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best practices

Ruhma Khawaja author
Ruhma Khawaja
| May 24

Machine learning practices are the guiding principles that transform raw data into powerful insights. By following best practices in algorithm selection, data preprocessing, model evaluation, and deployment, we unlock the true potential of machine learning and pave the way for innovation and success.

In this blog, we focus on machine learning practices—the essential steps that unlock the potential of this transformative technology. By adhering to best practices, such as selecting the right machine learning algorithms, gathering high-quality data, performing effective preprocessing, evaluating models, and deploying them strategically, we pave the path toward accurate and impactful results.

5 essential machine learning practices
5 essential machine learning practices

Join us as we explore these key machine learning practices and uncover the secrets to optimizing machine-learning models for revolutionary advancements in diverse domains.

1. Choose the right algorithm

When choosing an algorithm, it is important to consider the following factors:

  • The type of problem you are trying to solve. Some algorithms are better suited for classification tasks, while others are better suited for regression tasks.
  • The amount of data you have. Some algorithms require a lot of data to train, while others can be trained with less data.
  • The desired accuracy. Some algorithms are more accurate than others
  • The computational resources you have available. Some algorithms are more computationally expensive than others.

Once you have considered these factors, you can start to narrow down your choices of algorithms. You can then read more about each algorithm and experiment with different algorithms to see which one works best for your problem.

2. Get enough data

Machine learning models are only as good as the data they are trained on. If you don’t have enough data, your models will not be able to learn effectively. It is important to collect as much data as possible that is relevant to your problem. The more data you have, the better your models will be.

There are a number of different ways to collect data for machine learning projects. Some common techniques include:

  1. Web scraping: Web scraping is the process of extracting data from websites. This can be done using a variety of tools and techniques.
  2. Social media: Social media platforms can be a great source of data for machine learning projects. This data can be used to train models for tasks such as sentiment analysis and topic modeling.
  3. Sensor data: Sensor data can be used to train models for tasks such as object detection and anomaly detection. This data can be collected from a variety of sources, such as smartphones, wearable devices, and traffic cameras.
Machine learning practices for data scientists
Machine learning practices for data scientists

3. Clean your data

Even if you have a lot of data, it is important to make sure that it is clean. This means removing any errors or outliers from your data. If your data is dirty, it will make it difficult for your models to learn effectively. There are a number of different ways to clean your data. Some common techniques include:

  • Identifying and removing errors: This can be done by looking for data that is missing, incorrect, or inconsistent.
  • Identifying and removing outliers: Outliers are data points that are significantly different from the rest of the data. They can be removed by identifying them and then removing them from the dataset.
  • Imputing missing values: Missing values can be imputed by filling them in with the mean, median, or mode of the other values in the column.
  • Transforming categorical data: Categorical data can be transformed into numerical data by using a process called one-hot encoding.

Once you have cleaned your data, you can then proceed to train your machine learning models.

4. Evaluate your models

Once you have trained your models, it is important to evaluate their performance. This can be done by using a holdout set of data that was not used to train the models. The holdout set can be used to measure the accuracy, precision, and recall of the models.

  1. Accuracy: Accuracy is the percentage of data points that are correctly classified by the model.
  2. Precision: Precision is the percentage of data points that are classified as positive that are actually positive.
  3. Recall: Recall is the percentage of positive data points that are correctly classified as positive.

The ideal model would have high accuracy, precision, and recall. However, in practice, it is often necessary to trade-off between these three metrics. For example, a model with high accuracy may have low precision or recall.

Once you have evaluated your models, you can then choose the model that has the best performance. You can then deploy the model to production and use it to make predictions.

5. Deploy your models

Once you are satisfied with the performance of your models, it is time to deploy them. This means making them available to users so that they can use them to make predictions. There are many different ways to deploy machine learning models, such as through a web service or a mobile app.

Deploying your machine learning models is considered a good practice because it enables the practical utilization of your models by making them accessible to users. Also, it has the potential to reach a broader audience, maximizing its impact.

By making your models accessible, you enable a wider range of users to benefit from the predictive capabilities of machine learning, driving decision-making processes and generating valuable outcomes.

Popular machine-learning algorithms

Here are some of the most popular machine-learning algorithms:

  1. Decision trees: Decision trees are a simple but effective algorithm for classification tasks. They work by dividing the data into smaller and smaller groups until each group can be classified with a high degree of accuracy.
  2. Linear regression: Linear regression is a simple but effective algorithm for regression tasks. It works by finding a line that best fits the data.
  3. Support vector machines: Support vector machines are a more complex algorithm that can be used for both classification and regression tasks. They work by finding a hyperplane that separates the data into two groups.
  4. Neural networks: Neural networks are powerful but complex algorithms that can be used for a variety of tasks, including classification, regression, and natural language processing.

It is important to note that there are no single “best” machine learning practices or algorithms. The best algorithm for a particular problem will depend on the specific factors of that problem.

In a nutshell

Machine learning practices are essential for accurate and reliable results. Choose the right algorithm, gather quality data, clean and preprocess it, evaluate model performance, and deploy it effectively. These practices optimize algorithm selection, data quality, accuracy, decision-making, and practical utilization. By following these practices, you improve accuracy and solve real-world problems.

 

Zaid - Author images
Zaid Ahmed
| May 17

MAANG has become an unignorable buzzword in the tech world. The acronym is derived from “FANG”, representing major tech giants. Initially introduced in 2013, it included Facebook, Amazon, Netflix, and Google. Apple joined in 2017. After Facebook rebranded to Meta in June 2022, the term changed to “MAANG,” encompassing Meta, Amazon, Apple, Netflix, and Google.

MAANG

Moreover, efficient collaboration and version control are vital for streamlined software development. Enter Git, the ubiquitously distributed version control system that has become the gold standard for managing code repositories. Discover how Git’s best practices enhance productivity, collaboration, and code quality in big organizations.

Top 10 Git practices followed in MAANG

1. Creating a clear and informative repository structure 

To ensure seamless navigation and organization of code repositories, we should follow a well-defined structure for their GitHub repositories. Clear naming conventions, logical folder hierarchies, and README files with essential information are implemented consistently across all projects. This structured approach simplifies code sharing, enhances discoverability, and fosters collaboration among team members. Here’s an example of a well-structured repository:  

Creating a repository structure
Creating a repository structure

By following such a structure, developers can easily locate files and understand the overall project organization.  

2. Utilizing branching strategies for effective collaboration  

The effective utilization of branching strategies has proven instrumental in facilitating collaboration between developers. By following branching models like GitFlow or GitHub Flow, team members can work on separate features or bug fixes without disrupting the main codebase. This enables parallel development, seamless integration, and effortless code reviews, resulting in improved productivity and reduced conflicts. Here’s an example of how branching is implemented: 

Utilizing branching strategies
Utilizing branching strategies

3. Implementing regular code reviews  

MAANG developers place significant emphasis on code quality through regular code reviews. GitHub’s pull request feature is extensively utilized to ensure that each code change undergoes thorough scrutiny. By involving multiple developers in the review process. Code reviews enhance the codebase’s quality and provide valuable learning opportunities for team members. 

Here’s an example of a code review process: 

  1. Developer A creates a pull request (PR) for their code changes. 
  2. Developer B and Developer C review the code, provide feedback, and suggest improvements. 
  3. Developer A addresses the feedback, makes necessary changes, and pushes new commits. 
  4. Once the code meets the quality standards, the PR is approved and merged into the main codebase. 


By following a systematic code review process, MAANG ensures that the codebase maintains a high level of quality and readability.
 

4. Automated testing and continuous integration 

Automation plays a vital role in MAANG’S GitHub practices, particularly when it comes to testing and continuous integration (CI). MAANG leverages GitHub Actions or other CI tools to automatically build, test, and deploy code changes. This practice ensures that every commit is subjected to a battery of tests, reducing the likelihood of introducing bugs or regressions into the codebase. 

Automated testing and continuous integration
Automated testing and continuous integration

5. Don’t just git commit directly to master 

 Avoid committing directly to the master branch in Git, regardless of whether you follow Gitflow or any other branching model. It is highly recommended to enable branch protection to prevent direct commits and ensure that the code in your main branch is always deployable. Instead of committing directly, it is best practice to manage all commits through pull requests.  

Manage all commits through pull requests
Manage all commits through pull requests

6. Stashing uncommitted changes 

If you’re ever working on a feature and need to do an emergency fix on the project, you could run into a problem. You don’t want to commit to an unfinished feature, and you also don’t want to lose current changes. The solution is to temporarily remove these changes with the Git stash command: 

Stashing uncommitted changes
Stashing uncommitted changes

7. Keep your commits organized 

You just wanted to fix that one feature, but in the meantime got into the flow, took care of a tricky bug, and spotted a very annoying typo. One thing led to another, and suddenly you realized that you’ve been coding for hours without actually committing anything. Now your changes are too vast to squeeze in one commit… 

Keep your commits organized
Keep your commits organized

8. Take me back to good times (when everything works flawlessly!)  

It appears that you’ve encountered a situation where unintended changes were made, resulting in everything being broken. Is there a method to undo these commits and revert to a previous state?  With this handy command, you can get a record of all the commits done in Git. 

Git Command
Git Command

All you must do now is locate the commit before the troublesome one. The notation HEAD@{index} represents the desired commit, so simply replace “index” with the appropriate number and execute the command. 

And there you have it you can revert to a point in your repository where everything was functioning perfectly. Keep in mind to only use this feature locally, as making changes to a shared repository is considered a significant violation.  

9. Let’s confront and address those merge conflicts commits

You are currently facing a complex merge conflict, and despite comparing two conflicting versions, you’re uncertain about determining the correct one. 

Resolving merge conflicts
Resolving merge conflicts

Resolving merge conflicts may not be an enjoyable task, but this command can simplify the process and make your life a bit easier. Often, additional context is needed to determine which branch is the correct one. By default, Git displays marker versions that contain conflicting versions of the two files. However, by choosing the option mentioned, you can also view the base version, which can potentially help you avoid some difficulties. Additionally, you have the option to set it as the default behavior using the provided command.

10. Cherry-Picking commits

Cherry-picking is a Git command, known as git cherry-pick, that enables you to selectively apply individual commits from one branch to another. This approach is useful when you only need certain changes from a specific commit without merging the entire branch. By using cherry-picking, you gain greater flexibility and control over your commit history. 

Cherry-Picking commits
Cherry-Picking commits

In a nutshell

The top 10 Git practices mentioned above are indisputably essential for optimizing development processes, fostering efficient collaboration, and guaranteeing code quality. By adhering to these practices, MAANG’s Git framework provides a clear roadmap to excellence in the realm of technology. 

Prioritizing continuous integration and deployment enables teams to seamlessly integrate changes and promptly deploy new features, resulting in accelerated development cycles and enhanced productivity. Embracing Git’s branching model empowers developers to work on independent features or bug fixes without affecting the main codebase, enabling parallel development and minimizing conflicts. Overall, these Git practices serve as a solid foundation for efficient and effective software development 

 

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