle the production of proteins exclusively — a function opposite that of its better-known relative, messenger RNA, or mRNA, which translates instructions from genes to create proteins.  MiRNA attaches to a piece of mRNA – which is the master template for building a protein, thereby acting as a signal to prevent translation of the mRNA into a protein. The “silencing” of proteins by miRNAs can be a good or a bad thing, depending on the circumstances.

Chun Peng, Ph.D., Professor of Biology, York University, and her team identified a genetic process involving a "microRNA" that may underlie a form of ovarian cancer chemoresistance.

“Ovarian cancer is a very deadly disease because it’s hard to detect,” says biology professor Chun Peng, who co-authored the study. “By the time it’s diagnosed, usually it is in its late stages. And by that point there’s really no way to treat the disease.” “Even when the disease is discovered in its early stages, chemotherapy doesn’t always work,” she says.

Peng was among a team of researchers that discovered a receptor, ALK7 (activin receptor-like kinase 7), that induces cell-death in epithelial ovarian cancer cells.[1] They have now discerned that miRNA 376c targets this crucial receptor, inhibiting its expression and allowing ovarian cancer cells to thrive.[2]

“Our evidence suggests that miRNA 376c is crucial to determining how a patient will respond to a chemotherapeutic agent,” says Peng. “It allows cancer cells to survive by targeting the very process that kills them off,” she says.

In examining tumors taken from patients who were non-responsive to chemotherapy, researchers found a higher expression of miRNA 376c and a much lower expression of ALK7.  Peng believes that this research is a step towards being able to make chemotherapy drugs more effective in the treatment of the disease.

“Further study is needed, but ultimately if we can introduce anti-microRNAs that would lower the level of those microRNAs that make cancer cells resistant to chemotherapeutic drugs, we will be able to make chemotherapy more effective against ovarian cancer,” Peng says.

She urges women to educate themselves about the risk factors and symptoms of the disease. For more information, visit http://www.ovariancanada.org.

Peng is a world expert in the area of ovarian cancer and the molecular basis of complications in pregnancy. Her research on chemoresistance has also contributed to knowledge and prediction of pre-eclampsia, a pregnancy disorder that is a leading cause of maternal and perinatal complications and death.

The article, MicroRNA 376c enhances ovarian cancer cell survival by targeting activin receptor-like kinase 7: implications for chemoresistance, was published in the Journal of Cell Science.[2]

The study’s lead author, Gang Ye, is a Research Associate in Peng’s lab. Several trainees in Peng’s lab, as well as scientists in Toronto’s Sunnybrook Research Institute and in China, also participated in the project.

The research was supported by an operating grant from the Canadian Institutes of Health Research (CIHR) and a mid-career award to Peng from the Ontario Women’s Health Council/CIHR. Ye was supported in part by a Fellowship from the Toronto Ovarian Cancer Research Network.

About York University

York University is the leading interdisciplinary research and teaching university in Canada. York offers a modern, academic experience at the undergraduate and graduate level in Toronto, Canada’s most international city. The third largest university in the country, York is host to a dynamic academic community of 50,000 students and 7,000 faculty and staff, as well as 200,000 alumni worldwide. York’s 10 Faculties and 28 research centres conduct ambitious, groundbreaking research that is interdisciplinary, cutting across traditional academic boundaries. This distinctive and collaborative approach is preparing students for the future and bringing fresh insights and solutions to real-world challenges. York University is an autonomous, not-for-profit corporation.

References:

1/Xu G, Zhou H, Wang Q, et. al. Activin receptor-like kinase 7 induces apoptosis through up-regulation of Bax and down-regulation of Xiap in normal and malignant ovarian epithelial cell lines. Mol Cancer Res. 2006 Apr;4(4):235-46. PubMed PMID: 16603637.

2/Ye G, Fu G, Cui S, et. al. MicroRNA 376c enhances ovarian cancer cell survival by targeting activin receptor-like kinase 7: implications for chemoresistance. J Cell Sci. 2011 Feb 1;124(Pt 3):359-68. Epub 2011 Jan 11. PubMed PMID: 21224400.

Source: York U researchers uncovering how ovarian cancer resists chemotherapy, Press Release, York University, March 2, 2011.


Mrs. Australia Quest Finalist Veronica Cristovao Is Raising Ovarian Cancer Awareness “Down Under”

Mrs. Australian Quest Finalist Veronica Cristovao is raising ovarian cancer awareness “Down Under,” and she hopes to use the pageant as an international platform to further her ovarian cancer advocacy.

Did you know that February is national Ovarian Cancer Awareness Month in Australia?

Veronica Cristovao is a finalist in the Mrs. Australia Quest pageant which supports Ovarian Cancer Australia. Veronica hopes to use the pageant as an international platform for ovarian cancer awareness.

According to the Australian National Breast and Ovarian Cancer Centre, approximately 1,200 Australian women were diagnosed with ovarian cancer in 2010.  On average, three Australian women are diagnosed with ovarian cancer every day, while two Australian women die from the disease every day or one woman every twelve hours.  Ovarian cancer accounts for 55 percent of all Australian gynecological cancer deaths. By way of comparison, 88 out of every 100 Australian women diagnosed with breast cancer will be alive five years after diagnosis, whereas only 40 out of every 100 Australian women diagnosed with ovarian cancer will be alive during that same time period.

These statistics are alarming, and until effective prevention and early detection methods can be identified, awareness of the ovarian cancer early warning signs are critical. Promotion of ovarian cancer awareness and early detection underlie the charitable mission of the Mrs. Australia Quest pageant. The pageant’s mission is artfully expressed through its “beautiful awareness” motto.

Although February has come to an end, we had the pleasure of getting to know Veronica Cristovao, a Mrs. Australia Quest Finalist, earlier this month.  Because the Mrs. Australia Quest pageant supports ovarian cancer awareness through Ovarian Cancer Australia, we thought it was important to highlight Veronica’s ovarian cancer advocacy and participation in the pageant.  After reading Veronica’s story, you will discover what we already know; win, lose or draw in the final pageant competition, Veronica is already a winner given her amazing talents as an entrepreneur, ovarian cancer advocate, wife, and mother of two young children.

We would like to extend our fullest appreciation to Veronica and her family for allowing us to tell her ovarian cancer advocacy story.

“Character contributes to beauty. It fortifies a woman as her youth fades. A mode of conduct, a standard of courage, discipline, fortitude, and integrity can do a great deal to make a woman beautiful.”

— Jacqueline Bisset, English Actress & Golden Globe and Emmy Award Nominee

Mrs. Australia Quest Pageant

The Mrs. Australia Quest pageant selected Ovarian Cancer Australia as its designated 2011 charity. Ovarian Cancer Australia was founded by individuals directly affected by ovarian cancer, who wanted to raise awareness of the disease and support those who have been affected by it. This founder group includes:

  • Nicole Livingstone, a retired Australian swimmer and Olympic medal winner, television sports commentator and radio presenter, and recipient of the Order of Australia Metal, and her sister Karen, who lost their mother and aunt to the disease;
  • Simon Lee, whose wife Sheila was the driving force behind the Australian ovarian cancer awareness movement prior to her death in 2001;
  • Actress and comedian Lynda Gibson, who was diagnosed with ovarian cancer in 2000 and subsequently lost her battle to the disease in 2004; and
  • Journalist Tracey Curro, whose mother died from ovarian cancer.

Ovarian Cancer Australia is the country’s only national not-for-profit organization which (i) supports women with ovarian cancer, their families, friends and caretakers with compassionate support programs and practical resources; (ii) educates communities and individuals about the disease to increase their awareness of symptoms and the latest treatment, research and clinical trials from across Australia; and (iii) advocates to improve outcomes, treatment and quality of life for women with ovarian cancer.  In 2011, Ovarian Cancer Australia will be celebrating its 10th anniversary.

In support of Ovarian Cancer Australia, the Mrs. Australia Quest pageant is promoting awareness of the early signs and symptoms of ovarian cancer in an attempt to educate the women of Australia and beyond. The overarching goal is to save as many women’s lives as possible.

All Mrs. Australia Quest pageant entrants receive the opportunity to promote themselves, voice their opinions, get involved, network, fulfill personal goals, and most of all to have fun. Moreover, the experience at the Mrs. Australia Quest National Final, which will be held in Sydney during June 2011, promises to be very glamorous and entertaining for all of the women who participate. All participants will be judged based upon the following criteria:  personal interview & Q&A submission, photographic session, Evening Attire Competition, Swimwear Competition, Active Wear Competition, promotion of ovarian cancer awareness, and internet popularity voting.  Undoubtedly, the Mrs. Australia Quest National Final title winner will experience a life changing event that will open new doors of opportunity and create memorable moments.

The Mrs. Australia Quest national winner will go on to compete in the Mrs. International® pageant which will be held in Chicago, Illinois during July 2011. In this pageant, each contestant has the opportunity to select a platform of her choice, which she will spend the next year promoting. Husbands also play a direct role in this event.  Each husband will escort his wife in the Evening Gown competition, and the Mrs. International® pageant winner’s husband will crown his wife as the new titleholder.

Veronica Cristovao – Mrs. Australia Quest Finalist

The Mrs. Australia Quest pageant not only raises money for ovarian cancer, it also raises the profile of the disease by creating ambassadors of young wives in Australia. The pageant’s charitable ovarian cancer awareness mission is what motivated Veronica Cristovao to take part in the 2011 competition.

The Cristovao family celebrates Thomas' 3rd birthday. (Above: Duarte & Veronica Cristovao with their two children; Thomas, a 3-year old boy, and Samantha, an 18-month old girl)

Veronica is 33 years old and is married to her husband Duarte, who is property developer.  The couple has two children; Thomas, a 3-year old boy, and Samantha, an 18-month old girl.

After experiencing the effects of cancer so close to home, Veronica knows all too well the importance of awareness. Veronica’s family relatives have been affected by cancer of the stomach and the breast, as well as lymphoma.

Veronica completed her formal education with a major in Business/Marketing and Computer Science, although she started her work career in the areas of customer service, management and training.  Despite that fact, her life-long passion has always been real estate. In fact, before having children, Veronica worked as a real estate agent.  She also engaged in part-time modeling and commercials, and met many interesting people along the way.

While pregnant with her first child (Thomas), Veronica studied interior design and decoration. Given her husband’s real estate development expertise, Veronica believed that a background in interior design and decoration would allow her to work side-by-side with Duarte, thereby allowing the couple to share a common passion. Veronica has already completed four major interior design/decoration projects, while raising her young children at the same time.  And, her business and marketing background has proved quite helpful in recruiting new clients for her rapidly growing business, which include her brother who happens to be an architect.

Veronica has always been engaged in charitable activities throughout her life, including blood donation and volunteer activities in support of local charitable organizations and children in need.  While working and raising a family, Veronica has also been active in raising ovarian cancer awareness. She dedicates a great deal of time to distributing ovarian cancer awareness posters and informational pamphlets within her local community.  By all accounts, Veronica’s ovarian cancer awareness campaign has been extremely well received by her community.

This past month, Veronica utilized an Ovarian Cancer Australia awareness campaign called, “Afternoon Teal™.” Through this campaign, Ovarian Cancer Australia invites all Australians to support women diagnosed with ovarian cancer and their families by hosting an Afternoon Teal™ during the month of February.  This gathering allows a host, such as Veronica, to invite workmates, friends, and family members to the event with the goal of (i) raising funds to support programs for women touched by ovarian cancer and their families; and (ii) providing vital information regarding the early warning signs and symptoms of ovarian cancer. Veronica hosted several successful Afternoon Teal™ events, thereby raising much needed monies for ovarian cancer awareness.

“Beauty is how you feel inside, and it reflects in your eyes. It is not something physical.”

— Sophia Loren, Italian Film Actress & 1962 “Best Actress” Academy Award (Oscar) Winner

During a recent interview with a local Australian news reporter, Veronica said:  “Cancer is a horrible disease. I feel so fortunate that I am happy and healthy, I want to take this opportunity to give something back.” Veronica believes that learning to “give back” is a critical life lesson for her children, which is best taught by example. “I want my children to understand how important it is to help people in need. I want them to know just how lucky we are.”

In the Mrs. Australia Quest pageant final to be held in June, Veronica will compete with seven other wives for the opportunity to represent Australia at an international level. Veronica believes that winning the national title in June will give her the requisite international platform to raise awareness about the devastating effects of ovarian cancer. Veronica would also like to note that ovarian cancer is preventable through various means, but as with any cancer, recognizing the early warning signs and symptoms is vital. Because there is no reliable blood test to detect early stage ovarian cancer, Veronica looks forward to the day when such a test is readily available at all Australian medical centers.

As noted above, Veronica has already taken it upon herself to campaign hard for ovarian cancer awareness. That hard work has already resulted in her receipt of approximately 7,500 online votes, which represent 10 percent of the final judging score to determine the next Mrs. Australia Quest.  We should note that 50% of monies raised through online voting support Ovarian Cancer Australia.

If you would like to vote for Veronica online, please visit http://www.mrsaustraliaquest.com.au/ and click on the “View Finalists” tab, which is located on the left margin of the Mrs. Australia Quest homepage. All individual donors who vote $100 (AUD) or more will be acknowledged on the Mrs. Australia Quest website. Three business voting packages are also available, which provide an even higher level of donor acknowledgment.

We would like to thank the Cristovao family again for helping us in the preparation of this story, and we wish Veronica all the best with respect to the Mrs. Australia Quest pageant final competition in June 2011. In our humble opinion, Veronica is already a winner and an inspirational ovarian cancer advocate.

Sources:

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*“Vox Populi,” a Latin phrase that means “voice of the people,” is a term often used in broadcast journalism to describe an interview of the “man (or woman) on the street.”

In the spirit of Vox Populi, Libby’s H*O*P*E*™ searches online for original writings and visual media created by ovarian cancer survivors, survivors’ family members, cancer advocates, journalists, and health care professionals, which address one or more aspects of ovarian cancer within the context of daily life. The written and visual media features that we discover run the gamut; sometimes poignant, sometimes educational, sometimes touching, sometimes comedic, but always honest. The Vox Populi feature may take the form of an essay, editorial, poem, letter, story, song or video picture montage.

It is our hope that the Vox Populi feature will allow our readers to obtain, in some small way, a better understanding of how ovarian cancer impacts the life of a woman diagnosed with the disease and her family. We invite all readers to submit, or bring to our attention, original writings and visual media suitable for publication as Vox Populi features.

FDA Awards $1.6M Orphan Drug Grant for Clinical Phase II Development of EGEN-001 for Treatment of Ovarian Cancer

EGEN, Inc. announced that the Food and Drug Administration (FDA) awarded the company a four-year grant of $1.6 million to assist in the phase II clinical development of EGEN-001, the company’s lead product. EGEN-001 is under clinical development for the treatment of advanced recurrent ovarian cancer.

EGEN, Inc. announced that the Food and Drug Administration (FDA) awarded the company a four-year grant of $1.6 million to assist in the phase II clinical development of EGEN-001, the company’s lead product. EGEN-001 is under clinical development for the treatment of advanced recurrent ovarian cancer.[1]

EGEN, Inc. is developing gene-based biopharmaceuticals that rely on proprietary delivery technologies such as TheraPlas™ (illustrated above). In preclinical studies, the application of this approach produced anti-cancer activity in the treatment of disseminated abdominal cancers, solid tumors and metastatic cancers. (Photo: EGEN, Inc.)

EGEN-001 was developed as an interleukin-12 (IL‑12) gene therapy for the treatment of disseminated epithelial ovarian cancer. It is a low concentration formulation composed of a human IL-12 plasmid formulated with a proprietary PPC delivery system. EGEN-001 is designed for intraperitoneal (IP) administration. The subsequent IL-12 protein expression is associated with an increase in immune system activity, including T-lymphocyte and natural killer (NK) cell proliferation, and cytotoxic activation and secretion of interferon gamma (IFN-g), which in turn, leads to tumor inhibition. Additionally, IL-12 inhibits angiogenesis and formation of tumor vascularization.

EGEN has successfully completed two Phase I trials of EGEN-001 in ovarian cancer patients.  In the first study, EGEN-001 was administered as monotherapy in platinum-resistant ovarian cancer patients[2] and in the second study in combination with carboplatin/docetaxel chemotherapy in platinum-sensitive ovarian cancer patients.[3] In both studies, EGEN-001 treatment resulted in good safety, biological activity and encouraging efficacy.[4-5] EGEN-001 received Orphan Drug Status from the FDA in 2005, and its first $1 million FDA orphan grant in 2005.

“This is a significant milestone and accomplishment for the company,” commented Dr. Khursheed Anwer, President and Chief Science Officer of EGEN. “We are pleased to receive this FDA support, which has been very useful in the advancement of our novel EGEN-001 product in the clinic for the treatment of recurrent ovarian cancer. The product utilizes the Company’s proprietary TheraPlas® delivery technology and is composed of interleukin-12 (IL-12) gene formulation with a biocompatible delivery polymer. IL-12 is a potent cytokine which works by enhancing the body’s immune system against cancer and inhibiting tumor blood supply.”

About EGEN, Inc.

EGEN, Inc. (EGEN), with laboratories and headquarters in Huntsville, Alabama, is a privately held biopharmaceutical company focused on developing therapeutics for the treatment of human diseases including cancer. The Company specializes in the delivery of therapeutic nucleic acids (DNA and RNAi) and proteins aimed at specific disease targets. The Company has a significant intellectual property position in synthetic carriers, their combination with DNA, and their therapeutic applications. EGEN’s research pipeline products are aimed at treatment of various cancer indications. In addition, the Company has its TheraSilence® delivery technology aimed at delivery of therapeutic siRNA for the treatment of human diseases. EGEN collaborates with outside investigators, biotech organizations, and universities on various projects in these areas.

References:

1/ A Phase II Evaluation of Intraperitoneal EGEN-001 (IL-12 Plasmid Formulated With PEG-PEI-Cholesterol Lipopolymer) in the Treatment of Persistent or Recurrent Epithelial Ovarian, Fallopian Tube or Primary Peritoneal Cancer, Clinical Trial Summary, ClinicialTrials.gov (Identifier:  NCT01118052).

2/A Phase 1, Open Label, Dose Escalation Study of the Safety, Tolerability and Preliminary Efficacy of Intraperitoneal EGEN-001 in Patients With Recurrent Epithelial Ovarian Cancer, Clinical Trial Summary, ClinicialTrials.gov (Identifier: NCT00137865).

3/A Phase 1, Open-Label, Dose Escalation Study of the Safety and Preliminary Efficacy of EGEN-001 in Combination With Carboplatin and Docetaxel in Women With Recurrent, Platinum-Sensitive, Epithelial Ovarian Cancer, Clinical Trial Summary, ClinicialTrials.gov (Identifier:  NCT00473954).

4/Kendrick JE, Matthews KS, Straughn JM, et. al.  A phase I trial of intraperitoneal EGEN-001, a novel IL-12 gene therapeutic, administered alone or in combination with chemotherapy in patients with recurrent ovarian cancer.  J Clin Oncol 26: 2008 (May 20 suppl; abstr 5572).

5/Anwar K, Barnes MN, Kelly FJ, et. al. Safety and tolerability of a novel IL-12 gene therapeutic administered in combination with carboplatin/docetaxel in patients with recurrent ovarian cancer.  J Clin Oncol 28:15s, 2010 (suppl; abstr 5045).

Source: FDA Awards EGEN, Inc. Orphan -Drug Grant for Clinical Development of EGEN-001 for Treatment of Ovarian Cancer, Press Release, EGEN, Inc., February 2, 2011.

Risk of Death Doubles For Early Stage Ovarian Cancer Patients Who Are Not Checked For Lymph Node Metastases

University of California Davis Cancer Center and California Cancer Registry researchers determined that the risk of death doubles for those women with apparent early stage ovarian cancer who are not checked for lymph node metastases.

Dr. Gary Leiserowitz, Chief of Gynecologic Oncology at the UC Davis Cancer Center & Rosemary Cress, Research Program Director at the California Cancer Registry, reported that early-stage ovarian cancer patients had nearly twice the risk of death if they were not tested for lymph node metastases.

A team of University of California (UC) Davis Cancer Center and California Cancer Registry researchers determined that more than a quarter of women with apparent early ovarian cancer do not receive lymph node biopsies, which have been shown to improve patient survival.

For the study, the researchers identified patients diagnosed with apparent early-stage epithelial ovarian cancer between 1998 and 2000 from cancer registries in New York and California, then collected detailed information from patient medical records on the types of surgical staging procedures performed on 721 of the patients.

The study set forth the critical findings below.

  • Approximately 90 percent of patients had removal of the omentum and evaluation of the bowel serosa and mesentery.  In contrast, only 72 percent of patients with presumed early-stage disease had lymph nodes from the pelvis and abdomen tested for signs of cancer spread, despite the existence of published, professional guidelines for proper staging of the disease.
  • Only lymph node assessment (as well as node assessment combined with washings and omentectomy) had a statistically significant association with improved survival.
  • The five-year survival for women with early-stage disease who had the node biopsies was 84 percent, compared with 69 percent of those who did not have the tests.
  • Patients who did not have lymph node assessment had nearly twice the risk of death as those who did.
  • Stratification of patients based upon receipt of chemotherapy revealed that lack of lymph node sampling had an effect only on patients who also received no chemotherapy.  Thus, only when patients did not have the lymph nodes tested did chemotherapy improve survival, a finding the researchers attribute to the role chemotherapy likely plays in killing cancer cells that have spread beyond the ovaries.
  • Gynecologic oncologists were nearly six-and-a-half times more likely to perform lymph node biopsies than other surgical specialists, and nearly four times more likely to perform all recommended staging biopsies. (See “Additional Information” below for prior medical study findings, regarding the importance of gynecologic oncologists in the evaluation and treatment of ovarian cancer.)

The study results were published online last week in the journal Gynecology Oncology and will be published in the journal’s April print edition.

“Early-stage patients had nearly twice the risk of death if they didn’t have the lymph nodes tested,” said Rosemary Cress, who is an epidemiologist and research program director at the California Cancer Registry, associate adjunct professor in the Department of Public Health Sciences at UC Davis, and the study’s lead author. “Hopefully, this should raise the awareness among physicians that it’s really important to do lymph node biopsies in these patients.”

Why some surgeons don’t remove lymph nodes during ovary surgery for early-stage cancer patients is a matter of speculation, said Gary Leiserowitz, M.D., chief of Gynecologic Oncology at the UC Davis Cancer Center, who is the senior author of the study. But the tests are important, he said, because patients with positive lymph nodes are given a more advanced stage diagnosis and prescribed follow-up chemotherapy treatment.

“Depending on the knowledge and expertise of the surgeon doing the operation, they may not know they need to do all the biopsies,” said Dr. Leiserowitz. “The literature is pretty consistent in showing that the people who have specialized knowledge in this – gynecological oncologists – are much more likely to follow the guidelines.”

Another reason some surgeons may not perform the lymph node biopsies, he said, is that they don’t believe the patient would benefit, either because of advanced age or because they have other serious illnesses, or both.

“If we have a patient who is medically unsuitable because of their age or medical conditions and is not a candidate for chemotherapy, you wouldn’t do all the staging biopsies,” said Dr. Leiserowitz. “But for a woman, say in her 40’s who is otherwise healthy, it turns out to be critical, because chemotherapy could be lifesaving.”

Leiserowitz said he hopes the results of the study will help educate the medical community and patients about the value of appropriate cancer treatment.

“If you are going to treat someone with a cancer, you really have an obligation to understand what the published practice guidelines are, and adhere to them as well as you can, or refer the patient to someone else who will,” he said.

The study was paid for with a grant from the U.S. Centers for Disease Control and Prevention.

About University of California Davis Cancer Center

University of California (UC) Davis Cancer Center is the only National Cancer Institute- designated center serving the Central Valley and inland Northern California, a region of more than 6 million people. Its top specialists provide compassionate, comprehensive care for more than 9,000 adults and children every year, and offer patients access to more than 150 clinical trials at any given time. Its innovative research program includes more than 280 scientists at UC Davis and Lawrence Livermore National Laboratory. The unique partnership, the first between a major cancer center and national laboratory, has resulted in the discovery of new tools to diagnose and treat cancer. Through the Cancer Care Network, UC Davis is collaborating with a number of hospitals and clinical centers throughout the Central Valley and Northern California regions to offer the latest cancer-care services. For more information, visit cancer.ucdavis.edu.

About the California Cancer Registry

The California Cancer Registry (CCR) is a program of the California Department of Public Health’s Cancer Surveillance and Research Branch (CSRB), and works in collaboration with the Public Health Institute, regional cancer registries, health care providers, cancer registrars, and cancer researchers throughout California and the nation. CSRB collects, analyzes, and disseminates information on cancer incidence and mortality. The statewide population-based cancer surveillance system monitors the incidence and mortality of specific cancers over time and analyzes differential cancer risks cancer by geographic region, age, race/ethnicity, sex, and other social characteristics of the population. It gathers cancer incidence data through CCR, and conducts and collaborates with other researchers on special cancer research projects concerning the etiology, treatment, risk factors, and prevention of specific cancers. In addition, the system is designed to monitor patient survival with respect to the type of cancer, extent of disease, therapy, demographics, and other parameters of prognostic importance. In general, data generated from CCR are utilized as set forth below.

  • Monitor the amount of cancer and cancer incidence trends by geographic area and time in order to detect potential cancer problems of public health significance in occupational settings and the environment, and to assist in their investigation.
  • Provide information to stimulate the development and targeting of resources to benefit local communities, cancer patients, and their families.
  • Promote high-quality epidemiologic and clinical research by enabling population-based studies to be performed that can provide better information for cancer control.
  • Inform health professionals and educate citizens regarding specific health risks, early detection, and treatment for cancers known to be elevated in their communities.
  • Respond to public concerns and questions about cancer.

For more information, visit http://www.ccrcal.org/.

Sources:

Additional Information — The Role of Gynecologic Oncologists and Their Impact on Survival:

Novel Cancer-Targeting “Cornell Dot” Nanoparticle Approved for First-In-Human Clinical Trial

“Cornell Dots” — brightly glowing nanoparticles — may soon be used to light up cancer cells to aid in diagnosing and treating cancer. The U.S. Food and Drug Administration (FDA) has approved the first clinical trial in humans of the new technology. It is the first time the FDA has approved using an inorganic material in the same fashion as a drug in humans.

“Cornell Dots” (or “C dots”) — brightly glowing nanoparticles — may soon be used to light up cancer cells to aid in diagnosing and treating cancer. The U.S. Food and Drug Administration (FDA) has approved the first clinical trial in humans of the new technology. It is the first time the FDA has approved using an inorganic material in the same fashion as a drug in humans.

Michelle Bradbury, M.D., Ph.D., Clinician-Scientist, Neuroradiology Service, Memorial Sloan-Kettering Cancer Center; Assistant Professor, Radiology, Weill Cornell Medical College; Lead Study Investigator

Researchers at Memorial Sloan-Kettering Cancer Center’s Nanotechnology Center, along with collaborators at Cornell University and Hybrid Silica Technologies, have received approval for their first Investigational New Drug Application (IND) from the FDA for an ultrasmall silica inorganic nanoparticle platform for targeted molecular imaging of cancer, which may be useful for cancer treatment in the future. Center researchers are about to launch their first-in-human clinical trial in melanoma patients using this first-of-its-kind inorganic nanoparticle to be approved as a drug. “This is a very exciting and important first step for this new particle technology that we hope will ultimately lead to significant improvements in patient outcomes and prognoses for a number of different cancers,” said Michelle Bradbury, M.D., Ph.D., a clinician-scientist on Memorial Sloan-Kettering’s Neuroradiology Service and an assistant professor of radiology at Weill Cornell Medical College, who is the lead investigator of the study, along with Snehal Patel, M.D., a surgeon on Memorial Sloan-Kettering’s Head and Neck Service, who is a co-principal investigator.

“This is a very exciting and important first step for this new particle technology that we hope will ultimately lead to significant improvements in patient outcomes and prognoses for a number of different cancers.”

— Michelle Bradbury, M.D., Ph.D., lead investigator of the study and clinician-scientist on Memorial Sloan-Kettering’s Neuroradiology Service and an assistant professor of radiology at Weill Cornell Medical College

C dots were initially developed as optical probes at Cornell University, Ithaca, by Ulrich Wiesner, Ph.D., a professor of materials science and engineering who, along with Hybrid Silica Technologies, the supplier of C dots, has spent the past eight years precisely engineering these particles. C dots are silica spheres less than 8 nanometers in diameter that enclose several dye molecules. (A nanometer is one-billionth of a meter, about the length of three atoms in a row.) The silica shell, essentially glass, is chemically inert and small enough to pass through the body and out in the urine. For clinical applications, the dots are coated with polyethylene glycol so the body will not recognize them as foreign substances.

C dots were subsequently modified at Memorial Sloan-Kettering for use in PET (positron emission tomography) imaging. C dots are tiny silica spheres that contain dye that glows three times more brightly than simple free dyes when excited by light of a specific wavelength. C dots can “light up” cancer cells, and act as tumor tracers for tracking the movement of cells and assisting in the optical diagnosis of tumors near the skin surface. The attachment of a radioactive label produces a new generation of multimodal (PET-optical) particle probes that additionally enable deeper detection, imaging, and monitoring of drug delivery using three-dimensional PET techniques.

Ulrich Wiesner, Ph.D. (left), a Cornell University Professor of Materials Science & Engineering, works with graduate students Jennifer Drewes & Kai Ma to characterize the size & brightness of C dots in their Bard Hall lab. (Photo: Jason Koski/University Photography)

C dots can be tailored to any particle size. Previous imaging experiments in mice conducted by the Memorial Sloan-Kettering team showed that particles of a very small size (in the 5 to 7 nanometer range) could be retained in the bloodstream and efficiently cleared through the kidneys after applying a neutral surface coat. More recently, the research team molecularly customized C dots to create a new particle platform, or probe, that can target surface receptors or other molecules expressed on tumor surfaces and that can be cleared through the kidneys.

Using PET scans, C dots can be imaged to evaluate various biological properties of the tumors, including tumor accumulation, spread of metastatic disease to lymph nodes and distant organs, and treatment response to therapy. The information gained from imaging tumors targeted with this multimodal platform may also assist physicians in defining tumor borders for surgery, and improving real-time visualization of small vascular beds, anatomic channels, and neural structures during surgery.

The purpose of this trial is to evaluate the distribution, tissue, uptake, and safety of the particles in humans by PET imaging. This study will provide data that will serve as a baseline to guide the design of future surgical and oncologic applications in the clinic. “The use of PET imaging is an ideal imaging technology for sensitively monitoring very small doses of this new particle probe in first-in-human trials,” added Steven Larson, M.D., Chief of Memorial Sloan-Kettering’s Nuclear Medicine Service.

Memorial Sloan-Kettering nanochemist Oula Penate Medina, Ph.D., notes that “this is an important trial in that it will help to answer a number of key questions regarding future potential applications of this multimodal system. Once the door has been opened, new and emerging fields, such as targeted drug delivery, can be investigated. We expect that these particles can be adapted for multiple clinical uses, including the early diagnosis and treatment of various cancers, as well as for sensing changes in the microenvironment.”

“This clinical trial is the culmination of a longstanding collaborative effort with our colleagues at Cornell and Hybrid Silica Technologies, as well as a testament to our own institutional colleagues here at the Center,” Dr. Bradbury said. “With the support of many, in particular the Office of Clinical Research, we’ve pushed to translate the C dots from a laboratory idea to our first FDA IND-approved inorganic nanomedicine drug product to be tested in the clinic,” Dr. Bradbury said.

The work was funded in part by the Clinical and Translational Science Center, Weill Cornell Medical College, the Cornell Nanobiology Center, and the National Institutes of Health (NIH) Small-Animal Imaging Research Program (SAIRP). In addition to Drs. Bradbury, Penante-Medina, Larson, Patel, and Wiesner, the following Memorial Sloan-Kettering investigators contributed to and/or supported this work: Pat Zanzonico, Ph.D.; Heiko Schöder, M.D.; Elisa De Stanchina, Ph.D.; Hedvig Hricak, M.D., Ph.D., Chair of the Department of Radiology; as well as Hooisweng Ow, Ph.D., of Hybrid Silica Technologies, Inc.; Memorial Sloan-Kettering’s Office of Clinical Research; and the Cyclotron Core.

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Yale University Scientists Synthesize Long-Sought-After Anticancer Agent

A team of Yale University scientists has synthesized for the first time a chemical compound  called “lomaiviticin aglycon, ” which led to the development of a new class of molecules that appear to target and destroy cancer stem cells.

A team of Yale University scientists has synthesized for the first time a chemical compound called “lomaiviticin aglycon,” which led to the development of a new class of molecules that appear to target and destroy cancer stem cells.

Chemists worldwide have been interested in lomaiviticin’s potential anticancer properties since its discovery in 2001. But so far, they have been unable to obtain significant quantities of the compound, which is produced by a rare marine bacterium that cannot be easily coaxed into creating the molecule. For the past decade, different groups around the world have been trying instead to synthesize the natural compound in the lab, but without success.

Dr. Seth Herzon (center), along with team members Christina Woo and Liang Lu, synthesized a naturally occurring anticancer compound that scientists worldwide have been trying to replicate in the lab for nearly a decade.

Now a team at Yale, led by chemist Dr. Seth Herzon, has managed to create lomaiviticin aglycon for the first time, opening up new avenues of exploration into novel chemotherapies that could target cancer stem cells, thought to be the precursors to tumors in a number of different cancers including ovarian, brain, lung, prostate and leukemia. Their discovery appears online today in the Journal of the American Chemical Society.

“About three quarters of anticancer agents are derived from natural products, so there’s been lots of work in this area,” Herzon said. “But this compound is structurally very different from other natural products, which made it extremely difficult to synthesize in the lab.”

In addition to lomaiviticin aglycon, Herzon’s team also created smaller, similar molecules that have proven extremely effective in killing ovarian stem cells, said Gil Mor, M.D., Ph.D., a researcher at the Yale School of Medicine who is collaborating with Herzon to test the new class of molecules’ potential as a cancer therapeutic. This family of compounds are called “kinamycins.” The reactive core of the kinamycins also plays a key role in lomaiviticin aglycon, which is even more toxic and could prove even more effective in destroying cancer cells.

The scientists are particularly excited about lomaiviticin aglycon’s potential to kill ovarian cancer stem cells because the disease is notoriously resistant to paclitaxel (Taxol) and carboplatin, two of the most commonly used ovarian cancer chemotherapy drugs. “Ovarian cancer has a high rate of recurrence, and after using chemotherapy to fight the tumor the first time, you’re left with resistant tumor cells that tend to keep coming back,” Mor explained. “If you can kill the stem cells before they have the chance to form a tumor, the patient will have a much better chance of survival — and there aren’t many potential therapies out there that target cancer stem cells right now.”

Image of one of the kinamycin compounds synthesized by Yale researchers destroying ovarian cancer cells (the spherical objects) in less than 48 hours in lab tests. (Credit: Gil Mor)

Herzon’s team, which managed to synthesize the molecule in just 11 steps starting from basic chemical building blocks, has been working on the problem since 2008 and spent more than a year on just one step of the process involving the creation of a carbon-carbon bond. It was an achievement that many researchers deemed impossible, but while others tried to work around having to create that bond by using other techniques, the team’s persistence paid off.

“A lot of blood, sweat and tears went into creating that bond,” Herzon said. “After that, the rest of the process was relatively easy.”

Next, the team will continue to analyze the compound to better understand what’s happening to the stem cells at the molecular level. The team hopes to begin testing the compounds in animals shortly.

“This is a great example of the synergy between basic chemistry and the applied sciences,” Herzon said. “Our original goal of synthesizing this natural product has led us into entirely new directions that could have broad impacts in human medicine.”

Other authors of the paper include Liang Lu, Christina M. Woo and Shivajirao L. Gholap, all of Yale University.

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Outside-the-Body Filtration Device May Reduce Ovarian Cancer Cells In Abdominal Fluid

A paper published in the January issue of the journal Nanomedicine could provide the foundation for a new ovarian cancer treatment option — one that would use an outside-the-body filtration device to remove a large portion of the free-floating cancer cells that often create secondary tumors.

Schematic shows how fluids containing ovarian cancer cells could be removed from the body, treated with magnetic nanoparticles to remove the cells, then returned to the body. (Courtesy of Ken Scarberry)

Magnetic nanoparticles suspended in a liquid are attracted to a magnet. The nanoparticles could be attached to cancer cells and then removed from the body with magnetic filtration. (Credit: Gary Meek)

A paper published in the January issue of the journal Nanomedicine could provide the foundation for a new ovarian cancer treatment option — one that would use an outside-the-body filtration device to remove a large portion of the free-floating cancer cells that often create secondary tumors.

Researchers at the Georgia Institute of Technology have formed a startup company and are working with a medical device firm to design a prototype treatment system that would use magnetic nanoparticles engineered to capture cancer cells. Added to fluids removed from a patient’s abdomen, the magnetic nanoparticles would latch onto the free-floating cancer cells, allowing both the nanoparticles and cancer cells to be removed by magnetic filters before the fluids are returned to the patient’s body.

In mice with free-floating ovarian cancer cells, a single treatment with an early prototype of the nanoparticle-magnetic filtration system captured enough of the cancer cells that the treated mice lived nearly a third longer than untreated ones. The researchers expect multiple treatments to extend the longevity benefit, though additional research will be needed to document that — and determine the best treatment options.

“Almost no one dies from primary ovarian cancer,” said Dr. John McDonald, a professor in Georgia Tech’s School of Biology and chief research scientist of Atlanta’s Ovarian Cancer Institute. “You can remove the primary cancer, but the problem is metastasis. A good deal of the metastasis in ovarian cancer comes from cancer cells sloughing off into the abdominal cavity and spreading the disease that way.”

The removal system being developed by McDonald and postdoctoral fellow Ken Scarberry — who is also CEO of startup company Sub-Micro — should slow tumor progression in humans. It may reduce the number of free-floating cancer cells enough that other treatments, and the body’s own immune system, could keep the disease under control.

Professor John McDonald (standing) and postdoctoral fellow Ken Scarberry examine statistical data from their study of a potential new treatment option for ovarian cancer. (Credit: Gary Meek)

“If you can reduce metastasis, you can improve the lifespan of the person with the disease and get a better chance of treating it effectively,” said McDonald. “One goal is to make cancer a chronic disease that can be effectively treated over an extended period of time. If we can’t cure it, perhaps we can help people to live with it.”

Earlier in vitro studies published by the authors of the Nanomedicine paper showed that the magnetic nanoparticles could selectively remove human ovarian cancer cells from ascites fluid, which builds up in the peritoneal cavities of ovarian cancer patients. The nanoparticles are engineered with ligands that allow them to selectively attach to cancer cells.

The researchers believe that treating fluid removed from the body avoids potential toxicity problems that could result from introducing the nanoparticles into the body, though further studies are needed to confirm that the treatment would have no adverse effects.

The recently reported study in Nanomedicine used three sets of female mice to study the benefit of the nanoparticle-magnetic filtration system. Each mouse was injected with approximately 500,000 murine ovarian cancer cells, which multiply rapidly — each cell doubling within approximately 15 hours.

In the experimental group, the researchers — who included research scientist Roman Mezencev — removed fluid from the abdomens of the mice immediately after injection of the cancer cells. They then added the magnetic nanoparticles to the fluid, allowed them to mix, then magnetically removed the nanoparticles along with the attached cancer cells before returning the fluid. The steps were repeated six times for each mouse.

One control group received no treatment at all, while a second control group underwent the same treatment as the experimental group — but without the magnetic nanoparticles. Mice in the two control groups survived a median of 37 days, while the treated mice lived 12 days longer — a 32 percent increase in longevity.

Though much more research must be done before the technique can be tested in humans, McDonald and Scarberry envision a system very similar to what kidney dialysis patients now use, but with a buffer solution circulated through the peritoneal cavity to pick up the cancer cells.

“What we are developing is akin to hemofiltration or peritoneal dialysis in which the patient could come into a clinic and be hooked up to the device a couple of times a week,” said Scarberry. “The treatment is not heavily invasive, so it could be repeated often.”

The new treatment could be used in conjunction with existing chemotherapy and radiation. Reducing the number of free-floating cancer cells could allow a reduction in chemotherapy, which often has debilitating side effects, Scarberry said. The new treatment system could be used to capture spilled cancer cells immediately after surgery on a primary tumor.

The researchers hope to have a prototype circulation and filtration device ready for testing within three years. After that will come studies into the best treatment regimen, examining such issues as the number of magnetic nanoparticles to use, the number of treatments and treatment spacing. If those are successful, the company will work with the FDA to design human clinical trials.

The researchers also studying how their magnetic nanoparticles could be engineered to capture ovarian cancer stem cells, which are not affected by existing chemotherapy. Removing those cells could help eliminate a potent source of new cancer cells.

The research has been supported by the Georgia Research Alliance (GRA), the Ovarian Cancer Institute, the Robinson Family Foundation and the Deborah Nash Harris Endowment. A member of Georgia Tech’s Advanced Technology Development Center (ATDC) startup accelerator program and a GRA VentureLab company, Sub-Micro has also raised private funding to support its prototype development.

Challenges ahead include ensuring that nanoparticles cannot bypass the filtration system to enter the body, and controlling the risk of infection caused by opening the peritoneal cavity.

Beyond cancer, the researchers believe their approach could be useful for treating other diseases in which a reduction in circulating cancer cells or virus particles could be useful. Using magnetic nanoparticles engineered to capture HIV could help reduce viral content in the bloodstream, for instance.

“A technology like this has many different possibilities,” said Scarberry. “We are currently developing the technology to control the metastatic spread of ovarian cancer, but once we have a device that can efficiently and effectively isolate cancer cells from circulating fluids, including blood, we would have other opportunities.”

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Outside-the-Box: The Rogosin Institute Is Fighting Cancer With Cancer Cells In Clinical Trials

Researchers at the Rogosin Institute are using cancer “macrobeads” to fight cancer.  Cancer cells in the beads secrete proteins which researchers believe could signal a patient’s cancer to stop growing, shrink or even die. The treatment is currently being tested in human clinical trials.

Two groundbreaking preclinical studies demonstrate for the first time that encapsulated mouse kidney cancer cells inhibit the growth of freely-growing cancer cells of the same or different type in a laboratory dish and in tumor-bearing animals. These findings support the hypothesis that cancer cells entrapped in seaweed-based gel, called “macrobeads,” send biological feedback or signals to freely-growing tumors outside the macrobead to slow or stop their growth. Both studies (cited below) are published in the on-line January 24, 2011 issue of Cancer Research, a publication of the American Association For Cancer Research.

Barry H. Smith, M.D., Ph.D., Director, The Rogosin Institute; Professor, Clinical Surgery, Weill Cornell Medical College

The Rogosin Institute, an independent not-for-profit treatment and research center associated with New York-Presbyterian Hospital and Weill Cornell Medical College, developed the cell encapsulation technology that facilitated production of the macrobead and applied this technology in conducting preclinical studies. The research team was headed by Barry H. Smith, M.D., Ph.D.,  the Director of The Rogosin Institute, Professor of Clinical Surgery at the Weill Cornell Medical College, and lead author of the studies. Findings in the studies to date are consistent with the hypothesis that when macrobeads are implanted in a host, the encapsulated cells are isolated from the host’s immune system but continue to maintain their functionality.

In addition to the standard preclinical in vivo and in vitro experiments, a clinical veterinary study was conducted in cats and dogs suffering from various spontaneous (non-induced) cancers. More than 40 animals were treated with the macrobead technology. Consistent results, measured both in terms of tumor response and animal well-being, occurred with prostate, liver and breast cancer, as well as lymphoma. Additional research revealed that regardless of the animal specie or type of cancer cell that was encapsulated, the macrobead technology inhibited cancer growth across all species and cancer types tested.  The results have included slowed tumor growth or, in some cases, necrosis and elimination of tumors and the restoration of a normal animal lifespan.

Cancer macrobead therapy has proceeded to human clinical testing. A Phase 1 trial in more than 30 patients evaluated the safety of macrobeads implanted in the abdominal cavity as a biological treatment of end-stage, treatment-resistant, epithelial-derived cancer. Based on the safety profile data, Phase 2 efficacy trials are in progress in patients with colorectal cancer, pancreatic cancer and prostate cancer. The Phase 1 trial remains open to a range of epithelial-derived cancers, including ovarian.  To date, the Rogosin Institute research team has not found evidence to indicate that placing mouse tumors in humans or other animal species causes harm or side-effects.

Scientists are testing whether macrobeads containing cancer cells can be implanted into patients and communicate with the patient’s tumor to stop growing, shrink or die.

Step 1:  Small beads are made from a seaweed-derived sugar called agarose and mixed with 150,000 mouse kidney cancer cells, and a second layer of agarose is added, encapsulating the cancer cells.

Step 2:  Within 3-to-10 days, 99% of the kidney cancer cells die.  The remaining cells have traits similar to cancer stem cells.

Step 3:  The stem cells begin to recolonize the bead.  The colonies increase in sufficient numbers within a few weeks to reach a stable state.

Step 4:  The beads begin to release proteins —  chemical signals reflecting that the beads have sufficient numbers of cells for growth regulators to kick in.

Step 5: Several hundred beads (depending on patient’s weight) are implanted in the abdominal cavity in a laparoscopic surgical procedure.  The cancer cells are trapped in the beads; preventing their circulation elsewhere in the body and protecting them from attack by the body’s immune system.

Step 6: In animal studies, researchers believe some proteins released from the beads reached tumors elsewhere in the body and tricked them into sensing that other tumor cells are nearby.

Step 7:  As a result, researchers believe tumors in some animals stopped growing, shrank or died.  The hypothesis is being tested in people with cancer.

Howard Parnes, M.D., Chief, Prostate & Urologic Cancer Research Group, Division of Cancer Prevention, National Cancer Institute

“This is a completely novel way of thinking about cancer biology,” says Howard L. Parnes, a researcher in the Division of  Cancer Prevention at the National Cancer Institute who is familiar with the work but was not involved with it. “We talk about thinking outside the box. It’s hard to think of a better example.” “They demonstrate a remarkable proof of principle that tumor cells from one animal can be manipulated to produce factors that can inhibit the growth of cancers in other animals,” Dr. Parnes says. “This suggests that these cancer inhibitory factors have been conserved over millions of years of evolution.”

“Macrobead therapy holds promise as a new option in cancer treatment because it makes use of normal biological mechanisms and avoids the toxicities associated with traditional chemotherapy,” said Dr. Barry Smith. “The results of our research show that this approach is not specific to tumor type or species so that, for example, mouse cells can be used to treat several different human tumors and human cells can be used to treat several different animal tumors.”

“Because cancer and other diseases are their own biological systems, we believe that the future of effective disease treatment must likewise be biological and system-based,” said Stuart Subotnick, CEO of Metromedia Bio-Science LLC. “Many of the existing therapies are narrow, targeted approaches that fail to treat diseases comprehensively. In contrast, our unique macrobead technology delivers an integrated cell system that alters disease processes and utilizes the body’s natural defense mechanisms. The goal is to repair the body and not merely treat the symptoms.”

It is well-known that proof of anti-tumor activity in treating animals does not represent guaranteed effectiveness in humans. But, assuming the macrobead therapy proves ultimately effective in humans, it would represent a novel approach to treating cancer and challenge existing scientific dogmas.

The cancer macrobead therapy described above is backed by Metromedia Company, a privately held telecommunications company which was run by billionaire John Kluge until his recent death. The Metromedia Biosciences unit has invested $50 million into the research.  If the treatment proves successful in humans, a large part of the revenue generated will be contributed to Mr. Kluge’s charitable foundation.

About Metromedia Bio-Science LLC

Metromedia Bio-Science LLC, in conjunction with The Rogosin Institute, utilizes the novel cell encapsulation technology to conduct research into the treatment of various diseases, including cancer and diabetes, and the evaluation of disease therapies. Metromedia Bio-Science LLC is an affiliate of Metromedia Company, a diversified partnership founded by the late John W. Kluge and Stuart Subotnick.

About The Rogosin Institute

The Rogosin Institute is an independent not-for-profit treatment and research center associated with New York-Presbyterian Hospital (NYPH) and Weill Cornell Medical College. It is one of the nation’s leading research and treatment centers for kidney disease, providing services from early stage disease to those requiring dialysis and transplantation. It also has programs in diabetes, hypertension and lipid disorders. The Institute’s cancer research program, featuring the macrobeads, began in 1995. The Rogosin Institute is unique in its combination of the best in clinical care with research into new and better ways to prevent and treat disease.

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Libby’s H*O*P*E*™ Proudly Announces A Strategic Partnership With Women’s Oncology Research & Dialogue

It is our privilege and honor to announce a strategic partnership between Libby’s H*O*P*E*™ and Women’s Oncology Research & Dialogue.

It is our privilege and honor to announce a strategic partnership between Libby’s H*O*P*E*™ (LH) and Women’s Oncology Research & Dialogue (WORD). WORD’s overarching mission is to raise gynecologic cancer awareness and fund related scientific research.

The genesis of this partnership began approximately one year ago, when LH was contacted by Nathan Manahan, WORD’s Executive Director. WORD had performed extensive social media due diligence and determined that LH was a premier source of online ovarian cancer information.  As the LH Founder, I agreed to meet Nate and Chad Braham (WORD’s Director of Media Productions) in Los Angeles to discuss the possibility of both organizations working together.

I felt an immediate connection with Nate and Chad, especially after we discussed the personal reasons underlying our passion for cancer advocacy.  Nate explained that his mother was a breast cancer survivor, who battled the disease successfully due to vigilance, which caught her aggressive cancer at an early stage. It also happens that Nate’s sister is Dr. Kelly J. Manahan, WORD’s Founder and President. Chad discussed how he lost his father to cancer when he was 8 years old, along with the fact that his stepfather is a prostate cancer survivor, and his mother-in-law is a uterine cancer survivor (who was successfully treated by Dr. Manahan).

By the end of that initial meeting, we believed that a strategic partnership between both organizations would be highly synergistic. Although WORD advocates on behalf of women with all gynecologic cancers, it has designated LH as its “go-to” source for detailed ovarian cancer information. In turn, LH obtains a greater audience for its ovarian cancer advocacy by communicating to women interested in learning more about all gynecologic cancers through the new WORD website.

As a kickoff to our partnership, WORD created nine short videos about the genesis of LH, its mission, the credibility & understandability of the LH website, the early warning signs of ovarian cancer, LH assistance to ovarian cancer survivors, survivor success stories, the fast pace of medical research, and a brief discussion of the LH/WORD partnership. The LH/WORD partnership video is provided below. We will post the remaining eight videos over the next two weeks.

In the near future, we anticipate the creation and distribution of an ongoing video podcast series known as WORD of HOPE, which will address important ovarian cancer topics in an easily understandable format.

We are quite excited about the opportunities presented by this partnership, and hope to build upon the LH/WORD alliance for many years to come.

“The challenge of every team is to build a feeling of oneness, of dependence on one another because the question is usually not how well each person performs, but how well they work together.”

— Vince Lombardi (1913 – 1970), former Head Coach of the National Football League (NFL) Green Bay Packers & Winner of 5 NFL Championships, including Super Bowls I & II.

The Genesis of WORD

Drs. Kelly J. Manahan & John P. Geisler, Co-Founders, Women's Oncology Research & Dialogue (WORD)

Several years ago, as a gynecologic oncologist in training, Dr. Manahan learned first-hand that cancer is a formidable foe. This experience compelled her to take greater action.  In Fall 2005, Dr. Manahan established WORD, along with her husband Dr. John P. Geisler.  Currently, Dr. Manahan is the Interim Chair of the Department of Obstetrics and Gynecology at the University of Toledo Medical Center (UTMC), while Dr. Geisler is Director of  Gynecologic Oncology and Chief of Clinical Service Obstetrics & Gynecology at UTMC.  Dr. Geisler is also the Chairman of the WORD medical advisory panel.  Drs. Manahan and Geisler are both gynecologic oncologists, and are cited as authors in approximately 85 published medical articles relating to a wide array of gynecologic oncology topics.  Such topics include cutting-edge surgical techniques and novel gynecological cancer treatments.

WORD was founded with the mission of spreading global gynecological cancer awareness.  WORD exists to educate; to inform, to bring awareness, to teach prevention, and assist women who have been diagnosed with a gynecologic cancer. The passion of the WORD team is to provide women and their families with relevant, detailed, and up-to-date information that can save lives. In sum, WORD was formed to help win the fight against gynecologic cancers.

Past and present WORD research projects and initiatives include:

  • a study of hydralazine and megestrol acetate to treat advanced, chemoresistant cancers of the ovary, peritoneum, uterus, fallopian tube, cervix, and vulva;
  • a tissue bank of clinically annotated tissue specimens from patients with gynecologic cancers.

“We are a husband and wife team who have both been helping women battle gynecologic cancers for over two decades,” said Dr. Manahan. “Our passion is helping women have complete understanding when facing the battle of their cancer. We also want women to be empowered to make lifestyle and health decisions that can work to prevent cancer.”

“Our goal is to assure that all women are more aware of these diseases and to find a way to increase prevention, early detection, and optimal treatment,” said Dr. Geisler. “Awareness will lead to more research dollars. More research will hopefully lead to finding the detailed factors that influence the growth of these diseases. We ultimately want a cure. Wordoncancer.org is the integral foundation to many of these dreams.”

“I am a member of a team, and I rely on the team, I defer to it and sacrifice for it, because the team, not the individual, is the ultimate champion.”

— Mia Hamm, who is widely recognized as the world’s best all-around women’s soccer player (2 Olympic Gold Medals & 2 World Championships).

WORD’s New Website Launch

The average woman in the United States has a 1-in-12 risk factor of developing a gynecologic cancer in her lifetime. On November 9, 2010, WORD launched their new website at http://www.wordoncancer.org. WORD’s new website will inform women about preventions, signs, symptoms, diagnosis and treatment of all gynecologic cancers. WORD’s website will inspire women to take actions that can, and will, save their lives, and was designed to expand and grow as new data and relevant information become available.

Today, most people do their research online. Accordingly, WORDoncancer.org was designed to achieve the overarching goals listed below.

  • Provide the best gynecologic cancer web video content, including survivor stories, expert advice provided by various medical professionals, and stories from families who have lost loved ones.
  • Guarantee current information about the prevention, diagnosis and treatment of gynecologic cancers, which is created in a simple and user-friendly interface.
  • Create pathways to dialogue among women and their physicians, so every woman is empowered to make an informed decision about her health care.
  • Utilize the most effective and relevant multimedia tools to accomplish our organizational mission.
  • Connect and create partnerships with grassroots groups throughout the United States, empowering them to create local efforts to conquer gynecologic cancers.

A few of the key highlights of the new site are listed below.

  • Animation – WORD sanctioned the creation of a 4-minute animated short story entitled, WORD on HPV (watch video below).
  • Formal launch of the Let’s Talk Video SeriesLet’s Talk is a personal history campaign aimed at archiving the stories of women who have battled gynecologic cancer. WORD has collected and edited many of these stories and the collection is available on WORD’s YouTube™ channel and throughout the copy on the website.

  • New Expert WORDS of Wisdom Video Series – WORD will work to create video vignettes to help women better understand gynecologic cancer prevention, diagnosis, and treatment. These videos will provide a complimentary explanation to web content and are also housed on WORD’s YouTube™ channel.

  • Targeted Campaign for 18-24 year old women regarding cervical cancer/human papillomavirus (HPV) – WORD is utilizing recently conducted research to create a personalized campaign for 18-24 year old young women to get the HPV vaccine and begin proper cancer prevention.
  • WORD Blog, FacebookTwitter – For readers “on-the-go,” make sure that you monitor significant WORD news and updates through its blog, Facebook page and Twitter account.

Coming together is a beginning; keeping together is progress; working together is success. — Henry Ford, Founder of the Ford Motor Company

WORD Initiates a “Dialogue” During Cervical Health Awarenss Month.

“Those of us who work and volunteer with WORD know that the dialogue we create will often be controversial. The conversations we hope to create are critical, personal and sometimes intimidating. We are dealing with topics that have real and severe consequences. Often what we say may not be received well; our goal is not acceptance but dialogue. We want women to rise up and become advocates for their own health care. We want women to ask questions, the hard questions, to make sure they make the best informed decisions about their health. We want women to be respectful – staying true to their own convictions, but standing united through dialogue in one common purpose – ‘We must conquer cancer!'”

— Nathan Manahan, WORD Executive Director

This year, Over 11,000 American women will learn that they have cervical cancer, and nearly 4,000 will die from the disease. Tens of thousands more women will have precancerous cells treated.  January is designated as Cervical Health Awareness Month, which is intended to aid in the prevention and early detection of cervical cancer.  This month, WORD is committed to raising awareness of this preventable, detectable and treatable disease among all women in the United States.

One of the most controversial and uncomfortable subjects that WORD seeks to start dialogue on is the cause of cervical cancer, namely HPV.  HPV is a sexually transmitted infection that causes cervical cancer among other cancers and health problems.  In 2010, WORD set out to create an effective HPV and cervical cancer women’s health education campaign. In short, WORD wants to make sure that women of all ages can make informed health decisions about the HPV vaccine, annual gynecological exams, Pap tests and the HPV test. Through a series of excellent partners including Purdue University, David Bossert of Madison Beach Productions, Duck Studios and Publicis Group, WORD was able to create a comprehensive health education program.

In 2011, WORD is working toward an extremely ambitious but necessary goal: distribution of life-saving HPV/cervical information to 30 cities located in 15 states. “This campaign is the first of many campaigns to be created by the WORD team,” said Nate Manahan. “WORD hopes to partner with many individuals and organizations to see these new resources used in communities throughout the United States and ultimately the world.”

WORD encourages individuals and organizations to see how they might utilize the WORD on HPV campaign resources throughout the next year. This campaign includes an original four minute animated short story (view below), posters, brochures, magnets, rack cards, 30 and 60 second radio spots, 15 and 30 second television spots, and informative survivor and expert videos. In addition, WORD is participating in the Cervical Cancer Free America initiative (CCFA), which is is a multi-year, multi-state project aimed at preventing the disease through vaccination against HPV and effective screening for early signs of cervical cancer. WORD is proud to announce that the Cervical Cancer Free Indiana initiative is utilizing many of the WORD on HPV resources in 2011, through a collaboration with the Kristen Forbes EVE Foundation.

“WORD on HPV” Animated Short Story

Regular administration of Pap tests is the best means of detecting cervical cancer at an early stage. The addition of the HPV test further advances our ability to detect cervical cancer early. Furthermore, HPV vaccines have the potential to protect women from the disease, by targeting cancer-causing types of the HPV. “With the advancement of the HPV vaccine in women’s health and in cancer prevention, we may have the first opportunity to literally eradicate cervical cancer,” said Dr. Geisler. “We are all hopeful that between the vaccines, Pap tests and the HPV test, we will see the eradication of cervical cancer around the world in our lifetime.”

In further support of WORD’s overarching vision, Dr. Sharmila Makhija, Division Director of Gynecologic Oncology at Emory University said:

“WORD’s vision to offer resources and education to women of all ages to promote dialogue on prevention, diagnosis and treatment of gynecologic cancers (cervical, uterine and ovarian) is important and something I wholeheartedly support and encourage all individuals and organizations to support.”

About Women’s Oncology Research & Dialogue

WORD is an Indianapolis-based nonprofit organization dedicated to helping women conquer gynecologic cancers through coordinating innovative scientific and clinical research, which results in empowering educational resources for women’s organizations and medical personnel regarding proper prevention, diagnosis and treatment. They need your support to help spread awareness and raise money to help conquer gynecologic cancer.

More information can be found online at http://www.wordoncancer.org/media, including WORD’s informative brochures regarding (i) gynecologic cancer, (ii) ovarian cancer, (iii) cervical cancer, and (iv) uterine cancer.

If you are interested in making a donation to WORD, please go to http://wordoncancer.org/cms/word-site/get-involved/donate.

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Caris Life Sciences Launches Molecular Profiling Service For Ovarian Cancer Patients

Caris Life Sciences announces the launch of a new molecular profiling service for ovarian cancer patients

Caris Life Sciences, Inc. (Caris), a leading biosciences company focused on enabling precise and personalized healthcare through the highest quality anatomic pathology, molecular profiling, and blood-based diagnostic services, announced the launch of a new, Caris Target Now™ molecular profile for ovarian cancer patients. This expansion of the Caris Target Now™ offering provides individualized molecular information to treating physicians, relevant to the selection of therapies to treat this highly-lethal cancer. Ovarian cancer affects more than 20,000 women annually and produces some of the highest five-year mortality rates found among the 200+ types of cancer.

Caris Target Now™ molecular profiling examines the unique genetic and molecular make-up of each patient’s tumor so that treatment options may be matched to each patient individually.  Caris Target Now™ helps patients and their treating physicians create a cancer treatment plan based on the tumor tested. By comparing the tumor’s information with data from published clinical studies by thousands of the world’s leading cancer researchers, Caris can help determine which treatments are likely to be most effective and, just as important, which treatments are likely to be ineffective.

The Caris Target Now™ test is performed after a cancer diagnosis has been established and the patient has exhausted standard of care therapies or if questions in therapeutic management exist. Using tumor samples obtained from a biopsy, the tumor is examined to identify biomarkers that may have an influence on therapy. Using this information, Caris Target Now™ provides valuable information on the drugs that will be more likely to produce a positive response. Caris Target Now™ can be used with any solid cancer such as lung cancer, breast cancer, prostate cancer, and now, ovarian cancer.

Evidence Behind Caris Target Now™

Daniel D. Von Hoff, M.D., F.A.C.P., is the Executive Director of Caris Life Sciences' Clinical Research

A multi-center, prospective, pilot study first published in The Journal of Clinical Oncology (JCO) in October 2010 [1] — along with an accompanying editorial [2] —  determined that personalized cancer treatment tailored to a tumor’s unique genetic make-up identified therapies that increased progression free survival (PFS) over previous therapies in 27% of patients with advanced disease.

The purpose of the study was to compare PFS using a treatment regimen based on the molecular profiling (MP) of a patient’s tumor with the PFS determined for the most recent regimen on which the patient had experienced progression after taking that regimen for 6 weeks.  Unlike a typical control study, each patient was his or her own study control.  Tissue samples from patients with refractory metastatic cancer were submitted for MP in two formats including:

In many of these refractory tumors, targets for conventional therapies were identified, which was “a surprise finding,” according to Dr. Daniel Von Hoff, the Executive Director of Caris’ Clinical Research.  But the profiling also suggested therapies in cases where the treating physician was unsure regarding the next line of treatment. The MP approach was found to have clinical benefit for the individual patient who had a PFS ratio (PFS on MP selected therapy/PFS on prior therapy) of ≥ 1.3.  Among the 86 patient tumors that were profiled with Caris Target Now™:

  • 84 (98%) had a detected molecular target;
  • 66 of the 84 patients were treated with therapies that were linked to their MP results; and
  • 18 (27%) of 66 patients had a PFS ratio of ≥ 1.3 (95% CI, 17% to 38% range; one-sided, one-sample P = .007).

The study investigators concluded that it is possible to identify molecular targets in patients’ tumors. In 27% of the patients, the MP approach resulted in a longer PFS on a MP-based regimen than on the regimen that was based on physician’s choice.  “It was also encouraging to see that the overall survival in these 18 patients was better than that for the whole group of 66 patients (9.7 vs. 5 months),” said Von Hoff.

Of the 66 participants, 27% had breast cancer, 17% had colorectal cancer, and 8% had ovarian cancer; the remainder were classified as miscellaneous.  The improvement in PFS among the various types of cancer patients was as follows: 44% in patients with breast cancer, 36% in those with colorectal cancer, 20% in those with ovarian cancer, and 16% in the miscellaneous group.

The investigators in the study utilized Caris Target Now™ molecular profiling, which is currently available to oncologists and their patients.

“Oncologists commonly expect a 1-in-20 chance of patient response in 3rd- and 4th-line therapies.  This recent study suggests those odds can be improved to 1-in-4 when using therapeutic guidance provided by Caris Target Now™.”

Dr. Jeff Edenfield, a practicing oncologist with US Oncology, and routine user of Caris Target Now™

Since 2008, more than 15,000 cancer patients have received a Caris Target Now™ molecular profile. Caris Target Now™ has been designed to provide treating physicians with therapeutic options, often identifying anti-tumor agents that may not have been considered before. The Caris Target Now™ report is based on the genetic make-up of an individual patient’s tumor cross-referenced with a vast and growing proprietary database of clinical literature, correlating genetic tumor information to therapeutic response. Using biomarker-based therapies has been linked to the likelihood of a positive patient response.

James H. Doroshow, M.D., Director, Division of Cancer Treatment & Diagnosis, National Cancer Institute

In the accompanying JCO editorial, James H. Doroshow, M.D., the Director of the National Cancer Institute (NCI) Division of Cancer Treatment and Diagnosis, commented that the study by Von Hoff et. al. possessed several limitations. [2] The stated limitations of the study include (i) uncertainty surrounding the achievement of the study’s primary end point based upon use of the time-to-disease progression (TTP) index; (ii) limited prior experience with patients as their own controls, and (iii) lack of study randomization.  Despite these limitations, Dr. Doroshow noted that important lessons can be learned from the study conducted by Von Hoff et. al.

“First and foremost, this study vividly reminds us that the need for therapeutic intervention arises one patient at a time. When we sit with an individual who is trying to live with an advanced solid tumor after having already received several different chemotherapy regimens, it is unlikely that any published prognostic index or gene signature, as currently implemented, will be of much help in decision making—for physicians or for patients. [citation omitted]. Thus, a truly urgent need exists to move past the empiric therapeutic paradigm that launched the first half century of systemic oncologic treatment. [citation omitted]. Von Hoff et al have taken a noteworthy, albeit somewhat flawed, first step in this direction in their attempt to imagine a novel paradigm for cancer therapy, using the techniques of molecular tumor characterization on an individual patient basis. Future investigators of new cancer therapies should learn from this initial effort and focus on how these rapidly evolving molecular tools can be used in the development of an entirely new investigative model for the systemic treatment of cancer.”

Caris is currently conducting and initiating additional studies of Caris Target Now™ molecular tumor profiling through collaboration with leading institutions and cancer centers. 

With 300% growth in utilization in 2010, medical oncologists are recognizing the utility and value of this novel approach in providing improved care to patients. Physician adoption is rapidly accelerating, as Caris recently reached the threshold of providing Caris Target Now™ services to more than 1,000 patients per month. This new introduction for ovarian cancer is most relevant for physicians treating women who have progressed on platinum-based therapy and/or who need guidance for third-line treatment options. Caris Target Now™ for ovarian cancer offers the opportunity for these women to benefit from personalized and targeted therapy guidance based upon molecular profiling.

“Ovarian cancer is a highly-lethal cancer that presents distinct diagnostic and therapeutic challenges, often presenting no major symptoms until the cancer has metastasized,” said Dr. Les Paul, Caris’ Senior Vice President for Medical Affairs. “Choosing the optimal therapeutic intervention at the earliest possible stage is critical to extending progression free survival in ovarian cancer patients. With the introduction of the Caris Target Now™ ovarian profile, we are able to support physicians with as much information as possible, including the latest relevant clinical literature citations to aid them in making the best therapeutic decision possible for each patient.”

Examples of the potential use of an existing clinical trial drug to target a specific molecular characteristic possessed by an ovarian cancer include:

Use of Molecular Profiling By Leading Medical Institutions; Sponsorship By A Charitable Foundation

It should be noted that molecular profiling is already being used in clinical practice at several leading cancer institutions.  At Massachusetts General Hospital, (MGH), The MGH Cancer Centre uses a PCR-based mutation-detection assay and state-of-the-art robotic technology, called “SNaPshot,” to look for 130 known gene mutations in tumor tissue. “We are already using molecular profiling for all our lung cancer patients,” said Jeffrey Settleman, Ph.D., scientific director at the MGH Cancer Center, to Medscape Oncology in 2009. [12] “This has already had an impact on treatment decisions, and it appears to be improving treatment. We have seen better response rates and we hope that this will translate into better survival.”  In fact, MGH is engaged currently in the largest study aimed at matching tumor genomes to potential anticancer treatments. [13] It is our understanding that MGH performs molecular profiling currently on melanoma, leukemia, brain and metastatic breast cancer, and metastatic adenocarcinoma that start in the lung, colon or rectum.

Several other institutions are in the process of developing or have developed their own systems, including the University of Texas M.D. Anderson Cancer Center [14], and the Dana-Farber Cancer Institute [15].  All are striving to profile individual tumors so that therapy can be personalized, which means that it has a better chance of working because it targets specific mutations found in a patient’s tumor. The MP approach also prevents patients from being exposed to drugs that have a limited chance of success, eliminating toxicity and improving quality of life.

We should also note the Clearity Foundation sponsors molecular profiling services on behalf of ovarian cancer patients at no cost. The Clearity Foundation is a 501(c)(3) not-for-profit, founded by Laura Shawver, Ph.D., who is an ovarian cancer survivor and research scientist.  The Clearity Foundation seeks to improve treatment outcomes in recurrent and progressive ovarian cancer patients by providing diagnostic services that determine the molecular profile of the individual patient with the belief that a molecular “blueprint” is crucial to finding appropriate treatments.

About Caris Target Now™

Caris Target Now™ is a comprehensive tumor analysis coupled with an exhaustive clinical literature search, which matches appropriate therapies to patient-specific biomarker information to generate an evidence-based treatment approach. Caris Target Now™ testing provides information that may help when considering potential treatment options.

Caris Target Now™ begins with an immunohistochemistry (IHC) analysis. An IHC test measures the level of important proteins in cancer cells providing clues about which therapies are likely to have clinical benefit and then what additional tests should be run.

If there is access to a frozen sample of patient tissue available, Caris may also run a gene expression analysis by microarray. The microarray test looks for genes in the tumor that are associated with specific treatment options.

As deemed appropriate based on each patient, Caris will run additional tests. Fluorescent In-Situ Hybridization (FISH) is used to examine gene copy number variation (i.e., gene amplification) in the tumor. Polymerase Chain Reaction (PCR) or DNA sequencing is used to determine gene mutations in the tumor DNA.

Caris takes the results from each test and applies the published findings from thousands of the world’s leading cancer researchers. Based on this analysis, Caris Target Now™ identifies potential therapies for patients and their treating physicians to discuss.

Caris Target Now™ was developed and its performance characteristics were determined by Caris, a CLIA-certified medical laboratory in compliance with the U.S. Clinical Laboratory Amendment Act of 1988 and all relevant U.S. state regulations. It has not been approved by the United States Food and Drug Administration.

About Caris Life Sciences

Caris Life Sciences, a leading biosciences company, specializes in the development and commercialization of the highest quality anatomic pathology, molecular profiling, and blood-based diagnostic technologies, in the fields of oncology, dermatopathology, hematopathology, gastrointestinal pathology and urologic pathology. The company provides academic-caliber consultations for patients every day, through its industry-leading team of expert, subspecialty pathologists. Caris also offers advanced molecular analyses of patient samples through prognostic testing services and genomic, transcriptomic, and proteomic profiling to assist physicians in their treatment of cancer. Currently, Caris is developing the Carisome™ platform, a proprietary, blood-based technology for diagnosis, prognosis, and theranosis of cancer and other complex diseases. The company is headquartered in the Dallas metroplex, and operates laboratories at the headquarters, as well as in the Phoenix and Boston metro areas.

About Daniel Von Hoff, M.D., FACP, Executive Director, Caris Life Sciences Clinical Research

Daniel D. Von Hoff, M.D., is currently physician-in-chief and director of translational research at Translational Genomics Research Institute (TGen) in Phoenix, Arizona. He is also chief scientific officer for US Oncology and the Scottsdale Healthcare’s Clinical Research Institute.  He holds an appointment as clinical professor of medicine at the University of Arizona College of Medicine.

Dr. Von Hoff’s major interest is in the development of new anticancer agents, both in the clinic and in the laboratory. He and his colleagues were involved in the beginning of the development of many of the agents now in routine use, including: mitoxantrone, fludarabine, paclitaxel, docetaxel, gemcitabine, irinotecan, nelarabine, capecitabine, lapatinib and others.

At present, Von Hoff and his colleagues are concentrating on the development of molecularly targeted therapies particularly for patients with advanced pancreatic cancer. Dr. Von Hoff’s laboratory interests and contributions have been in the area of in vitro drug sensitivity testing to individualize treatment for the patient, mechanisms of gene amplification, particularly of extrachromosomal DNA, and understanding of and targeting telomere maintenance mechanisms. His laboratory work now concentrates on the discovery of new targets in pancreatic cancer.

Dr. Von Hoff has published more than 543 papers, 133 book chapters, and more than 956 abstracts. Dr. Von Hoff  also served on President Bush’s National Cancer Advisory Board from June 2004 through March 2010.

Dr. Von Hoff is the past president of the American Association for Cancer Research(AACR) (the world’s largest cancer research organization), a fellow of the American College of Physicians, and a member and past board member of the American Society of Clinical Oncology (ASCO). He is a founder of ILEX™ Oncology, Inc. (acquired by Genzyme after Ilex had 2 agents, alemtuzumab and clofarabine approved for patients with leukemia). He is founder and the editor emeritus of Investigational New Drugs – The Journal of New Anticancer Agents; and, editor-in-chief of Molecular Cancer Therapeutics. He is also proud to have been a mentor and teacher for multiple medical students, medical oncology fellows, graduate students, and post-doctoral fellows. He is a co-founder of the AACR/ASCO Methods in Clinical Cancer Research Workshop.

References:

1/ Von Hoff DD, Stephenson JJ Jr, Rosen P, et. al. Pilot study using molecular profiling of patients’ tumors to find potential targets and select treatments for their refractory cancers. J Clin Oncol. 2010 Nov 20;28(33):4877-83. Epub 2010 Oct 4. PubMed PMID: 20921468.

2/ Doroshow JH. Selecting systemic cancer therapy one patient at a time: Is there a role for molecular profiling of individual patients with advanced solid tumors? J Clin Oncol. 2010 Nov 20; 28(33):4869-71. Epub 2010 Oct 4. PMID: 20921466.

3/Addition of Dasatinib (Sprycel) to Standard Chemo Cocktail May Enhance Effect in Certain Ovarian Cancers, by Paul Cacciatore, Libby’s H*O*P*E*™, April 19, 2009.

4/UCLA Researchers Significantly Inhibit Growth of Ovarian Cancer Cell Lines With FDA-Approved Leukemia Drug Dasatinib (Sprycel®), by Paul Cacciatore, Libby’s H*O*P*E*™, November 11, 2009.

5/BMS-345541 + Dasatinib Resensitizes Carboplatin-Resistant, Recurrent Ovarian Cancer Cells, by Paul Cacciatore, Libby’s H*O*P*E*™, July 1, 2010.

6/PARP Inhibitor Olaparib Benefits Women With Inherited Ovarian Cancer Based Upon Platinum Drug Sensitivity, by Paul Cacciatore, Libby’s H*O*P*E*™, April 23, 2010.

7/ Fong PC, Boss DS, Yap TA, et al. Inhibition of poly(ADP-ribose) polymerase in tumors from BRCA mutation carriersN Engl J Med. 2009 Jul 9;361(2):123-34. Epub 2009 Jun 24. PMID: 19553641.

8/Audeh MW, Penson RT, Friedlander M, et al. Phase II trial of the oral PARP inhibitor olaparib (AZD2281) in BRCA-deficient advanced ovarian cancer. J Clin Oncol 2009;27(supplement):p. 15S.

9/PARP Inhibitor MK-4827 Shows Anti-Tumor Activity in First Human Clinical Study, by Paul Cacciatore, Libby’s H*O*P*E*™,  November 17, 2010.

10/PI3K Pathway: A Potential Ovarian Cancer Therapeutic Target?, by Paul Cacciatore, Libby’s H*O*P*E*™,  November 20, 2009.

11/Endocyte’s EC145 Produces Significant Anti-Tumor Activity In Advanced Stage Chemoresistant Ovarian Cancer Patients, by Paul Cacciatore, Libby’s H*O*P*E*™, October 21, 2009.

12/Massachusetts General Hospital Cancer Center To Genetically Profile All Patient Tumors, by Paul Cacciatore, Libby’s H*O*P*E*™, March 14, 2009.

13/Largest Study Matching Genomes To Potential Anticancer Treatments Releases Initial Results, by Paul Cacciatore, Libby’s H*O*P*E*™, August 3, 2010.

14/An Initiative for Molecular Profiling in Advanced Cancer Therapy (IMPACT) Trial. A Molecular Profile-Based Study in Patients With Advanced Cancer Treated in the Investigational Cancer Therapeutics Program, University of Texas M.D. Anderson Cancer Center, ClinicalTrials.gov Identifier: NCT00851032.

15/Dana-Farber Researchers “OncoMap” The Way To Personalized Treatment For Ovarian Cancer, by Paul Cacciatore, Libby’s H*O*P*E*™, November 16, 2010.

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Additional Information:

National Comprehensive Cancer Network® Posts New Guidelines for Treatment of Ovarian Cancer Patients

National Comprehensive Cancer Network® Posts New “Patient Friendly” Guidelines for Treatment of Ovarian Cancer.

Women with ovarian cancer now have a new resource that provides them with the same credible information their physicians use when determining treatment options. The National Comprehensive Cancer Network® (NCCN®) announces three new additions to the library of NCCN Guidelines for Patients™, patient-friendly translations of the NCCN Clinical Practice Guidelines in Oncology (NCCN Guidelines™). NCCN Guidelines for Patients™: Melanoma, Ovarian Cancer, and Prostate Cancer are now available free of charge at NCCN.com.

The NCCN Guidelines for Patients™ are designed to provide people with cancer and their caregivers with state-of-the-art treatment information in easy-to-understand language. Given the prevalence of melanoma and prostate cancer – both among the most frequently diagnosed cancers in men – and the challenges in detecting ovarian cancer in women, it is critical that patients have resources to empower them to take a more active role in their treatment.

The NCCN Guidelines™ are developed by multidisciplinary panels of experts from NCCN Member Institutions and feature algorithms or “decision trees” that address every appropriate treatment option from initial work up throughout the course of the disease. The NCCN Guidelines for Patients™ translate these professional guidelines in a clear, step-by-step manner that patients can use as the basis for making decisions and discussing options with their physicians.

The NCCN Guidelines for Patients™ are available free of charge at NCCN.com, which also features additional informative articles for patients and caregivers.

About the National Comprehensive Cancer Network

The National Comprehensive Cancer Network (NCCN), a not-for-profit alliance of 21 of the world’s leading cancer centers, is dedicated to improving the quality and effectiveness of care provided to patients with cancer. Through the leadership and expertise of clinical professionals at NCCN Member Institutions, NCCN develops resources that present valuable information to the numerous stakeholders in the health care delivery system. As the arbiter of high-quality cancer care, NCCN promotes the importance of continuous quality improvement and recognizes the significance of creating clinical practice guidelines appropriate for use by patients, clinicians, and other health care decision-makers. The primary goal of all NCCN initiatives is to improve the quality, effectiveness, and efficiency of oncology practice so patients can live better lives.

The NCCN Member Institutions are:

City of Hope Comprehensive Cancer Center, Los Angeles, CA;

Dana-Farber/Brigham and Women’s Cancer Center | Massachusetts General Hospital Cancer Center, Boston, MA;

Duke Comprehensive Cancer Center, Durham, NC;

Fox Chase Cancer Center, Philadelphia, PA;

Huntsman Cancer Institute at the University of Utah, Salt Lake City, UT;

Fred Hutchinson Cancer Research Center/Seattle Cancer Care Alliance, Seattle, WA;

The Sidney Kimmel Comprehensive Cancer Center at Johns Hopkins, Baltimore, MD;

Robert H. Lurie Comprehensive Cancer Center of Northwestern University, Chicago, IL;

Memorial Sloan-Kettering Cancer Center, New York, NY;

H. Lee Moffitt Cancer Center & Research Institute, Tampa, FL;

The Ohio State University Comprehensive Cancer Center – James Cancer Hospital and Solove Research Institute, Columbus, OH;

Roswell Park Cancer Institute, Buffalo, NY;

Siteman Cancer Center at Barnes-Jewish Hospital and Washington University School of Medicine, St. Louis, MO;

St. Jude Children’s Research Hospital/University of Tennessee Cancer Institute, Memphis, TN;

Stanford Comprehensive Cancer Center, Stanford, CA;

University of Alabama at Birmingham Comprehensive Cancer Center, Birmingham, AL;

UCSF Helen Diller Family Comprehensive Cancer Center, San Francisco, CA;

University of Michigan Comprehensive Cancer Center, Ann Arbor, MI;

UNMC Eppley Cancer Center at The Nebraska Medical Center, Omaha, NE;

The University of Texas MD Anderson Cancer Center, Houston, TX; and

Vanderbilt-Ingram Cancer Center, Nashville, TN.

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Lab-On-A-Chip: Veridex & MGH Collaborate On Next-Generation Circulating Tumor Cell Test

Veridex, LLC announces a collaboration with Massachusetts General Hospital to develop and commercialize a next-generation circulating tumor cell technology for capturing, counting and characterizing tumor cells found in patients’ blood.

Yesterday, Veridex, LLC (Veridex) announced a collaboration with Massachusetts General Hospital (MGH) to develop and commercialize a next-generation circulating tumor cell (CTC) technology for capturing, counting and characterizing tumor cells found in patients’ blood. The collaboration will involve Ortho Biotech Oncology Research & Development (ORD), a unit of Johnson & Johnson Pharmaceutical Research & Development. It focuses on the development of a next-generation system that will enable CTCs to be used both by oncologists as a diagnostic tool for personalizing patient care, as well as by researchers to accelerate and improve the process of drug discovery and development.

The collaboration will rely on the collective scientific, technical, clinical, and commercial expertise between the partners: MGH’s experience in clinical research and novel CTC technologies; the experience of Veridex as the only diagnostics company to have brought CTC technology to the U.S. market as an FDA-cleared in vitro diagnostic (IVD) assay ( “CellSearch® CTC Test”) for capturing and counting the number of tumor cells in the blood to help inform patients and their physicians about prognosis and overall survival in certain types of metastatic cancers; and ORD’s expertise in oncology therapeutics, biomarkers and companion diagnostics.  The platform to be developed will be a bench-top system to specifically isolate and explore the biology of rare cells at the protein, RNA and DNA levels.

“This new technology has the potential to facilitate an easy-to-administer, non-invasive blood test that would allow us to count tumor cells, and to characterize the biology of the cells,” said Robert McCormack, Head of Technology Innovation and Strategy, Veridex. “Harnessing the information contained in these cells in an in vitro clinical setting could enable tools to help select treatment and monitor how patients are responding.”

“The role of CTCs in drug discovery and development is growing as new technologies allow us to use CTCs for the first time as templates for novel DNA, RNA and protein biomarkers,” said Nicholas Dracopoli, Vice President, Biomarkers, ORD. “Given the demand for actionable data to guide personalized medicine for patients with cancer, there is a rapidly growing need for advanced, automated non-invasive technologies that can aid in selection of treatment and monitor response throughout the course of their disease.”

Mehmet Toner, Ph.D., Professor of Surgery, Massachusetts General Hospital (MGH) & Harvard Medical School; Director, MGH BioMicro- ElectroMechanical Systems Resource Center

“The challenging goal of sorting extremely rare circulating tumor cells from blood requires continuous technological, biological and clinical innovation to fully explore the utility of these precious cells in clinical oncology,” said Mehmet Toner, Ph.D., director of the BioMicroElectroMechanical Systems Resource Center in the MGH Center for Engineering in Medicine. “We have developed and continue to develop a broad range of technologies that are evolving what we know about cancer and cancer care. This collaboration is an opportunity to apply our past learning to the advancement of a platform that will ultimately benefit patients with cancer.”

Building on its successful development and evolution of CTC technology, as well as contributions to the body of science in the CTC field, MGH aims to revolutionize how oncologists detect, monitor and potentially treat cancers.  The MGH team has already developed two generations of a microfluidic chip capable of capturing CTCs with a high rate of efficiency. However the third generation technology now being developed with the companies is based on a new technological platform and will aim for even higher sensitivity, as well as suitability for broad applications and ready dissemination.

In the above demonstration of the first generation CTC-Chip, circulating tumor cells (fluorescent labeled, shown in white) mixed with blood (not labeled) are captured on nano-scale posts as they flow through the chip. The chip is the size of a microscope slide with 78,000 posts, which are coated with antibodies to epithelial cell adhesion molecules in tumor cells. (Video courtesy of Dr. Sunitha Nagrath, Massachusetts General Hospital/Harvard Medical School)

“This agreement is quite different from the usual academic-industrial agreement because we will be working together to bring new MGH-invented technology from its current, very early stage, through prototype and scale-up, to our ultimate goals of FDA approval and clinical adoption,” says Dr. Toner. “Our innovation team will be dedicated to developing this technology from its basic scientific principles all the way to initial prototyping within the biological research and clinical environments. Veridex has the knowledge required to translate early-stage technology into a product that can be reliably manufactured and meet regulatory requirements.

“Applying data gathered from CTCs to the care of cancer patients is a complex problem, and our strategy is to diversify technological approaches to find the best solutions for specific applications,” Toner adds. “We may find that different technologies work better for diagnosis, for prognosis and for the long-term goal of early detection; so we don’t want to confine ourselves to a single option.” His team is continuing to develop the microfluidic chip technology, with the support of Stand Up to Cancer.

Daniel A. Haber, M.D., Ph.D., Director, Massachusetts General Hospital Cancer Center

Daniel Haber, MD, PhD, director of the MGH Cancer Center, says, “The ability to establish a dedicated MGH research center focused on the intersection of bioengineering, molecular biology and clinical oncology presents an opportunity to develop a next-generation platform that will help us detect, define and monitor cancer cells more effectively – which should make an enormous difference in the lives of so many patients and their families.”

About Circulating Tumor Cells

Circulating tumor cells are cancer cells that have detached from the tumor and are found at extremely low levels in the bloodstream. The value of capturing and counting CTCs is evolving as more research data is gathered about the utility of these markers in monitoring disease progression and potentially guiding personalized cancer therapy.

About Veridex, LLC

Veridex, LLC, a Johnson & Johnson company, is an organization dedicated to providing physicians with high-value diagnostic oncology products. Veridex’s IVD products may significantly benefit patients by helping physicians make more informed decisions that enable better patient care. Veridex’s Clinical Research Solutions provide tools and services that may be used for the selection, identification and enumeration of targeted rare cells in peripheral blood for the identification of biomarkers, aiding scientists in their search for new, targeted therapies. For more information, visit www.veridex.com.

About Ortho Biotech Oncology Research & Development

Ortho Biotech Oncology Research & Development, a unit of Johnson & Johnson Pharmaceutical Research & Development, is a research and development organization that strives to transform cancer to a preventable, chronic or curable disease by delivering extraordinary and accessible diagnostic and therapeutic solutions that prolong and improve patients’ lives.

About Massachusetts General Hospital

Celebrating the 200th anniversary of its founding in 1811, Massachusetts General Hospital is the original and largest teaching hospital of Harvard Medical School. The MGH conducts the largest hospital-based research program in the United States, with an annual research budget of more than $600 million and major research centers in AIDS, cardiovascular research, cancer, computational and integrative biology, cutaneous biology, human genetics, medical imaging, neurodegenerative disorders, regenerative medicine, systems biology, transplantation biology and photomedicine. For more information visit http://www.mgh.harvard.edu/.

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A Recipe For the New Year

On behalf of Libby’s H*O*P*E*™, we wish you and yours a happy and healthful New Year.

On behalf of Libby’s H*O*P*E*™, we would like to wish you and yours a happy and healthful New Year.

To the newly diagnosed ovarian cancer survivors, we stand ready to help you.  And, we extend our very best to those who corresponded with us over the past year.  It was both a privilege and honor to serve you.

To the ovarian cancer survivors in treatment, keep the faith and continue to fight the good fight. When times get tough and the desired results seem elusive, we hope that the following words inspire perseverance:

“When nothing seems to help, I go look at a stonecutter hammering away at his rock perhaps a hundred times without as much as a crack showing in it. Yet at the hundred and first blow it will split in two, and I know it was not that blow that did it, but all that had gone before.” — Jacob Riis (American newspaper reporter and photographer, 1849-1914)

To the ovarian cancer survivors who obtained the coveted status of “N.E.D.” (no evidence of disease), it is our greatest hope that you will pay your goodwill forward in support of another survivor and her family.

To the ovarian cancer survivors that we lost this year, you will forever be in our thoughts and prayers, and know that we will continue to fight this disease in your memory.

To start out 2011 in stride, we thought it might be helpful to provide bits of wisdom spoken or written by others. In addition, the beginning of the New Year would not be complete without some humor obtained from holiday seasons present and past.

Words of Wisdom For the New Year

A Recipe For the New Year. “Take twelve fine, full-grown months; see that these are thoroughly free from old memories of bitterness, rancor and hate, cleanse them completely from every clinging spite; pick off all specks of pettiness and littleness; in short, see that these months are freed from all the past—have them fresh and clean as when they first came from the great storehouse of Time. Cut these months into thirty or thirty-one equal parts. Do not attempt to make up the whole batch at one time (so many persons spoil the entire lot this way) but prepare one day at a time.

Into each day put equal parts of faith, patience, courage, work (some people omit this ingredient and so spoil the flavor of the rest), hope, fidelity, liberality, kindness, rest (leaving this out is like leaving the oil out of the salad dressing— don’t do it), prayer, meditation, and one well-selected resolution. Put in about one teaspoonful of good spirits, a dash of fun, a pinch of folly, a sprinkling of play, and a heaping cupful of good humor.”  — Anonymous

“We will open the book. Its pages are blank. We are going to put words on them ourselves. The book is called Opportunity and its first chapter is New Year’s Day.” — Edith Lovejoy Pierce

“I will seek elegance rather than luxury, refinement rather than fashion. I will seek to be worthy more than respectable, wealthy and not rich. I will study hard, think quietly, talk gently, and act frankly. I will listen to stars and birds, babes and sages, with an open heart. I will bear all things cheerfully, do all things bravely, and await occasions and hurry never. In a word I will let the spiritual, unbidden and unconscious grow up through the common.” — William Ellery Channing

“Let this coming year be better than all the others. Vow to do some of the things you’ve always wanted to do but couldn’t find the time. Call up a forgotten friend. Drop an old grudge, and replace it with some pleasant memories. Vow not to make a promise you don’t think you can keep. Walk tall, and smile more. You’ll look ten years younger. Don’t be afraid to say, ‘I love you.’ Say it again. They are the sweetest words in the world.” — Ann Landers

“We spend January 1 walking through our lives, room by room, drawing up a list of work to be done, cracks to be patched. Maybe this year, to balance the list, we ought to walk through the rooms of our lives – not looking for flaws, but for potential.” — Ellen Goodman

“An optimist stays up until midnight to see the new year in. A pessimist stays up to make sure the old year leaves.” — Bill Vaughn

“New Year’s Resolution: To tolerate fools more gladly, provided this does not encourage them to take up more of my time.” — James Agate

Humor For the New Year

Did you ever wonder what would happen if the Nativity occurred in the age of social media?  If so, check out the video below.

A classic holiday song about Chanukah (Hanukkah) by comedic superstar (and former Saturday Night Live cast member) Adam Sandler