This lecture note
covers the following topics: Server Configuration, Python Overview, Pandas and
Numpy, Classifiers, Regression, Cross-Validation, Logistic Regression, Support
Vector Machines, Decision Trees, Ensemble Methods, Principal Component Analysis,
Embedding Methods, Clustering, Semi-Supervised Learning.
This lecture note covers
essential topics such as system architecture, assembly processes, DOS file
operations, debugging, and Intel 8088 CPU registers, the course emphasizes
hands-on learning with practical assignments. The content explores addressing
modes, ASCII representation, system calls, segments, logical instructions, and
graphics programming. These notes serve as a valuable resource for students
seeking proficiency in low-level programming and hardware interfacing on the IBM
PC.
This page covers the following topics related to ARM
assembly language :ISA varieties, ARM assembly
basics, A simple program: Adding numbers, Another example: Hailstone sequence,
Another example: Adding digits, Summary of instructions so far, Condition codes,
Basic memory instructions, Addressing modes, Initializing memory,
Multiple-register memory instructions.
The contents include:
Before we begin, First program, NASM syntax, Basic CPU instructions, Debugging with GDB,
First program linked with a C library, FPU, File operations, MMX, SSE, RDTS, Inline assembler,
Introduction,Registers, Memory.
The contents
include: High Level Languages, Machine Languages, Assembly Languages, Why Learn Assembly
Language, Why Learn ARM Assembly Lang, Von Neumann Architecture, Registers and RAM, ALU,
Instruction Format, Signed vs Unsigned, 32-bit Arithmetic, 8- and 16-bit Arithmetic, Loads
and Stores, Defining Data, Byte Order.
This note explains the
following topics: Introduction to Linux Assembly Language, x86 architecture,
64-bit x86 Assembly, ARM Assembly language, ARM Thumb, 8-bit 6502 or 16-bit
65c816 Programming, Video Game Programming and Assembly Code Optimization.