Master Low-Level Computer Systems: C++, Hardware & Data Structures
What you will learn:
- Understand the fundamental architecture and operation of computers.
- Master binary arithmetic and its application in computer systems.
- Grasp Boolean algebra's role in digital logic design.
- Learn the essentials of electronics, including transistors, MOSFETs, and circuits.
- Develop practical skills in C++ programming.
- Become proficient in memory management techniques using pointers and arrays.
- Master data structures such as linked lists and ADTs.
- Apply your knowledge through hands-on projects and real-world examples.
- Learn modern software engineering practices.
- Gain a comprehensive understanding of how hardware and software interact.
Description
Dive deep into the inner workings of computers with our comprehensive course, "Mastering Low-Level Computing." This isn't your average programming course; it's a complete university-level curriculum covering hardware and software, designed to equip you with a foundational understanding of how computers truly function. Over 16 hours of intensive video instruction, you will journey from the fundamental principles of electronics and logic circuits all the way to advanced C++ programming and data structure manipulation.
We begin by exploring the fundamental principles of how computers communicate and calculate, including a detailed exploration of computer arithmetic and Boolean algebra. You'll uncover the secrets behind transistors, MOSFETs, and CMOS switches, understanding how these tiny components power modern CPUs. Then, we move into the world of logic circuits, building a solid foundation in combinational logic design.
The course then transitions into hands-on C++ programming, covering key concepts such as pointers, memory management, arrays, references, and dynamic memory allocation. We'll delve into the power of the Standard Template Library (STL) and tackle the implementation of sophisticated data structures, including Abstract Data Types (ADTs) and linked lists. Through engaging projects, detailed diagrams, code walkthroughs, and clear explanations, this course ensures comprehension for students of all backgrounds.
What sets this course apart?
- University-level curriculum: Taught by experienced professionals with a background in university instruction.
- Hardware and software integration: A unique approach that bridges the gap between electronics and programming.
- Beginner-friendly to advanced: Adaptable to all skill levels, starting from the basics and progressing to advanced topics.
- Extensive hands-on practice: Real-world applications and projects to solidify your understanding.
- Modern tools and techniques: Learn the latest technologies used in cutting-edge engineering.
This course is ideal for aspiring software engineers, computer science students, embedded systems developers, cybersecurity professionals, and anyone looking to gain a deep understanding of how computers operate at a fundamental level. Enroll now and unlock the power of low-level computing!
Curriculum
Introduction to Computer Engineering & Science
This section begins with an exploration of computer communication and the setup of a development environment. It concludes with a breakdown of the processes occurring when a computer is in use, providing a holistic introductory perspective.
Computer Arithmetic for Beginners
This section provides a foundational understanding of computer arithmetic, starting with decimal addition and subtraction. It progresses to explore arithmetic operations with unsigned integers and, crucially, signed integers, including the representation of negative numbers in binary.
Boolean Algebra
This section provides a complete introduction to Boolean algebra in the context of low-level computing. This is crucial for understanding how logic gates and circuits operate.
Electronics
This section introduces the essential elements of electronics. From fundamental components like capacitors and inductors, we delve into the operation of transistors and MOSFETs and explore their application within CPUs. Power consumption within circuits is also thoroughly covered.
Combinational Logic Circuits
This section covers the building blocks of digital logic, starting with an introduction to logic circuits and then constructing a full adder. This bridges the gap between electronics and programming logic.
Introduction to C++
This extensive section covers the basics of C++ programming, from variable assignment and data types to control statements and loops. Significant coverage is given to pointers, namespaces, and fundamental programming practices, culminating in a final project to reinforce learning.
Introduction to C++ Classes
This section delves into object-oriented programming in C++, introducing classes, constructors, destructors, and access control mechanisms. Understanding how classes work is essential for writing maintainable and scalable code.
Introduction to Pointers
This section provides a comprehensive exploration of pointers in C++, covering dereferencing, pointer arithmetic, memory allocation, and handling potential issues such as array out-of-bounds errors. The practical application of pointers is stressed throughout.
STL Library
This section provides a brief overview of the Standard Template Library (STL), including vectors and arrays, a crucial aspect of writing efficient and modern C++ code.
References in C++
This section explains the concept of references in C++ and demonstrates their use with examples, including the use of `auto`, `tuple`, and `for` loops for efficient and concise code.
Pointers (Advanced)
This section provides further practice with pointers through several practical exercises, enhancing mastery of this fundamental C++ concept.
Functions (Advanced)
This extensive section explores various aspects of functions in C++, including different function types and applications, building upon the earlier foundational material.
Data Structures in C++
This section starts with basic programming in C++ and then develops a random card generator to solidify the concepts, culminating in an introduction to data structures.
Data Structures - ADT
This section introduces Abstract Data Types (ADTs), demonstrating their creation and use within classes, including virtual methods and control of copy operations. ADTs are fundamental for organized code design.
Data Structures - Templates
This section covers class templates in C++, providing the tools to build reusable and flexible data structures.
Data Structures - STL and Asymptotic Analysis
This section combines the Standard Template Library with algorithm analysis, teaching students how to select the best data structures for various tasks. Practical examples and scenario analysis are included.
Pointers and Arrays (Advanced)
This section delves deeper into the interaction between pointers and arrays, enhancing the understanding of memory management in C++.
ADT List
This section guides students through the creation of an ADT List, including methods for getting, inserting, searching, and removing elements. This provides a practical implementation of an ADT.
Nodes in Data Structures
This section explains how nodes are fundamental in many data structures, with the creation and chaining of nodes containing various data types.
Creating Custom LinkedList
This section culminates in the creation of a custom linked list, building upon previous knowledge of nodes and ADTs. It covers methods for insertion, searching, and deletion within the linked list.
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