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1289 citation(s) found for "Vu, Nicole".

Automated and Manual Hippocampal Segmentation Techniques: A Comparison of Results and Reproducibility (P06.053)
Babakchanian, Sona, Chow, Nicole, Green, Amity E., Hwang, Kristy , Apostolova, Liana G. , Somme, Johanne Hatteland , Jack, Clifford R. , Thompson, Paul M.

Neurology | December 7, 2023 | Volume: 80 | Issue: 7_supplement | Pages: No page available

10.1212/wnl.80.7_supplement.p06.053 Get It

Comparing 3T and 1.5T MRI for Mapping Hippocampal Atrophy in the Alzheimer's Disease Neuroimaging Initiative (ADNI) (P06.029)
Chow, Nicole, Hwang, Kristy , Babakchanian, Sona, Thompson, Paul, Weiner, Michael, Apostolova, Liana G. , Thompson, Paul, Jack, Clifford R. , Weiner, Michael

Neurology | December 7, 2023 | Volume: 80 | Issue: 7_supplement | Pages: No page available

10.1212/wnl.80.7_supplement.p06.029 Get It

Measuring Ambulatory Neurologic Health Disparities with the Axon Registry (P18-13.008)
Benish, Sarah E. , Esper, Gregory J. , Marulanda-Londoño, Erika, Hope, Omotola , Pham, Tammy , Roe, Matthew T. , Torres, Aracelis Z. , Lien, Amanda , Kauwe, Steven, Mante, Aristotle, Lundgren, Karen B. , Schierman, Becky, Benson, Richard , Benish, Sarah, Kissela, Brett , Rosendale, Nicole , Lien, Amanda, Jones, Lyell K.

Neurology | December 6, 2023 | Volume: 98 | Issue: 18_supplement | Pages: No page available

10.1212/wnl.98.18_supplement.2919 Get It

Clinician and Administrator Perspectives on Chimeric Antigen Receptor (CAR) T-Cell Therapy Outpatient Administration in Relapsed or Refractory Multiple Myeloma (RRMM) in the United States (US): A Qualitative Study
Dhakal, Binod , Liu, Yi-Hsuan, Lodowski, Nicole , Kirschenbaum, Jennifer Sander, Okorozo, Peter, McFarland, Lindsay, Perciavalle, Matthew , Huo, Stephen, Patel, Krina K. , Hansen, Doris K. , Dhakal, Binod , Hamadani, Mehdi , Dingli, David , Jain, Tania , Braganca, Kevin C. De

Blood | December 1, 2023 | Volume: 142 | Issue: Supplement 1 | Pages: 7274-7274

10.1182/blood-2023-178668 Get It

Background: The use of CAR-T cell therapy has transformed treatment paradigms in B-cell malignancies. Ciltacabtagene autoleucel (cilta-cel) was approved for use in RRMM after four or more prior lines of therapy in 2022. While the pivotal studies exclusively treated patients in an inpatient setting, robust infrastructure planning at some centers across US has fostered outpatient administration of the commercially available product. Outpatient administration of CAR-T is more desirable due to superior financial sustainability, lower healthcare resource utilization, and greater patient autonomy during the treatment. Hence, we conducted a qualitative study to evaluate clinical and administrative perspectives and trends in outpatient administration of commercialized cilta-cel with an aim to understand best practices from certified CAR-T centers in the USA. Methods: A targeted literature review was conducted to better understand current practices around outpatient administration of CAR-T, and inform the development of primary research materials for designing subsequent interviews. Next, two 60-minute exploratory interviews were conducted with multi-stakeholder participants (n=5) from two certified cilta-cel centers, each with significant volume of outpatient administration of cilta-cel. Following the qualitative analysis of interviews, two 90-minute panels were conducted with multi-stakeholder participants (n=14) from six certified cilta-cel centers, including centers from exploratory interviews, focusing on clinical and administrative topics across the patient journey. Results: Each center in the study treated approximately 15-30 patients with cilta-cel in the outpatient setting. Using Likert scales, participants from all centers ranked space/capacity as the most important factor in decision-making process for outpatient cilta-cel administration, and ranked reimbursement incentives as a highly (67% of participants) or a moderately (33%) important factor. All participants agreed that having a dedicated outpatient infrastructure (dedicated space such as bed availability and internal processes including standard operating procedures (SOPs)), 24/7 support, outpatient bone marrow transplant (BMT) or cell therapy experience, and robust multidisciplinary teams were key to setting-up successful outpatient centers for cilta-cel therapy. The participants agreed that cilta-cel can be administered safely in an outpatient setting due to generally predictable, delayed onset of potential AEs, except in patients with significant comorbidities or organ dysfunction. Participants also considered caregiver support and lodging availability as factors of importance for outpatient administration. Institutionally established AE monitoring protocols are critical for safe use of cilta-cel in an outpatient setting. Over 50% of the centers interviewed have recently started to administer tocilizumab to treat mild grade 1 cytokine release syndrome (CRS) in an outpatient setting. Based on the findings across the phases of research, the patient journey for outpatient administration of cilta-cel was updated (Figure 1). While patients may be admitted for toxicity events, 100% of centers interviewed had 24-hour coverage and bed availability for these patients if needed. Conclusions: Overall, this study further supports the notion that centers can safely administer cilta-cel in an outpatient setting, if appropriate infrastructure is in place. Additional best practices for new outpatient sites include adequate infrastructure, SOPs, a well-trained and multidisciplinary team, and education of patients and caregivers (Table 1). Outpatient management and earlier intervention for low-grade AEs is currently evolving, with more real-world research required. Continued expert sharing of best practices can aid centers in implementing outpatient administration of CAR-T therapies. Funding: This analysis was supported by Janssen Research & Development, LLC and Legend Biotech USA, Inc
MYC-Alarmin Axis As a Novel Oncogenic Driver in a Subgroup of Triple Negative Myeloproliferative Neoplasms
Yu, Xiaoqing , Moon, Jungwon , Su, Siyuan , Cheng, Chia‐Ho, Sammut, Rinzine , Ali, Najla H. Al, Patel, Parth , Nakanishi, Shima , Lee, Daesung , Su, Siyuan , Patel, Parth C , Vincelette, Nicole D. , Kuykendall, Andrew , Nguyen, Hai V. , Eksioglu, Erika A. , Chan, Onyee , Lee, Dae Hyun , Ferreira, Renan B , Mo, Qianxing , Cory, Suzanne , Lawrence, Harshani R , Zhang, Ling , Murphy, Daniel J. , Komrokji, Rami S. , Kaufmann, Scott H. , Cleveland, John L. , Yun, Seongseok

Blood | December 1, 2023 | Volume: 142 | Issue: Supplement 1 | Pages: 994-994

10.1182/blood-2023-174383 Get It

Primary Myelofibrosis (PMF) is an aggressive myeloproliferative neoplasm (MPN) characterized by constitutional symptoms, cytopenias, splenomegaly, extramedullary hematopoiesis, bone marrow (BM) fibrosis, and a propensity to transform to acute myeloid leukemia (AML). Despite advances in understanding the underlying genetic abnormalities in MPN and the development of JAK2 inhibitors to treat MF, there is an urgent need to devise new treatment strategies, particularly for triple negative myelofibrosis (TN-MF) cases that lack mutations in the JAK2 kinase pathway and who have inferior outcomes. To identify potential oncogenic drivers in TN-MF, we performed cytogenetic analyses and targeted exome sequencing of 98 genes commonly mutated in myeloid malignancies in 584 MF patients identified from the Total Cancer Care database at Moffitt Cancer Center. Notably, there were no significant differences in the somatic mutation profiles (other than JAK2 activating mutations) between TN vs. JAK2/CALR/MPL mutant MF patients. However, trisomy of chromosome 8 occurs more frequently in TN-MF vs. other subtypes (26.7% vs. 6.2%, p=0.0001). To identify oncogenic drivers in trisomy 8+ TN-MF, we performed scRNA-seq analysis from 18,651 cells ( n=15,850 from 3 normal donors and n=2,801 from a trisomy 8+ TN-MF patient) and identified a total of 1,260 genes that are differentially regulated in hematopoietic stem cells (HSCs) of trisomy 8+ TN-MF compared to normal donors. Among these, 131 genes were located on chromosome 8 and MYC was one of the top 5 genes that are significantly upregulated in trisomy 8+ HSCs. Additional immunohistochemistry staining demonstrated that MYC protein levels in BM cells were significantly higher in trisomy 8+ TN-MF patients vs. trisomy 8- patients. To assess whether MYC might be a driver of MPN, we established an Mx1-Cre +/-;Rosa26 LSL-MYC/LSL-MYC transgenic mouse model that inducibly overexpresses MYC in HSCs following treatment of polyinosinic-polycytidylic acid (pIpC). Forced MYC expression induced profound anemia, monocytosis, megakaryocytic atypia, splenomegaly, increased BM collagen deposition/fibrosis, extramedullary hematopoiesis in spleen and liver, and significantly reduced OS vs. Mx1-Cre +/- wild type controls (median OS 258 days vs. not reached (NR), p<0.0001). MYC also promoted expansion of HSCs, myeloid progenitors, and Gr-1 +/CD11b + mature myeloid cells in BM and spleen; thus, MYC was sufficient to provoke MF-like disease independent of JAK2 pathway mutations. Subsequent scRNA-seq analysis of 25,232 cells ( n=13,552 from control and n=11,680 from a MYC transgenic mouse) revealed that S100a9 mRNA levels were increased by MYC in most major hematopoietic cell types. Supporting oncogenic roles of S100A9 in MYC-driven MF, deletion of S100a9 in Mx1-Cre +/-;Rosa26 LSL-MYC/LSL-MYC;S100a9 -/- mice abolished MYC-induced MF phenotypes and significantly improved OS (median OS NR vs. 225 days, p=0.0345). To test whether inhibition of MYC can suppress MF disease progression in vivo, lethally irradiated CD45.1 +/CD45.2 + WT mice were transplanted with BM cells harvested from CD45.2 + Mx1-Cre +/-;Rosa26 LSL-MYC/LSL-MYC mice that were treated with pIpC 20 weeks prior to transplant. MYCi975, a small molecule that inhibits MYC, reduced MYC and S100a9 protein levels in BM and spleen cells. Further, MYCi975 effectively suppressed MYC-driven MF phenotypes and disease progression, and significantly improved OS (median OS NR vs. 252 days, p=0.0109). In summary, our studies are the first to describe an oncogenic role of MYC in MF pathogenesis, where MYC provokes an alarmin-driven inflammatory circuit, and where the MYC-S100A9 axis represents a therapeutic vulnerability for TN-MF patients. Accordingly, our results provide a strong rationale for testing agents targeting MYC or S100A9 in early phase clinical trials in MPNs having increased MYC levels or activity.
Pirtobrutinib in Richter Transformation: Updated Efficacy and Safety Results with 18-Month Median Survival Follow-up from the Phase 1/2 BRUIN Study
Shah, Nirav N. , Lewis, David , Coombs, Catherine C. , Lamanna, Nicole , Jagadeesh, Deepa, Munir, Talha, Eyre, Toby A. , McKinney, Matthew , Alencar, Alvaro J. , Seymour, John F. , Woyach, Jennifer A. , Abada, Paolo, Ho, Caleb , Marella, Narasimha, Wang, Chunxiao , Ruppert, Amy S. , Nair, Binoj C., Liu, Hui , Tsai, Donald E. , Wierda, William G. , Cheah, Chan Y. , Hoffmann, Marc Steven , Ma, Shuo , Jagadeesh, Deepa , Wang, Yucai , Rhodes, Joanna , Lech‐Marańda, Ewa , Tam, Constantine S. , Jurczak, Wojciech , Izutsu, Koji , Patel, Manish R. , Roeker, Lindsey E. , Thompson, Philip A , Ghia, Paolo

Blood | December 1, 2023 | Volume: 142 | Issue: Supplement 1 | Pages: 1737-1737

10.1182/blood-2023-181108 Get It

Background:Richter transformation (RT) occurs in up to 10% of patients with chronic lymphocytic leukemia (CLL), typically presents as an aggressive diffuse large B-cell lymphoma (DLBCL) and is associated with poor survival. RT has no approved standard therapy; and clinical trial enrollment is the preferred first line of therapy. Pirtobrutinib, a highly selective, non-covalent (reversible) BTKi, that inhibits both wildtype and C481-mutant BTK with equal low nM potency, has favorable oral pharmacology that enables continuous BTK inhibition throughout the dosing interval. Pirtobrutinib demonstrated durable overall response rates (ORR) and was well tolerated in patients (pts) with poor-prognosis B-cell malignancies regardless of prior therapy. Here we provide updated safety and efficacy of pirtobrutinib in RT pts from the phase 1/2 BRUIN trial (NCT03740529). Methods: Pts with previously treated, histologically confirmed RT were eligible in the global, multicenter, phase 1/2 BRUIN study. Pts with untreated RT became eligible after Amendment 10. All but one patient received the recommended phase 2 dose of 200 mg daily. Key endpoints included investigator-assessed ORR, DoR per Lugano 2014 criteria, OS, and safety. A data cut of 05 May 2023 was utilized. To assess clonal relationship, IGH rearrangement studies were done on tissue biopsies with RT involvement, and baseline blood or bone marrow (BM) samples with CLL involvement. Results: Among all pts with RT (N=82) the median age was 67 (range, 26-95) and the median total number of lines of prior systemic therapy was 4 (range, 0-13). Pts with prior treatment had a median of 2 CLL-directed therapies and 2 RT-directed therapies. Eight pts did not have a previous line of RT-directed therapy, and 1 patient received neither RT- nor CLL-directed therapy. Common prior RT- and CLL-directed therapies (RT, CLL) included: chemotherapy (76%, 52%), cBTKi (34%, 62%), anti-CD20 antibody (78%, 66%), BCL2i (38%, 49%), stem cell transplant (SCT; 6%, 7%), and CAR-T (11%, 4%). Of 29 pts with bone marrow screening, 41.4% had CLL alone present in BM, 13.8% had DLBCL present and 24.1% had both CLL and DLBCL present. For 39 pts with available PET data, the median SUVmax was 19.1 (range, 2.6-41.2). For all 82 pts, the ORR was 50.0% (95% CI, 38.7-61.3) including complete (13.4%, n=11) and partial (36.6%, n=30) responses. For 61 pts who received prior cBTKi therapy, the ORR was 45.9% (95% CI 33.1-59.2). Among 28 pts with an RT-directed cBTKi and 51 pts with prior CLL-directed cBTKi, the ORR was 42.9% (95% CI, 24.5-62.8) and 43.1% (95% CI, 29.3-57.8), respectively. In 50 pts who discontinued prior cBTKi due to disease progression, the ORR was 42.0% (95% CI, 28.2-56.8). At median follow-up time of 9.7 months, the median DoR for all 82 RT pts was 7.4 months (95% CI, 3.1-19.1) and the estimated rate at 12 months was 45.9% (95% CI, 28.3-61.8). The median time on treatment for the 41pts who responded to treatment was 8.3 months. Eight pts stopped pirtobrutinib to pursue curative-intent allogeneic SCT and DoR was censored at the last preceding disease assessment. At a median survival follow-up of 18.3 months, the median OS for the entire RT cohort was 12.5 months (95% CI, 6.9-20.5). At 18 months, the OS rate was 44.3% (95% CI, 32.5-55.4). Frequent treatment-emergent adverse events (TEAE) in the RT cohort (n=82) were neutropenia/decreased neutrophil count (29.3%, n=24), fatigue (24.4%, n=20) and diarrhea, dyspnea, thrombocytopenia, and pyrexia (18.3% each, n=15). Common grade ≥3 TEAEs were neutropenia/decreased neutrophil count (23.2%, n=19), thrombocytopenia (11.0%, n=9), plus anemia and sepsis (9.8% each, n=8). Any grade hypertension (3.7%, n=3) or atrial fibrillation (1.2%, n=1) were infrequent. Three pts (3.7%) had treatment-related AEs leading to dose reductions, but no pt had a treatment-related AE leading to pirtobrutinib discontinuation. Analyses of clonality will be presented. Conclusions: Continued follow-up from BRUIN demonstrates encouraging response and OS in pts with RT. Pirtobrutinib remains well-tolerated with low rates of discontinuation and manageable safety profile. While RT remains a challenging diagnosis, pirtobrutinib represents a potential treatment option that warrants further investigation.
Clinician Perspectives on Treatment-Decision in Triple-Class-Exposed Relapsed Refractory Multiple Myeloma in the United States: A Delphi-Based Research Study
Le, Hoa H. , Lodowski, Nicole , DeBrosse, Amalia, Daniel, Ian, Narvekar, Priyanka, Zhang, Xinke , Fonseca, Rafaël

Blood | December 1, 2023 | Volume: 142 | Issue: Supplement 1 | Pages: 7400-7400

10.1182/blood-2023-189083 Get It

Introduction Relapsed/refractory multiple myeloma (RRMM) is a hematologic cancer associated with no current widely-accepted cure, cycles of relapse and remission, treatment resistance, and high morbidity and mortality, which necessitate new treatments and therapeutic targets. 1-3 Innovative therapies that target BCMA, CD38, GPRC5D, FcRH5, and others in the RRMM development pipeline are recently approved or under investigation, but real-world evidence on clinician perceptions of emerging trends and unmet needs remains limited. A Delphi panel was conducted with US clinicians to evaluate the level of unmet need and treatment decisions among patients with RRMM who are triple-class-exposed (TCE). Methods This double-blinded study consisted of two phases: a web survey (phase 1) and a Delphi panel (phase 2). A targeted literature review was conducted first to understand unmet needs and treatment decisions associated with management of RRMM in the US and inform the development of primary research materials. The web survey was completed by 21 US clinicians. Survey findings were then used to inform the phase 2 Delphi panel, a systematic, validated approach to gain consensus. This consisted of two iterative rounds of a question answered by nine experts selected from participants in the web survey. Consensus on a question was defined as at least 70% agreement. The double-blinded panel was conducted via the Microsoft Teams platform, and poll questions were administered through Vevox. Responses were blinded to preserve respondents' anonymity and participants were also blinded to the study sponsor. Results Overall, consensus was reached that despite recent improvement in treatment landscape, there is still a high level of unmet need for patients with RRMM who are TCE (89% of participants). More specifically, consensus was reached (89%) that the top three areas of unmet need were treatment resistance, guidance on treatment sequencing, and novel mechanisms of action (MoAs) and targets (Figure 1). Unmet need is also particularly pronounced for certain patient subgroups, with 89% and 78% of participants agreeing that patients who are functionally high-risk and penta-refractory, respectively, experience the greatest unmet need. When asked about which novel therapies would be most promising for addressing the unmet needs, participants agreed that the top 4 therapeutic targets are GPCR5D (95%), BCMA (81%), FcRH5 (81%), and BCL-2 (81%). Various factors impact treatment choice and sequencing, with most participants (78%) agreeing that treatment history is the most influential factor impacting sequencing. The panel also agreed that prior toxicity (grade 3-4 AEs, 89%) and convenience of dosing frequency (78%), respectively, most impact dosing decisions. All agreed there is a need for resources to manage some AEs, particularly newer AEs (like skin and nail effects) of emerging treatments. Of the AEs identified in the survey as top drivers of treatment choice, participants reached consensus on two: neurotoxicity (e.g., ICANS) (89%) and infection (100%). Conclusions In this Delphi study, consensus was reached that a high level of unmet need remains for patients with RRMM, who are TCE with unmet need varying dependent on patient subgroup and treatment history. There was consensus that additional treatment choices with novel targets/MoAs are needed. Participants agreed that AEs, toxicity, infection, and treatment history impact treatment choice and sequencing, and considerations and challenges vary by subgroup. Overall, findings from this study support that there is a need for additional treatment options with novel MoAs/therapeutic targets that address priority unmet needs for patients with RRMM, who are TCE. References 1. Gonsalves W et al. The next generation of novel therapies for the management of relapsed multiple myeloma. Future Oncol (London, England). 2017;13(1):63-75. https://doi.org/10.2217/fon-2016-0200 2. Braunstein M et al. A new decade: novel immunotherapies on the horizon for relapsed/refractory multiple myeloma. Expert Rev Hematol. 2022;14(4):377-389. doi:10.1080/17474086.2021.1909469 3. Bruno AS et al. Recent real-world treatment patterns and outcomes in US patients with relapsed/refractory multiple myeloma. Expert Rev Hematol. 2020;13(9):1017-1025. doi:10.1080/17474086.2020.1800451