Samik Basu – författare

Cellular Therapy for Autoimmune Disease provides a comprehensive exploration of the evolving landscape of cellular therapies for autoimmune diseases. The book delves into the evolution of the standard of care for autoimmune diseases, transitioning from chronic suppression to targeted replacement or suppression therapies. It covers a wide array of topics, including stem cell transplants, B-cell and plasma cell depletion strategies, and autologous regulatory and effector T-cell approaches. Additionally, it explores myeloid cellular approaches, allogeneic cellular therapies, and viral or nanoparticle-based strategies. Each chapter provides a thorough examination of mechanisms of action, clinical and non-clinical data, and the associated risks and benefits.Finally, the book addresses unique clinical and manufacturing considerations, offering a roadmap for the future state of cellular therapies in autoimmune diseases. This essential resource addresses the rapid advancements in cell therapies that have outpaced the availability of integrated, up-to-date resources. By bridging the gap between scientific research and clinical applications, it offers in-depth insights into mechanisms of action, disease-specific therapeutic strategies, and the latest innovations in clinical and manufacturing considerations for scientists and clinicians.Bridges the gap between scientific research and clinical applications for cellular therapies in autoimmune diseasesOffers in-depth insights into mechanisms of action and disease-specific therapeutic strategiesAddresses key clinical and manufacturing challenges for developing and implementing cell-based therapiesIntegrates the latest scientific discoveries and clinical breakthroughs for comprehensive understandingEquips professionals with practical knowledge to accelerate the translation of therapies into clinical practice

This book describes an approach for designing Systems-on-Chip such that the system meets precise mathematical requirements. The methodologies presented enable embedded systems designers to reuse intellectual property (IP) blocks from existing designs in an efficient, reliable manner, automatically generating correct SoCs from multiple, possibly mismatching, components.

The methodologies presented enable embedded systems designers to reuse intellectual property (IP) blocks from existing designs in an efficient, reliable manner, automatically generating correct SoCs from multiple, possibly mismatching, components.

One can translate preference queries with respect to a set of preferences into an equivalent set of formulae in CTL, such that the CTL formula is satisfied whenever the preference query holds.