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Lucas Bazilio

You’ve just stumbled upon the most complete, in-depth MIPS programming course online.

Whether you want to:

- build the skills you need to get your first MIPS programming job

- move to a more senior software developer position

- become a computer scientist mastering in computation

- or just learn MIPS to be able to create your own projects quickly.

...this complete MIPS Masterclass is the course you need to do all of this, and more.

Read more

You’ve just stumbled upon the most complete, in-depth MIPS programming course online.

Whether you want to:

- build the skills you need to get your first MIPS programming job

- move to a more senior software developer position

- become a computer scientist mastering in computation

- or just learn MIPS to be able to create your own projects quickly.

...this complete MIPS Masterclass is the course you need to do all of this, and more.

This course is designed to give you the MIPS skills you need to become a MIPS developer. By the end of the course, you will understand MIPS extremely well and be able to build your own MIPS apps and be productive as a computer scientist and software developer.

What makes this course a bestseller?

Like you, thousands of others were frustrated and fed up with fragmented Youtube tutorials or incomplete or outdated courses which assume you already know a bunch of stuff, as well as thick, college-like textbooks able to send even the most caffeine-fuelled coder to sleep.

Like you, they were tired of low-quality lessons, poorly explained topics, and confusing info presented in the wrong way. That’s why so many find success in this complete MIPS developer course. It’s designed with simplicity and seamless progression in mind through its content.This course assumes no previous coding experience and takes you from absolute beginner core concepts. You will learn the core MIPS skills and master functional programming. It's a one-stop shop to learn MIPS. If you want to go beyond the core content you can do so at any time.

Here’s just some of what you’ll learn

(It’s okay if you don’t understand all this yet, you will in the course)

  • Master the MIPS Assembler Architecture

  • Understanding the Memory Space in MIPS assembly language

  • Master the Addresing Modes and Available Registers to perform operations

  • Understand the Set of Instructions in MIPS assembly language

  • Translate C code to MIPS code

  • Complete chapters on Assembly programming and many aspects of the MIPS hardware mechanism (the protocols and tools for building applications) so you can code for all platforms and derestrict your program’s user base.

What if I have questions?

As if this course wasn’t complete enough, I offer full support, answering any questions you have everyday.

This means you’ll never find yourself stuck on one lesson for days on end. With my hand-holding guidance, you’ll progress smoothly through this course without any major roadblocks.

There’s no risk either.

This course comes with a full 30-day money-back guarantee. Meaning if you are not completely satisfied with the course or your progress, simply let me know and I’ll refund you 100%, every last penny no questions asked.

You either end up with MIPS skills, go on to develop great programs and potentially make an awesome career for yourself, or you try the course and simply get all your money back if you don’t like it…

You literally can’t lose.

Ready to get started, developer?

Enroll now using the “Add to Cart” button on the right, and get started on your way to creative, advanced MIPS brilliance. Or, take this course for a free spin using the preview feature, so you know you’re 100% certain this course is for you.

See you on the inside (hurry, MIPS is waiting. )

Enroll now

What's inside

Learning objectives

  • You will learn the mips assembly language from scratch
  • You will be able to program in mips professionally
  • Be able to use mips for computer science and mathematics
  • Master the mips architecture
  • You will learn mips memory, registers, data alignment, etc.
  • Get fast and friendly support in the q&a area

Syllabus

On this lesson we solve the question 4 of the Laboratory 1.

Course Introduction

In this lesson we introduce the MIPS assembly language.

Read more

In this lesson we study the RISC architecture.

On this lesson we study the fundamentals of memory.
We cover Big Endian and Little Endian byte orderings.

On this lesson we introduce the fundamentals of variables and see an example in MIPS.

On this lesson we study the declaration and alignment of variables in MIPS.

On this lesson we learn how we can align vectors in MIPS.

On this lesson we introduce operands in MIPS.

On this lesson we study the sign extension operation in binary numbers represented in Two's complement.

On this lesson we study operands in register and immediate mode.

On this lesson we study literal operands and symbolic constants.

On this lesson we introduce vectors in MIPS.

On this lesson we study how we can access a random element in a vector.

On this lesson we study strings and how we store them in MIPS.

In this lesson we introduce pointers in MIPS.

On this lesson we study the pointer arithmetic in MIPS.

On this lesson we study the relation between pointers and vectors.

On this lesson we study jumping instructions and macros in MIPS.

On this lesson we study the if-then-else conditional statement.

On this lesson we generic notions to translate mixed conditions.

On this lesson we introduce the while loop in MIPS.

We also see how we can translate the for loop from C language to MIPS assembly language.

On this lesson we introduce the for loop in MIPS.

We also see how we can translate the for loop from C language to MIPS assembly language.

On this lesson we introduce the do-while loop in MIPS.

We also see how we can translate the for loop from C language to MIPS assembly language.

On this lesson we introduce the Laboratory 1.

On this lesson we solve the question 1 of the Laboratory 1.

On this lesson we solve the question 2 of the Laboratory 1.

On this lesson we mention that in question 3 the x86 logo appears.

However, do not worry, all the code is in MIPS.

This logo is going to be updated to MIPS in the lesson in the following days :).

On this lesson we solve the question 3 of the Laboratory 1.

In some parts of this lesson it appears the x86 Logo, however do not worry, all the code is in MIPS.

This logo is going to be updated to MIPS in the lesson in the following days :).

On this lesson we solve the question 5 of the Laboratory 1.

On this lesson we make a brief introduction to subroutines in MIPS.

On this lesson we study the rule 1 for subroutine management in MIPS.

On this lesson we study the rule 2 for subroutine management in MIPS.

On this lesson we study the rule 3 for subroutine management in MIPS.

On this lesson we study the rule 4 for subroutine management in MIPS.

On this lesson we introduce the Laboratory 2.

On this lesson we solve the question 1 of the Laboratory 2.

On this lesson we solve the question 2 of the Laboratory 2.

On this lesson we solve the question 3 of the Laboratory 2.

On this lesson we make a brief introduction to matrices in MIPS.

On this lesson we study how to access a random element in Matrices.

On this lesson we introduce sequential access in MIPS.

On this lesson we study the sequential access to a matrix.

On this lesson we see how to calculate the stride and perform sequential access to the diagonals of a matrix.

On this lesson we introduce the Laboratory 3.

On this lesson we solve the question 1 of the Laboratory 3.

On this lesson we solve the question 2 of the Laboratory 3.

On this lesson we solve the question 3 of the Laboratory 3.

On this lesson we mention that in question 4 it appears the text "part 1/2" .

However, do not worry, all the code is the entire solution.

On this lesson we solve the question 4 of the Laboratory 3.

On this lesson we solve the question 5 of the Laboratory 3.

On this lesson we solve the question 6 of the Laboratory 3.

Traffic lights

Read about what's good
what should give you pause
and possible dealbreakers
Covers translating C code to MIPS, which is useful for understanding how high-level languages are executed at the hardware level
Explores memory space, addressing modes, and instruction sets, which are fundamental concepts in computer architecture
Includes laboratory sessions with practical questions, which allows learners to apply their knowledge and develop problem-solving skills
Teaches MIPS assembly language from scratch, which is helpful for learners with no prior experience in assembly programming
Focuses on older concepts such as endianness, which may not be relevant to all modern computing environments
Uses MIPS, which is less commonly used in industry compared to x86 or ARM architectures, limiting its direct applicability in some software development roles

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Reviews summary

Comprehensive mips assembly for beginners

According to learners, this course offers a well-structured and comprehensive introduction to MIPS Assembly Language, specifically tailored for those starting from zero. Students frequently highlight the clarity of the explanations and the effectiveness of the hands-on laboratories and exercises in solidifying understanding. The instructor is often praised for being knowledgeable and providing helpful support through the Q&A sections. While generally perceived as beneficial, some reviews note that the inherent difficulty of assembly language means the course requires significant effort, and the pace might feel fast for absolute beginners. Overall, it is seen as a strong resource that fills a gap compared to fragmented tutorials or dense textbooks.
Instructor is responsive and helpful.
"The instructor's support in the Q&A was quick and very helpful in overcoming hurdles."
"Questions were answered promptly and thoroughly, which is rare in online courses."
"Great support from the instructor; makes a big difference when you get stuck."
Provides a strong basis in MIPS.
"This course gave me a really solid foundation in MIPS assembly programming."
"I now feel confident in my ability to read and write basic MIPS code after completing the course."
"It delivers on the promise of taking you from scratch to a functional understanding."
Hands-on labs are excellent for learning.
"The laboratory sessions are the most valuable part; they really help connect theory to practice."
"Solving the lab questions solidified my understanding of key MIPS concepts."
"I appreciate the practical exercises provided; they are essential for mastering assembly."
Explanations are clear and easy to follow.
"The concepts are explained very clearly, making complex MIPS topics accessible."
"I found the lectures easy to follow, even with no prior assembly knowledge."
"The instructor does a great job breaking down potentially confusing topics into understandable parts."
Pace can be challenging for beginners.
"As a complete beginner, I found some parts moved a bit fast and required rewatching."
"While advertised as 'zero to hero', the inherent difficulty of MIPS means the pace might overwhelm some."
"It moves at a good pace if you already have some programming background, but maybe too quickly without."

Activities

Be better prepared before your course. Deepen your understanding during and after it. Supplement your coursework and achieve mastery of the topics covered in Learn MIPS Assembly Language from Zero to Hero with these activities:
Review Computer Architecture Fundamentals
Reinforce your understanding of computer architecture concepts, which are essential for grasping MIPS assembly language.
Browse courses on Computer Architecture
Show steps
  • Review the basic components of a computer system.
  • Study instruction set architectures and their purpose.
  • Understand the fetch-decode-execute cycle.
Explore 'See MIPS Run'
Gain a practical understanding of MIPS assembly language with a hands-on guide.
Show steps
  • Read the chapters on MIPS instructions and memory management.
  • Work through the examples and exercises in the book.
Read 'Computer Organization and Design'
Deepen your understanding of computer architecture, which is crucial for mastering MIPS assembly.
Show steps
  • Read the chapters on instruction set architecture and memory organization.
  • Work through the examples and exercises in the book.
Four other activities
Expand to see all activities and additional details
Show all seven activities
Create a MIPS Assembly Language Cheat Sheet
Compile a cheat sheet of common MIPS instructions, registers, and addressing modes for quick reference.
Show steps
  • Gather information on MIPS instructions and registers.
  • Organize the information into a concise and easy-to-read format.
  • Share your cheat sheet with other students.
Translate C code to MIPS
Practice translating C code snippets into equivalent MIPS assembly code to solidify your understanding of MIPS instructions and their usage.
Show steps
  • Find C code examples online or in textbooks.
  • Translate the C code into MIPS assembly instructions.
  • Test your MIPS code using a MIPS simulator.
Implement a Simple Calculator in MIPS
Develop a calculator program in MIPS that performs basic arithmetic operations to apply your knowledge of MIPS programming.
Show steps
  • Design the calculator's user interface and functionality.
  • Write the MIPS assembly code for the calculator.
  • Test and debug your calculator program.
Create a MIPS Assembly Code Snippet Library
Build a collection of reusable MIPS assembly code snippets for common tasks, such as string manipulation, array processing, and input/output operations.
Show steps
  • Identify common tasks that can be implemented in MIPS assembly.
  • Write MIPS assembly code snippets for each task.
  • Organize the code snippets into a library with clear documentation.

Career center

Learners who complete Learn MIPS Assembly Language from Zero to Hero will develop knowledge and skills that may be useful to these careers:
Reverse Engineer
Reverse Engineering involves analyzing compiled software to understand its functionality, often without access to the source code. A Reverse Engineer disassembles and debugs programs to identify vulnerabilities, understand algorithms, or analyze malware. This course provides skills in understanding assembly code and machine architecture, which are vital for reverse engineering. The ability to read and understand MIPS assembly language helps in deciphering the behavior of compiled programs. Familiarity with memory layout, registers, and instruction sets, obtained from this course, helps the Reverse Engineer to effectively analyze and understand the inner workings of software.
Embedded Systems Engineer
Embedded Systems Engineers design, develop, and test software for devices that are not traditional computers, such as those found in automobiles, medical equipment, and industrial machinery. This course helps build familiarity with low-level programming concepts and assembly language which are critical for interacting directly with hardware components, which is a core part of the Embedded Systems Engineer's work. By learning MIPS, one may be able to grasp the fundamentals of how software interfaces with hardware at a low level. The emphasis on memory management and registers can enable the Embedded Systems Engineer to optimize code for resource-constrained environments.
Firmware Developer
Firmware Developers create low-level software that controls hardware devices. This role requires a deep understanding of hardware architecture and how to program it directly. The course's focus on assembly language helps the Firmware Developer to write efficient and optimized code. Learning MIPS aids in understanding the essentials of hardware-software interaction. This course, especially with its sections on memory and register manipulation, is valuable for anyone aspiring to work in firmware development. The knowledge gained enables the Firmware Developer to work at a low level, optimizing performance and managing hardware resources effectively.
Operating Systems Developer
Operating Systems Developers are responsible for writing, maintaining, and improving the core software that manages computer hardware and resources. A solid understanding of low-level programming is essential. This course provides an introduction to assembly language, which is used to write parts of operating systems, device drivers, and other system-level components. By learning MIPS, one may be able to grasp the fundamentals of memory management, process scheduling, and interrupt handling at a low level. The course's content on memory space and instruction sets can enable the Operating Systems Developer to optimize code for system performance and reliability.
Compiler Writer
Compiler Writers design and implement compilers, which translate high-level programming languages into machine code. They need a strong understanding of both programming language theory and computer architecture. This course provides exposure to assembly language, which is the typical output of a compiler. Understanding MIPS helps the Compiler Writer to generate efficient and correct machine code. The course, with its focus on instruction sets and memory management, is a good starting point for anyone interested in the complexities of compiler design. The ability to translate C code to MIPS code, as mentioned in the course description, is particularly relevant.
Computer Architect
Computer Architects design and develop new computer architectures, optimizing for performance, power efficiency, and other factors. They need a deep understanding of how software interacts with hardware. This course helps build knowledge of assembly language and computer architecture, which is valuable for understanding the implications of architectural decisions on software performance. Learning MIPS aids in understanding the essentials of processor design and optimization. The course's content on instruction sets and memory management can provide a foundation for more advanced study in computer architecture. A Computer Architect typically requires a Master's degree or PhD.
Security Analyst
Security Analysts are responsible for protecting computer systems and networks from cyber threats. This often involves analyzing software for vulnerabilities and malicious behavior. This course may provide skills in understanding assembly code, which can be useful for reverse engineering malware and identifying security flaws. Learning MIPS helps build a foundation in low-level programming and computer architecture, which are helpful for analyzing compiled code. The ability to understand memory layout, registers, and instruction sets, gained in this course, may assist the Security Analyst in identifying and mitigating security threats.
Game Developer
Game Developers create video games for various platforms. While most game development uses high-level languages, understanding low-level programming can be useful for optimizing performance and creating special effects. This course may help build familiarity with assembly language which can be leveraged to optimize critical sections of code or to work on console platforms where assembly programming is sometimes necessary. By learning MIPS, one may be able to grasp the fundamentals of how software interacts with hardware at a low level, which is invaluable for performance tuning. The emphasis on memory management and registers can also help optimize resource usage in game development.
Software Engineer
Software Engineers design, develop, and test software applications. While many Software Engineer roles focus on high-level languages, understanding low-level programming can be useful for debugging and performance optimization. This course helps build familiarity with assembly language. By learning MIPS, one may be able to grasp the fundamentals of how software interacts with hardware at a low level, which is invaluable for understanding system behavior and diagnosing issues. The emphasis on memory management and registers can also help optimize code for better performance.
Technical Support Engineer
Technical Support Engineers provide assistance to customers who are experiencing technical issues. This course may provide skills in understanding computer architecture, which can be useful for diagnosing hardware-related problems. The course on MIPS may help the Technical Support Engineer grasp the fundamentals of how software interacts with hardware at a low level. This may allow the Technical Support Engineer to better explain to customers what might be happening at the lower levels of a computer's operation.
Computer Science Professor
Computer Science Professors teach computer science courses at the university level. They also conduct research and publish scholarly articles. This course may broaden one's knowledge of computer architecture and assembly language. The material in this course may be useful when teaching subjects to students, such as machine architecture, assembly programming, and reverse engineering. These concepts, at the core of low-level computing, are often explored in computer science curricula.
Data Scientist
Data Scientists analyze large datasets to extract insights and inform business decisions. They typically use high-level programming languages and statistical tools. This course may help one to have a deeper understanding of the underlying hardware and software interactions that affect performance. An understanding how data is stored, accessed, and manipulated at a low level may allow the Data Scientist understand how the data flows in memory. This understanding may lead to greater efficiencies in algorithm design.
Web Developer
Web Developers build and maintain websites and web applications. This course may increase one's knowledge of computer architecture, potentially leading to greater optimization. A Web Developer may become a DevOps Engineer, who requires a fuller understanding of how code is compiled and how it operates in the lower levels of the hardware that powers the Internet. The fundamental principles of memory management and registers can also help in debugging and optimizing web applications.
Database Administrator
Database Administrators are responsible for managing and maintaining databases. They ensure data integrity, security, and availability. Database administrators may benefit from an understanding of how data is stored and accessed at a low level. This course may allow a database administrator to understand how memory management and other lower level functions can affect database performance. This insight may be useful for optimizing database queries and configurations.
Network Engineer
Network Engineers design, implement, and maintain computer networks. While network engineering typically focuses on higher-level protocols and network devices, understanding low-level programming can sometimes be useful for debugging and troubleshooting network issues. This course may help build familiarity with low-level programming concepts, which may allow a Network Engineer to better diagnose network problems. The emphasis on memory management and registers can also help optimize network applications for better performance.

Reading list

We've selected two books that we think will supplement your learning. Use these to develop background knowledge, enrich your coursework, and gain a deeper understanding of the topics covered in Learn MIPS Assembly Language from Zero to Hero.
Standard textbook for computer architecture courses. It provides a comprehensive overview of computer organization and design principles, including instruction set architectures like RISC-V, which shares many concepts with MIPS. Reading this book will give you a deeper understanding of the underlying hardware and software interface, making it easier to learn and master MIPS assembly language. It valuable reference for understanding the rationale behind MIPS design choices.
Provides a practical introduction to MIPS assembly language programming. It covers the MIPS instruction set, memory management, and subroutine calls. It is particularly useful for understanding how MIPS code is executed and how to debug MIPS programs. This book serves as a good companion to the course, offering a hands-on approach to learning MIPS assembly.

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