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所在平台: Udemy |
课程主页: https://www.udemy.com/course/cmos-vlsi-plc-microcontroller-assembly-language/
课程评论:没有评论
课程名称:VLSI、PLC、微控制器与汇编语言 课程概述:Uplatz提供了一门关于VLSI、PLC、微控制器和汇编语言的全面课程。VLSI(超大规模集成)是指在单一芯片上集成多个器件的集成电路(IC)或技术。随着技术的进步,对集成数量的定义变得越来越复杂,并且因行业的不同而有所不同。PLC(可编程逻辑控制器)是一种固件设备,广泛应用于商业及工业控制领域,主要用于监控输入输出,并为自动化过程或机器做出基于逻辑的决策。微控制器则是设计用于控制嵌入式系统中特定操作的紧凑集成电路,集处理器、内存及输入输出外设于一体,广泛应用于车辆、家用电器等设备。 汇编语言是一种低级编程语言,与机器代码相似但更易读。该语言可以直接翻译成机器代码,通过汇编程序将每个指令转换为特定硬件所需的机器代码。课程内容涵盖CMOS和VLSI技术基础,微控制器及工业用途PLC的基本知识,以及MSP430微控制器的详细功能。同时,课程还从零开始讲解汇编语言的基本概念、结构、语法和指令集,并包括16位MS DOS和32位Windows的编程。 职业路径:针对PLC和微控制器领域的职业发展,通常需要具有电子工程、电气工程或计算机工程等相关领域的学士学位。入门级职位通常为PLC/微控制器工程师或实习生,工作内容涉及编程、测试和故障排除。随着经验的积累,可以晋升为中级工程师,参与复杂控制系统的设计和实施,并逐渐向高级工程师、系统架构师和研究科学家等高级职位发展。 总结:本课程不仅提供理论知识,也强调实践经验,以帮助学员在PLC和微控制器领域构建扎实的职业基础,跟上技术发展的步伐。
Uplatz presents this extensive course on VLSI, PLC, Microcontrollers, and Assembly Language.VLSI (Very Large Scale Integration) refers to an integrated circuit (IC) or technology that has several devices on a single chip. The definition of 'how many' is difficult to answer, since as technology advances, numerical definitions become increasingly meaningless. Also it differs by industry: a VLSI analogue part is not the same as a VLSI digital logic or VLSI memory part. The technique of integrating or embedding hundreds of thousands of transistors on a single silicon semiconductor microchip is known as very large-scale integration (VLSI). When advanced level computer processor microchips were being developed in the late 1970s, VLSI technology was envisioned. VLSI is a successor to large-scale integration (LSI), medium-scale integration (MSI) and small-scale integration (SSI) technologies.PLC stands for Programmable Logic Controller, and it is also known as programmable controller. It is a sort of firmware device (device ready to take basic software instructions) that is extensively used in commercial and industrial control applications. The sorts of jobs that PLCs execute, as well as the hardware and software that they require to perform these tasks, might differ from those performed by office computers. A PLC is an industrial solid-state computer that monitors inputs and outputs, and makes logic-based decisions for automated processes or machines. A PLC is typically designed for the control of manufacturing processes or robotic devices where reliability control, simple programming and fault diagnosis is necessary. They were originally built to replace electromechanical relay systems in industrial automation.A Microcontroller is nothing but a compact integrated circuit designed to govern a specific operation in an embedded system. A typical microcontroller includes a processor, memory and input/output (I/O) peripherals on a single chip. Sometimes referred to as an embedded controller or microcontroller unit (MCU), microcontrollers are found in vehicles, robots, office machines, medical devices, mobile radio transceivers, vending machines and home appliances, among other devices. Micro-controllers are essentially simple miniature personal computers (PCs) designed to control small features of a larger component, without a complex front-end operating system (OS). A microcontroller (sometimes called an MCU or Microcontroller Unit) is a single Integrated Circuit (IC) that is typically used for a specific application and designed to implement certain tasks. Products and devices that must be automatically controlled in certain situations, like appliances, power tools, automobile engine control systems, and computers are great examples, but microcontrollers reach much further than just these applications. Essentially, a microcontroller gathers input, processes this information, and outputs a certain action based on the information gathered. Microcontrollers usually operate at lower speeds, around the 1MHz to 200 MHz range, and need to be designed to consume less power because they are embedded inside other devices that can have greater power consumptions in other areas.Assembly Language can be defined as a low-level programming language. Essentially Assembly Language equates to machine code but is more readable. It can be directly translated into machine code, but it uses mnemonics to represent the instructions to make it easier to understand. In order to convert assembly language into machine code it needs to be translated using an assembler. This converts each statement into the specific machine code needed for the hardware on which it is being run. There is a one-to-one relationship between an assembly language instruction and its machine code equivalent. Each CPU has its own version of machine code and assembly language. Assembly Language consists mostly of symbolic equivalents of a particular computer's machine language. Computers produced by different manufacturers have different machine languages and require different assemblers and assembly languages. Some assembly languages can be used to convert the code that programmers write (source code) into machine language (readable by the computer) and have functions to facilitate programming (e.g., by combining a sequence of several instructions into one entity). Programming in assembly languages requires extensive knowledge of computer architecture.This course covers the fundamentals of CMOS and VLSI technologies, then moving on to the basics of Microcontrollers and industrial-use PLCs (Programmable Logic Controllers). This training describes in detail the functioning of MSP430 Microcontroller. The course covers Assembly Language from scratch, the basic concepts, structure, syntax and instruction sets of the Assembly Languages, along with 16-bit MS DOS and 32-bit Windows programming.VLSI, PLC, Microcontrollers, and Assembly Language - Course SyllabusCMOS TechnologyVLSI IntroductionBasics of Programmable Logic Controller (PLC)PLC ProgrammingLadder DiagramSupervisory Control and Data Acquisition (SCADA)Assembly Language for Intel based ComputersAssembly Language FundamentalsProceduresConditional ProcessingInteger ArithmeticAdvanced Procedures, Strings, ArraysStructures and Macros32-bit Windows ProgrammingHigh Level Language Interface and 16-bit MS DOS ProgrammingDisk UsageIntroduction to MicrocontrollersMSP430 MicrocontrollerAVR MicrocontrollerComputer SystemsAssembly Language using ATMEL AVR MicrocontrollerA career path in the field of Programmable Logic Controllers (PLC) and Microcontrollers involves working with these embedded systems to design, program, and manage automated control systems for various industries.Here's an outline of the typical career progression:Education:Bachelor's Degree: Start with a bachelor's degree in electrical engineering, electronics engineering, computer engineering, or a related field. Your coursework will cover foundational topics in electronics, control systems, programming, and digital logic.Entry-Level Positions:Junior PLC/Microcontroller Engineer/Intern: Begin your career as an intern or junior engineer, assisting in programming, testing, and troubleshooting PLCs and microcontrollers in industrial or automation projects.Skill Development:Hands-on Experience: Gain practical experience by working on projects involving PLCs, microcontrollers, and automation systems. This could include designing control algorithms, writing code, and configuring hardware.Mid-Level Positions:PLC/Microcontroller Engineer: After a few years of experience, you'll move into mid-level roles where you'll take on more responsibility. This could involve designing and implementing control strategies, collaborating with cross-functional teams, and overseeing projects.Specialization:Automation Engineer, Control Systems Engineer: As you gain expertise, consider specializing in a specific domain, such as industrial automation, robotics, process control, or embedded systems. This could lead to roles that involve designing complex control systems for specific industries.Senior-Level Positions:Senior PLC/Microcontroller Engineer, Team Lead: With significant experience, you'll progress to senior positions. You might lead teams, guide technical decisions, and be responsible for the overall design and performance of automation systems.Advanced Roles:PLC/Microcontroller Architect, Systems Engineer: As your career advances, you might transition to roles that involve system architecture, overseeing the integration of various components, and making high-level decisions about technology choices.Research and Innovation (Optional):Research Scientist, Technology Innovator: If you're interested in pushing the boundaries of PLC and microcontroller technology, you might move into research-focused roles where you explore novel applications and develop new techniques.Consulting or Entrepreneurship (Optional):Consultant, Startup Founder: With a wealth of experience, you might choose to become a consultant, helping companies optimize their control systems. Alternatively, you could start your own company to develop and provide innovative solutions in the field.Throughout your career, staying up-to-date with the latest advancements in PLCs, microcontrollers, and automation technology will be crucial. This includes learning about new programming languages, communication protocols, hardware platforms, and industry standards. Networking within the industry, attending relevant conferences, and participating in online communities can also contribute to your professional growth as a PLC and microcontroller engineer.