RNA interference (RNAi) is a biological process in which small nucleotide sequences destroy specific mRNA molecules and, therefore, interrupt genetic expression. RNAi has rapidly developed into a widely used technique in biotechnology, experimental biology, genomics and medicine. Frontiers in RNAi is a collection of research articles covering the applications of RNAi principles and technologies and has been compiled by members of the RNAi Global Initiative, a collection of academic and industrial groups with extensive experience in genome-wide RNAi screening. Chapters included in the first volume touch on some of the recent advances in RNAi technology (i.e., applications to 3D cell culture, drug repurposing, and bioproduction) and provide guidance on how to address the continued challenges associated with off-target effects, database structuring, and pooled shRNA screens.

The book provides an updated panorama of the functional relevance of molecular chaperones in the proper folding of client factors, protein-protein interactions, the regulation of key biological functions, the development of ligand-based structural complexes and the consequent pharmacological or biotechnological applications of these processes. The involvement of molecular chaperones in several processes ranging from regulation of transcription factors and protein-protein interactions in bacteria to proteostasis, signaling pathways and cancer are also addressed. The book is an essential consulting tool for researchers, working professionals in academia or industry, and students of all levels who wish to obtain the most relevant and updated information currently available about protein folding and chaperones.

Volume 1 - Frontiers on Recent Developments on Plant Science is an edited, peer-reviewed volume comprised of a collection of individual chapters from leading research groups across different continents. Due to its multidisciplinary nature, the combined experiences and expertise in plant science has an increasing importance both in agriculture and industry. This evidenced by inclusion of plant biotechnology in academic curricula from high school to undergraduate and postgraduate degree levels, and even in Ph.D. courses. Plant Biotechnology encompasses a wide range of narrow research areas such as agricultural biotechnology, industrial and environmental biotechnology, pharmacy and pharmaceutical sciences and drug development from plant sources, plant-microbe host interactions studies, biochemical and molecular studies on gene expression using various plant models, gene targeting, homologous and non-homologous recombination studies on plant models, RNAi technology in plants, cereal biotechnology, biotechnology of endangered plant species, forestry, phytoremediation technologies, genetic engineering, gene delivery approaches, plant tissue culture and biological and biochemical techniques and methods/protocols involved in different focal area of plant science.

An understanding of biological systems at cellular and molecular levels helps researchers to model cellular behavior in different experimental conditions. This, in turn, can lead to insights about the influence of cell culture environment and the effect of knockout gene research when studying mutations that affect specific metabolic pathways. A systems biology approach, therefore, allows researchers to simulate experimental observations in order to predict outcomes at the cellular level. Fundamentals of Systems Analysis and Modeling of Biosystems and Metabolism presents the basic concepts required for a systems biology approach towards cellular modeling. The book is intended as a primer for systems biology and biomedical engineering graduates and researchers. The text introduces readers to concepts related to cellular metabolism and its regulation, (enzymatic regulation and transcriptional regulation) which are also incorporated into a main metabolic model of a cell. The book also has chapters dedicated to identifying and incorporating steady-state and dynamic characteristics when considering a biological model for a computer simulation. Readers will be able to (1) understand the basis of systems analysis towards creating appropriate biological models and simulations, (2) develop useful kinetic models based on cellular transport phenomena and metabolic regulation, (3) understand how to simulate a cell growth phenotype, and analyze it with experimental data.

This reference is a timely compilation of studies of genome size and genetic stability of regenerated plants. It presents 13 book chapters that cover recent advancements in CRISPR/Cas-based genome editing, the use of molecular markers to analyze somaclonal variation in tissue culture, and genetic stability assessment in various plant species, including medicinally valuable plants like Valeriana and Coffea. The book also highlights the role of flow cytometry in investigating polyploidy and provides valuable insights into genetic fidelity assessment of micropropagated woody plants and orchids. The contributors have shed light on the intra-specific and inter-specific genome and chromosome number variation with reference to gene duplication and DNA sequence loss. Molecular techniques for detecting ploidy levels and genetic homogeneity in regenerated plantlets are also discussed. Additional highlights of the book include brief guidelines for experimental protocols for flow cytometry and molecular markers, coverage of a wide range of plants, and supporting references. This is an excellent reference for biologists, geneticists, and plant scientists exploring genetic homogeneity and genome size variation in diverse plant groups.

Glucose homeostasis and insulin resistance presents a broad overview of the molecular, biochemical and clinical aspects of glucose metabolism and glucose resistance. The book serves to acquaint the reader with recent information on topics ranging from the glucose metabolism and glucose transporters, the hormonal regulation of glucose homeostasis, to insulin resistance and the characterization of novel pharmacological approaches on emerging targets for the treatment of diabetes. Also included in the book is a discussion on the role of mutations in insulin resistance. The book is particularly useful for clinical researchers, endocrinologists and diabetes specialists.

This Ebook aims to review basic understandings and give current opinions about several important aspects of glycosylphosphatidylinositol-anchored (GPI) protein biology from leading experts in this exciting and emerging field. The scope ranges from micro-domain localization and signaling to proteomics aspects, biophysical behavior through trans-cellular mobility to chemical synthesis of GPI mimics and finally modification of multi-scaled membrane surfaces and potential medical and biotech uses. The applied slant makes it very useful to the current state of knowledge. It is hoped that it will prove to be of considerable interest to students and researchers in this field.

Heat Stress In Food Grain Crops: Plant Breeding and Omics Research is a timely compilation of advanced research on heat stress affecting crop yield, plant growth & development of common food grain and cereal crops. Chapters in the book cover several aspects of crop science including the identification of potential gene donors for heat tolerance, physiological mechanisms of adaptation to heat stress, the use of conventional and modern tools of breeding for imparting tolerance against terminal temperature stress and precise mapping of heat tolerant QTLs through biparental and genome wide association mapping. The use of genomics and phenomics methods is focused on through chapters dedicated to important crops such as groundnut, pearl millet, maize, chickpea, mungbean and wheat. Authors of the respective chapters explain the importance of harnessing a diverse crop genepool for sustaining crop production under conditions of increasing heat stress. Readers will be able to understand the relevance of functional genomics in elucidating candidate genes and their regulatory functions contributing to heat tolerance

Recent molecular studies have revealed an overwhelming role of hemolymph proteins and functional peptides in invertebrate physiology. This is mainly due to the large assortment of biomolecular factors each with a different structure and function. In addition there is a multitude of genes encoding for hemolymph proteins and functional peptides. Hemolymph proteins and functional peptides: Recent Advances in Insects and other Arthropods elucidates the physiological role, both at biochemical and molecular levels, of hemolymph proteins and functional peptides in reproduction, development, homeostasis, hibernation, migration, immune system, and in abiotic stress tolerance of insects and other arthropods. Readers gain an opportunity to find out how insects or other arthropods benefit from these biomolecular instruments for physiological processes, and how they endure and respond to the environmental stress. Recent research developments from a wider range of recognized authors and laboratories actively pursuing research in the field have been gathered and presented in a single volume. This e-book is a unique compilation of research on the biological role of numerous and diversified hemolymph protein molecules and peptides. This e-book will be equally interesting to students and researchers working in universities and other research stations in fields of entomology, zoology and physiology.

Computer-aided drug design and in silico screening have contributed to the discovery of several compounds that have either reached the market or entered clinical trials. In silico Lead Discovery is a compilation of the efforts of several experts on bioinformatics and drug design in developing the latest advances of in silico approaches for lead discovery. It contains an overview of structure-based, ligand-based methods and current fragment-based methods as well as examples for successful applications of such methods in discovering new hit/lead molecules for important therapeutic targets. Treatment of receptor flexibility - which is one of the most important challenges for in silico screening today – has also been highlighted in the eBook. Biomedical scientists, biologists and chemists can find valuable information here that could help them to initiate or to complete chemical biology projects with the goal of designing new hit-to-lead molecules or chemical probes for chemogenomics projects..