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Arm Education

This course will provide you with a deep understanding of the architecture of modern microprocessors. We'll start your learning journey by covering the basics of computer architecture, such as definitions and a description of key components of a microprocessor.

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This course will provide you with a deep understanding of the architecture of modern microprocessors. We'll start your learning journey by covering the basics of computer architecture, such as definitions and a description of key components of a microprocessor.

We'll then take a deep dive into important computer architectural concepts and processes. For example, you'll learn how pipelining, branch handling and cache memories can improve the performance of a single-cycle microprocessor. We'll then introduce you to the world of superscalar processors, and how to maximise performance using out-of-order instructions.

Our lab exercises will bring to life the theory discussed in the course through a range of simulation tools.

Along the way, we'll provide you with insights from key engineers at Arm, illustrating how and why certain design choices were made so you’ll have the real-world context behind these pivotal architectural decisions.

With over 250 billion Arm-based chips deployed by our vast ecosystem of partners, Arm technology is present wherever computing happens. Be a part of this thriving community and enrol in Computer Architecture Essentials on Arm today.

This course is aimed at learners who have a basic understanding of computer organisation and programming languages. If you are completely new to the world of microprocessors, we suggest you take our Introduction to Microprocessors course on Coursera.

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What's inside

Syllabus

Module 1: Fundamentals of Computer Design
Module 2: Pipelining
Module 3: Handling Branches
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Career center

Learners who complete Computer Architecture Essentials on Arm will develop knowledge and skills that may be useful to these careers:
Microprocessor Design Engineer
As a Microprocessor Design Engineer, you are at the forefront of creating the "engines" that power our digital world. This role involves designing and optimizing the core processing units found in everything from tiny sensors to supercomputers, often focusing on performance, power efficiency, and functionality. The "Computer Architecture Essentials on Arm" course is directly aligned with the foundational knowledge required for this career. It provides a deep understanding of modern microprocessor architecture, covering essential concepts like pipelining, branch handling, cache memories, superscalar processors, and out-of-order execution, all critical for maximizing performance. Learning how design choices are made, informed by Arm engineers, offers invaluable real-world context. The lab exercises, utilizing simulation tools, provide practical experience in bringing theoretical concepts to life, giving you a competitive edge in designing the next generation of Arm-based chips. This course is an indispensable step towards becoming a successful Microprocessor Design Engineer.
ASIC Design Engineer
An ASIC Design Engineer specializes in creating custom integrated circuits for specific applications, which often include specialized processing units or accelerators. This deep technical role requires a profound understanding of how microprocessors function and how to optimize their components for unique requirements. The "Computer Architecture Essentials on Arm" course provides the bedrock knowledge for this field by diving into the architecture of modern microprocessors. Concepts such as pipelining, cache memories, and superscalar processors are directly applicable to designing efficient and high-performance custom silicon. The course's insights into Arm's design choices and practical lab exercises with simulation tools will help you develop the critical thinking and hands-on skills necessary for circuit implementation and verification. Mastering these architectural fundamentals is essential for an ASIC Design Engineer to innovate and bring cutting-edge hardware solutions to life.
Research Scientist Computer Architecture
A Research Scientist Computer Architecture explores novel designs and theoretical advancements for future computing systems. This highly specialized role, which typically requires an advanced degree such as a Master's or PhD, involves deep analytical work, experimentation, and pushing the boundaries of what microprocessors can achieve. The "Computer Architecture Essentials on Arm" course offers a comprehensive grounding in modern microprocessor architecture, providing the fundamental understanding necessary for a Research Scientist Computer Architecture. It covers core concepts like pipelining, branch handling, cache memories, superscalar processors, and out-of-order execution, which are the building blocks of architectural innovation. The course's insights from Arm engineers on design choices and the practical lab exercises using simulation tools will help you develop the critical thinking and experimental skills vital for contributing to the evolution of computing.
Digital Verification Engineer
As a Digital Verification Engineer, your primary responsibility is to ensure that complex hardware designs, particularly microprocessors, function correctly and meet all specifications before manufacturing. This critical role demands an exceptionally detailed understanding of computer architecture to develop robust test environments and identify potential flaws. The "Computer Architecture Essentials on Arm" course equips you with comprehensive knowledge of modern microprocessor architecture, including how components like pipelining, branch handling, and cache memories interact. Understanding these architectural concepts, along with superscalar processors and out-of-order execution, is crucial for predicting system behavior and crafting effective verification strategies. The course's practical lab exercises using simulation tools will be particularly useful, as verification frequently relies on simulation-based testing. This foundational course is vital for anyone aspiring to ensure the reliability of the world's most sophisticated digital hardware.
Hardware Design Engineer
A Hardware Design Engineer conceptualizes, designs, and tests the physical components of computer systems, often focusing on integrated circuits, printed circuit boards, and memory systems. Success in this field requires a comprehensive understanding of how these components interact and perform within a larger architectural framework. The "Computer Architecture Essentials on Arm" course provides a deep dive into the architecture of modern microprocessors, which are central to almost all digital hardware. You will gain essential knowledge of key components, pipelining, branch handling, and cache memories. Furthermore, learning about superscalar processors and out-of-order instructions will be critical for designing high-performance systems. The insights from Arm engineers on design choices and the hands-on experience with simulation tools will help build a practical foundation, making this course highly relevant for aspiring Hardware Design Engineer.
Embedded Systems Engineer
An Embedded Systems Engineer designs, develops, and integrates hardware and software for specialized computing systems found in a vast array of devices, from consumer electronics to industrial controls. These systems often rely on power-efficient microprocessors, making architectural understanding paramount. The "Computer Architecture Essentials on Arm" course is exceptionally relevant for an Embedded Systems Engineer, providing a deep understanding of modern microprocessor architecture, particularly given Arm's prevalence in embedded devices. The course covers key components, pipelining, branch handling, and cache memories, enabling you to optimize system performance and power consumption. Insights into Arm's design decisions further illuminate practical considerations. The lab exercises with simulation tools will enhance your ability to implement and debug low-level systems, preparing you to innovate with the billions of Arm-based chips deployed globally.
Performance Engineer
A Performance Engineer focuses on identifying and resolving bottlenecks in software and hardware systems to ensure optimal speed, efficiency, and responsiveness. This role demands a sophisticated understanding of how underlying computer architecture impacts system behavior. The "Computer Architecture Essentials on Arm" course provides invaluable knowledge for a Performance Engineer by delving into the core principles of modern microprocessor architecture. You will gain insights into how elements like pipelining, branch handling, cache memories, superscalar processors, and out-of-order instructions contribute to or hinder system performance. Understanding these mechanisms allows you to diagnose performance issues at a fundamental level and implement effective optimizations. The course's practical lab exercises with simulation tools will also help you develop critical analytical skills to measure and improve system efficiency, making it highly beneficial for this career path.
System Architect
A System Architect designs the high-level structure and behavior of complex computing systems, ensuring all components work together effectively to meet defined requirements. This role demands a comprehensive understanding of how hardware and software interoperate, with microprocessor architecture being a crucial foundational element. The "Computer Architecture Essentials on Arm" course is highly relevant for a System Architect, offering a deep understanding of modern microprocessor architecture. It covers key components, and vital architectural concepts like pipelining, branch handling, cache memories, superscalar processors, and out-of-order execution, which are fundamental to designing efficient, scalable, and reliable systems. The insights from Arm engineers on design choices will provide valuable context for making informed architectural decisions across diverse computing platforms, from sensors to supercomputers. This course can help you build the expertise needed to conceptualize sophisticated systems.
High-Performance Computing Engineer
A High Performance Computing Engineer designs, optimizes, and manages systems and software for supercomputers and clusters that tackle complex computational problems. Maximizing performance in these environments heavily relies on a profound understanding of underlying hardware architecture. The "Computer Architecture Essentials on Arm" course is exceptionally beneficial for a High Performance Computing Engineer, providing a deep understanding of modern microprocessor architecture. Topics like pipelining, branch handling, cache memories, superscalar processors, and out-of-order execution are directly applicable to optimizing parallel processing and data access patterns crucial for HPC. The course's insights into Arm design choices, especially given Arm's growing presence in supercomputing, and practical lab exercises with simulation tools will equip you to make informed decisions for achieving peak computational efficiency. This course helps you build the foundation to push the boundaries of scientific and engineering simulation.
Operating Systems Developer
An Operating Systems Developer creates and maintains the core software that manages computer hardware and software resources, enabling applications to run efficiently. This intricate work requires an exceptionally strong grasp of the underlying microprocessor architecture to manage memory, process scheduling, and device interactions. The "Computer Architecture Essentials on Arm" course provides a deep understanding of modern microprocessor architecture, which is indispensable for an Operating Systems Developer. Concepts like pipelining, branch handling, cache memories, and how superscalar processors manage out-of-order instructions are directly relevant to optimizing OS performance and writing efficient kernel code. The course's detailed exploration of Arm architecture gives specific context for developing robust and efficient operating systems on this widely deployed platform, preparing you to build the foundational software that powers digital experiences.
Firmware Engineer
A Firmware Engineer develops low-level software that directly controls hardware components, often residing on microcontrollers or embedded systems. This bridges the gap between hardware and high-level software, demanding an intimate understanding of the processor's inner workings. For a Firmware Engineer, the "Computer Architecture Essentials on Arm" course is profoundly beneficial as it delivers a deep understanding of modern microprocessor architecture, particularly focusing on the Arm ecosystem. The course covers key architectural concepts such as pipelining, branch handling, cache memories, and out-of-order execution, which are crucial for writing efficient, timing-critical code that maximizes hardware performance. Insights from Arm engineers regarding design choices also provide practical context. The lab exercises with simulation tools offer hands-on experience that mirrors the debugging and optimization tasks central to firmware development.
Cloud Hardware Engineer
A Cloud Hardware Engineer designs, deploys, and manages the physical infrastructure that powers cloud computing services, including servers, networking equipment, and storage systems. As data centers increasingly adopt Arm-based processors for their efficiency and performance, a deep understanding of this architecture becomes crucial. The "Computer Architecture Essentials on Arm" course provides valuable knowledge for a Cloud Hardware Engineer by offering a comprehensive look into modern microprocessor architecture. Understanding concepts like pipelining, branch handling, cache memories, superscalar processors, and out-of-order execution is vital for optimizing server performance, power consumption, and overall data center efficiency. The insights into Arm's design philosophy and the hands-on experience with simulation tools will help you make informed decisions when evaluating and deploying hardware at scale in cloud environments.
Systems Software Engineer
A Systems Software Engineer develops foundational software that manages computer resources and enables applications, often working directly with hardware interfaces, operating systems, and drivers. This role requires an in-depth understanding of the underlying microprocessor architecture to write efficient and reliable low-level code. The "Computer Architecture Essentials on Arm" course provides a deep understanding of modern microprocessor architecture, which is highly beneficial for a Systems Software Engineer. It covers critical concepts like pipelining, branch handling, cache memories, superscalar processors, and how out-of-order instructions maximize performance. This knowledge is essential for optimizing system calls, interrupt handling, and memory management. The course's focus on Arm offers specific insights into a widely deployed architecture, helping you build a strong foundation for developing robust and performant system software.
Compiler Engineer
A Compiler Engineer develops tools that translate high-level programming languages into machine code that a computer's processor can execute. To generate optimized and efficient code, a deep understanding of the target microprocessor's architecture is absolutely essential. The "Computer Architecture Essentials on Arm" course provides highly relevant knowledge for a Compiler Engineer by exploring modern microprocessor architecture in detail. You will learn about key components and architectural concepts such as pipelining, branch handling, cache memories, superscalar processors, and out-of-order instructions. This understanding is critical for designing compiler optimizations that effectively leverage the processor's capabilities and avoid performance pitfalls. The course's focus on Arm architecture gives specific insight into a prominent target platform, helping you create compilers that produce highly efficient machine code for the vast Arm ecosystem.
Field Applications Engineer Hardware
A Field Applications Engineer in hardware provides technical support and expertise to customers, assisting them with the integration, troubleshooting, and optimization of complex hardware components, often including microprocessors. This client-facing role requires a strong technical background and the ability to explain intricate architectural details clearly. The "Computer Architecture Essentials on Arm" course provides a deep understanding of modern microprocessor architecture, particularly relevant given Arm's widespread adoption. The course's coverage of key components, pipelining, branch handling, cache memories, and superscalar processors arms you with the knowledge to diagnose issues and guide customers. Insights from Arm engineers on design decisions also offer valuable context for customer interactions. This foundational knowledge helps you confidently support the vast ecosystem of Arm-based products.

Reading list

We've selected 50 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 Computer Architecture Essentials on Arm.
Considered a classic in the field, this book takes a quantitative approach to computer architecture, focusing on performance analysis and design trade-offs. It is suitable for advanced undergraduate and graduate students and valuable reference for researchers and practitioners. The latest edition includes updated content on recent architectural trends. It is essential for deepening one's understanding and must-read for serious students of computer architecture.
The latest iteration of this widely adopted textbook, the sixth edition continues to provide a comprehensive introduction to computer organization and design. It covers the essential hardware/software interface and is an excellent resource for undergraduate students.
A widely used textbook in undergraduate computer architecture courses, this book provides a comprehensive introduction to the design of computer systems, focusing on the RISC-V instruction set architecture. It covers the fundamental principles of instruction set design, assembly language, pipelining, memory hierarchies, and I/O. is crucial for gaining a solid understanding of how microprocessors are organized and how they interact with software.
Provides a comprehensive treatment of cache memory design, optimization, and applications, making it a valuable resource for those interested in this specific aspect of cache memories.
Provides a contemporary look at computer architecture, covering the prevalent x86, ARM, and RISC-V architectures. It discusses the design principles behind modern computing devices, from smartphones to cloud servers. This valuable resource for understanding the current landscape of microprocessor design and its applications.
Provides a comprehensive overview of the Arm Cortex-M3 and Cortex-M4 processors, covering topics such as core architecture, memory management, and peripherals. It is an excellent resource for anyone who wants to learn more about the design and implementation of these processors.
Focuses specifically on cache design for high-performance processors and provides a comprehensive treatment of the topic.
Focuses on the fundamentals of computer architecture and provides a deep dive into cache memories, including their design, organization, and performance analysis.
Provides a comprehensive overview of the Arm Cortex-M processor fundamentals, covering topics such as core architecture, memory management, and peripherals. It good resource for anyone who wants to learn more about the design and implementation of Cortex-M processors.
Provides a comprehensive overview of modern processor design, including a chapter on out-of-order execution. It is written by two leading experts in the field and is suitable for graduate students and researchers.
This textbook is similar to the previous book, but it is more focused on the design of computer systems. It covers topics such as processor design, memory design, and I/O design. It is also written in a clear and concise style, and it is suitable for both undergraduate and graduate students.
This textbook provides a comprehensive overview of computer architecture for embedded systems, including a chapter on out-of-order execution. It is written by a leading expert in the field and is suitable for both undergraduate and graduate students.
This textbook provides a comprehensive overview of computer architecture and parallel programming, including a chapter on out-of-order execution. It is written by two of the leading experts in the field and is suitable for both undergraduate and graduate students.
Provides a unified view of embedded system design, considering both hardware and software aspects. Microprocessors are a core component of embedded systems, and this book helps understand how they are used in real-world applications. It's valuable for those interested in the practical application of microprocessors in embedded contexts.
Introduces embedded systems from a cyber-physical systems perspective, emphasizing the interaction between computation and the physical world. It provides a theoretical foundation for understanding the role of microprocessors in these systems and is suitable for advanced undergraduate or graduate-level study.
Covers the fundamental principles of computer architecture, including instruction set design, processor implementation, and memory hierarchy. It is designed for undergraduate students and provides a solid foundation in the core concepts of the field. It can be a good resource for gaining a broad understanding before diving into more advanced topics.
Provides a practical introduction to embedded systems using ARM Cortex-M microcontrollers, which are widely used in embedded applications. It's a hands-on resource for learning how to program and interface with a popular family of microprocessors.
As RISC-V gains prominence, this book provides a focused approach to learning RISC-V assembly language programming. It's a valuable resource for those interested in this open instruction set architecture and its applications in modern microprocessor design.
This textbook provides a comprehensive overview of digital design and computer architecture. It covers topics such as logic gates, flip-flops, and sequential circuits. It is written in a clear and concise style, and it is suitable for both undergraduate and graduate students.
Focuses on the use of branch handling in high-performance computer systems. It provides a detailed analysis of the performance benefits of branch handling and discusses the challenges involved in implementing these techniques.
Provides a comprehensive overview of Arm Cortex-M programming and hardware development, covering topics such as hardware design, software development, and debug. It good resource for anyone who wants to learn more about the development of embedded systems using Arm Cortex-M microcontrollers.
Takes a hands-on approach, guiding the reader through building a complete computer system from the ground up, starting with logic gates. It's an excellent resource for gaining a deep, fundamental understanding of how hardware and software interact, suitable for motivated high school students and undergraduates. It is often used in project-based courses.
Provides a detailed introduction to Arm assembly language, covering topics such as registers, instructions, and addressing modes. It good resource for anyone who wants to learn how to program Arm processors in assembly language.
Focused specifically on the ARM architecture, this book is excellent for those wanting to delve into assembly language programming and the architecture of ARM processors, which are ubiquitous in embedded systems and mobile devices. It's a practical guide that complements broader computer architecture texts.
Provides a comprehensive overview of embedded systems development using Arm Cortex-M microcontrollers, covering topics such as hardware design, software development, and real-time operating systems. It good resource for anyone who wants to learn more about the development of embedded systems using Arm Cortex-M microcontrollers.
Provides a detailed examination of memory systems, a critical component of computer architecture. It covers caches, DRAM, and disk storage, discussing their design, operation, and performance. It is suitable for advanced undergraduate and graduate students specializing in computer architecture. This book is valuable for gaining a deep understanding of memory hierarchy design.
Explores computer architecture from a security perspective, covering hardware and software security solutions. It is relevant for students and professionals interested in secure system design. It discusses how architectural choices can impact security and introduces concepts like secure memory and CPU design. This book addresses a contemporary and increasingly important topic in the field.
For those interested in embedded systems utilizing Linux, this book is an essential guide. It covers the practical aspects of developing embedded systems with Linux, including working with microprocessors in this context. It's a valuable resource for professionals and advanced students.
For those interested in real-time embedded systems, this book key reference. It covers the principles and practices of designing systems where timing is critical, which is often the case with microprocessor-based embedded applications. It provides a deeper understanding of the challenges and considerations in this domain.
This textbook provides a comprehensive overview of computer architecture, covering topics such as instruction set architecture, pipelining, caches, and memory hierarchy. It is written in a clear and concise style, and it is suitable for both undergraduate and graduate students.
Offers a principles-based approach to computer system design, covering concepts that are fundamental across various layers of a computer system, including the hardware/software interface. It provides a valuable perspective on how microprocessors fit into the larger picture of system design.
For those seeking a deeper understanding of advanced topics in computer architecture, this book covers parallelism, scalability, and programmability. It delves into concepts relevant to high-performance microprocessors and multi-core architectures.
Provides a detailed discussion of interconnection networks, including a discussion of cache memories. It valuable resource for anyone who wants to learn more about the design of interconnection networks.
Provides a comprehensive guide to network-on-chip architectures, including a discussion of cache memories. It valuable resource for anyone who wants to learn more about the design of network-on-chip architectures.
This concise book serves as an introduction and reference to the RISC-V instruction set architecture. It is particularly relevant for understanding contemporary open architectures that are gaining popularity. It's suitable for students and professionals who want to quickly learn the details of RISC-V. is valuable for staying current with modern ISA trends.
Provides a comprehensive overview of microprocessors and computer architecture, including a chapter on out-of-order execution. It is written by experts in the field and includes case studies of real-world implementations.
Provides a detailed look at the design and analysis of interconnection networks, which are crucial components in parallel and high-performance computing systems. It is suitable for graduate students and researchers specializing in this area. It covers network topology, routing, flow control, and performance analysis. This book valuable resource for those focusing on the communication infrastructure within computer architectures.
Focuses on digital system design using the VHDL hardware description language. It's relevant for those who want to understand the design process of digital circuits, including components found in microprocessors, at a more practical level using a hardware description language.
A practical guide to assembly language programming for x86 processors. Understanding assembly language is crucial for gaining a deep understanding of how microprocessors execute instructions and interact with hardware at a low level.
Focuses on the AVR microcontroller, another popular family of microprocessors used in embedded systems, particularly in the Arduino platform. It provides a practical introduction to microcontroller programming in both assembly and C.
Provides a detailed coverage of computer organization with a focus on embedded systems. It's a valuable resource for students and professionals interested in the architecture and organization of systems designed for specific applications. It offers a solid understanding of the interaction between hardware and software in embedded environments.
Covers the fundamentals of parallel computing and provides a thorough discussion of branch handling techniques in the context of parallel systems, including load balancing and synchronization.
Provides a comprehensive overview of the ARM architecture, including its pipelined implementation. It valuable resource for students and practitioners interested in ARM architectures.

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