
Explore the ARM v7 architecture, using the cpu leader emulator to learn core concepts like registers, memory layout, stack memory, and program flow through sp, lr, and pc.
Learn the basics of an ARM assembly program: define a start label, move data into r0, use r7 for system calls, and exit via a software interrupt.
Explore addressing modes in ARM assembly, including immediate, register direct, register indirect, and pre- and post-increment, using LDR to access stack data and offset addressing.
Explore arithmetic in arm assembly, including add, subtract, and multiply, and learn to use arithmetic with flags to set the CPC register and interpret negative, zero, carry, and overflow.
Explore ARM logical operations, including and, or, exclusive or, and move negative, with practical examples of bitwise operations on registers and clearing specific bits.
Explore logical shifts and rotations at the binary level, learn how left shifts double values and right shifts halve them, and discover their uses in ARM, hashing, crypto, and graphics.
Explore how logical shifts and rotations operate in ARM assembly, including left/right shifts, multiplying or dividing by two, variable shift amounts, and combined move-and-shift instructions.
Explain how ARM assembly implements conditionals by translating high-level if statements into comparisons and branches, using scmp, bgt, labels, and default paths within sequential flow.
Explore how ARM assembly implements loops with branches, using LDR to load a list, summing values until the end sentinel, leveraging constants and conditional branches.
Explore the fundamentals of conditional instructions in Arm, where comparisons set flags and conditional add, move, subtract, and multiply execute only when the condition is met, reducing branches.
Learn how arm assembly uses a return address and the link register to call a function and return to the caller, via branch with link and bx lr.
Preserve and restore register values across function calls by pushing to and popping from the stack, ensuring accurate calculations and return values in Arm assembly.
Interact with hardware devices using the arm processor and the D1 SoC emulator to read switches and drive leds, explaining address constants, ldr, str, and binary values.
ARM is becoming an increasingly popular language in the world of computer programming. It is estimated that over 200 billion devices contain an ARM chip, making the ARM language valuable to understand. By understanding an assembly language, programmers can have a better understanding of how code is compiled and run, making it possible to create more efficient programs. In addition to this, programmers can work at a lower level, allowing them to write code that interacts with hardware in an efficient manner.
In this course, you will learn:
How to emulate an ARM processor
How to interact with ARM processors through register and stack memory
How to interact with various memory types
How to conduct basic arithmetic and logical instructions
How to create branching logic
How to create basic loop structures
How to write functions and subroutines
How to interact with basic hardware
By the end of this course, you will have a fundamental understanding of the ARM processor, as well as assembly programming in general. You will be able to write basic ARM assembly programs, using various instructions available in the processor. You will also have the understanding required to further expand your knowledge, allowing you to become an expert in the area of assembly programming. You should consider this course if you are interested in learning about assembly programming, or ARM assembly!