Citations

Mayo Clinic

Clear

2413 citation(s) found for "Yu, Jason".

Abstract PD3-3: Impact of neoadjuvant chemotherapy on the clonal composition of breast cancer
Barrett, Michael T. , McLaughlin, Sarah A., Moreno‐Aspitia, Alvaro , Moyer, Ann M. , Northfelt, Donald W. , Gray, Richard J. , Barman, Poulami , Vedell, Peter T. , Dockter, Travis , Jones, Katie, Felten, Sara J., Conners, Amy Lynn , Eckel‐Passow, Jeanette E. , Sicotte, Hughes, Yu, Jia , Visscher, Daniel W., Wieben, Eric D. , Schultz, Cloann G. , Liu, Minetta C. , Wang, Liewei , Weinshilboum, R., Goetz, Matthew P. , Kalari, Krishna R. , Suman, Vera J. , Sinnwell, Jason P. , Mahoney, Douglas W. , Tang, Xiaojia , Thompson, Kevin J. , Hart, Steven N. , Ingle, James N. , Boughey, Judy C.

Cancer Research | May 4, 2015 | Volume: 75 | Issue: 9_Supplement | Pages: PD3-3-PD3-3

10.1158/1538-7445.sabcs14-pd3-3 Get It

Abstract Background Cancer genomic investigations have identified recurrent genomic aberrations critical for cancer initiation, progression, and metastases. However, these investigations are typically performed in isolation, and the effects of treatment on the clonal selection of tumor cells are mostly unknown. We hypothesized that molecular profiling of residual tumors after neoadjuvant chemotherapy (NAC) would identify new drug targets/pathways in patients at high risk for disease recurrence. To better identify clonal populations of resistant breast cancer cells, we utilized DNA content-based flow sorting of nuclei to identify and isolate clonal populations for aCGH and next generation sequencing (NGS) both before and after NAC. Methods The Breast Cancer Genome Guided Therapy Study (BEAUTY) (NCT 02022202) is a prospective study of patients with high-risk breast cancer treated with neoadjuvant 12 weekly paclitaxel (T) +/- trastuzumab followed by 4 cycles of anthracycline based chemotherapy. Tumor tissue from baseline, residual disease from surgery, distant metastases, and patient derived xenografts (PDX) are obtained for cell sorting by DNA ploidy, aCGH, RNA and exome sequencing. Results: 140 patients have been enrolled, 104 have completed surgery and 30 unique PDX have been established corresponding to 26 patients prior to chemotherapy and 4 from residual disease at surgery. Baseline exome and RNA sequencing is complete in 140. Currently, genomic analyses of flow sorted matched baseline, surgical, PDX, and distant disease samples are available in 6 patients. Substantial genomic variation was observed in the surgical sample compared to the primary tumor including gain of oncogenic drivers (EGFR) and loss of negative regulators (ATG5) (Table). The PDX recapitulated these events with excellent fidelity compared to the corresponding human tumor. In patients with TNBC, RNA seq obained from matched samples demonstrated changes in immune related pathways. Evaluation of drug targets/pathways identified in the resistant tumors are ongoing using the PDX and sequencing of the remaining matched baseline/surgical disease will be reported. Clonal changes occurring over time in patients with residual disease or disease recurrence after NACTumor SubtypeResidual Cancer BurdenDisease StatusClonal Aberration Changes (baseline and post NAC)TNBC (AR subtype)3Contralateral lymph node recurrence at 150 days2p25.2 - p25.1 amplicon lost at recurrence; 6p21.32 -p21.31 amplicon lost at recurrenceTNBC (BL 1)3Bone/liver/lymph node recurrence at 135 days5q11.2 amplicon gained at surgery; 12p13.33 - p13.2 amplicon gained at surgeryTNBC (BL 1)3Disease-free at day 1506q21 amplicon lost at sugeryTNBC (BL 2)0Brain recurrence at 390 daysChr 2 chromothripsis at surgeryLuminal B3Progression during chemotherapy7p12.1 - p11.2 amplicon gained at surgeryLuminal HER23Disease-free at day 3609q33.2 amplicon lost at surgery; 15q13.1 - q13.3 amplicon lost at surgery; 15q22.2 - q24.1 amplicon lost at surgery Conclusions: We observed substantial evolutionary changes in residual breast tumors remaining after NAC. Our findings suggest that a comprehensive assessment of the mutational landscape that has evolved during NAC can inform drug development in high risk breast cancer patients. Citation Format: Matthew P Goetz, Michael T Barrett, Krishna R Kalari, Vera J Suman, Sarah A McLaughlin, Alvaro Moreno-Aspitia, Ann M Moyer, Donald W Northfelt, Richard J Gray, Jason Sinnwell, Douglas Mahoney, Poulami Barman, Peter Vedell, Xiaojia Tang, Kevin Thompson, Travis Dockter, Katie Jones, Sara J Felten, Amy Conners, Jeanette Eckel-Passow, Hughes Sicotte, Steven N Hart, Jia Yu, Daniel W Visscher, Eric D Wieben, Cloann Schultz, Minetta C Liu, James N Ingle, Liewei Wang, Richard W Weinshilboum, Judy C Boughey. Impact of neoadjuvant chemotherapy on the clonal composition of breast cancer [abstract]. In: Proceedings of the Thirty-Seventh Annual CTRC-AACR San Antonio Breast Cancer Symposium: 2014 Dec 9-13; San Antonio, TX. Philadelphia (PA): AACR; Cancer Res 2015;75(9 Suppl):Abstract nr PD3-3.
Abstract 1195: Feasibility of using percutaneous tumor biopsies from a prospective neoadjuvant breast cancer study to develop patient derived xenografts and assess in vivo chemotherapy sensitivity
Yu, Jia , Gao, Bowen , Moyer, Ann M. , Visscher, Daniel W., Conners, Amy Lynn , Dockter, Travis , Sicotte, Hugues , Vedell, Peter T. , Barman, Poulami , Jones, Katie N., McLaughlin, Sarah A. , Copland, John A. , Aspitia, Alvaro Moreno, Northfelt, Donald W. , Gray, Richard J. , Passow, Jeanette E. Eckel, Wieben, Eric D. , Farrugia, Gianrico , Weinshilboum, Richard, Wang, Liewei , Yin, Ping , Gao, Bowen, Sinnwell, Jason P. , Kalari, Krishna R. , Tang, Xiaojia , Thompson, Kevin J. , Mahoney, Douglas W. , Hart, Steven N. , Suman, Vera J. , Ingle, James N. , Lou, Zhenkun , Goetz, Matthew P. , Boughey, Judy C.

Cancer Research | May 1, 2015 | Volume: 74 | Issue: 19_Supplement | Pages: 1195-1195

10.1158/1538-7445.am2014-1195 Get It

Abstract INTRODUCTION Patient derived xenografts (PDX) may better reflect individual patient (pt) tumor biology; however, the feasibility of collecting PDX from percutaneous tumor biopsies (PTB) in the neoadjuvant setting is unknown. Furthermore, drug response phenotypes observed in PDX have not been prospectively compared to the corresponding pt clinical outcomes. METHODS The Breast Cancer Genome Guided Therapy Study (BEAUTY) is a prospective Mayo study of pts with high-risk breast cancer treated with neoadjuvant weekly paclitaxel (T) +/- trastuzumab followed by anthracycline based chemotherapy. PTB (at baseline) and residual surgical tissue (after all chemotherapy) are obtained for next generation sequencing (NGS) and PDX. Tumor biopsies (1-2 cores from 14 gauge needle) were implanted with Matrigel <1 hour of collection in the flanks of NOD-SCID or NSG mice. Low dose estradiol was supplemented in the drinking water. Primary outgrowth rate was defined as PDX tumor volume >50 mm3. Take rate was defined as development of at least 1 stably transplantable xenograft line/pt. To determine whether clinical T response assessed by MRI corresponded with in vivo T response, pretreatment PDX from 5 pts were injected into NOD-SCID mice (20 mice per pt PDX) and when tumors reached 100-200mm3, mice were randomized to no treatment vs T (20 mg/kg, ip. every 3-4 days). Two of these 5 patients had a MRI response defined as >30% decrease in longest lesion. RESULTS Pretreatment PTB from 81 unique pts were implanted in 251 mice (2-4 mice/pt). PDX outgrowth rates were 33.3% (27/81 pts) and 22 stable PDX were established (overall take rate 27.2%). Take rates were as follows: triple negative breast cancer (46%; 13/28); HER2 (27%; 6/22), Luminal B (13%; 3/22), and luminal A (0%; 0/9). Residual surgical tumor (after all treatment) from 17 pts was injected into 85 mice (average 5 mice/pt) and the initial outgrowth rate was 23% (4/17) with 3 stably transplantable lines established. PDX, derived from pretreatment PTB of 5 pts (2 responders and 3 non-responders), were assessed for in vivo T response. The size of the T treated group was significantly smaller than the no treatment group for the PDX derived from the 2 clinical responders, with complete disappearance of tumor by 18 days. In contrast, the PDX derived from the 3 clinical non-responders had no evidence for T response. CONCLUSIONS We have demonstrated the feasibility of using PTB to establish PDX in a prospective neoadjuvant clinical study and have demonstrated similar T drug response phenotypes in in the PDX as seen in the corresponding pt. These data suggest that PDX generated prospectively may be useful for biomarker validation and the development and individualization of new drug therapy. Funded by the Mayo Clinic Center for Individualized Medicine and the Mayo Clinic Cancer Center Citation Format: Jia Yu, Ping Yin, Bowen Gao, Jason P. Sinnwell, Ann M. Moyer, Daniel W. Visscher, Amy L. Conners, Travis J. Dockter, Krishna R. Kalari, Xiaojia Tang, Kevin J. Thompson, Hugues Sicotte, Douglas W. Mahoney, Steven N. Hart, Peter T. Vedell, Poulami Barman, Katie N. Jones, Sarah A. McLaughlin, John A. Copland, Alvaro Moreno Aspitia, Donald W. Northfelt, Richard J. Gray, Vera J. Suman, Jeanette E. Eckel Passow, Eric D. Wieben, James N. Ingle, Zhenkun Lou, Gianrico Farrugia, Richard Weinshilboum, Matthew P. Goetz, Judy C. Boughey, Liewei Wang. Feasibility of using percutaneous tumor biopsies from a prospective neoadjuvant breast cancer study to develop patient derived xenografts and assess in vivo chemotherapy sensitivity. [abstract]. In: Proceedings of the 105th Annual Meeting of the American Association for Cancer Research; 2014 Apr 5-9; San Diego, CA. Philadelphia (PA): AACR; Cancer Res 2014;74(19 Suppl):Abstract nr 1195. doi:10.1158/1538-7445.AM2014-1195
The SWI/SNF ATPases Are Required for Triple Negative Breast Cancer Cell Proliferation
Wu, Qiong , Madany, Pasil, Akech, Jacqueline, Dobson, Jason R. , Douthwright, Stephen, Browne, Gillian , Colby, Jennifer L., Bradner, James E. , Pratap, Jitesh , Sluder, Greenfield, Chiosea, Simion I. , Wijnen, André J. van , Stein, Janet L. , Stein, Gary S., Lian, Jane B. , Nickerson, Jeffrey A. , Imbalzano, Anthony N. , van Wijnen, Andre J, Winter, Georg E. , Bhargava, Rohit , van Wijnen, Andre J

Journal of Cellular Physiology | March 24, 2015 | Volume: 230 | Issue: 11 | Pages: 2683-2694

10.1002/jcp.24991 | PMID 25808524 Get It

The Brahma (BRM) and Brahma‐related Gene 1 (BRG1) ATPases are highly conserved homologs that catalyze the chromatin remodeling functions of the multi‐subunit human SWI/SNF chromatin remodeling enzymes in a mutually exclusive manner. SWI/SNF enzyme subunits are mutated or missing in many cancer types, but are overexpressed without apparent mutation in other cancers. Here, we report that both BRG1 and BRM are overexpressed in most primary breast cancers independent of the tumor's receptor status. Knockdown of either ATPase in a triple negative breast cancer cell line reduced tumor formation in vivo and cell proliferation in vitro. Fewer cells in S phase and an extended cell cycle progression time were observed without any indication of apoptosis, senescence, or alterations in migration or attachment properties. Combined knockdown of BRM and BRG1 showed additive effects in the reduction of cell proliferation and time required for completion of cell cycle, suggesting that these enzymes promote cell cycle progression through independent mechanisms. Knockout of BRG1 or BRM using CRISPR/Cas9 technology resulted in the loss of viability, consistent with a requirement for both enzymes in triple negative breast cancer cells. J. Cell. Physiol. 9999: 2683–2694, 2015. © 2015 Wiley Periodicals, Inc.
Clozapine therapy throughout myelosuppressive chemotherapy: regulations without standardization
Barreto, Jason N. , Leung, Jonathan G. , Philbrick, Kemuel L. , Rasmussen, Keith G., Thompson, Carrie A. , Leung, Jonathan G

Psycho-Oncology | March 13, 2015 | Volume: 24 | Issue: 11 | Pages: 1581-1585

10.1002/pon.3779 | PMID 25765766 Get It

Proteomic Detection of Immunoglobulin Light Chain Variable Region Peptides from Amyloidosis Patient Biopsies
Dasari, Surendra , Theis, Jason D. , Vrana, Julie A. , Meureta, Oana M., Quint, Patrick, Muppa, Prasuna, Zenka, Roman M. , Tschumper, Renee C. , Jelinek, Diane F., Davila, Jaime , Sarangi, Vivekananda , Kurtin, Paul J. , Quint, Patrick S, Davila, Jaime I, Doǧan, Ahmet , Vrana, Julie A. , Davila, Jaime I

Journal of Proteome Research | March 3, 2015 | Volume: 14 | Issue: 4 | Pages: 1957-1967

10.1021/acs.jproteome.5b00015 | PMID 25734799 Get It

Implementing a Radiology–Information Technology Project: Mobile Image Viewing Use Case and a General Guideline for Radiologist–Information Technology Team Collaboration
Walz‐Flannigan, Alisa , Hein, Shelly, Persons, Kenneth R. , Langer, Steve G., Tjelta, Jason A., Kotsenas, Amy L. , Erickson, Bradley J. , Luetmer, Patrick H.

American Journal of Roentgenology | February 25, 2015 | Volume: 204 | Issue: 4 | Pages: 721-726

10.2214/ajr.14.13880 | PMID 25714113 Get It

Trends in the Proportion of Patients With Lung Cancer Meeting Screening Criteria
Wang, Yi , Midthun, David E. , Wampfler, Jason A. , Deng, Bo , Stoddard, Shawn M., Zhang, Shuo , Zhang, Shuo , Yang, Ping

JAMA | February 24, 2015 | Volume: 313 | Issue: 8 | Pages: 853

10.1001/jama.2015.413 | PMID 25710663 Get It

A comparison of immunohistochemistry and mass spectrometry for determining the amyloid fibril protein from formalin-fixed biopsy tissue
Gilbertson, Janet A. , Theis, Jason D. , Vrana, Julie A. , Lachmann, Helen J. , Wechalekar, Ashutosh , Whelan, Carol , Hawkins, Philip N. , Doǧan, Ahmet , Vrana, Julie A. , Wechalekar, Ashutosh D. , Gillmore, Julian D. , Gillmore, Julian D , Lachmann, Helen

Journal of Clinical Pathology | January 31, 2015 | Volume: 68 | Issue: 4 | Pages: 314-317

10.1136/jclinpath-2014-202722 | PMID 25637636 Get It

Amyloidosis is caused by deposition in tissues of abnormal protein in a characteristic fibrillar form. There are many types of amyloidosis, classified according to the soluble protein precursor from which the amyloid fibrils are derived. Accurate identification of amyloid type is critical in every case since therapy for systemic amyloidosis is type specific. In ∼20–25% cases, however, immunohistochemistry (IHC) fails to prove the amyloid type and further tests are required. Laser microdissection and mass spectrometry (LDMS) is a powerful tool for identifying proteins from formalin-fixed paraffin-embedded tissues. We undertook a blinded comparison of IHC, performed at the UK National Amyloidosis Centre, and LDMS, performed at the Mayo Clinic, in 142 consecutive biopsy specimens from 38 different tissue types. There was 100% concordance between positive IHC and LDMS, and the latter increased diagnostic accuracy from 76% to 94%. LDMS in expert hands is a valuable tool for amyloid diagnosis.
Brain amyloidosis ascertainment from cognitive, imaging, and peripheral blood protein measures
Apostolova, Liana G. , Hwang, Kristy , Ávila, David, Elashoff, David , Kohannim, Omid , Teng, Edmond , Sokolow, Sophie , Jack, Clifford R. , Jagust, William, Shaw, Leslie M. , Trojanowski, John Q. , Weiner, Michael W. , Thompson, Paul M. , Initiative, For the Alzheimer's Disease Neuroimaging, Aisen, Paul, Petersen, Ronald , Jagust, Wiliam, Trojanowki, John Q., Gamst, Anthony, Sakin, Andrew J., Potter, William Z., Montine, Tom, Walter, Sarah , Felmlee, Joel P. , Schuff, Norbert, Alexander, Gene E. , DeCarli, Charles, Bandy, Dan, Foster, Norm, Reiman, Eric M. , Mathis, Chet, Cairns, Nigel J., Taylor‐Reinwald, Lisa, Shaw, Lee, Korecka, Magdalena , Crawford, Karen , Neu, Scott, Kornak, John , Kachaturian, Zaven, Frank, Richard , Molchan, Susan, Dolen, Sara, Schneider, Lon S. , Pawluczyk, Sonia, Spann, Bryan M., Brewer, James B., Vanderswag, Helen, Heidebrink, Judith L. , Johnson, Kris , Doody, Rachelle S., Villanueva‐Meyer, Javier , Chowdhury, Munir , Bell, Karen L. , Mintun, Mark A., Schneider, Stacy, Marson, Daniel , Griffith, Randall, Grossman, Hillel, Marzloff, George, deToledo‐Morrell, Leyla, Duara, Ranjan , Varón, Daniel , Robers, Peggy, Albert, Marilyn S. , Kozauer, Nicholas, Zerrate, Maria, Santi, Susan M De, Doraiswamy, P. Murali , Petrella, Jeffrey R. , Aiello, Marilyn, Karlawish, Jason , Smith, Charles D., Given, Curtis A., Hardy, Peter , Oakley, MaryAnn, Simpson, Donna M., Ismail, M. Saleem , Brand, Connie, Richard, Jennifer, Mulnard, Ruth A., Thai, Gaby , Mc-Adams-Ortiz, Catherine, Martin-Cook, Kristen, Devous, Michael D. , Cellar, Janet S., Anderson, Heather S., Laubinger, Mary M., Graff‐Radford, Neill R. , Parfitt, Francine, Farlow, Martin R. , Herring, Scott, Hake, Ann Marie , Dyck, Christopher H. van , MacAvoy, Martha G., Benincasa, Amanda L., Chertkow, Howard, Bergman, Howard , Hosein, Chris, Caldwell, Curtis, Hsiung, Ging‐Yuek Robin , Assaly, Michele, Kertesz, Andrew , Rogers, John, Trost, Dick, Bernick, Charles , Munic, Donna, Wu, Chuang‐Kuo, Johnson, Nancy , Mesulam, Marsel, Sadowsky, Carl, Villena, Teresa, Johnson, Kathleen, Reynolds, Brigid, Rosen, Allyson , Tinklenberg, Jared, Ashford, Wes, Sabbagh, Marwan N. , Connor, Donald J., Jacobson, Sandra A. , Jayam‐Trouth, Annapurni , Lerner, Alan J. , Hudson, Leon, Ogrocki, Paula, Kittur, Smita, Borrie, Michael, Lee, T‐Y, Asthana, Sanjay , Carlsson, Cynthia M., Preda, Adrian , Tariot, Pierre N. , Fleisher, Adam , Reeder, Stephanie, Bates, Vernice, Capote, Horacio, Rainka, Michelle, Hendin, Barry , Kataki, Maria , Zimmerman, Earl A. , Celmins, Dzintra, Brown, Alice D., Blank, Karen, Anderson, Karen, Santulli, Robert B. , Englert, Jessica, Williamson, Jeff D. , Sing, Kaycee M., Watkins, Franklin, Ott, Brian R. , Stopa, Edward G., Tremont, Geoffrey , Salloway, Stephen , Malloy, Paul, Correia, Stephen , Rosen, Howard J. , Mintzer, Jacobo , Longmire, Crystal Flynn, Spicer, Kenneth, Hwang, Kristy S, Shaw, Leslie, Initiative, For the Alzheimer's Disease Neuroimaging, Toga, Arthur W. , Beckett, Laurel , Green, Robert C. , Morris, John C. , Donohue, Michael , Dale, Anders M. , Bernstein, Matt A. , Fox, Nick C. , Koeppe, Robert A. , Chen, Kewei , Mathis, Chet, Lee, Virginia M.‐Y. , Harvey, Danielle , Foroud, Tatiana , Potkin, Steven G. , Shen, Li , Snyder, Peter J. , Kaye, Jeffrey , Quinn, Joseph F. , Lord, Joanne L. , Stern, Yaakov , Honig, Lawrence S. , Clark, David , Tang, Cheuk Ying , Shah, Raj C. , Duara, Ranjan , Rusinek, Henry , Leon, Mony J. de , Arnold, S. R. , Wolk, David A. , López, Oscar L. , Diaz‐Arrastia, Ramon , Levey, Allan I. , Lah, James J. , Burns, Jeffrey M. , Silverman, Daniel H.S. , Johnson, Heather K. , Black, Sandra E. , Stefanovic, Bojana , Feldman, Howard , Martínez, Walter Fabián , Turner, Raymond Scott , Sperling, Reisa Anne , Rentz, Dorene M. , Johnson, Keith A. , Killiany, Ronald , Norbash, Alexander , Nair, Anil K. , Obisesan, Thomas O. , Wang, Paul C. , Fletcher, Evan M. , Carmichael, Owen , Bartha, Robert , Johnson, Sterling C. , Carlsson, Cynthia M. , Nguyen, Dana R. , Reeder, Stephanie, Scharre, Douglas W. , Pearlson, Godfrey D. , Sing, Kaycee M., Miller, Bruce L. , Jack, Clifford R , Preda, Adrian , Thompson, Paul M , Hsiung, Gink-Yuek

Neurology | January 22, 2015 | Volume: 84 | Issue: 7 | Pages: 729-737

10.1212/wnl.0000000000001231 | PMID 25609767 Get It

Weight Loss, Saline Loading, and the Natriuretic Peptide System
Arora, Pankaj , Reingold, Jason, Baggish, Aaron L. , Guanaga, Derek, Wu, Connie , Ghorbani, Anahita , Song, Yanna, Chen‐Tournaux, Annabel, Khan, Abigail , Tainsh, Laurel T. , Buys, Emmanuel S. , Heublein, Denise M., Burnett, John C. , Semigran, Marc J., Bloch, Kenneth D., Scherrer‐Crosbie, Marielle , Newton‐Cheh, Christopher , Kaplan, Lee M. , Wang, Thomas J. , Williams, Jonathan S. , Arora, Pankaj , Baggish, Aaron L

Journal of the American Heart Association | January 17, 2015 | Volume: 4 | Issue: 1 | Pages: No page available

10.1161/jaha.114.001265 | PMID 25595796 Get It

Background In epidemiologic studies, obesity has been associated with reduced natriuretic peptide ( NP ) concentrations. Reduced NP production could impair the ability of obese individuals to respond to salt loads, increasing the risk of hypertension and other disorders. We hypothesized that weight loss enhances NP production before and after salt loading. Methods and Results We enrolled 15 obese individuals (mean BMI 45±5.4 kg/m 2 ) undergoing gastric bypass surgery. Before and 6 months after surgery, subjects were admitted to the clinical research center and administered a large‐volume intravenous saline challenge. Echocardiography and serial blood sampling were performed. From the pre‐operative visit to 6 months after surgery, subjects had a mean BMI decrease of 27%. At the 6‐month visit, N‐terminal pro‐atrial NP (Nt‐pro ANP ) levels were 40% higher before, during, and after the saline infusion, compared with levels measured at the same time points during the pre‐operative visit ( P <0.001). The rise in Nt‐pro‐ ANP induced by the saline infusion (≈50%) was similar both before and after surgery (saline, P <0.001; interaction, P =0.2). Similar results were obtained for BNP and Nt‐pro BNP ; resting concentrations increased by 50% and 31%, respectively, after gastric bypass surgery. The increase in NP concentrations after surgery was accompanied by significant decreases in mean arterial pressure ( P =0.004) and heart rate ( P <0.001), and an increase in mitral annular diastolic velocity ( P =0.02). Conclusion In obese individuals, weight loss is associated with a substantial increase in the “setpoint” of circulating NP concentrations. Higher NP concentrations could contribute to an enhanced ability to handle salt loads after weight loss.