Assembly Language Foundation Course for Ethical Hackers

Assembly Language Foundation Course for Ethical Hackers, available at $79.99, has an average rating of 4.55, with 107 lectures, based on 34 reviews, and has 518 subscribers.

You will learn about The course will provide an introduction to Assembly Language programming, including the syntax and structure of Assembly Language code. Students will learn about the internal workings of a computer system, including the CPU, registers, memory management, and other components. Understanding Reverse Engineering: Students will learn how to reverse engineer programs and understand how they work using Assembly Language. By the end of the course, students will have gained a deep understanding of Assembly Language programming This course is ideal for individuals who are Ethical Hackers or Pentesters or Computer Science Students or Malware analysts or Programmers or anyone who wants to learn something new in Computer science It is particularly useful for Ethical Hackers or Pentesters or Computer Science Students or Malware analysts or Programmers or anyone who wants to learn something new in Computer science.

Enroll now: Assembly Language Foundation Course for Ethical Hackers

Summary

Title: Assembly Language Foundation Course for Ethical Hackers

Price: $79.99

Average Rating: 4.55

Number of Lectures: 107

Number of Published Lectures: 107

Number of Curriculum Items: 107

Number of Published Curriculum Objects: 107

Original Price: $19.99

Quality Status: approved

Status: Live

What You Will Learn

The course will provide an introduction to Assembly Language programming, including the syntax and structure of Assembly Language code.

Students will learn about the internal workings of a computer system, including the CPU, registers, memory management, and other components.

Understanding Reverse Engineering: Students will learn how to reverse engineer programs and understand how they work using Assembly Language.

By the end of the course, students will have gained a deep understanding of Assembly Language programming

Who Should Attend

Ethical Hackers

Pentesters

Computer Science Students

Malware analysts

Programmers

anyone who wants to learn something new in Computer science

Target Audiences

Ethical Hackers

Pentesters

Computer Science Students

Malware analysts

Programmers

anyone who wants to learn something new in Computer science

Assembly language programming for hackers is a specialized skill set that combines the knowledge of computer architecture and low-level programming with the creativity and resourcefulness of a hacker. Assembly language is a low-level programming language that is used to write software that interacts directly with a computer’s hardware. It is a powerful tool for hackers who need to perform intricate and precise operations on a system, especially when higher-level languages are not sufficient or efficient enough.

Hackers who specialize in assembly language programming are often able to perform tasks that are impossible or extremely difficult with other programming languages. For example, they can write code that directly manipulates a system’s memory or registers, which can be critical for certain types of hacks such as exploiting buffer overflow vulnerabilities. Assembly language programming can also be used for reverse engineering, where hackers analyze and understand the inner workings of a system by examining its assembly code.

However, assembly language programming requires a deep understanding of computer architecture and low-level programming concepts. Hackers who specialize in this area must be familiar with the instruction set of the specific computer or processor they are targeting, as well as be able to write code that is optimized for performance and efficiency. Despite its complexity, assembly language programming remains an essential skill for hackers who want to push the boundaries of what is possible with computers and systems.

Course Curriculum

Chapter 1: Introduction

Lecture 1: Who can join this course & what skills needed for this course

Chapter 2: Building the basics for assembly language programming

Lecture 1: Computer system working and the CPU role

Lecture 2: Internal components of the CPU

Lecture 3: What are the registers inside the CPU ?

Lecture 4: Flags of the CPU

Lecture 5: Flag Structure of the CPU

Lecture 6: Flags working in CPU

Lecture 7: Programs memory layout in the computer system

Lecture 8: How to view the stack of a program

Chapter 3: Hello World in Assembly

Lecture 1: Structure of the assembly program

Lecture 2: System calls Before Hello World in Assembly

Lecture 3: Writing our first Hello World program in assembly

Lecture 4: Compiling an assembly program in gcc

Lecture 5: Debugging our assembly program

Lecture 6: Using C library functions in assembly program

Chapter 4: Moving Data

Lecture 1: Defining the data in data section in assembly program

Lecture 2: Using static symbols in assembly programs

Lecture 3: How to define and use data in the bss section

Lecture 4: Moving data in Assembly programming

Lecture 5: Practical Demonstration of moving data in assembly

Lecture 6: More advanced data movements in assembly

Lecture 7: Accessing and moving indexed values in assembly

Lecture 8: Direct and indirect addressing in assembly

Lecture 9: Practical example of direct and indirect addressing in assembly

Lecture 10: Concept of indirect address pointer

Lecture 11: Accessing indexed memory locations in assembly

Lecture 12: How to create a stack frame in assembly

Lecture 13: Adding and removing data on stack in assembly

Lecture 14: Data exchange instructions in assembly

Lecture 15: Setting and clearing the flag bits Carry Flag

Lecture 16: Setting and clearning the Overflow Flag in assembly

Lecture 17: Setting and clearing the Parity Flag in assembly

Lecture 18: Setting and clearing the Sign Flag in assembly

Lecture 19: Setting and clearing the Zero Flag in assembly

Chapter 5: Controlling Execution flow in assembly

Lecture 1: Understanding EIP register in assembly

Lecture 2: Jump instruction in assembly

Lecture 3: what is the work of call instruction in assembly

Lecture 4: Conditional jump in indepth in assembly

Lecture 5: Using Zero flag as a conditional jump in assembly

Lecture 6: Using Overflow flag as conditional jump in assembly

Lecture 7: Using Parity flag as a conditional jump in assembly

Chapter 6: Using numbers in assembly programming

Lecture 1: Types of numbers which are used in assembly programming

Lecture 2: What are signed and unsigned integers and how unsigned integers are stored

Lecture 3: how unsigned integers are stored in memory

Lecture 4: Using unsigned integers in assembly program

Lecture 5: Concept of how a CPU stores the numbers in memory

Lecture 6: Practical demonstration of how CPU stores numbers in memory

Lecture 7: How to use signed numbers in assembly program

Lecture 8: SIMD registers concept in assembly

Lecture 9: MMX registers in assembly

Lecture 10: Using mmx registers in assembly to move integers

Lecture 11: Understanding SSE registers

Lecture 12: Using SSE registers in assembly

Lecture 13: What are BCD data types

Lecture 14: Storing BCD data types in memory

Lecture 15: How floating point numbers are moved

Lecture 16: Storing floating point numbers into memory

Lecture 17: Storing multiple float values at once

Chapter 7: Basic math functions in assembly

Lecture 1: Adding numbers in assembly

Lecture 2: Dealing with negative numbers in assembly

Lecture 3: Concept of detecting carry in addition operation

Lecture 4: Writing assembly program for detecting carry flag in addition operation

Lecture 5: Understanding overflow concept in addition arithmetic

Lecture 6: Practical demonstration of overflow in addition instruction in assembly

Lecture 7: Detecting overflow in signed integers addition in assembly

Lecture 8: Concept of add carry instruction in assembly

Lecture 9: Using ADC instruction in assembly

Lecture 10: How binary subtraction works

Lecture 11: Using sub instruction in assembly program

Lecture 12: Increment and decrement instruction in assembly

Lecture 13: Multiplication of two unsigned numbers in assembly

Lecture 14: Different ways of multiplications of signed numbers in assembly

Lecture 15: How division works in assembly

Lecture 16: Bit shifting in assembly programming

Lecture 17: Rotating bits in assembly programming

Lecture 18: Logical operations in assembly

Lecture 19: Using OR, AND and XOR logical operations in assembly programming

Chapter 8: Working with Strings

Lecture 1: How strings are moved in assembly ?

Lecture 2: Direction flag in string movement in assembly

Lecture 3: Movement of ESI and EDI pointers when DF flag is set in assembly program

Lecture 4: How REP instruction works in strings in assembly program

Lecture 5: Basics of comparing strings in assembly

Lecture 6: How big strings are compared with REP instruction in assembly

Lecture 7: LODS and STOS instructions in string movment in assembly programming

Lecture 8: Basic concept of how we can encrypt a string in assembly

Lecture 9: Encrypting a string in assembly program

Lecture 10: How to decrypt the encrypted string in assembly

Chapter 9: Using functions in assembly programming

Lecture 1: How to define a function in assembly programming

Lecture 2: Using a function in assembly programming

Lecture 3: Passing input values to functions in assembly

Lecture 4: what are function prolog and epilog with stack frame ?

Instructors

Swapnil Singh
Programmer and Cyber Security Researcher

Rating Distribution

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2 stars: 0 votes

3 stars: 2 votes

4 stars: 9 votes

5 stars: 23 votes

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