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2 citation(s) found for "Hadi, Fatemeh".

Mechanistic basis of the acute safety profile of rese-cel, an autologous CD19-CAR T, in patients with autoimmune disease treated in four ongoing phase 1/2 clinical trials
Volkov, J., Thompson, Dan , Nezhad, Fatemeh Hadi, Braccia, Domenick J. , Fumanak, Thomas, Werner, Mallorie, Vorndran, Zachary, Williams, Jazmean K. , Cicarelli, Justin, Kobulsky, Danielle R. , Lam, Quynh, Little, Courtney, White, Yvonne, Sheikh, Saira Z. , Abedi, Mehrdad , Sise, Meghan E. , Palma, Christopher , Edens, Cuoghi , Kosuri, Satyajit, Elgarten, Caitlin W. , Burnham, Jon M. , Ulane, Christina, Mozaffar, Tahseen , Chahin, Nizar, Wilfong, Erin R., Khanna, Dinesh, Ghosh, Monalisa , Shah, Ankoor R. , Hogan, Jonathan J., Estremera, Rebecca, Tummala, Raj , Chang, David , Binder, Gwendolyn K., Basu, Samik , Khanna, Dinesh , Khanna, Dinesh , Nunez, Daniel, Thompson, Dan, Nezhad, Fatemeh Hadi, Stadanlick, Jason E. , Ishikawa, Larissa Lumi Watanabe , Ellis, Alexandra, Flanagan, Steve, Little, Courtney, White, Yvonne, Derebail, Vimal K. , Grover, Natalie S. , Gulati, Gaurav, Abedi, Mehrdad, Frigault, Matthew J. , Reagan, Patrick Michael , Reshef, Ran , Naddaf, Elie , Wilfong, Erin, Shah, Ankoor, Hogan, Jonathan J. , Chang, David

Blood | December 5, 2025 | Volume: 146 | Issue: Supplement 1 | Pages: 2336-2336

10.1182/blood-2025-2336 Get It

Abstract Introduction: Autologous CD19 CART therapies have been utilized across a wide range of B cell driven autoimmune diseases (AD), including systemic lupus erythematous (SLE), idiopathic inflammatory myopathies (IIM), systemic sclerosis (SSc), & myasthenia gravis (MG). To date, a number of autologous CD19-CART therapies have delivered durable drug free responses in AD patients. However, the safety profile of autologous CD19-CART therapies across different AD has yet to be fully explored. This is especially true for CRS & ICANS. Here, we provide novel insight into the mechanism underlying the safety profile of resecabtagene autoleucel (rese-cel) an autologous CD19 41BBz CART therapy across four separate Phase I/II clinical trials in SLE, IIM, SSc, & MG. Objectives: The primary objective of each trial is safety & tolerability of rese-cel at Day 29. Key secondary objectives include changes in clinical scores & use of immunomodulatory agents. Key translational assessments include CART cell pharmacokinetics (PK), impact on peripheral B cell populations (pharmacodynamics), & serum cytokine levels. Methods: 19 Patients (data cutoff: 6/2/2025 SLE; 5/6/2025 IIM, SSc, and MG), with active disease refractory to standard of care have been treated across 4 Phase I/II clinical trials in SLE (8 patients; NCT06121297), IIM (8 patients; NCT06154252), SSc (2 patients; NCT06328777), & MG (1 patient; NCT06359041). All patients were treated with a single weight-based infusion of rese-cel at a dose of 1 x 106 cells/kg following lymphodepletion (flu 25 mg/m2/d on Days -5, -4, & -3, & cy 1,000 mg/m2/d on Day -3). All non-glucocorticoid immunomodulatory agents were stopped prior to lymphodepletion. Glucocorticoids were tapered post-infusion. Patients were not given prophylactic tocilizumab pre-infusion. Translational assessments were determined as follows: CART PK was evaluated by flow cytometry & dPCR; B-cell enumeration & phenotyping were evaluated by flow cytometry; & serum cytokines were evaluated via immunoassay. Results: Across all indications (19 patients), 7 episodes of CRS were observed (7/19). 6 of 7 patients experienced a Grade 1 CRS, & 1 patient had a Grade 2 CRS. 2 patients developed ICANS; 1 patient had a Grade 4 (previously presented at ACR Convergence 2024), & the other patient had a Grade 3. Both ICANS events were rapidly resolved without sequelae using standard therapy. These CRS and ICANS events differed across indications. In IIM, 4 of 8 patients experienced Grade 1 CRS and no patients experienced ICANs. In SLE, 2 patients experienced Grade 1 CRS and one developed Grade 4 ICANs. In SSC, 1 of 2 patients experienced Grade 2 CRS & the other experienced Grade 3 ICANS. In MG, no CRS or ICANS was observed. Rese-cel infusion products were ~ 66% transduced, with a mean CD4:CD8 ratio of 6. Post-infusion, peak CART expansion was observed on day 12 & the mean peak expansion was 89 cells/µL (SD +/- 214). B cells were rapidly depleted from peripheral blood post-infusion, with nadir occurring at 13 days & repopulation beginning at 62 days post-infusion on average. Re-emergent B cells were largely of the CD24+CD38+ transitional naïve phenotype. Commensurate with B cell depletion, serum BAFF induction was observed, with a mean fold induction of 16 & mean peak level of 56,404 pg/µL (SD: +/- 45,547). Serum cytokines associated with CRS & ICANS; IFNg, IL6, & IL8 reached peak elevation on days 10, 9, & 10 respectively post-infusion. The mean peak elevation for IFNg, IL6, & IL8 were 232 pg/ µL (SD: +/- 320), 44 pg/ µL (SD: +/- 60), & 80 pg/ µL (SD +/- 73), respectively. Conclusion: Rese-cel appears to be well tolerated in autoimmune patients with rates of CRS & ICANS of 37% & 11% across all autoimmune indications, respectively (SLE patients had a 25% CRS rate & 12.5% ICANS rate, IIM patients had a 50% CRS rate & 0% ICANS rate, SSC patients had a 50% CRS & 50% ICANS rate, & MG patients had a 0% CRS & ICANS rate). Notably, the frequency & severity of CRS appears to be low, with no CRS in 63% of patients (12/19) & most CRS events (6/7) being Grade 1. The lower frequency & severity of both CRS & ICANS events are likely correlated with the relatively modest induction of serum IFNg, IL6, & IL8 found in autoimmune patients post rese-cel weight-adjusted dose infusion. High BAFF levels reflect deep systemic B cell depletion. Together, these data support further support late-stage clinical development of rese-cel in autoimmune disease.
P38 initiates degeneration of midbrain GABAergic and glutamatergic neurons in diabetes models
Farhadi, Aisan, Nabavi, Seyed Masood, Baharvand, Hossein , Pakdaman, Hossein , Hajizadeh‐Saffar, Ensiyeh , Mousavi, Seyed Ahmad , Hadi, Fatemeh , Zhang, Jin‐San , Tahamtani, Yaser , Shahpasand, Koorosh , Shahpasand, Koorosh , Totonchi, Mehdi , Sinawi, Hamed Al , Li, Quan

European Journal of Neuroscience | May 5, 2022 | Volume: 56 | Issue: 1 | Pages: 3755-3778

10.1111/ejn.15686 | PMID 35513862 Get It

Abstract Diabetes mellitus may cause tau protein hyperphosphorylation and neurodegeneration, but the exact mechanism by which diabetic conditions induce tau pathology remains unclear. Tau protein hyperphosphorylation is considered a major pathological hallmark of neurodegeneration and can be triggered by diabetes. Various tau‐directed kinases, including P38, can be activated upon diabetic stress and induce tau hyperphosphorylation. Despite extensive research efforts, the exact tau specie(s) and kinases driving neurodegeneration in diabetes mellitus have not been clearly elucidated. We herein employed different techniques to determine the exact molecular mechanism of tau pathology triggered by diabetes in in vivo and in vitro models. We showed that diabetes‐related stresses and glucose metabolism deficiency could induce cis P‐tau (an early driver of the tau pathology) accumulation in the midbrain and corpus callosum of the diabetic mice models and cells treated with 2‐deoxy‐D‐glucose, respectively. We found that the active phosphorylated level of P38 was increased in the treated cells and diabetic mice models. We observed that oxidative stress activated P38, which directly and indirectly drove tau pathology in the GABAergic and glutamatergic neurons of the midbrain of the diabetic mice after 96 h, which accumulated in the other neighboring brain areas after 2 months. Notably, P38 inhibition suppressed tau pathogenicity and risk‐taking behaviors in the animal models after 96 h. The data establish P38 as a central mediator of diabetes mellitus‐induced tau pathology. Our findings provide mechanistic insight into the consequences of this metabolic disorder on the nervous system.