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128 citation(s) found for "Polley, EC".

Total Artificial Heart: A Retrospective Multiple-Case Analysis of Occupational Therapy in a Quaternary Hospital
Oldenburg, Hannah , Bergstrom, Jennifer, Christensen, Gina, Polley, Caitlin A., Privette, R. Malcolm, Maureen, Musselmann, Pyffereon, Mary, Brannon, Charles

Mayo Clinic

American Journal of Occupational Therapy | August 7, 2017 | Volume: 71 | Issue: 1_suppl | Pages: No page available

10.5014/ajot.2017.71s1-po4068 Get It

Date Presented 3/31/2017 A retrospective multicase study of functional outcomes was done with patients with an implanted total artificial heart. Results show improved function with occupational therapy provided postoperatively. Knowledge and evidence can be used to develop and implement interventions for this population. Primary Author and Speaker: Hannah Oldenburg Additional Authors and Speakers: Jennifer Bergstrom, Gina Christensen Contributing Authors: Caitlin Polley, Randi Privette, Maureen Musselmann, Mary Pyffereon, Charles Brannon
Abstract 4286: What have we learned from pancreatic cancer patients undergoing multigene panel testing
LaDuca, Holly , Lilyquist, Jenna , Black, Mary Helen , Davis, Brigette Tippin, Goldgar, David E. , Dolinsky, Jill S. , Hu, Chunling , Shimelis, Hermela , Polley, Eric C. , Couch, Fergus J.

Mayo Clinic

Cancer Research | July 31, 2017 | Volume: 77 | Issue: 13_Supplement | Pages: 4286-4286

10.1158/1538-7445.am2017-4286 Get It

Abstract Purpose: The relevance of inherited pathogenic variants in cancer predisposition genes to pancreatic cancer (PC) is not well understood. Several small studies have identified pathogenic variants in 4% to 14% of unselected PC patients using multigene panels of predisposition genes, but only BRCA2, ATM, and PALB2 have been clearly implicated in this disease. We aimed to assess the clinical and molecular characteristics of PC patients referred for hereditary cancer genetic testing, and to estimate the risk of PC associated with pathogenic variants in panel-based cancer predisposition genes. Methods: PC patients (n=1,819) were ascertained from a large cohort of over 140,000 patients undergoing multigene panel testing (MGPT) of predisposition genes between March 2012 and June 2016 at a single diagnostic laboratory. Clinical histories and molecular results were reviewed and summarized. Gene-level variant frequencies among PC cases were compared to those from the Exome Aggregation Consortium (ExAC) to calculate gene-specific pancreatic cancer risk ratios. Results: PC patients were predominantly Caucasian (76.5%) and female (58.9%), with a median age at diagnosis of 61 years (51.7). Of these, 33.5% reported additional cancer primaries, and 44.8% reported a family history of PC. Overall, 15.4% of PC patients were found to have at least one pathogenic/likely pathogenic variant in panel-based predisposition genes. Genes with the highest frequencies of pathogenic/likely pathogenic variants included BRCA2 (3.9%), ATM (3.6%), CHEK2 (excluding p.Ile157Thr) (2.0%), PALB2 (1.5%), VHL (1.4%), CDKN2A (1.2%), BRCA1 (0.8%), and MSH6 (0.8%). 21.8% of BRCA1 and BRCA2 carriers did not meet BRCA1/2 testing criteria and 61.5% of MSH6 carriers did not meet Lynch syndrome testing criteria. No CDKN2A families met diagnostic criteria for familial atypical multiple mole melanoma syndrome, and 44% did not report any personal or family history of melanoma. To estimate associations between pathogenic variants and pancreatic cancer, Caucasian PC cases were compared to non-Finnish European, non-TCGA ExAC reference controls. Pathogenic variants in ATM, BRCA2, CDKN2A, MSH6, and PALB2 were significantly associated with high PC risks. Pathogenic variants in BRCA1 were associated with a moderate risk of PC (RR=2.7). Conclusions: These findings shed light on the spectrum of mutations that can be expected for PC patients referred for cancer predisposition testing. The results confirm the associations of CDKN2A and BRCA2 variants with PC, and expand on the phenotypic spectrum associated with these variants. Furthermore, these results suggest that ATM, PALB2, and MSH6 may be high-risk PC genes, warranting further investigation in case-control and family-based studies. Citation Format: Holly LaDuca, Chunling Hu, Hermela Shimelis, Eric Polley, Jenna Lilyquist, Mary Helen Black, Brigette Tippin Davis, David E. Goldgar, Jill Dolinsky, Fergus J. Couch. What have we learned from pancreatic cancer patients undergoing multigene panel testing [abstract]. In: Proceedings of the American Association for Cancer Research Annual Meeting 2017; 2017 Apr 1-5; Washington, DC. Philadelphia (PA): AACR; Cancer Res 2017;77(13 Suppl):Abstract nr 4286. doi:10.1158/1538-7445.AM2017-4286
Abstract 4925: Microbiome-TP53 gene interaction in human lung cancer
White, James R. , Bliskovsky, Valery, Bowman, Elise D. , Dzutsev, Amiran, Pineda, Marbin , Bilke, Sven , Earl, Joshua P. , Balashov, Sergey, Bhat, Archana , Valm, Alex M. , Deming, Clayton, Segre, Julie , Harris, Curtis C. , Greathouse, K Leigh , Vargas, Ashley J. , Polley, Eric C. , Ma, Khan , Robles, Ana I. , Ryan, Bríd M. , Trinchieri, Giorgio , Meltzer, Paul S. , Walther-António, Marina , Ehrlich, Garth D. , Mell, Joshua Chang , Conlan, Sean , Oh, Julia

Mayo Clinic

Cancer Research | July 31, 2017 | Volume: 77 | Issue: 13_Supplement | Pages: 4925-4925

10.1158/1538-7445.am2017-4925 Get It

Abstract Lung cancer is the leading cancer diagnosis worldwide and the number one cause of cancer deaths. Exposure to cigarette smoke, the primary risk factor in lung cancer, reduces epithelial barrier function and increases susceptibility to infections. Herein, we hypothesized that somatic mutations together with cigarette smoke create a dysbiotic microbiota that is associated with lung carcinogenesis. Using lung tissue from controls (n=33) or cancer cases (n=143), we conducted 16S rRNA gene sequencing (MiSeq), with RNA-seq data from lung cancer cases in The Cancer Genome Atlas (n=1112) serving as the validation cohort. We demonstrate a lower alpha diversity in normal lung as compared to non-tumor adjacent or tumor tissue, indicating a shift in the overall microbial community in lung cancer patients as compared to those without cancer. Lung cancer cases were classified by the relative abundance of two taxa, Variovorax and Streptococcus, with an increase in Variovorax abundance in tumors as compared to non-tumor adjacent paired lung tissue (FDR corrected P=0.013). The species of Variovorax was identified histologically, and also by two additional 16S rRNA strategies (Resphera Insight analysis and PacBio sequencing). A group of taxa were associated with squamous cell carcinoma (SCC), of which Acidovorax were enriched in smokers (P =0.0013). Further, these taxa, including Acidovorax, exhibited higher abundance among the subset of SCC cases with TP53 mutations, an association not seen in adenocarcinomas (AD). Therefore, we observed a microbiome-gene and a microbiome-exposure interaction in SCC lung cancer tissue. Together, these results open the door for future biomarker research that could be used to improve screening and direct mechanistic studies of lung cancer therapy. Citation Format: Leigh Greathouse, James White, Valery Bliskovsky, Ashley Vargas, Eric Polley, Elise Bowman, Mohammed Khan, Ana Robles, Brid Ryan, Amiran Dzutsev, Giorgio Trinchieri, Marbin Pineda, Sven Bilke, Paul Meltzer, Marina Walther-Antonio, Garth Ehrlich, Joshua Mell, Joshua Earl, Sergey Balashov, Archana Bhat, Alex Valm, Clayton Deming, Sean Conlan, Julia Oh, Julie Segre, Curtis Harris. Microbiome-TP53 gene interaction in human lung cancer [abstract]. In: Proceedings of the American Association for Cancer Research Annual Meeting 2017; 2017 Apr 1-5; Washington, DC. Philadelphia (PA): AACR; Cancer Res 2017;77(13 Suppl):Abstract nr 4925. doi:10.1158/1538-7445.AM2017-4925
Abstract 1287: Multigene panel testing and risk estimates in 10,233 ovarian cancer cases
Lilyquist, Jenna , LaDuca, Holly , Moore, Raymond M. , Dolinsky, Jill S. , Goldgar, David E. , Polley, Eric C. , Shimelis, Hermela , Hu, Chunling , Hart, Steven N. , Couch, Fergus J.

Mayo Clinic

Cancer Research | July 31, 2017 | Volume: 77 | Issue: 13_Supplement | Pages: 1287-1287

10.1158/1538-7445.am2017-1287 Get It

Abstract Germline pathogenic variants in BRCA1 and BRCA2 account for 10% of ovarian cancer (OC), including ovarian, fallopian tube, and primary peritoneal carcinomas. Pathogenic variants in BRIP1, RAD51C, RAD51D, and other cancer predisposition genes have been observed in another 2% to 5% of OCs. However, the specific genes associated with OC and estimates of risk associated with pathogenic variants in the individual genes are not well defined. We sought to determine the relevance of multigene panel testing results for OC cases. The study was focused on 140,449 individuals, including 10,233 OC cases, receiving clinical panel testing of cancer predisposition genes. Standardized relative risks (SRR) for pathogenic variants in 18 cancer predisposition genes were estimated using reference controls from the Exome Aggregation Consortium (ExAC). The median (range) age at diagnosis of OC was 57 (21-90) years. OC cases were 76.2% Caucasian, 3.6% African American, 4.6% Asian, 4.7% Hispanic, and 10.9% unknown/other. Among the 10,233 OC cases, 1391 (13.6%) had pathogenic mutations, including 1032 pathogenic mutations among the 7793 Caucasian OC cases (13.2%). Using the non-Finnish European ExAC (excluding TCGA samples) reference controls, the allele frequency for all pathogenic variants in each gene was summed and compared to the frequency of mutations in the Caucasian OC cases. Pathogenic variants in the known OC predisposition genes: BRCA1, BRCA2, BRIP1, MSH2, MSH6, RAD51C, and RAD51D were associated with a high risk of OC (SRR>4.0). Additionally, significant associations were observed for pathogenic variants in suspected OC risk genes ATM and PALB2 (SRR=2.06 and 2.78, respectively). This study identified several genes routinely screened on multigene panel testing that confer high or moderate risks of OC. Associations with known OC predisposition genes were confirmed. In addition, this study provides evidence that PALB2 is a moderate risk OC gene, and that ATM may confer lower to moderate risks of OC. If confirmed in future studies, these risks should be carefully considered in future screening and management of OC patients. In contrast, BARD1 and genes in the MRN complex were not associated with clinically relevant risks of OC. Citation Format: Jenna Lilyquist, Holly LaDuca, Eric Polley, Hermela Shimelis, Chunling Hu, Raymond Moore, Steven N. Hart, Fergus J. Couch, Jill Dolinsky, David E. Goldgar. Multigene panel testing and risk estimates in 10,233 ovarian cancer cases [abstract]. In: Proceedings of the American Association for Cancer Research Annual Meeting 2017; 2017 Apr 1-5; Washington, DC. Philadelphia (PA): AACR; Cancer Res 2017;77(13 Suppl):Abstract nr 1287. doi:10.1158/1538-7445.AM2017-1287
Abstract S2-01: Breast cancer risks associated with mutations in cancer predisposition genes identified by clinical genetic testing of 60,000 breast cancer patients
Couch, FJ, Lilyquist, Jenna , Shimelis, H, Akinhanmi, Margaret, Na, J , Polley, EC, Hart, SN, McFarland, Rachel, LaDuca, Holly , Goldgar, DE, Dolinsky, JS, Hu, C, Huether, Robert

Mayo Clinic

Cancer Research | March 1, 2017 | Volume: 77 | Issue: 4_Supplement | Pages: S2-01-S2-01

10.1158/1538-7445.sabcs16-s2-01 Get It

Abstract Clinical genetic testing panels are broadly used to gather information about cancer predisposition in individuals with personal and/or family history of breast cancer. However, the involvement of several of the genes on clinical testing panels in predisposition to breast cancer, such as MRE11A and RAD50, has recently come into question. In addition, accurate risk estimates for breast and other cancer are not well defined for the majority of genes on testing panels. We studied 60,000 women diagnosed with breast cancer who were tested for germline cancer predisposing mutations using hereditary cancer gene panels. Information on personal and family cancer history, age of diagnosis, and ethnicity of patients was obtained from test requisition forms. Greater than 90% met National Comprehensive Cancer Network HBOC testing criteria. To estimate gene-specific risks for breast cancer, case-control analyses were performed comparing the frequencies of pathogenic mutations from Caucasian cancer cases with frequencies from Caucasian, non-Finnish, non-TCGA controls from the Exome Aggregation Consortium (ExAC) database. Mutations were detected in 9% of breast cancer patients. Twelve genes displayed a significant association (p<0.05) with breast cancer. Nine of these genes, including ATM, RAD51D, NF1, and MSH6, were associated with moderate risk (RR>2.0) of breast cancer and three genes (BRCA1, BRCA2, PALB2) were associated with high risk (RR>5.0) of breast cancer. Cumulative age-dependent risk models were developed for each gene. This large clinical testing dataset of 60,000 women with breast cancer provides useful data for many predisposition genes previously lacking risk estimates, and should prove useful for clinical risk management of patients with inherited mutations in these genes. Citation Format: Couch FJ, Hu C, Lilyquist J, Shimelis H, Akinhanmi M, Na J, Polley EC, Hart SN, McFarland R, LaDuca H, Huether R, Goldgar DE, Dolinsky JS. Breast cancer risks associated with mutations in cancer predisposition genes identified by clinical genetic testing of 60,000 breast cancer patients [abstract]. In: Proceedings of the 2016 San Antonio Breast Cancer Symposium; 2016 Dec 6-10; San Antonio, TX. Philadelphia (PA): AACR; Cancer Res 2017;77(4 Suppl):Abstract nr S2-01.
Abstract P5-09-03: Associations between breast cancer subtypes and mutations in cancer predisposition genes identified by clinical genetic testing of breast cancer patients
Couch, FJ, Lilyquist, Jenna , Na, J , Hu, C, Polley, EC, Shimelis, H, Akinhanmi, Margaret, McFarland, Rachel, LaDuca, Holly , Goldgar, DE, Dolinsky, JS

Mayo Clinic

Cancer Research | March 1, 2017 | Volume: 77 | Issue: 4_Supplement | Pages: P5-09-03-P5-09-03

10.1158/1538-7445.sabcs16-p5-09-03 Get It

Abstract Clinical genetic testing of individuals with a personal or family history of breast and ovarian cancer using panels for BRCA1/2 and other candidate cancer predisposition genes has become routine clinical practice. Several of the genes on hereditary cancer testing panels have been strongly associated with specific subtypes of breast cancer. In particular, individuals with germline mutations in BRCA1 predominantly develop estrogen receptor (ER)-negative and triple negative (TN) (estrogen receptor negative, progesterone receptor negative, HER2 negative) breast tumors. In contrast, CHEK2 and ATM mutations have been associated with ER-positive breast cancer. In this study, associations between mutations in panel genes and breast cancer subtypes were evaluated. A cohort of 60,000 breast cancer patients tested for germline cancer predisposing mutations using hereditary cancer gene panels was utilized. Information on personal and family cancer history, age of diagnosis, tumor pathology, and ethnicity of patients was obtained from test requisition forms or by follow up with ordering health care providers. Mutations in each gene were combined into four histological subtypes (triple negative; HER2 positive; ER-positive,HER2-positive; and ER-positive,HER2 negative). Associations for each subtype were estimated by case-control analyses comparing the frequencies of pathogenic mutations in each subtype with frequencies from non-TCGA controls from the Exome Aggregation Consortium (ExAC) database. In addition, case-case analyses were conducted to assess enrichment of gene mutations in specific breast cancer subtypes. Among the observed associations between genes and breast cancer subtypes, mutations in CHEK2 and ATM were highly enriched in luminal breast cancers and BARD1 was specifically associated with TN breast cancer. Refining the spectrum of pathological correlates with mutations in hereditary breast cancer genes will aid gene specific cancer risk management, and may accelerate the development of novel gene-specific therapeutic interventions. Citation Format: Couch FJ, Lilyquist J, Na J, Hu C, Polley EC, Shimelis H, Akinhanmi M, McFarland R, LaDuca H, Goldgar DE, Dolinsky JS. Associations between breast cancer subtypes and mutations in cancer predisposition genes identified by clinical genetic testing of breast cancer patients [abstract]. In: Proceedings of the 2016 San Antonio Breast Cancer Symposium; 2016 Dec 6-10; San Antonio, TX. Philadelphia (PA): AACR; Cancer Res 2017;77(4 Suppl):Abstract nr P5-09-03.
Buildup of image quality in view‐shared time‐resolved 3D CE‐MRA
Johnson, Casey P. , Polley, Thomas W., Glockner, James F., Young, Phillip M. , Riederer, Stephen J.

Mayo Clinic

Magnetic Resonance in Medicine | August 30, 2012 | Volume: 70 | Issue: 2 | Pages: 348-357

10.1002/mrm.24466 | PMID 22936574 Get It

Time‐resolved three‐dimensional contrast‐enhanced MR angiography often relies on view sharing of peripheral k‐space data to enable acquisition of angiograms with both high spatial resolution and a rapid frame rate. It is typically assumed that k‐space will be fully sampled during passage of the contrast bolus arterial phase. However, this is not the case when view sharing is incomplete, for example, at the leading edge of an enhancing vessel or if acquisition time is limited as in fluoroscopic tracking for multistation bolus chase MR angiography. Incomplete view sharing will degrade image quality, for example, by reducing vessel signal and sharpness and increasing undersampling artifacts. In this work, the evolution of angiogram quality with view sharing is quantitatively assessed in phantom experiments and in vivo contrast‐enhanced MR angiography calf studies. It is demonstrated that there are multiple sets of sequence parameters that can yield a target image update time, but the choice of parameters can profoundly affect how image quality evolves with view sharing. A fundamental tradeoff between vessel signal and sharpness and its relationship to the sequence temporal footprint is investigated and discussed. Magn Reson Med 70:348–357, 2013. © 2012 Wiley Periodicals, Inc.