Stop letting messy npm modules crash your web parts. 🏗️ Learn how to implement the Fortress Pattern in SPFx to maintain strict type safety and architectural integrity against untyped dependencies. #SPFx #TypeScript #SharePointDev

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Stop letting messy npm modules crash your web parts. 🏗️ Learn how to implement the Fortress Pattern in SPFx to maintain strict type safety and architectural integrity against untyped dependencies. #SPFx #TypeScript #SharePointDev

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Microsoft is gaslighting your workflow. Forced AI in VS Code is creating massive technical debt and breaking your flow across every machine you own. It’s time to reclaim the kernel of your craft. 🛠️💻 #VSCode #SoftwareEngineering #CleanCode
Supercharge your code! Learn how to #RefactorCodebaseCopilot with AI and #GitHubCopilot. Step-by-step guide to cleaner, scalable code! #Refactoring #AI #Copilot
What is Code Refactoring?
Have you ever looked at your code and asked yourself, "Who wrote this mess??" And suddenly you realized it is none other than you. I've faced this situation a lot—your own code seems like a mess if you review it after 2 or 3 months. Do you know the reason why? Yes, it's because there is no refactoring in the code
In this blog, we’ll explore what code refactoring is, why it’s important, and walk through a few examples. Clean APIs often play a crucial role in effective code refactoring—we’ll also look at an example of that in the examples section.
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What is Code Refactoring?
Refactoring means restructuring your existing code without changing what it actually does. Basically, you're making it cleaner, more readable, and easier to maintain.
Let me give you a simple example: code refactoring is like cleaning your room. Instead of just buying new furniture, you’re organizing what you already have so it’s easier to find things—and it also looks good. We can apply the same principles to code. We're not going to add new features; instead, we are going to make our code clean, more readable, and easier to maintain.
Examples of code refactoring are:
Removing dead code
Standardizing code formatting
Changing a local variable name to make the code less confusing
Renaming poorly named variables to make them more descriptive
Breaking up long lines of code that perform multiple functions to make the code easier to maintain
What is the Purpose of Code Refactoring?
Let me give you an example of the purpose of code refactoring. Let's say you are working on a company project. In that scenario, you are not the only person working on the project there are many people involved, right?
In that case, if your code is not clean or understandable, it will be so difficult for others to review it. So, it's not just for your personal projects you have to do it wherever you are writing code.
The best code, according to me, is when someone reviews your code and it clearly says what a particular part of the code is doing. For that, you need to refactor your code so that it will be understandable by anyone who reviews it.
When Should You Refactor Code?
We need to understand when code should be refactored. Here are some signs it’s time to refactor:
Your code works, but it’s hard to understand
You’re copying and pasting similar logic multiple times
It’s hard to add a new feature without breaking something
Tests are failing after small changes
Code reviews take too long because the code is unclear
You don’t have to wait for a big project rewrite. Refactor as you go. A small 10-minute cleanup during a bug fix or feature update can save you hours later.
When You Don’t Need Refactoring
We also need to know in what scenarios refactoring is not necessary:
If you can’t not do regression testing in a comprehensive manner post re-factoring
Another reason to not refactor is when you aren't approaching the existing code base with proper humility and respect.But in most scenarios, we need refactoring. If you can argue "my code base is not changing," then why do I need refactoring? It works now for today, but eventually it fails tomorrow. So don't feel hesitant to do refactoring.
Techniques to Perform Code Refactoring
We have understood some basics of code refactoring. Now we can look at some of the techniques to perform code refactoring.
1. Extract Method (Breaking Down Large Functions)
Problem: A function is too long and does multiple things. Solution: Split it into smaller, reusable functions.:CopyCopydef process_order(order): # Validate order if not order.items: raise ValueError("Order is empty") if order.total <= 0: raise ValueError("Invalid total") # Apply discount if order.customer.is_premium: order.total *= 0.9 # 10% discount # Save to database db.save(order) return order
After Refactoring (Extracted Methods)
def validate_order(order): if not order.items: raise ValueError("Order is empty") if order.total <= 0: raise ValueError("Invalid total") def apply_discount(order): if order.customer.is_premium: order.total *= 0.9 # 10% discount def process_order(order): validate_order(order) apply_discount(order) db.save(order) return order
2. Rename Variables & Functions (Clarity Over Cleverness)
Problem: Unclear names make code hard to understand. Solution: Use meaningful names that reveal intent.
Example: Before Refactoring
function calc(a, b) { return a * b * 0.1; }
After Refactoring (Better Naming)
function calculateTax(price, taxRate) { return price * taxRate; }
3. Replace Magic Numbers with Constants
Problem: Hard-coded numbers make code confusing. Solution: Use named constants instead.
Example: Before Refactoring
if (status == 2) { shipOrder(); }
After Refactoring (Using Constants)
final int ORDER_SHIPPED = 2; if (status == ORDER_SHIPPED) { shipOrder(); }
4. Simplify Conditionals (Avoid Nested Hell)
Problem: Deeply nested if-else blocks are hard to read. Solution: Use guard clauses or early returns.
Example: Before Refactoring
def login(user): if user is not None: if user.is_active: if user.has_valid_password: return "Login successful" else: return "Invalid password" else: return "Account inactive" else: return "User not found"
After Refactoring (Guard Clauses)
def login(user): if user is None: return "User not found" if not user.is_active: return "Account inactive" if not user.has_valid_password: return "Invalid password" return "Login successful"
5. Replace Temp with Query (Avoid Redundant Calculations)
Problem: Repeated calculations in a function. Solution: Extract them into a separate method.
Example: Before Refactoring
def calculate_total(cart): subtotal = sum(item.price * item.quantity for item in cart.items) tax = subtotal * 0.08 discount = subtotal * 0.1 if cart.has_coupon else 0 return subtotal + tax - discount
After Refactoring (Extracted Calculations)
def calculate_subtotal(cart): return sum(item.price * item.quantity for item in cart.items) def calculate_tax(subtotal): return subtotal * 0.08 def calculate_discount(subtotal, has_coupon): return subtotal * 0.1 if has_coupon else 0 def calculate_total(cart): subtotal = calculate_subtotal(cart) tax = calculate_tax(subtotal) discount = calculate_discount(subtotal, cart.has_coupon) return subtotal + tax - discount
Example of Clean APIBefore refactoring: func ProcessData(data []byte, userID string, config map[string]string, retry int) ([]byte, error) It does multiple things: fetches user, parses config, retries processing… it’s hard to test, maintain, or change.After refactoring:
CopyCopytype Processor interface { Process(input []byte) ([]byte, error) }
You don’t need to apply all techniques at once. Start small. Every bit of cleanup improves your codebase! The above examples are just to show you how it works—there are many other refactoring techniques out there, too. Try it, and you’ll start noticing changes in your codebase. The examples I shared are intentionally simple.
Have you gotten bored of reading about code refactoring? I hope you are a little bored. Let’s look at something different! We’ve been talking about code refactoring, writing clean code… and let’s be honest, these things take time, right? Instead of building and shipping features, we’re often busy maintaining clean code. Let’s see how AI gives us confidence to do code refactoring.
How to use AI to do Code Refactoring
We heard about vibe coding, right? We can also try vibe coding using AI, but I didn’t experiment yet. Now, what are we waiting for? Let’s try code refactoring with GitHub Copilot!
You can also see the key improvements
How to Use AI for Code Refactoring
I hope everybody tried GitHub Copilot - but also try it for other use cases too!
How to Do Code Refactoring with OpenAI Codex:
OpenAI recently released the Codex CLI - an open-source, lightweight coding agent that runs in your terminal.
Install it using npm:CopyCopynpm install -g @openai/codex
If you don't have an OpenAI key, don't worry - you can try it with other model providers. I tried with Groq, I created my free key.
In the output, you can see I'm doing both vibe coding and refactoring just in the terminal!
I just tried Copilot and Codex - you can try Cursor or any AI tool to refactor your code!
Worried About Testing After Code Refactoring?
We’ve seen how tools like Copilot and Codex help refactor our code but how can we use AI to write tests?
While Copilot can write tests, it’s a general-purpose model trained to handle a wide range of coding tasks. But what if there were a platform designed specifically for testing a vertical AI platform built just for that?
Sounds interesting, right?
That platform is none other than Keploy. You can use Keploy to automatically generate unit tests and API tests. Think of it as a no-code AI platform for testing — making test generation smarter, faster, and easier.
New AI Unit Testing Agents in the town
Unit testing agent
Keploy has recently released a Unit Testing Agent that generates stable, useful unit tests directly in your GitHub PRs, covering exactly what matters. How cool is this? Testing directly in PRs – so developers won’t need to write test cases for their new features. Keploy writes them for you! No noisy stuff – just clean, focused tests targeting the code changes. You can also try this Unit Testing Agent in your VSCode
VSCode Extension: https://marketplace.visualstudio.com/items?itemName=Keploy.keployio
PR Agent: https://github.com/marketplace/keploy
New AI API Testing Agent in the Town
Instead of writing test cases to test your APIs, what if you provide your schema, API endpoints, and curl commands to an agent, and it generates the test suite and gives you the test reports? Sounds interesting or confusing? Yes, it is possible! Keploy API Testing Agent will do all this without you touching any code.
To try an AI API testing agent: https://app.keploy.io/
Let me come back to the blog again.
What are the Benefits of Code Refactoring?
I think we don’t need to go deep into this section because we already saw the benefits of code refactoring in the previous sections. But here’s just a quick glance:
What are the Challenges of Code Refactoring?
We saw the benefits of code refactoring, and now let’s look at the challenges—like why people are afraid of refactoring:
Fear of breaking working code if there are no tests
Time-consuming, especially in large codebases
Your boss may not see immediate value, as it's not a new feature
It requires a deep understanding of the code
Lack of automated tests makes it risky to refactor
Best Practices for Code Refactoring
Analyze the code – Understand what the code is doing before making changes.
Refactor as a team – It’s not a one-man show; everyone should be on the same page.
Test at every stage – Always test after each change to make sure nothing breaks.
Follow consistent naming conventions – Good naming makes a big difference in code clarity.
Work with refactoring tools – They can save time and help catch issues early.
Examples of these tools:
IntelliJ IDEA
SonarLint
Visual Studio
ReSharper
Eclipse IDE
Conclusion:
Code refactoring may not get the spotlight like flashy new features, but it’s one of the best investments you can make in your codebase. Clean code is faster to work with, easier to test, and way less stressful to debug.
So the next time you touch a confusing piece of code, don’t ignore it. Spend those extra few minutes to refactor it’s a gift to your future self (and your teammates).
One final thought: writing code is easy, but maintaining it is the real challenge. Your code needs to be clean so that your teammates, someone else, or even you, months later, can understand it clearly. So always keep refactoring in mind.
Some of the other Useful blogs for your reference:
Top Software Development Tools In 2025:Explore the most powerful and innovative tools developers are using in 2025 — from AI-assisted coding and next-gen CI/CD platforms to cutting-edge debugging and collaboration tools
Best Opensource Coding AIWant to know more about the best open source coding AIs? Learn how they work and how you can run them locally on your machine.
Best Claude 3.5 Sonnet Style For CodeExplore how the Claude 3.5 Sonnet model is redefining code generation and review. From clean syntax suggestions to intelligent refactoring, learn how this AI enhances developer productivity, reduces boilerplate, and streamlines your workflow all while maintaining human-like clarity in code.
AI Coding toolsDiscover the top AI-powered coding tools that are revolutionizing software development.
Optimized Management Of Configuration Files On Aws S3Learn how to efficiently manage and organize configuration files in AWS S3 for scalability, security, and ease of access.
FAQs:
Does refactoring mean rewriting code?Nope! Refactoring improves existing code, not rewrites it from scratch. The goal is to restructure the code internally without changing its external behavior. It helps make the codebase easier to read, maintain, and extend over time.
Will refactoring break my code?Not if you test properly. Refactor step by step and test as you go. Using automated tests gives you confidence that your changes haven’t introduced new bugs. A well-tested codebase makes refactoring much safer and faster.
Can I refactor without tests?It’s risky. Tests help ensure your code still works after changes. If you don’t have tests, add them first or use tools like Keploy to generate tests automatically. Without tests, even small changes can have unintended consequences that go unnoticed.
What’s the golden rule of refactoring?If something is hard to understand or painful to work with clean it up! Good code should be readable and predictable. Refactoring is a discipline that helps maintain the health of your codebase as it grows.
What’s the difference between refactoring and optimization?Refactoring makes code cleaner and easier to work with. Optimization makes it faster or more efficient. You typically refactor to improve maintainability, and optimize to improve performance and both should preserve correct functionality.
The evolution of a rocket engine
comparing it with the code refactoring...

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Prioritizing Technical Debt in Business-Focused Scrum Teams: A Framework for Addressing Technical Debt to Improve Product Quality, Increase Productivity, and Align with Business Objectives
Abstract In Scrum teams, prioritizing technical debt can be a challenge as the focus is primarily on delivering value to the business through product features and functionality. Technical debt can hinder the team’s ability to deliver value over time by slowing down development, introducing bugs, and making it difficult to maintain the codebase. Therefore, it is essential to address technical…
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Automatic Task Splitting for Uniprocessor Systems Scheduled with Non-Preemptive EDF | Chapter 03 | Theory and Applications of Mathematical Science Vol. 1
Although preemptive scheduling dominates non-preemptive scheduling from a schedulability perspective, the latter will often be chosen by developers of real-time systems with resource constraints due to the inherently lower system overheads, easier code implementation and timing analysis. This paper is concerned with the uniprocessor scheduling of periodic and sporadic tasks with arbitrary relative deadlines in real-time systems using the non-preemptive version of the Earliest Deadline First (npEDF) algorithm. Although npEDF is known to be optimal among the non-preemptive work-conserving schedulers, it can still be restrictive in the sense that there exists uniprocessor-feasible task sets (with arbitrarily low CPU utilization) that are not schedulable with npEDF. For such task sets, system developers are forced to either consider the use of an alternate scheduling strategy or refactor the task software in some beneficial way. One such beneficial way is to apply a concept known as ‘task splitting’. However to date, little guidance has been available to assist developers with the latter process, and it is often performed on an ad-hoc basis. This paper will propose the application of a fast and efficient task splitting technique to assist developers with this software refactoring process, which can thus be used to maximize the achievable CPU utilization whilst retaining the benefits of non-preemption. Examples and experimental results are given to illustrate the performance of the algorithm. For random but representative task sets, the results also indicate that in the average case only a relatively small number of tasks require the application of task splitting to become schedulable under npEDF.
Author(s) Details
Michael Short School of Computing, Engineering and Digital Technologies, Teesside University, Middlesbrough, UK.
View Books: http://bp.bookpi.org/index.php/bpi/catalog/book/117
Scientist Ruby library for refactoring critical paths
Sometimes we envy you. Such great things are still waiting for you! For example, more and more fantastic ruby libraries appear and we can’t keep silent about that. Meet Scientist Ruby library for refactoring critical paths. Scientist Ruby library is used for careful refactoring critical...