Avtar Singh – författare

The International Conference on Sustainable Materials and Technologies in VLSI and Information Processing aimed to converge advancements in semiconductor technology with sustainable practices, addressing the critical need for eco-consciousness in the field of Very Large Scale Integration (VLSI) and Information Processing. The primary purpose of the conference was to explore innovative materials, manufacturing processes, and design methodologies that minimize environmental impact while optimizing performance and functionality in electronic devices. Key features of the conference included interdisciplinary discussions on sustainable materials such as biodegradable polymers, low-power semiconductor materials, and recyclable electronic components. Additionally, it focused on emerging technologies like quantum computing, neuromorphic computing, and photonic integrated circuits, exploring their potential contributions to sustainability in VLSI and information processing. The intended audience comprised of researchers, scientists, engineers, and industry professionals from academia, government, and private sectors involved in semiconductor technology, materials science, environmental sustainability, and information processing.

What set this conference apart was its unique emphasis on sustainability within the realm of VLSI and information processing. While there are conferences focusing on either semiconductor technology or sustainability separately, this conference bridged the gap between the two, fostering discussions and collaborations that pave the way for greener and more efficient electronic devices and systems.

The International Conference on Sustainable Materials and Technologies in VLSI and Information Processing aimed to converge advancements in semiconductor technology with sustainable practices, addressing the critical need for eco-consciousness in the field of Very Large Scale Integration (VLSI) and Information Processing. The primary purpose of the conference was to explore innovative materials, manufacturing processes, and design methodologies that minimize environmental impact while optimizing performance and functionality in electronic devices. Key features of the conference included interdisciplinary discussions on sustainable materials such as biodegradable polymers, low-power semiconductor materials, and recyclable electronic components. Additionally, it focused on emerging technologies like quantum computing, neuromorphic computing, and photonic integrated circuits, exploring their potential contributions to sustainability in VLSI and information processing. The intended audience comprised of researchers, scientists, engineers, and industry professionals from academia, government, and private sectors involved in semiconductor technology, materials science, environmental sustainability, and information processing.

What set this conference apart was its unique emphasis on sustainability within the realm of VLSI and information processing. While there are conferences focusing on either semiconductor technology or sustainability separately, this conference bridged the gap between the two, fostering discussions and collaborations that pave the way for greener and more efficient electronic devices and systems.

For one or two-semester courses in Microprocessors or Intel 16-32 Bit Chips.

Future designers of microprocessor-based electronic equipment need a systems-level understanding of the 80x86 microcomputer. This text offers thorough, balanced, and practical coverage of both software and hardware topics. Basic concepts are developed using the 8088 and 8086 microprocessors, but the 32-bit versions of the 80x86 family are also discussed. The authors examine how to assemble, run, and debug programs, and how to build, test, and troubleshoot interface circuits.

This book focuses on the global scenario of shrimp farming, shrimp culture practices, shrimp biology, taxonomy, and major disease challenges along with disease diagnostics in shrimp farming. It covers all the recent advancements in shrimp culture technology and serves as a comprehensive guide for all the stakeholders associated with the shrimp industry, including academicians, students, research laboratories, shrimp culturists, and institutional libraries. This book discusses major disease challenges, disease diagnostics, value addition, quality control, industry scenario, marketing, and processing. The book chapters are elucidated with pictorial representations and self-explanatory flow charts. Individual chapters devoted to shrimp pathology, major disease challenges, pathogen isolation techniques, and diagnostic methods are important parts of the book.

This book is of interest to aquaculture practitioners, academicians, students, and researchers directly or indirectly involved in shrimp culture.