Course Content
Module 1 – Getting Started with Python
introduced the fundamentals of Python, giving beginners a clear understanding of how the language works and how to start writing simple programs. Python was highlighted as a beginner-friendly language with simple syntax, making it easy to read and write code.
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Module 2 – Introduction to Python Programming
In this Introduction to Python module, learners explore Python’s clear, readable syntax and powerful features. Beginning with installation and a simple “Hello, World!” script, you will progress through variables, control flow and functions using step-by-step examples. By the end, you will be equipped to write your own Python programmes, automate routine tasks and tap into an extensive library ecosystem for real-world projects.
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Basic Command for Command prompt, PowerShell, Zsh(macOS)
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Module 3 – Variables, Data Types and Basic Operations
In the Variables, Data Types and Basic Operations in Python module, learners explore how to store and manage data using variables, master fundamental types such as integers, floats, strings and booleans, and perform arithmetic, comparison and logical operations step by step. Clear explanations, real world examples and hands on exercises guide you through writing and debugging code. By the end of this module, you will be ready to build dynamic Python programs and automate everyday tasks.
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Module 4 – Control Flow – Conditions and Loops
Control flow structures determine the order in which your program’s code executes. With conditional statements, you can make decisions and execute certain code blocks only when specific conditions are met. Loops allow you to repeat actions efficiently without writing redundant code. In this module, we will explore fundamental control flow concepts in Python in a step-by-step manner, similar to Microsoft’s learning curriculum. By the end, you’ll understand how to use if, elif, and else statements (including nested conditions) for decision-making, how truthy and falsy values work in Boolean logic, how to construct for loops (using range() and iterating over collections), how to use while loops along with loop control statements (break and continue), and how to leverage list comprehensions and generator expressions for concise looping. Finally, we’ll apply these concepts in a practical exercise to build an interactive decision-making system. Each section below includes explanations, code examples, and mini-exercises to reinforce the concepts, all formatted for clarity and easy follow-along.
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Day 1 Summary
We covered Modules 1, 2 & Module 3 (Lesson 1 & 2)
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Module 5 – Functions and Code Organisation
Imagine you need to clean up a messy data set or send a personalised email to each customer. Instead of writing the same steps over and over, you can create a function and call it whenever you need. In this lesson on Functions and Code Organisation, you will learn how to define functions, pass and return information, document your work and group related code into modules for easy reuse and maintenance.
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Day 2 Summary
Summary for Day 21 Aug 2025
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Day 3 Summary
Summary of Day 28 Aug 2025
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Module 7 – Working with Files and Folders
In this lesson, we will learn how to manipulate files and directories using Python. We’ll explore common file operations using the os module, and see how the pathlib module provides an object-oriented way to handle file paths. We’ll also use the glob module for pattern-based file searches and learn file I/O operations for text, CSV, and binary files. Additionally, we’ll introduce the calendar and time modules to work with dates and timestamps. Finally, an interactive lab will tie everything together by automating a folder backup and cleanup task. Follow the step-by-step sections below for each subtopic, try out the code examples, and explore the guided lab at the end.
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Module 8 – Error Handling and Debugging Techniques
In this lesson, we will learn how to handle errors in Python programs and how to debug code effectively. Errors are inevitable, but knowing how to manage them ensures our programs don't crash unexpectedly. We will cover the difference between syntax errors and exceptions, how to use try, except, else, and finally blocks to catch and handle exceptions, and how to raise your own exceptions (including creating custom exception classes). We’ll also explore debugging strategies: using simple print statements or the logging module to trace your program’s execution, and using Python’s interactive debugger pdb to step through code. By following best practices for error handling and debugging, you can write resilient, maintainable code. Throughout this lesson, try the examples and exercises to practice these techniques.
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Day 4 Summary
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Module 9 – Automating Excel and PDFs with Python
In this lesson, you will learn how to automate common communication and reporting tasks using Python. We will cover sending notifications via email, messaging platforms, and SMS, as well as manipulating Excel spreadsheets and PDF files programmatically. Each section below includes step-by-step explanations, code examples, and interactive exercises to reinforce your understanding. By the end of this lesson, you’ll be able to send emails with attachments, integrate with Slack/Microsoft Teams, send SMS alerts, and automate Excel/PDF workflows.
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Day 5 Summary
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Mini Project: Build your own Automation Tool
The project incorporates two common automation tasks – Contact Management and Student Tasks Tracking
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Day 6 Summary
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Introduction to Python Programming (Copy 1)

Lambda (anonymous) functions

Python supports the creation of anonymous functions (functions without a defined name) using the lambda keyword. A lambda function is a small, single-expression function that is defined inline, where a function object is required but a formal function definition would be too bulky. In essence, lambdas allow you to write quick throwaway functions in one line. For example:

# A regular function to add two numbers
def add(x, y):
    return x + y

# An equivalent lambda function to add two numbers
add_lambda = lambda x, y: x + y

print(add(3,4))         # Outputs: 7
print(add_lambda(3,4))  # Outputs: 7

Both add and add_lambda above do the same thing. The lambda function lambda x, y: x + y takes two arguments and returns their sum. Note that we assigned the lambda to a variable name add_lambda so we could call it – but often lambdas are used without assignment, passed directly as arguments to other functions.

Syntax: The syntax of a lambda is lambda [parameters]: expression. You can have any number of parameters (including zero), separated by commas, followed by a colon and a single expression. The result of that expression will be returned by the lambda. For instance, lambda num: "Even" if num % 2 == 0 else "Odd" is a lambda that returns "Even" for even numbers and "Odd" for odd numbers.

Characteristics of Lambda Functions:

  • Lambdas are anonymous. They don’t have a name unless you assign them to a variable (the way we did above). This makes them useful for short, throwaway functions that you define at the point of use.

  • A lambda can contain only a single expression. This is a key limitation – the body of a lambda is just an expression, not a block of statements. You cannot put multiple statements, loops, or other complex logic directly in a lambda. If you need more than one expression or a statement (like an assignment, while, etc.), you should use a normal def function.

  • Lambdas return the value of the expression automatically. There is no return keyword in a lambda – whatever the expression evaluates to is what the lambda call returns.

  • They are often used in contexts where a small function is required for a short time, such as sorting, filtering, or mapping data.

Use Cases: Lambdas frequently appear as arguments to higher-order functions (functions that take other functions as input). Common examples include:

  • The built-in sorted function’s key parameter, where you provide a function to extract the sort key from each element. E.g., sorted(words, key=lambda w: len(w)) would sort a list of words by their length (using a lambda that returns the length of each word).

  • The map function, to apply a simple operation to each item in an iterable. For example, map(lambda x: x*2, [1, 2, 3]) would yield [2, 4, 6] (often more Pythonic would be a list comprehension, but map+lambda is illustrative).

  • The filter function, to filter items by some condition: filter(lambda x: x % 2 == 0, numbers) would select only even numbers from the sequence numbers.

Example: Using lambda with sorted and filter:

names = ["alice", "Bob", "christine", "David"]
# Sort names case-insensitively using a lambda as key:
sorted_names = sorted(names, key=lambda s: s.lower())
print(sorted_names)  # ['alice', 'Bob', 'christine', 'David']

# Filter to get only names starting with a capital letter:
capitalized = list(filter(lambda s: s[0].isupper(), names))
print(capitalized)   # ['Bob', 'David']

In the first part, lambda s: s.lower() provides a transformation of each name to lowercase to sort regardless of case. In the second, lambda s: s[0].isupper() returns True if the first character is uppercase, and filter uses that to include or exclude names.

Under the hood, lambda functions are just like normal functions in terms of capabilities (they can be called with arguments, they return values). They are essentially a syntactic shortcut for function creation. However, because they are limited to one expression, they should be used for simple operations. If the logic is complex, defining a normal function (with def and a name) is clearer.

Important: Although lambdas can make code concise, overusing them can harm readability. It’s generally best to use lambdas in situations where the functionality is simple and obvious, and when defining a separate named function would be unwieldy (for example, a quick transformation or condition to pass into another function). If you find your lambda is doing too much, consider giving it a name (define a function) or simplifying the approach. Lambdas are syntactic sugar for a normal function definition – they exist to make some code patterns shorter.