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El. knyga: Engineering Technologies and Clinical Translation: Volume 3 of Delivery Strategies and Engineering Technologies in Cancer Immunotherapy

Edited by (Distinguished Professor and Chairman, Department of Pharmaceutical Sciences, School of Pharmacy, Bouve College of Health Sciences, Northeastern University, Boston, Massachusetts, USA), Edited by (Assistant Teaching Professor in Biotechnology, Bou)
  • Formatas: EPUB+DRM
  • Išleidimo metai: 25-Aug-2021
  • Leidėjas: Academic Press Inc
  • Kalba: eng
  • ISBN-13: 9780323909501
  • Formatas: EPUB+DRM
  • Išleidimo metai: 25-Aug-2021
  • Leidėjas: Academic Press Inc
  • Kalba: eng
  • ISBN-13: 9780323909501

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Engineering Technologies and Clinical Translation: Volume 3: Delivery Strategies and Engineering Technologies in Cancer Immunotherapy examines the challenges of delivering immuno-oncology therapies, focusing specifically on the development of solutions for drug delivery and its clinical outcomes. Immuno-oncology (IO) is a growing field of medicine at the interface of immunology and cancer biology leading to development of novel therapeutic approaches, such as chimeric antigen receptor T-cell (CAR-T) and immune checkpoint blockade antibodies, that are clinically approved approaches for cancer therapy. Although currently approved IO approaches have shown tremendous promise for select types of cancers, broad application of IO strategies could even further improve the clinical success, especially for diseases such as pancreatic cancer, brain tumors where the success of IO so far has been limited. This volume of Delivery Strategies and Engineering Technologies in Cancer Immunotherapy discusses biomaterial, microfluidic, and biodegradable devices, engineered microbes, personalized medicine, clinical approval process, and many other IO technologies.

Engineering Technologies and Clinical Translation: Volume 3: Delivery Strategies and Engineering Technologies in Cancer Immunotherapy creates a comprehensive treaty that engages the scientific and medical community who are involved in the challenges of immunology, cancer biology, and therapeutics with possible solutions from the nanotechnology and drug delivery side.

  • Explores engineering technologies and their clinical translation in a comprehensive way
  • Presents forecasting on the future of nanotechnology and drug delivery for IO
  • Engages the scientific and medical community who are involved in the challenges of immunology, cancer biology, and therapeutics with possible solutions from the nanotechnology and drug delivery side
Contributors xiii
Preface xvii
Acknowledgments xix
1 Engineering solutions to design CAR-T cells
1(32)
Irene Uboldi
Praseet Poduval
Jai Prakash
1 Introduction
2(6)
2 Pharmacological aspects of CAR-T cells
8(2)
3 What can be engineered in CAR T-cells?
10(7)
4 Gene delivery to engineer CAR-T cells
17(6)
5 Universal/SUPRA CAR-T cells
23(1)
6 Critical aspects for clinical development
23(2)
7 Conclusion
25(1)
References
26(7)
2 Engineered microbes for cancer immunotherapy
33(30)
Aoife M. Brennan
Anna Sokolovska
Ning Li
Vincent M. Isabella
1 Microbes as tumor immunotherapy
33(5)
2 Application of synthetic biology to therapeutics
38(5)
3 Synthetic biology techniques to engineer safety and control growth
43(3)
4 Application of synthetic biology to engineer microbial therapeutics for cancer
46(8)
5 Regulatory considerations in the development of engineered bacteria as therapeutics
54(2)
6 Conclusion
56(1)
References
56(7)
3 Polymeric scaffolds for antitumor immune cell priming
63(34)
Khushbu Bhatt
Loek J. Eggermont
Sidi A. Bencherif
1 Introduction
63(3)
2 Polymeric materials and scaffold systems
66(9)
3 Polymeric scaffolds for DC priming and activation
75(6)
4 Polymeric scaffolds for T-cell activation
81(5)
5 Conclusion and future perspectives
86(1)
References
87(10)
4 Biomaterials and devices for immunotherapy
97(38)
Emily M. Jordan
Mario Milazzo
Sue Anne Chew
Serena Danti
1 Introduction
98(1)
2 Immunotherapy and chemotherapy combinations
99(9)
3 Nanoscale biomaterial-based strategies applied
108(5)
4 Introduction to micro/nanorobots
113(2)
5 Propulsion engines for MNRs
115(3)
6 Applications of MNRs
118(5)
7 Conclusion and future outlook
123(2)
References
125(10)
5 Engineered devices for tumor microenvironment immune modulation
135(20)
Alexander M. Cryer
Natalie Artzi
1 Introduction
135(1)
2 Local delivery of engineered devices for tumor immune modulation
136(9)
3 Transdermal delivery of engineered devices for tumor immune modulation
145(4)
4 Systemic delivery of engineered devices for tumor immune modulation
149(2)
5 Limitations, perspectives and future work
151(1)
References
152(3)
6 Tumor-on-a-chip devices for cancer immunotherapy
155(42)
Xuan Mu
Yu Shrike Zhang
1 Introduction
155(2)
2 Microfluidics
157(4)
3 Recapitulating the tumor microenvironment
161(10)
4 Predicating therapeutic efficacy
171(3)
5 Production of therapeutic cells
174(7)
6 Screening immune cells
181(3)
7 Conclusion
184(1)
References
185(12)
7 Challenges and opportunities of nanotechnology in cancer immunotherapy
197(44)
DaeYong Lee
Kristin Huntoon
Wen Jiang
Betty Y.S. Kim
1 Background in cancer immunotherapy
197(2)
2 Immunogenic cell death with nanotechnology
199(10)
3 Vaccination with nanotechnology
209(7)
4 Activation of innate immunity
216(9)
5 T cell activation
225(5)
6 Targeting strategies
230(4)
7 Perspective
234(1)
References
234(7)
8 Stromal modulation strategies to improve immunotherapy response in cancer
241(52)
Kai Shi
1 Background
241(4)
2 Tumor stroma mediated immunosuppression
245(17)
3 Stromal modulation strategies with nanotechnology to improve immunotherapy
262(18)
4 Conclusions
280(1)
Acknowledgments
281(1)
References
281(12)
9 Spatial mapping of the tumor immune microenvironment
293(38)
Yi-Chien Wu
Joanna Pagacz
Samantha C. Emery
Stephen J. Kron
Steve Seung-Young Lee
1 Introduction
293(2)
2 Conventional tissue preparation and processing for cancer histology
295(4)
3 Mapping proteins and transcripts in the TIME
299(11)
4 Spatial `omics'
310(10)
5 Conclusions and future prospects
320(1)
Acknowledgments
321(1)
References
321(10)
10 Nucleic acid biomarker technology for cancer immunotherapy
331(26)
Sashana Dixon
Alice Tran
Matthew Schrier
Malav Trivedi
1 Introduction
331(1)
2 NGS and cancer
332(7)
3 Transcriptional signatures
339(4)
4 Single cell
343(1)
5 CRISPR based
344(1)
6 Current challenges in immunogenomics
345(1)
7 Conclusion
345(1)
Acknowledgment
346(1)
References
346(11)
11 Proteomic biomarker technology for cancer immunotherapy
357(42)
Reilly Fankhauser
Nicholas DePatie
Rachel Berryman
Olivia M. Lucero
Rajan P. Kulkami
1 Introduction and background
358(4)
2 Proteomic technologies
362(21)
3 Proteomic analysis of immune-related adverse events
383(3)
4 Discussion and future directions
386(2)
References
388(11)
12 Personalized cancer immunotherapy
399(28)
Amrendra Kumar
Kevin P. Weller
Anna E. Vilgelm
1 Part I. Identifying immune checkpoint blockade therapy-responsive patients
399(4)
2 Biomarkers based on tumor "foreignness"
403(3)
3 Tumor immune microenvironment and immunotherapy response
406(1)
4 "Omics" technologies in personalized immunooncology
407(1)
5 Immunotherapy response biomarkers not directly measured in tumor
408(1)
6 Integrating biomarkers to reach "precision" and tailor therapy to patient's unique immunome
408(2)
7 Part II. Highly personalized immunotherapy
410(1)
8 Adoptive T cell transfer: A highly personalized therapy for human cancers
410(1)
9 Tumor-infiltrating lymphocytes: A rich source of tumor specific T cells
411(3)
10 Tumor neoantigens and their role in tumor immunity
414(3)
11 Neoantigen reactive T cells; broadening the landscape of personalized cancer immunotherapies
417(1)
12 Neoantigen vaccines
418(1)
13 Neoantigen-specific T cells for adoptive cellular therapies
419(1)
14 Concluding remarks
420(1)
References
420(7)
13 Image-guided cancer immunotherapy
427(42)
Thomas S.C. Ng
Miles A. Miller
1 Introduction
427(1)
2 Clinically relevant imaging modalities to assess anatomic and functional tumor response
428(2)
3 Imaging approaches to probe the immune system
430(2)
4 Imaging targets for immunotherapy
432(10)
5 Imaging of other immune targets
442(1)
6 Imaging immune cellular subsets
442(12)
7 Imaging to guide bispecific T-cell engager therapy (BiTE)
454(1)
8 Image-guided interventional immunotherapies
454(2)
9 Summary and future directions
456(1)
References
456(11)
Further reading
467(2)
14 Clinical translation and challenges in cancer immunotherapies
469(19)
Amit Singh
1 Introduction
469(1)
2 Challenges in developing cancer immunotherapies
470(12)
3 Drug development considerations for clinical translation
482(5)
4 Conclusion
487(1)
References 488(3)
Index 491
Mansoor M. Amiji is the Distinguished Professor and Chairman of the Department of Pharmaceutical Sciences at the Bouvé College of Health Sciences at Northeastern University. Dr. Amiji has edited a number of books and is a frequently published author. His research focuses on the synthesis of novel polymeric materials for medical and pharmaceutical applications, drug delivery systems and nanomedical technologies, and his contributions in research advising, grant reviews for various organizations and editorial work for journals are invaluable. Dr. Lara Milane is Assistant Teaching Professor in Biotechnology at the Bouvé College of Health Sciences at Northeastern University. She is interested in Mitochondrial Medicine. She is working on developing nanomedicines for a range of diseases (cancer, neurodegenerative disease, aging) that manipulate mitochondria for therapeutic outcomes. Dr. Milane was trained as a National Cancer Institute/ National Science Foundation Nanomedicine Fellow at Northeastern University, Boston, MA. Dr. Milane is an intuitive cancer biologist with research interests in developing translational nanomedicines that exploit the hallmarks of cancer.