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Flickinger, Lynn M.

0009-0004-0507-9894

Mayo Clinic

Mayo Clinic

Citations 14

MC1923 phase II clinical trial of durvalumab (MEDI4736) and topotecan or lurbinectedin in patients with relapsed extensive-stage small cell lung cancer previously treated with chemotherapy and immunotherapy.
Leventakos, Konstantinos , Foster, Nathan R. , Flickinger, Lynn M. , Tella, Sri Harsha , Molina, Julian R. , Marks, Randolph, Schwecke, Anna J., Hocum, Craig, Moffett, Jenesse Nicole , Potter, Ashley , Adjei, Alex A. , Dimou, Anastasios , Mansfield, Aaron S. , Schwecke, Anna

Journal of Clinical Oncology | June 6, 2022 | Volume: 40 | Issue: 16_suppl | Pages: TPS8604-TPS8604

10.1200/jco.2022.40.16_suppl.tps8604 Get It

TPS8604 Background: Chemoimmunotherapy followed by durvalumab maintenance yields a median overall survival of 12.9 months in patients with extensive stage Small Cell Lung Cancer (ES SCLC), which is an improvement over chemotherapy alone. However, 90% of these patients will have progressive disease. While topotecan and lurbinectedin have established modest activity in the second line, it is unknown whether continuing immunotherapy in this setting confers additional benefit. In preclinical studies lurbinectedin, a DNA minor groove binder, used with immune checkpoint inhibitors has synergistic effects. Methods: This phase 2 trial is enrolling patients with ES SCLC who have progressed on platinum based chemoimmunotherapy, to three treatment groups. Group 1 includes patients with platinum sensitive SCLC who will receive durvalumab (1500 mg given as an intravenous [IV] infusion once every 3 weeks) and topotecan (1.25 mg/m2/day IV for 5 consecutive days every 3 weeks). In Groups 2A and 2B, patients with platinum sensitive and platinum resistant disease respectively, receive durvalumab and lurbinectedin (3.2 mg/m2 IV on Day 1 of every 21-day cycle). Patients with platinum sensitive disease are assigned to Groups 1 or 2A based on the preferences of the treating physician and the patient. Patients with treated/stable CNS metastases are eligible. The primary endpoint is the proportion of patients who are alive at 6 months (6OS) for Group 1 and the proportion of patients who are alive and progression-free at 6 months (6PFS) in Groups 2A and 2B. Secondary endpoints include safety, adverse event profile, response rate, PFS, and OS. The sample size is based on a 2-stage Simon Optimal Design. For Treatment Group 1, with 22 eligible patients there is 80% power to detect a true 6-month OS rate (6OS) of 75%, with 10% alpha under the null hypothesis that the true 6OS is at most 50%. For Treatment Group 2A, with 20 eligible patients this design has 80% power to detect a true 6-month PFS rate (6PFS) of 65%, with 10% alpha under the null hypothesis that the true 6PFS is at most 40%. For Treatment Group 2B, with 22 eligible patients this design has 80% power to detect a true 6-month PFS rate (6PFS) of 40%, with 10% alpha under the null hypothesis that the true 6PFS is at most 19%. To account for possible drop-outs, accrual targets will be 24, 22, and 24 patients to Groups 1, 2A, and 2B respectively. For the safety analyses, 6 patients will be enrolled at the starting dose level for each treatment group (1, 2) and then briefly closed to accrual to assess adverse events. If we observe 2+ DLTs in these 6 treated patients during Cycle 1 within a treatment group (1 vs. 2), we will declare the combination treatment too toxic and lower the starting dose of chemotherapy for the next 6 patients. The study was open for all 3 groups as of January 2022 and has accrued 2 patients. Clinical trial information: NCT04607954.
Quality of life (QOL) among patients (pts) with HER2+ breast cancer (bc) treated with adjuvant lapatinib and/or trastuzumab in the ALTTO study (BIG 2-06, Alliance N063D).
Kottschade, Lisa A. , Halyard, Michele Y. , Sloan, Jeff A. , Flickinger, Lynn M. , Harris, Lyndsay N. , Le‐Lindqwister, Nguyet, Boyle, Frances , McCaskill-Stevens, Worta J., Zujewski, Jo Anne , Piccart, Martine , Perez, Edith A. , Dueck, Amylou C. , Hillman, David W. , Wolff, Antonio C. , Gralow, Julie R. , Pritchard, Kathleen I. , Ellard, Susan L. , Azambuja, Evandro de , Zujewski, Jo Anne

Journal of Clinical Oncology | January 3, 2019 | Volume: 32 | Issue: 15_suppl | Pages: 647-647

10.1200/jco.2014.32.15_suppl.647 Get It

Randomized phase II trial of capecitabine and lapatinib with or without cixutumumab in patients with HER2+ breast cancer previously treated with trastuzumab and an anthracycline and/or a taxane: NCCTG N0733 (Alliance).
Bernath, Albert M., Northfelt, Donald W. , Hou, Xiaonan , Tenner, Kathleen , Tienchaiananda, Piyawan , Flickinger, Lynn M. , Chen, Beiyun, Chen, Helen X., Lingle, Wilma L., Pellegrino, Christine, Sponzo, Robert W., Reinholz, Monica M., Perez, Edith A. , Haluska, Paul , Ballman, Karla V. , Dueck, Amylou C. , Linden, Hannah M. , Goetz, Matthew P.

Journal of Clinical Oncology | January 3, 2019 | Volume: 32 | Issue: 15_suppl | Pages: 632-632

10.1200/jco.2014.32.15_suppl.632 Get It

Mammographic Breast Density Response to Aromatase Inhibition
Vachon, Celine M. , Brandt, Kathleen R. , Kosel, Matthew , Buzdar, Aman U. , Wu, Fang-Fang, Flickinger, Lynn M. , Ursin, Giske , Elliott, Catherine, Shepherd, Lois E. , Weinshilboum, Richard M. , Goss, Paul E., Vachon, Celine M. , Suman, Vera J. , Olson, Janet E. , Weinshilboum, Richard M. , Ingle, James N.

Clinical Cancer Research | March 7, 2013 | Volume: 19 | Issue: 8 | Pages: 2144-2153

10.1158/1078-0432.ccr-12-2789 Get It

Abstract Purpose: Mammographic breast density (MBD) is decreased by tamoxifen, but the effect of aromatase inhibitors is less clear. Experimental Design: We enrolled early-stage postmenopausal patients with breast cancer initiating adjuvant aromatase inhibitor therapy and ascertained mammograms before and at an average 10 months of aromatase inhibitor therapy. We matched cases to healthy postmenopausal women (controls) from a large mammography screening cohort on age, baseline body mass index, baseline MBD, and interval between mammograms. We estimated change in MBD using a computer-assisted thresholding program (Cumulus) and compared differences between cases and matched controls. Results: In predominantly White women (96%), we found 14% of the 387 eligible cases had a MBD reduction of at least 5% after an average of 10 months of aromatase inhibitor therapy. MBD reductions were associated with higher baseline MBD, aromatase inhibitor use for more than 12 months, and prior postmenopausal hormone use. Comparing each case with her matched control, there was no evidence of an association of change in MBD with aromatase inhibitor therapy [median case–control difference among 369 pairs was −0.1% (10th and 90th percentile: −5.9%, 5.2%) P = 0.51]. Case–control differences were similar by type of aromatase inhibitor (P's 0.41 and 0.56); prior use of postmenopausal hormones (P = 0.85); baseline MBD (P = 0.55); and length of aromatase inhibitor therapy (P = 0.08). Conclusions: In postmenopausal women treated with aromatase inhibitors, 14% of cases had a MBD reduction of more than 5%, but these decreases did not differ from matched controls. These data suggest that MBD is not a clinically useful biomarker for predicting the value of aromatase inhibitor therapy in White postmenopausal women. Clin Cancer Res; 19(8); 2144–53. ©2013 AACR.