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Python for Engineers & Robotics
Rating: 1.6 out of 5(3 ratings)
1,023 students

Python for Engineers & Robotics

Start from basic python to advanced
Created byKhaja Mohamed
Last updated 3/2026
English

What you'll learn

  • Learn python programming
  • Python syntax and its applications
  • How python is important for AI
  • Basics of programming

Course content

9 sections46 lectures2h 21m total length
  • What are programming languages2:00
  • Python and Why is it important , Python for AI - Many Jobs5:42

    Test your python knowledge : https://aicoding.queryed.com/pythonquiz.html

  • AI Introduction14:38
  • Course Content ( Check course regularly gets updated )10:37
  • What does compiled and interpreted code mean2:34

    Compiled code refers to source code that has been translated from a high-level programming language (like C, C++, or Java) into machine code (binary) that can be directly executed by a computer's CPU. This translation is done by a compiler, which is a specialized program that processes the entire code and generates an executable file (e.g., .exe on Windows or .out on Linux).

    Key Characteristics of Compiled Code:

    1. Translation Before Execution: The source code is first compiled into machine code (binary) before it can be run. This process happens all at once, as opposed to line-by-line interpretation.

    2. Executable File: After compilation, the result is a standalone file (often with extensions like .exe, .out, or .bin) that can be run directly on the target machine without needing the source code or a compiler.

    3. One-time Compilation: Once the source code is compiled into machine code, the executable can be run multiple times without needing to be recompiled unless changes are made to the source code.

    Steps of Compilation:

    1. Source Code: You write the program in a high-level language (e.g., C, C++).

    2. Compilation: The compiler translates the source code into machine code.

    3. Executable: The machine code is stored as an executable file that the computer can run.

    Example of a Compiled Language:

    • C: You write a C program (program.c), then use a compiler (e.g., gcc) to compile the code into an executable (program.exe or a.out).

      bash

      Copy codegcc program.c -o program.exe


      After this, you can run program.exe directly.

    Advantages of Compiled Languages:

    • Faster execution: Since the code is already in machine-readable form, it runs faster compared to interpreted languages.

    • Optimized performance: Compilers often optimize the code for the specific architecture, making the final executable more efficient.

    Disadvantages:

    • Platform-dependent: Compiled code is often tied to the specific hardware and operating system it was compiled for. For example, an executable compiled on Windows may not run on Linux without recompilation.

    • Longer development cycle: Compilation takes time, and you must compile the entire program before running it, unlike interpreted languages where you can execute code directly.

    Compiled Languages Examples:

    • C

    • C++

    • Go

    • Rust

    • Fortran

    In Summary:

    Compiled code is machine-ready code generated by a compiler from source code. It runs faster and more efficiently but typically requires separate compilation for each platform or architecture.

    -----------------------------------------------------------------------------------------------------------------

    An interpreted language refers to a type of programming language where the code is executed directly by an interpreter, rather than being first compiled into machine code. The interpreter reads the source code line by line and translates it into machine code on the fly, executing each instruction immediately.

    Key Points:

    1. Interpreted Language: Code is executed line by line by an interpreter, without prior conversion to machine language. This is in contrast to compiled languages, where the entire code is translated into machine language beforehand.

    2. Execution Process:

      • Interpreted languages: The source code is translated into intermediate code or machine code at runtime.

      • Compiled languages: The code is translated into machine code before execution, producing an executable file (e.g., .exe).

    3. Examples of Interpreted Languages:

      • Python

      • JavaScript

      • Ruby

      • PHP

      • Perl

    4. Advantages of Interpreted Languages:

      • Portability: Interpreted code is platform-independent because the interpreter can run on any machine.

      • Easier debugging: Since the code is executed line by line, errors can be identified and fixed quickly.

    5. Disadvantages:

      • Slower execution: Because code is translated at runtime, interpreted languages generally execute slower than compiled languages.

      • Dependency on the interpreter: The code cannot run without the interpreter being installed.

    Example:

    When you write Python code (.py file), the Python interpreter reads and executes your code at runtime. You don't need to compile it into an executable beforehand. Each line is read, interpreted, and executed on the fly.


  • How does python interpret the code , how does it run on hardware1:37

    How does python interpret the code , how does it run on hardware

  • Code interpretation Line by Line in Python - What does it mean2:05

    Code interpretation Line by Line in Python - What does it mean

  • Code interpretation - How does python code run1:14

    Code interpretation - How does python code run

Requirements

  • Basic computer knowledge needed , if not please do learn it
  • Best for computer students and computer professionals
  • If new to IT , please try to understand , or send message i will support

Description

This Python programming course is designed to take you from a beginner to an expert. Whether you're new to coding or looking to enhance your programming skills, this course will provide you with a solid foundation in Python, one of the most versatile and in-demand programming languages today.

The course begins with fundamental concepts such as variables, data types, and control structures before progressing to more advanced topics like object-oriented programming, error handling, and file manipulation. You'll also dive into libraries and frameworks like NumPy, Pandas, and Matplotlib for data analysis and visualization.

Hands-on coding exercises and projects will reinforce your learning, giving you the confidence to tackle real-world challenges. By the end of this course, you'll be able to develop robust applications, automate tasks, and analyze complex datasets.

This course is perfect for aspiring software developers, data analysts, and anyone looking to add Python to their skill set. Join us on this exciting journey and unlock the full potential of Python programming!

This course is perfect for aspiring software engineers, developers, data analysts, engineers, AI specialists and anyone looking to add Python to their skill set. Join us on this exciting journey and unlock the full potential of Python programming!


Who this course is for:

  • Beginners who want to learn python
  • Beginners for artificial intelliegence
  • Students from any discipline