The Specific Aim of the Molecular Diagnostics Core is to support Projects by performing assays integral to the completion of their Specific Aims. Specifically, for Project 2 we will perform FLT3-ITD allelic ratio to define eligibility for Protocol #2487, as well as testing for FLT3-ITD allelic ratio. FLT3 and cKIT mutation studies in paired diagnostic and relapse samples, per protocol requirements. For the CAL101 trial, we will use IgH VDJ rearrangements to monitor disease burden as a measure of response. For Project 3. we will perform WTl expression studies for protocol #2498. on samples taken before, during, and at relapse, using flow cytometry to isolate AML blasts (via Core A). In addition, select samples will have single cell analyses performed to note the heterogeneity of WTl expression. Lastly, for protocol #2495 in Project 4, we will perform IgH VDJ and RORI expression to monitor disease burden and response, and perform gene expression analyses on pre- and relapsed samples to investigate pathways associated with resistance. These assays are integral to the aims of these protocols, and the assays are not available in commercial laboratories. The Radich Lab is a CAP/CLIA certified laboratory involved in studying the molecular genetics of leukemia and devising clinically useful tests more molecular diagnostics and monitoring. The lab has serviced as the North American molecular core for -10 CML industry trials, as well as the core of SWOG trials in ALL, CML, and AML, and as the central molecular core for the last and current COG AML trial, as well as establishing collaborations with biotechnology to develop new platforms for molecular diagnostics Cepheid, Fluidigm, and Nanostring.
Molecular diagnostics are an important tool in understanding the biology of response, as well as providing an important and powerful tool in disease monitoring. The activities of Core B will help investigators more accurately measure the effectiveness of their therapeutic interventions, as well as help understand which patients become resistant to therapy, and why.
|Oda, Shannon K; Daman, Andrew W; Garcia, Nicolas M et al. (2017) A CD200R-CD28 fusion protein appropriates an inhibitory signal to enhance T-cell function and therapy of murine leukemia. Blood 130:2410-2419|
|Lee, Stephanie J; Nguyen, Tam D; Onstad, Lynn et al. (2017) Success of Immunosuppressive Treatments in Patients with Chronic Graft-versus-Host Disease. Biol Blood Marrow Transplant :|
|Schmitt, Thomas M; Aggen, David H; Ishida-Tsubota, Kumiko et al. (2017) Generation of higher affinity T cell receptors by antigen-driven differentiation of progenitor T cells in vitro. Nat Biotechnol 35:1188-1195|
|Chapuis, Aude G; Desmarais, Cindy; Emerson, Ryan et al. (2017) Tracking the Fate and Origin of Clinically Relevant Adoptively Transferred CD8+ T Cells In Vivo. Sci Immunol 2:|
|Hill, Joshua A; Mayer, Bryan T; Xie, Hu et al. (2017) The cumulative burden of double-stranded DNA virus detection after allogeneic HCT is associated with increased mortality. Blood 129:2316-2325|
|Inamoto, Yoshihiro; Lee, Stephanie J (2017) Late effects of blood and marrow transplantation. Haematologica 102:614-625|
|Stromnes, Ingunn M; Hulbert, Ayaka; Pierce, Robert H et al. (2017) T-cell Localization, Activation, and Clonal Expansion in Human Pancreatic Ductal Adenocarcinoma. Cancer Immunol Res 5:978-991|
|Shadman, Mazyar; Hingorani, Sangeeta; Lanum, Scott A et al. (2017) Allogeneic hematopoietic cell transplant for patients with end stage renal disease requiring dialysis - a single institution experience. Leuk Lymphoma 58:740-742|
|Sala Torra, Olga; Othus, Megan; Williamson, David W et al. (2017) Next-Generation Sequencing in Adult B Cell Acute Lymphoblastic Leukemia Patients. Biol Blood Marrow Transplant 23:691-696|
|Fisher, Cynthia E; Hohl, Tobias M; Fan, Wenhong et al. (2017) Validation of single nucleotide polymorphisms in invasive aspergillosis following hematopoietic cell transplantation. Blood 129:2693-2701|
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