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In the last decade there has been an explosion of interest in viral therapies for cancer. Viral agents have been developed that are harmless to normal tissues but selectively able to kill cancer cells. These agents have been endowed with additional selectivity and potency through genetic manipulation. Increasingly these viruses are undergoing evaluation in clinical trials, both as single agents and in combination with standard chemotherapy and radiotherapy. This book provides a comprehensive yet succinct overview of the current status of viral therapy of cancer. Chapters coherently present the advances made with individual agents and review the biological and clinical background to a range o...
This issue of Hematology/Oncology Clinics will focus on Gene Therapy. Topics include, but are not limited to Historical Perspective and Current Renaissance, Integrating Vectors, Nonintegrating Vectors, Gene Editing, Conditioning Therapies for Autologous HSCT, Approaches to Immunodeficiency, Approaches to Hemoglobinopathy, Approaches to Hemophilia, Hematopoietic Gene Therapies for Neurologic and Metabolic Disease, Gene Therapy Approaches to HIV and other Infectious Diseases, HSC Approaches to Cancer, and Gene Modified T Cell Therapies for Cancer.
Since the publication of the second edition of this book in 2004, gene therapy and cell therapy clinical trials have yielded some remarkable successes and some disappointing failures. Now in its third edition, Gene and Cell Therapy: Therapeutic Mechanisms and Strategies assembles many of the new technical advances in gene delivery, clinical applications, and new approaches to the regulation and modification of gene expression. New Topics Covered in this Edition: Gene and Cell Therapies for Diabetes and Cardiovascular Diseases Clinical Trials Human Embryonic Stem Cells Tissue Engineering Combined with Cell Therapies Novel Polymers Relevant Nanotechnologies SiRNA Therapeutic Strategies Dendrim...
In this Research Topic, we would like to honor the memory of Prof. Vito Pistoia and pay tribute to his scientific contributions to the field of Cancer Immunity and Immunotherapy. Topic Editor Daniel Olive is the co-founder and shareholder of company Imcheck Therapeutics. All other topic editors declare no competing interests with regards to the Research Topic subject.
This book describes important developments and emerging trends in experimental and clinical cancer gene therapy. It reflects the tremendous advances made over recent years with respect to immunogenes, suicide genes and gene correction therapies, as well as in gene suppression and miRNA therapies. Many of the described strategies focus on the generation of more efficient and specific means of attack at known and novel cellular targets associated with tumor development and progression. The book also details parallel improvements in vector design, vector delivery, and therapeutic efficacy. It offers readers a stimulating, broad overview of advances in the field, linking experimental strategies to their clinical applications.
ImmunoPhysics (ImmPhys) and ImmunoEngineering (ImmPhysEng), are two cross-disciplinary fields. ImmPhysEng aims to unravel quantitatively the immune-system function and regulation in health and disease. Whereas ImmPhys study and assess the physical basis of the immune response, ImmEng pursues its control and prediction. Ultimately, the overarching goal of these disciplines is to facilitate the development of therapeutic interventions to more precisely modulate and control the compromised immune response during diseases. Lately, these disciplines are becoming more popular and as such, the number of publications applying physical or engineering tools to understand the immune response is increasing. Nevertheless, there is still no scientific forum compiling the ImmPhysEng research breakthroughs. Possibly the biggest burden is to stimulate a fluent communication and syntony between a physicist or engineer and an immunologist.
The development, clinical translation and recent efficacy of novel gene therapies targeting refractory malignancies has led to research that extends this technology to a variety of infectious and rheumatological diseases. Unlike conventional drugs or antibodies, T cells have the potential to target and exert effector function in response to disease in a dynamic manner, acting as a “living drug”. The most efficacious form of gene-modified T cells to date is the chimeric antigen receptor (CAR)-modified T cell, which redirects the specificity of T cells to an antigen expressed by tumor cells. Clinical experience with autologous CAR-T cells, primarily in hematologic malignancies, has underscored the feasibility and safety of the approach, while also demonstrating dramatic and sustained antitumor effects through mechanisms orthogonal to those of traditional anticancer therapies. However, several challenging obstacles must be surmounted in order to improve the broader efficacy of this approach.
Chimeric antigen receptor (CAR) T cell therapies for leukemia (e.g. tisagenlecleucel) and lymphoma (e.g. axicabtagene ciloleucel) have recently received regulatory approval in the United States. Phase I/II trials have demonstrated complete remission of refractory or relapsed tumors in 50% - 94% patients. However, the clinical successes of engineered T cells for the treatment of solid malignancies have thus far been few and far between. Furthermore, several instances of severe and lethal toxicities have arisen due to on-target, off-tumor recognition of antigen by T cell products. Recent advances in phase I trials for solid tumors, as well as in pre-clinical models, have revealed several varia...
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