Targeted Cancer Therapy In Biomedical Engineering

This book highlights the role of Biomedical Engineering (BME) used in diagnosis (e.g., body scanners) and treatment (radiation therapy and minimal access surgery in order to prevent various diseases). In recent years, an important progress has been made in the expansion of biomedical microdevices which has a major role in diagnosis and therapy of cancer. When fighting cancer, efficacy and speed are of the utmost importance. A recently developed microfluidic chip has enabled a breakthrough in testing the efficacy of specialized cancer drugs. Effective cancer-targeting therapies will require both passive and active targeting strategies and a thorough understanding of physiologic barriers to targeted drug delivery. Targeted cancer treatments in development and the new combinatorial approaches show promise for improving targeted anticancer drug delivery and improving treatment outcomes. This book discusses the advancements and innovations in the field of BME that improve the diagnosis and treatment of cancer. This book is focused on bioengineering approaches to improve targeted delivery for cancer therapeutics, which include particles, targeting moieties, and stimuli-responsive drug release mechanisms. This book is a useful resource for students, researchers, and professionals in BME and medicine.

Bioengineering Approaches to Cancer Diagnosis and Treatment is written for an audience of senior undergraduate students and graduate students in mechanical, electrical and biomedical engineering fields and other professionals in medicine. It is ideally structured for teaching and for those who are working in cancer bioengineering or interdisciplinary projects. The book's authors bring a unique perspective from their expertise in immunology, nanobiomaterials and heat transfer. Topical coverage includes an introduction to the fundamentals of bioengineering and engineering approaches for cancer diagnosis, cancer treatment via case studies, and sections on imaging, immunotherapy, cell therapy, drug delivery, ultrasound and microfluidics in cancer treatment. Provides fully supported case studies relating to cancer diagnosis and therapy Pairs the basic fundamentals of engineering and biomedical engineering and applies them to the diagnosis of cancer

Bioengineering Innovative Solutions for Cancer bridges the gap between bioengineering and cancer biology. It focuses on a ‘bottom up’ understanding of the links between molecules, cells, tissues, organs, organisms, and health and functions—all within a bioengineering context. Chapters cover the main methods, technologies and devices that could help diagnose cancer sooner (e.g., ultrasensitive imaging and sensing technologies) and helpful treatments (e.g., new, more targeted therapies). The book takes an interdisciplinary approach that is ideal for those who need the latest information on design techniques and devices that help treat cancer using new, more targeted therapies. By covering the many different ways engineers can deliver innovative solutions to tackle cancer, this book is a valuable read for researchers who have an ambition to make an impact on people’s life in either an academic or industrial setting. Connects bioengineering and cancer biology, providing information on sensors, imaging, therapies and in-vitro models Presents the most comprehensive coverage in the field of cancer engineering to date Provides an academic introduction to (molecular) bioengineering for students, regardless of scientific background (math's, physics, chemistry, biology) Highlights the unmet medical needs for bioengineers and the main technological breakthroughs to cancer biologists

Targeted Cancer Imaging: Design and Synthesis of Nanoplatforms based on Tumour Biology reviews and categorizes imaging and targeting approaches according to cancer type, highlighting new and safe approaches that involve membrane-coated nanoparticles, tumor cell-derived extracellular vesicles, circulating tumor cells, cell-free DNAs, and cancer stem cells, all with the goal of pointing the way to developing precise targeting and multifunctional nanotechnology-based imaging probes in the future. This book is highly multidisciplinary, bridging the knowledge gap between tumor biology, nanotechnology, and diagnostic imaging, and thus making it suitable for researchers ranging from oncology to bioengineering. Although considerable efforts have been conducted to diagnose, improve and treat cancer in the past few decades, existing therapeutic options are insufficient, as mortality and morbidity rates remain high. One of the best hopes for substantial improvement lies in early detection. Recent advances in nanotechnology are expected to increase our current understanding of tumor biology, allowing nanomaterials to be used for targeting and imaging both in vitro and in vivo experimental models. Gives understanding of cancer biology that is appropriate for students and researchers in engineering and nanotechnology Demonstrates cancer targeting strategies of multifunctional nanotechnology-based imaging probes Shows how to design, synthesize and apply cancer imaging nanostructures

Stimulation of the immune system’s ability to control and destroy tumors cont- ues to be the goal of cancer immune therapy; but the scope has rapidly expanded; approaches are constantly updated; new molecules are continually introduced; and immune mechanisms are becoming better understood. This book has no intention of covering every aspect of immune therapy but rather focuses on the novelty of cancer immune therapy in an attempt to give readers an opportunity to absorb the new aspects of immune therapy from a single source. In this regard, three areas were selected: cytokine immune therapy, cell-based immune therapy, and targeted immune therapy. In each of these three sections, only the novel aspects of immune therapy were described instead of attempting to cover any historical achievement. In the first section, Cytokine Immune Therapy, the IL12 family, IL18, IL21, IL24, IL28, and IL29 were emphasized in regard to the an- tumor function and application in treating tumors. Most of these selected cyt- ines were discovered in last 10 years. In the second section, Cell-based Immune Therapy, the focus was engineering potent immune regulatory or effector cells such as dendritic cells, T cells, and stem cells. Cell engineering design is primarily based on the increased understanding of the interaction of tumor antigen-presenting cells, antigen- specific effector cells, and the tumor microenvironment.

This book presents the latest advances in precision medicine in some of the most common cancer types, including hematological, lung and breast malignancies. It also discusses emerging technologies that are making a significant impact on precision medicine in cancer therapy. In addition to describing specific approaches that have already entered clinical practice, the book explores new concepts and tools that are being developed. Precision medicine aims to deliver personalized healthcare tailored to a patient’s genetics, lifestyle and environment, and cancer therapy is one of the areas in which it has flourished in recent years. Documenting the latest advances, this book is of interest to physicians and clinical fellows in the front line of the war on cancer, as well as to basic scientists working in the fields of cancer biology, drug development, biomarker discovery, and biomedical engineering. The contributing authors include translational physicians with first-hand experience in precision patient care.

This book explores the role of cancer stem cells in the diagnosis, treatment, and cure of cancers. This book also tackles novel methodology for cancer stem cell marker identification, cancer stem cell respiration and metabolism, genetic and epigenetic mechanisms including DNA methylation, and mi-RNA assemble. It also emphasizes the role of Bioinformatics techniques, which provide a novel methodology for modeling cancer outcomes. The authors investigate the difference between cancer stem cells and normal stem cells, along with the concept of targeted cancer stem cell therapy. Although the theoretical explanations of cancer stem cell involvement in leukemia and solid cancers are controversial, there is now little doubt that cancer stem cells exist within otherwise heterogeneous cancer cell population. The brief examines the two leading theories, hierarchical and the stochastic/cancer stem cell model. Researchers, professors and advanced-level students focused on bioengineering and computer science will find this book to be a valuable resource. It is a very good source of critical references for understanding of this problem, and a useful tool for professionals in related fields.

The book covers the latest developments in biologically-inspired and derived nanomedicine for cancer therapy. The purpose of the book is to illustrate the significance of naturally-mimicking systems for enhancing the dose delivered to the tumor, to improve stability, and prolong the circulation time. Moreover, readers are presented with advanced materials such as adjuvants for immunostimulation in cancer vaccines. The book also provides a comprehensive overview of the current status of academic research. This is an ideal book for students, researchers, and professors working in nanotechnology, cancer, targeted drug delivery, controlled drug release, materials science, and biomaterials as well as companies developing cancer immunotherapy.