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From Waterfall to Agile: Discovering the Top 4 Software Development Methodologies

The digital world of software development is progressing, and individuals are learning that projects will only be successful if they select the appropriate tools. However, with numerous methodologies, it becomes relatively complex for the companies to navigate because of the diverse list. However, they do not have to worry about it as this blog will guide the firms in making processes more perfect and completing them rapidly. 

According to recent highlights, 47% of users use DevOps or DevSecOps methodologies for their software development. This ratio tells the importance of seamless implementation of software creation methodologies within the systems. After reading this article, readers can easily differentiate between the top 4 software development methods. Additionally, they can handle all kinds of projects effectively. 

Software Development Process: Create a Blue to Accelerate Success

Before learning specific software development methodologies, companies must examine their work processes. Consideration of these methodologies can be life-changing as they help software development businesses simplify their everyday operations. However, the foremost thing is that users must have knowledge about the whole processing. 


The software development methodology process is divided into the following steps: 

Data Collection and Strategizing

The software development methodology process starts when the development team conducts a meeting with the client, where they get all of the details about the project. This process also includes how users plan about the whole development procedure.

Designing

In this phase, the ideas that were came up during the brainstorming sessions are then translated into actual designs that will be used in the development phase. Here, the appearance of the interface, its organization, and the general appearance of the application are described and sketched out in terms of wireframes, mockups, and prototypes. Some of the aspects that designers consider in order to make the final product appealing and effective include usability, look and feel, and functionality. This is the stage that requires the most interaction between the designers, developers, and the stakeholders because it is at this stage that the designs are checked against the requirements and objectives of the project. After the concepts of the app are created and the client approves them, the app development moves to the next step. 

Development

The development phase entails coding, programming, testing, and integrating aspects to make the designs a reality in the form of an application. This process entails developing the application by writing code, testing, enhancing the efficiency of the code, and guaranteeing that the app complies with the design phase requirements. Further, developers might discuss with designers, project managers, and other members of the team to continue the process of design to development and to solve any problems that might occur in the course of this phase.

QA Testing

After the development of designs, the whole development unit needs to perform the quality assurance testing of the software before sending it to the next process. This process is done to ensure whether the software has some bugs. If any error exists, then the QA testers must debug it before the launch process.  

Implementation and Launch

Following the thorough identification of all the bugs that are in the software and the subsequent testing and debugging processes that are aimed at eradicating all the bugs aurally, the next major activity is the implementation phase which requires a lot of attention to detail and integration with other systems. Thereafter, as the product is readied for its launch which is highly expected, it is critical to plan and launch a marketing campaign for the product that will create awareness among the target market and create interest to ensure that as many consumers as possible are reached and persuaded to buy the product in order to capture the market fully. 

Top Software Development Methodologies 

The top AI software development methodologies include:

Waterfall Development Methodology

Waterfall development methodology focuses on a linear flow, completing the processes sequentially and providing concise requirements. It is a structured and practical approach for projects that have possible risks. These methodologies suit the projects and include financial apps, enterprise resource planning systems, and compliance requirements. 

A waterfall can be applicable in AI software development as it offers a flexible approach and defines the initial requirements appropriately. 

Agile Development Methodology

Agile software development methodologies are way too fast and structured compared to waterfall techniques. Normally, in these methodologies the tasks are divided into small interactions that help the development team achieve clearly defined objectives. These technologies suit companies that want to adapt to evolving trends and regulations. Developers can compete with the changing requirements after getting assistance from these rapid approaches. Additionally, it will greatly benefit companies with a degree of high uncertainty.

In e-commerce software development, the same kind of methodology is required to adhere to the transformations within client behaviors and evolved trends. It offers retail software creation with ongoing improvements and implementation of innovative features with client reviews.

DevOps Development Methodology

DevOps development methodologies offer compelling performances to companies. Within this technique, there is an amalgamation of development and operations. 

These innovative methodologies are essential in faster delivery cycles and improving overall productivity. The software will have fewer bugs and offer ongoing implementation. 

Rapid Application Development

Rapid application development’s major focus is on prototyping; it offers user reviews that will help them accelerate their success levels. The highlighted points are: 

  • Iterative development 
  • User Feedback
  • Focus on prototyping

E-commerce software development sometimes demands rapid application creation and offers adoption of evolving trends. RAD’s emphasis is on designing and providing services according to client needs.

Which is the Best Software Methodology?

Businesses must understand their objectives and client requirements to select the best software methodology. When the development team has the appropriate knowledge of project goals, it can create a blueprint for the whole process. Doing so will ensure no mess during the software development procedures. 

Additionally, companies can align their major goals with the software method if they know their major goals. They can select the methodologies that meet their requirements. That’s how they do not have to face any kind of limitations.

Winding Up

Software development methodologies are behind the acceleration of product creation processes. Development teams that work on the software with appropriate methodologies can easily streamline the flow and improve their overall performances. Hence, businesses that want improved outcomes must implement these modern strategies and accelerate their success levels. 

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Overcoming Challenges with Offshore DevOps Companies

Businesses are increasingly looking to offshore DevOps teams to optimize their software development processes in today’s fast-paced digital market. While there are many advantages to this approach, such as lower costs and easier access to a worldwide labor pool, there are some disadvantages as well. How can these obstacles be overcome to ensure productive teamwork and successful project completion? Let’s examine some workable solutions and discuss the challenges of collaborating with offshore DevOps teams.

Understanding Offshore DevOps

The integration of development and operations methods in a geographically dispersed configuration is recognized as offshore DevOps. Through the use of international talent pools, offshore DevOps optimizes software development, deployment, and maintenance procedures, frequently leading to cost savings and round-the-clock production. Through the implementation of sophisticated communication technologies and strong management protocols, organizations may effectively address issues pertaining to time zone variations and cultural discrepancies, guaranteeing smooth cooperation and superior results. With this strategy, companies can improve scalability, quicken their development cycles, and hold onto their competitive advantages in the ever evolving IT sector.

Benefits of Offshore DevOps

Embracing offshore DevOps has many benefits that can make a big difference for a business. Cost effectiveness is one of the main justifications. Salary and operating expense savings are significant because offshore areas frequently have less labor costs than onshore ones. The lower overhead expenses of maintaining office buildings and equipment in expensive locations further contribute to this.

Another strong argument is having access to a wider pool of talent. Many highly qualified and seasoned DevOps specialists with extensive knowledge of the newest tools and technologies can be found in offshore regions. In addition to giving businesses access to specialized knowledge that could be hard to come by in their native nation, this access enables them to take advantage of a variety of creative ideas and abilities.

Moreover, offshore DevOps enables 24/7 operations. Companies can maintain continuous development and operations by having teams operating in multiple time zones. This results in speedier turnaround times and a more prompt response to concerns. Reducing downtime and enhancing service reliability require this 24/7 capability. So the opportunity to hire DevOps specialists from offshore regions allows companies to tap into a wider talent pool.

Two more significant benefits are scalability and flexibility. By scaling their DevOps resources up or down according to project demands, organizations can avoid the long-term obligations associated with recruiting full-time professionals. This adaptability makes it possible to quickly adapt to modifications in the market or project needs, ensuring that resources are employed efficiently.

To aid focus on important business processes, offshore teams may be given routine DevOps tasks. By focusing on strategic projects, internal teams are able to increase productivity and innovation through delegation. As a result, businesses can shorten development cycles and launch products more quickly by utilizing cost reductions, ongoing operations, and a varied talent pool.

Furthermore, offshore workers foster creativity and provide a worldwide perspective. Diverse viewpoints and approaches from many fields can foster innovation and yield superior outcomes. Being exposed to worldwide best practices improves the overall quality and efficacy of DevOps processes.

And lastly, offshore helps lower risk. There is geographic diversity, which enhances company continuity and catastrophe recovery plans. Reducing its reliance on a single location or team can help the business guard against a range of threats, including natural disasters and localized disruptions.

In summary, the key benefits of venturing into offshore DevOps include (These advantages collectively contribute to a company’s competitive edge and overall success.):

  • Cost efficiency
  • Access to a larger talent pool
  • 24/7 operations
  • Scalability and flexibility
  • Enhanced focus on core business
  • Accelerated time-to-market
  • Global perspective and innovation
  • Risk mitigation

Additionally, offshore DevOps is not limited to a single industry but finds application across various sectors, that’s why offshore DevOps is so widespread. From healthcare to finance, e-commerce to telecommunications, and manufacturing to entertainment, offshore DevOps practices have become indispensable for driving innovation, optimizing processes, and maintaining competitiveness in today’s digital age.

In the healthcare industry, where data security, regulatory compliance, and operational efficiency are paramount, offshore DevOps plays a crucial role. Specialized DevOps solutions tailored, such as Salesforce DevOps for healthcare streamline operations, improve patient care delivery, and ensure compliance with stringent regulations like HIPAA.

In the finance sector, offshore DevOps teams are instrumental in implementing robust security measures, enhancing transaction processing speeds, and improving customer experience. Financial institutions leverage DevOps practices to accelerate software development cycles, launch new financial products, and adapt to rapidly evolving market trends.

E-commerce companies rely on offshore DevOps solutions to enhance website performance, manage high volumes of online transactions, and personalize customer experiences. DevOps practices enable e-commerce businesses to rapidly deploy updates, optimize digital marketing campaigns, and ensure seamless integration with third-party platforms.

Common Challenges in Offshore Devops

Implementing DevOps in an offshore setting can provide significant benefits such as cost savings, access to a larger talent pool, and 24/7 productivity due to time zone differences, but despite the benefits, several challenges can impede the success of offshore DevOps collaborations. 

Here are some common challenges of offshore DevOps:

Communication Barriers

Effective communication is the cornerstone of any successful project. However, working with offshore teams can often lead to misunderstandings and miscommunications. Language barriers, different communication styles, and varying levels of English proficiency can complicate interactions.

To overcome these barriers:

  • Use Clear and Simple Language: Avoid jargon and technical terms that may not be universally understood.
  • Regular Meetings: Schedule regular video calls to ensure face-to-face interaction and clarity.
  • Documentation: Maintain detailed and accessible project documentation.

Time Zone Differences

Working across different time zones can be a double-edged sword. While it allows for continuous progress, it can also lead to delays and coordination issues.

Here are some strategies to manage time zone differences:

  • Overlap Hours: Identify a few hours each day when all team members are available.
  • Flexible Scheduling: Allow team members to adjust their work hours for better overlap.
  • Asynchronous Communication: Use tools that support asynchronous work, allowing team members to contribute at different times.

Cultural Differences

Cultural differences can affect teamwork and collaboration. Different work ethics, attitudes towards hierarchy, and communication styles can lead to misunderstandings.

To bridge cultural gaps:

  • Cultural Training: Provide training for team members to understand each other’s cultural backgrounds.
  • Cultural Liaisons: Appoint liaisons who can help navigate cultural differences.
  • Inclusive Environment: Foster an environment of inclusivity and respect for all cultures.

Managing Quality and Consistency

Maintaining consistent quality across different teams is challenging in an offshore setup. Ensuring that all teams adhere to the same standards and practices requires robust quality control mechanisms. Providing real-time feedback and conducting performance reviews also become more complex with offshore teams.

To maintain high quality:

  • Standardized Processes: Implement standardized development and testing processes.
  • Regular Audits: Conduct regular audits and code reviews.
  • Quality Metrics: Establish clear quality metrics and KPIs.

Ensuring Security and Compliance

Offshore DevOps teams often handle sensitive data, raising significant security and privacy concerns. Ensuring data privacy and compliance with local regulations can be challenging. Protecting intellectual property and preventing data leaks or misuse is also a major concern.

To enhance security:

  • Data Protection Policies: Implement stringent data protection policies.
  • Compliance Training: Provide regular training on compliance standards.
  • Secure Tools: Use secure communication and collaboration tools.

Building Trust and Transparency

Trust is the foundation of any successful partnership. Building trust with offshore teams can be challenging but is essential for long-term success.

To build trust:

  • Transparency: Maintain transparency in all dealings and communications.
  • Regular Updates: Provide regular project updates and feedback.
  • Mutual Respect: Cultivate mutual respect and understanding.

Effective Collaboration Tools

Ensuring that all teams use compatible and effective tools for integration, communication, and collaboration is essential but challenging. Providing secure and reliable access to necessary resources and tools for offshore teams can be problematic, leading to integration issues and performance bottlenecks.

Some effective collaboration tools include:

  • Project Management Tools: Tools like Jira, Trello, and Asana help track progress and manage tasks.
  • Communication Tools: Slack, Microsoft Teams, and Zoom facilitate communication.
  • Version Control Systems: GitHub and GitLab ensure version control and collaboration on code.

Strategies to Mitigate Challenges in Offshore Devops

Handling the Offshore DevOps complexity requires a multifaceted, all-encompassing approach. Fostering efficient communication that crosses regional boundaries to guarantee smooth collaboration is essential to success. Training in cultural sensitivity is essential for promoting understanding and unity among a diverse workforce. It is important to have strong security measures in place to protect sensitive data from constantly changing cyber threats. Maintaining the integrity of deliverables through consistent quality assurance procedures builds client trust. Agile project management techniques guarantee on-time delivery by optimizing procedures. Team building exercises foster a spirit of cooperation by bringing disparate teams together. Investing in skill development and training enables team members to adjust to rapidly changing technologies. Using excellent collaboration tools promotes effective coordination and information sharing, which boosts output and achievement.

To address these challenges, organizations can implement various strategies:

  • Enhanced Communication
  • Cultural Sensitivity Training:
  • Robust Security Measures
  • Consistent Quality Assurance
  • Effective Project Management
  • Team Building Activities

Other strategies include:

  • Training and Skill Development:

Continuous learning and skill development are crucial for keeping up with the fast-paced tech industry. To promote skill development:

  1. Training Programs: Offer regular training and upskilling programs.
  2. Knowledge Sharing: Encourage knowledge sharing through webinars and workshops.
  3. Certifications: Support team members in obtaining relevant certifications.
  • Effective Collaboration Tools:

Ensuring that all teams use compatible and effective tools for integration, communication, and collaboration is essential but challenging. Providing secure and reliable access to necessary resources and tools for offshore teams can be problematic, leading to integration issues and performance bottlenecks.

Some effective collaboration tools include:

  • Project Management Tools: Tools like Jira, Trello, and Asana help track progress and manage tasks.
  • Communication Tools: Slack, Microsoft Teams, and Zoom facilitate communication.
  • Version Control Systems: GitHub and GitLab ensure version control and collaboration on code.

Future Trends in Offshore DevOps

As the landscape of technology continues to evolve, offshore DevOps is expected to undergo significant transformations. Several trends are emerging that promise to shape the future of Devops field.

Some emerging trends include:

  • AI and Automation: The integration of AI in DevOps and machine learning will enhance predictive analytics, enabling proactive management of systems and more efficient troubleshooting.
  • Remote Work: Offshore DevOps will use dispersed team management techniques and virtual environments to more fully integrate remote work practices as it becomes more common.
  • Collaboration Tools and Platforms: Improved collaboration technologies will help geographically scattered teams communicate and coordinate more effectively, which will promote a more unified workflow.
  • Advanced Security Measures: Enhanced security processes and safeguards are known as advanced security measures.Offshore DevOps teams will implement increasingly complex security procedures, such as automated compliance checks and sophisticated encryption techniques, in response to the increase in cyberattacks.

Conclusion

In conclusion, offshore DevOps offers a strong option for companies looking to improve their software development workflows and obtain a leg up in the fast-paced industry of today. The advantages are obvious; they include improved scalability, 24/7 operations, and cost-effectiveness as well as access to a larger talent pool. But managing the difficulties that come with working remotely is essential to making sure that the partnership is successful.

Organizations face a variety of obstacles, including those related to creating trust, time zone differences, cultural disparities, preserving quality and consistency, and guaranteeing security and compliance. Techniques like improved communication, training for cultural sensitivity, strong security protocols, reliable quality control, efficient project administration, and team-building exercises can lessen these difficulties and promote fruitful cooperation.

To further improve operational efficiency and innovation, consider making investments in training and skill development, embracing efficient collaboration technologies, and keeping up with emerging trends in offshore DevOps. Offshore DevOps will continue to be essential to the success of companies in a variety of industries as the landscape changes with trends like artificial intelligence and automation, remote work, sophisticated communication platforms, and increased security measures.

In summary, companies can fully utilize offshore DevOps to spur innovation, streamline operations, and preserve competitiveness in the rapidly changing digital landscape by comprehending and skillfully resolving the associated risks as well as utilizing the advantages.

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10 Benefits of Test-Driven Development to Your DevOps Team

From JavaScript to HTML/CSS to SQL and beyond, thoroughly testing code before integrating it into any system is a key element to consider in software development. First and foremost, it safeguards the quality and integrity of the code. Compared to development teams that use other methods, TDD has been proven to considerably reduce bugs and deficiencies.

It’s also interesting to note that the DevOps market size is expected to reach $25.5 billion by 2028.

In this article, we’ll explain what test-driven development is, along with the various benefits, and how to effectively integrate test-driven development into your DevOps Team.

Test-Driven Development

What is Test-Driven Development in DevOps? 

First things first, it’s important to understand that the test driven development technique is neither about testing, design, or simply carrying out lots of tests. Test Driven Development (TDD) is a proactive software development method where developers write tests for the code before it’s even been written.

In addition to Test-Driven Development, in the age of digital transformation, digital transformation conferences have become a reliable pool of knowledge for developers to make strategic decisions and foolproof investment choices, too.

Whether you’re a small startup or an established enterprise, implementing test-driven development can significantly enhance your software development process and ensure the quality of your products, ultimately strengthening your business name in the industry.

Moreover, by promoting transparency and accountability in the development cycle, TDD aids in identifying and mitigating potential risks, thus providing clarity regarding the ultimate beneficial owner of code functionality.

Why use Test Driven Development in DevOps?

Test-Driven Development offers a variety of benefits for developers, including:

1. Early Bug Detection & Reduces Bugging Time

Writing tests before making changes or implementing new features helps catch bugs and problems early on. Even better, the likelihood of shortcomings or flaws in the final product is considerably reduced too.

Pinpointing a specific area of code that requires attention when it fails, this reduces the time spent on identifying and rectifying issues that can be spent where it’s needed most.

2. Improved Code Quality

Writing tests not only ensure the code meets specific requirements, it often produces cleaner, more modular and more manageable code. Inevitably, this leads to better code quality.

Test-Driven Development

Emphasizing early testing, maintainability, and confidence in the correctness of the codebase, improving code quality with TDD also offers:

  • Insightful documentation
  • Better software design 
  • Increased developer confidence 
  • Automated regression prevention 
  • Notable time savings in the long run 
  • Seamless CI/CD integration 
  • Improved customer satisfaction.

3. Faster Feedback Cycles

TDD provides software developers with immediate feedback on the precision of their code. Quicker feedback loops save developers valuable time by addressing coding headaches straightaway.

Other key advantages faster feedback cycles offer developers include:

  • Accelerates the overall development speed 
  • Minimizes distractions 
  • Enhances productivity 
  • Developers gain confidence in code changes 
  • Aligns with agile development principles 
  • Promotes incremental development 
  • Swift integration with CI 
  • Fosters a culture of collaboration
  • Shortens the overall feedback loop in the development process.

4. Facilitates Refactoring

Refactoring refers to the process of improving internal structures or code designs without changing its external behavior.

Enabling developers to regularly improve the quality and maintainability of the codebase, refactoring allows developers to reshape and develop code whilst simultaneously eliminating the worry of breaking existing functionality or introducing accidental consequences.

The key steps for refactoring with TDD are:

  • Write a failing test 
  • Run the test 
  • Perform refactoring, e.g. renaming variables, extracting methods, simplifying complex logic, etc. 
  • Run the test again 
  • Write additional tests 
  • Run all tests 
  • Evaluate 
  • Implement changes 
  • CI Integration 
  • Refactoring Documentation, e.g. comments in the code, README files, etc.

To guarantee you codebase’s code health improves with time, it’s worth considering carrying out a code review.

5. Supports Continuous Integration (CI)

In DevOps software development, continuous integration (CI) is where developers routinely add code changes to a central repository. Going hand in hand with TDD, CI enables automated tests, provides quick feedback, maintains code stability, and makes sure any integration issues are identified early on.

The CI process typically includes these steps:

  • Version Control System (VCS) 
  • Code Changes 
  • Automated Build 
  • Automated Testing 
  • Static Code Analysis 
  • Artifact Generation 
  • Deployment to Staging 
  • Environment Automated 
  • Acceptance Testing 
  • Manual testing 
  • Code Review 
  • Feedback and Notifications 
  • Merge to Main/Master Branch.

6. Enables Continuous Delivery (CD)

Quite simply, continuous delivery (CD) automates the building, testing, and deploying of software. Making sure it’s always in a deployable state, combined with CI/CD techniques, TDD supports the frequent release of software updates.

Closely related to CI, the key steps in the CD process are:

  • Version Control 
  • Continuous Integration (CI) 
  • Automated Testing 
  • Artifact Generation 
  • Configuration Management 
  • Deployment to Testing/Staging Environment 
  • Automated Acceptance Testing 
  • Manual Testing 
  • Approval Gates 
  • Deployment to Production 
  • Monitoring and Logging 
  • Rollback Plan 
  • Post-Deployment Testing 
  • Documentation and Release Notes

7. Better Collaboration Reduces Debugging Times

TDD provides a clear understanding of the expected behavior of the code. It fosters a culture of collaboration among team members, facilitating virtual collaboration sessions where developers can discuss test results, code implementations, and potential improvements, regardless of their physical locations.

It also helps reduce debugging times by promoting collaboration in the form of clear specifications, collective code ownership, and regular code reviews. 

Reducing debugging times is beneficial for DevOps teams for various reasons:

  • Increased efficiency 
  • Faster time to market 
  • Cost savings 
  • Enhanced morale and motivation 
  • Higher-quality software 
  • Iterative development.

Resulting in better-quality software, faster turnaround for fixing issues, and happier development teams, reducing debugging times is essential for maintaining a seamless development process from start to finish.

8. Increased Confidence in Changes

Acting as the ultimate safeguard, if developers can ensure the tests pass they can be confident in the knowledge that the changes haven’t introduced any setbacks. Test-Driven Development (TDD) also aligns well with modern infrastructure practices like utilizing dedicated hosts, where the isolation and predictability they offer can further bolster confidence in code changes.

Just like software development, Enterprise Architecture (EA) is constantly evolving in this fast-paced market. So, if you like the idea of quicker change and innovation, achieving greater value within the market, and accomplishing your objectives, it’s worth looking into the latest EA trends for further insight.

Test-Driven Development

9. Positively Impacts Data Handling

By writing tests that validate data inputs and outputs, TDD ensures that data is processed accurately, providing a reliable foundation for developers to make an informed inference about the behavior and performance of their code under various conditions. This leads to improved data quality and reduces the likelihood of inconsistencies and errors.

TDD ensures accurate data handling by:

  1. Requirement Clarification 

Clarifying the types of data that need to be handled, how they should be processed, and determining the expected outcomes.

2. Test Writing 

Developers write test cases covering various scenarios related to data handling, e.g. input data, expected output, and any specific conditions or constraints to consider.

3. Test Execution (Red Phase) 

Examine failing tests to start writing the code to handle the data.

4. Code Implementation (Green Phase) 

Write the minimum amount of code needed to make failing tests pass.

5. Refactoring (Blue Phase) 

Once the tests pass and the code works, it’s time to refactor the code to improve structure, readability and efficiency.

6. Regression Testing

To maintain data accuracy, developers run an existing test suite to ensure changes haven’t introduced any regressions.
Increasingly driven by automation, call center data, campaigns, and dialling plans are prime examples that can all benefit from implementing modern test-driven development strategies.

10. Cost savings

By catching problems early, TDD can reduce the time and resources spent on fixing bugs and addressing issues in later stages of development or production.

Boosting both financial performance and competitiveness in your industry, saving costs allows development teams to deliver projects much faster, with fewer resources.

If you’re looking to take back control of your software development investments, it’s worth delving deeper into application portfolio management best practices to learn more.

Are there any alternatives to Test-Driven Development (TDD)?

Acceptance test-driven development (ATDD)

Acceptance Test-Driven Development (ATDD) is an agile software development process that incorporates acceptance tests into the development stage.

Behavior driven development (BDD)

Behavior-Driven Development (BDD) encourages collaboration amongst a diverse mix of stakeholders to enhance communication. It also ensures software meets the desired behavior and business requirements.

How do you implement Test-Driven Development?

A typical TDD workflow typically includes the following steps:

1. Write a Test

Write a test to define the expected behavior of the code.

2. Run the Test

Carry out the test and make sure it fails. The code hasn’t been implemented yet, so you want the test to fail and show the test is working properly by accurately reflecting the missing functionality.

3. Write the Code

Create the minimum amount of code needed to pass the test. Fulfill the requirements and nothing more.

4. Run the Refractor test (if needed)

Reducing complexities and strengthening readability, refactoring improves the code by making small tweaks without altering the code’s external behavior.

5. Repeat the Process

Repeat the cycle for each new piece of functionality or changes that need to be made.

Helping to better understand your domain as you develop it, and building robust and scalable apps aligned with your business domain is incredibly important too. For example, you could register domain .ai if you work in the world of machine learning or if you have a store based in Anguilla to boost brand awareness.

Final Thoughts

Instilling true value and lowering costs across the board, it’s clear to see (when used right), the TDD method presents an array of benefits to savvy software development teams.

Allowing developers to build a safe environment to unearth all the bugs before harming the whole system, if you’re looking for a methodology renowned for consistent quality and flexibility, test-driven development is the way forward.

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Systemd journal logs: A Game-Changer for DevOps and Developers

“Why bother with it? I let it run in the background and focus on more important DevOps work.” — a random DevOps Engineer at Reddit r/devops

In an era where technology is evolving at breakneck speeds, it’s easy to overlook the tools that are right under our noses. One such underutilized powerhouse is the systemd journal. For many, it’s a mere tool to check the status of systemd service units or to tail the most recent events (journalctl -f). Others who do mainly container work, ignore even its existence.

What is the purpose of systemd-journal?

However, the systemd journal includes very important information. Kernel errors, application crashes, out of memory process kills, storage related anomalies, crucial security intel like ssh or sudo attempts and security audit logs, connection / disconnection errors, network related problems, and a lot more. The system journal is brimming with data that can offer deep insights into the health and security of our systems and still many professional system and devops engineers tend to ignore it.

Of course we use logs management systems, like Loki, Elastic, Splunk, DataDog, etc. But do we really go through the burden to configure our logs pipeline (and accept the additional cost) to push systemd journal logs to them? We usually don’t.

On top of this, what if I told you that there’s an untapped reservoir of potential within the systemd journal? A potential that could revolutionize the way developers, sysadmins, and DevOps professionals approach logging, troubleshooting, and monitoring.

But how does systemd-journal work?

systemd journal isn’t just a logging tool; it’s an intricate system that offers dynamic fields for every log entry. Yes, you read right. Each log line may have its own unique fields, annotating and tagging it with any number of additional name-value pairs (and the value part can be even binary data). This is unlike what most log management systems do. Most of them are optimized for logs that are uniform, like a table, with common fields among all the entries. systemd journal on the other hand, is optimized for managing an arbitrary number of fields on each log entry, without any uniformity. This feature gives this tool amazing power.

Check for example coredumps. systemd developers have annotated all applications crashes with a plethora of information, including environment variables, mount info, process status information, open files, signals, and everything that was available at the time the application crashed.

Now, imagine a world where application developers don’t just log errors, but annotate those logs with rich information: the request path, internal component states, source and destination details, and everything related to identify the exact case and state this log line appeared. How much time such error logging would save? It would be a game-changer, enabling faster troubleshooting, precise error tracking, and efficient service maintenance.

All this power is hidden behind a very cryptic journalctl command. So, at Netdata we decided to reveal this power and make it accessible to everyone.

Try it for yourself in one of our Netdata demo rooms here.

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5 DevOps best practices to reinforce with monitoring tools

This blog is contributed to Developer Nation by Netdata

As part of a modern software development team, you’re asked to do a lot. You’re supposed to build faster, release more frequently, crush bugs, and integrate testing suites along the way. You’re supposed to implement and practice a strong DevOps culture, read entire novels about SRE best practices, go agile, or add a bunch of Scrum ceremonies to everyone’s calendar. Every week, the industry recommends that you “shift-left” another part of the DevOps pipeline, to the point where you’re supposed to handle everything from unit testing to production deployment optimization from day one.

While you might have some experience in monitoring software, the reality is that as an aggregate, some others around you probably don’t. According to the Stack Overflow Developer Survey 2020, nearly 40% of developers have less than 5 years of professional experience. There’s not enough time for anyone to learn all these DevOps tools and best practices while also putting meaningful code into a GitHub repository on a regular basis.

Monitoring, and the metrics data it creates, can be a powerful way to encourage DevOps best practices through a common language, and implementing it doesn’t have to be complicated or time-consuming. By combining a DevOps mindset with a “full-stack” monitoring tool, you can start getting instant feedback about the performance and availability of what you’re trying to build—without waiting another 5 years for your team’s DevOps experience to catch up.

If your team has already settled on a monitoring tool, you can start applying these best practices today. If you’re still looking for the right piece of kit, you can start making informed tooling decisions based on what’s going to strengthen your team.

Focus on infrastructure monitoring first

When we talk about monitoring software for DevOps teams, we’re talking primarily about infrastructure monitoring. Infrastructure monitoring is the practice of collecting metrics data about the performance and availability of an application’s “full stack.” That’s everything including the hardware, any virtualized environment, the operating system, and any services (like databases, message queues, or web servers) that might make your application possible.

Depending on the full stack’s complexity, infrastructure monitoring can mean keeping an eye on a single virtual machine (VM) running on Google Cloud Platform (GCP), a Kubernetes (k8s) deployment with dozens of ephemeral nodes that scale horizontally during periods of high usage, or anything in between.

Here’s some key infrastructure metrics to keep an eye on using your monitoring tool (Netdata included):

If you can collect eBPF metrics, that’s even better, even if you aren’t experienced enough to make sense of them yet. eBPF metrics are still very much the cutting edge of infrastructure monitoring, providing extremely granular detail into exactly how the Linux kernel deals with your full stack, so there’s still a lot of flux in recommendations and best practices.

Monitor performance and availability in every environment

Modern DevOps teams should be monitoring the full stack no matter where it runs. This presents quite a large break from tradition, where the operations (Ops) team handled monitoring only once the application was running in production. The perception was that seeing users interact with a full stack was the only way to catch real bugs.

The latest best practices acknowledge that it’s possible—even inevitable—to catch bugs early by monitoring everywhere. That starts with local development servers and extends to any number of testing, staging, or production environments. That also means the monitoring tool should work whether the application is running off the latest M1 Macbook Air or in a multi-cloud deployment across dozens of virtual machines (VMs).

Before you go rushing into your next release process, take time to develop the tooling to monitor in more places. That might mean creating a custom Dockerfile for local development, or adding hooks into your CI/CD toolchain to deploy a fresh staging environment every time a developer reaches a milestone.

How’s this for an easy deployment experience in any environment?

Collect everything, worry about it when you need it

The only way to know that something is going wrong with your application’s infrastructure is to have the data to support it. One common practice is to vacuum up every metric, store it for 2-3 weeks, and have it available if you need to go back in time and root cause an issue or outage.

One way to ensure you’re collecting everything is to choose a tool with high granularity. Every infrastructure monitoring tool collects and visualizes metrics at a specific granularity, which is another way of talking about the time period between one point of collection and the next.

One data point every 60 seconds = low granularity One data point every 1 second = high granularity If you have a transitive-but-critical error that comes and goes within 5 seconds, a low-granularity solution might not even show a blip, which means you still don’t know anything went wrong in the first place.

With low granularity, metrics are averaged out over long periods of time, which has the unwanted effect of flattening what should be a worrying spikes into nothing more than a blip in the noise.

Netdata itself uses an internal time-series database for storing per-second metrics in an efficient way, which gives you tons of flexibility to find the sweet spot between disk space considerations and keeping historical metrics around long enough for proper analysis.

Some DevOps teams even use tools like (e)BPF, which collect and visualize metrics with an event granularity, which means they can show you every event, and not just an average/minimum/maximum of data between two points in time.

Break down silos with metrics

One of the DevOps mindset’s core purposes is to break down existing silos between what used to be separate development (Dev) and operations (Ops) teams. In the past, the Dev team finished writing code, flung across the fence to the Ops team, and wiped their hands clean from whatever came next. The Ops team then spent their days putting out fires and understanding how the application worked.

DevOps is designed to stop this unproductive cycle, but it only works if everyone has access to the same platform and uses the same language: metrics. Choose a tool that’s accessible to everyone who touches application code or controls the production environment. That doesn’t mean having one person who controls the infrastructure monitoring dashboards and lets the rest of the organization look at it in read-only mode.

Make sure your monitoring tool encourages the sharing of information. Let anyone on your team, no matter their role, peek at your configurations or dashboards. By looking over your shoulder, they might learn something valuable, like a metric they’d previously overlooked or a unique troubleshooting strategy. On the other hand, the tool should also let anyone experiment and explore in a “sandbox” that doesn’t affect the core health and availability dashboards.

For example, Netdata Cloud uses the concepts of War Rooms, which are shared containers for DevOps teams who need to do infrastructure monitoring. Every node, alert, and custom dashboard in that War Room is shared between everyone, but each team member can freely create, reconfigure, and learn. No more keys to the dashboarding kingdom, and no more worrying about messing up someone else’s perfectly-crafted troubleshooting experience.

Bubble it up into continuous monitoring

While continuous integration (CI) and continuous delivery (CD; CI/CD) have gotten all the attention, a lot of DevOps practitioners have forgotten about continuous monitoring (CM). This practice helps DevOps teams track, identify, and make decisions from all collected metrics, across all environments, in real time.

While some consider CM the last part of the DevOps pipeline—the practice of monitoring an application in production—other organizations bring CM to the entire CI/CD toolchain, monitoring internal processes and tooling to identify issues before being released into the wild.

With a sophisticated CM strategy in place, your team can better respond to ongoing incidents, with the added benefit of making leaps in the 4 key metrics for DevOps success: mean time to acknowledge (MTTA), mean time to recovery (MTTR), mean time between failures (MTBF), and mean time to failure (MTTF). You’ll improve company-wide visibility into the performance and availability of its stack, and you’ll end up driving real business results, like happier users and improved retention. Because Netdata deploys (easily) everywhere, has highly-granular metrics, and lets users of all experience levels explore and learn their infrastructure, it’s perfect for leveling up a DevOp team with CM.

Don’t have a DevOps monitoring tool yet?

The IT infrastructure monitoring tools that make all these best practices come to life come in a huge variety of shapes and sizes, from open-source toolchains you cobble together on your own to enterprise-friendly monoliths that do everything but cost a ton.

Because there are so many moving parts, a lot of developers and DevOps teams hesitate when choosing an IT monitoring tool, and then end up with something that doesn’t actually empower them, knock down silos between teams, or ramp up the speed of development.

One choice that enables all of the above best practices, and many more, is Netdata. Download the free and open-source Netdata Agent to start implementing DevOps best practices and improve team’s performance know-how with a free, open-source monitoring tool.

Once you’re seeing metrics with per-second granularity, familiarize yourself with Netdata’s documentation and guides to explore more opportunities to explore, troubleshoot, and resolve even the most complex of full-stack issues.

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Self-Hosting

Monitoring vs Observability: Understanding the Differences

This blog is contributed to Developer Nation by Netdata

As systems increasingly shift towards distributed architectures to deliver application services, the roles of monitoring and observability have never been more crucial. Monitoring delivers the situational awareness you need to detect issues, while observability goes a step further, offering the analytical depth to understand the root cause of those issues.

Understanding the nuanced differences between monitoring and observability is crucial for anyone responsible for system health and performance. In dissecting these methodologies, we’ll explore their unique strengths, dive into practical applications, and illuminate how to strategically employ each to enhance operational outcomes.

To set the stage, consider a real-world scenario that many of us have encountered: It’s 3 a.m., and you get an alert that a critical service is down. Traditional monitoring tools may tell you what’s wrong, but they won’t necessarily tell you why it’s happening leaving that part up to you. With observability, the tool enables you to explore your system’s internal state and uncover the root cause in a faster and easier manner.

The Conceptual Framework

Monitoring has its roots in the early days of computing, dating back to mainframes and the first networked systems. The primary objective was straightforward: keep the system up and running. Threshold-based alerts and basic metrics like CPU usage, memory consumption, and disk I/O were the mainstay. These metrics provided a snapshot but often lacked the context needed for debugging complex issues.

Observability, on the other hand, is a relatively new paradigm, inspired by control theory and complex systems theory. It came to prominence with the rise of microservices, container orchestration, and cloud-native technologies. Unlike monitoring, which focuses on known problems, observability is designed to help you understand unknown issues. The concept gained traction as systems became too complex to understand merely through predefined metrics or logs.

Monitoring: The Watchtower

Monitoring is about gathering data to answer known questions. These questions usually take the form of metrics, alerts, and logs configured ahead of time. In essence, monitoring systems act as a watchtower, constantly scanning for pre-defined conditions and alerting you when something goes awry. The approach is inherently reactive; you set up alerts based on what you think will go wrong and wait.

For instance, you might set an alert for when CPU usage exceeds 90% for a prolonged period. While this gives you valuable information, it doesn’t offer insights into why this event is occurring. Was there a sudden spike in user traffic, or is there an inefficient code loop causing the CPU to max out?

Observability: The Explorer

Observability is a more dynamic concept, focusing on the ability to ask arbitrary questions about your system, especially questions you didn’t know you needed to ask. Think of observability as an explorer equipped with a map, compass, and tools that allow you to discover and navigate unknown territories of your system. With observability, you can dig deeper into high-cardinality data, enabling you to explore the “why” behind the issues.

For example, you may notice that latency has increased for a particular service. Observability tools will allow you to drill down into granular data, like traces or event logs, to identify the root cause, whether it be an inefficient database query, network issues, or something else entirely.

Key Differences between Monitoring & Observability

Data

Monitoring and observability rely heavily on these three fundamental data types: metrics, logs and traces. However the approach taken in collecting, examining and utilizing this data can differ significantly.

Both monitoring and observability rely on data, but the kinds of data they use and how they use it can differ substantially.

Metrics in Monitoring vs Observability

Metrics serve as the backbone of both monitoring and observability, providing numerical data that is collected over time. However, the granularity, flexibility, and usage of these metrics differ substantially between the two paradigms.

Monitoring: Predefined and Aggregate Metrics

In a monitoring setup, metrics are often predefined and tend to be aggregate values, such as averages or sums calculated over a specific time window. These metrics are designed to trigger alerts based on known thresholds. For example, you might track the average CPU usage over a five-minute window and set an alert if it exceeds 90%. While this approach is effective for catching known issues, it lacks the context needed to understand why a problem is occurring.

Observability: High-Fidelity, High-Granularity and Context-Rich Metrics

Observability platforms go beyond merely collecting metrics; they focus on high-granularity, real-time metrics that can be dissected and queried in various ways. Here, you’re not limited to predefined aggregate values. You can explore metrics like request latency at the 99th percentile over a one-second interval or look at the distribution of database query times for a particular set of conditions. This depth allows for a more nuanced understanding of system behavior, enabling you to pinpoint issues down to their root cause.

A critical aspect that is often overlooked is the need for real-time, high-fidelity metrics, which are metrics sampled at very high frequencies, often per second. In a system where millions of transactions are happening every minute, a five-minute average could hide critical spikes that may indicate system failure or degradation. Observability platforms are generally better suited to provide this level of granularity than traditional monitoring tools.

Logs: Event-Driven in Monitoring vs Queryable in Observability

Logs provide a detailed account of events and are fundamental to both monitoring and observability. However, the treatment differs.

Monitoring: Event-Driven Logs

In monitoring systems, logs are often used for event-driven alerting. For instance, a log entry indicating an elevated permissions login action might trigger an alert for potential security concerns. These logs are essential but are typically consulted only when an issue has already been flagged by the monitoring system.

Observability: Queryable Logs

In observability platforms, logs are not just passive records; they are queryable data points that can be integrated with metrics and traces for a fuller picture of system behavior. You can dynamically query logs to investigate anomalies in real-time, correlating them with other high-cardinality data to understand the ‘why’ behind an issue.

Proactive vs Reactive

The second key difference lies in how these approaches are generally used to interact with the system.

Monitoring: Set Alerts and React

Monitoring is generally reactive. You set up alerts for known issues, and when those alerts go off, you react. It’s like having a fire alarm; it will notify you when there’s a fire, but it won’t tell you how the fire started, or how to prevent it in the future.

Observability: Continuous Exploration

Observability, by contrast, is more proactive. With an observability platform, you’re not just waiting for things to break. You’re continually exploring your data to understand how your system behaves under different conditions. This allows for more preventive measures and enables engineers to understand the system’s behavior deeply.

Opinionated Dashboards and Charts

Navigating the sprawling landscape of system data can be a daunting task, particularly as systems scale and evolve. Both monitoring and observability tools offer dashboards and charts as a solution to this challenge, but the philosophy and functionality behind them can differ significantly.

Monitoring: Pre-Built and Prescriptive Dashboards

In the realm of monitoring, dashboards are often pre-built and prescriptive, designed to highlight key performance indicators (KPIs) and metrics that are generally considered important for the majority of use-cases. For instance, a pre-configured dashboard for a database might focus on query performance, CPU usage, and memory consumption. These dashboards serve as a quick way to gauge the health of specific components within your system.

  • Quick Setup: Pre-built dashboards require little to no configuration, making them quick to deploy.
  • Best Practices: These dashboards are often designed based on industry best practices, providing a tried-and-true set of metrics that most organizations should monitor.
  • Lack of Flexibility: Pre-built dashboards are not always tailored to your specific needs and might lack the ability to perform ad-hoc queries or deep dives.
  • Surface-Level Insights: While useful for a quick status check, these dashboards may not provide the contextual data needed to understand the root cause of an issue.

Observability: Customizable and Exploratory Dashboards

Contrastingly, observability platforms often allow for much greater customization and flexibility in dashboard creation. You can build your own dashboards that focus on the metrics most relevant to your specific application or business needs. Moreover, you can create ad-hoc queries to explore your data in real-time.

  • Deep Insights: Custom dashboards allow you to drill down into high-cardinality data, providing nuanced insights that can lead to effective problem-solving.
  • Contextual Understanding: Because you can tailor your dashboard to include a wide range of metrics, logs, and traces, you get a more contextual view of system behavior.
  • Complexity: The flexibility comes at the cost of complexity. Building custom dashboards often requires a deep understanding of the data model and query language of the observability platform.
  • Time-Consuming: Crafting a dashboard that provides valuable insights can be a time-consuming process, especially if you’re starting from scratch.

Netdata aims to deliver the best of both worlds by giving you out-of-the-box opinionatedpowerfulflexiblecustomizable dashboards for every single metric.

Real-World Applications: Monitoring vs Observability

Understanding the key differences between monitoring and observability is pivotal, but these concepts are best illustrated through real-world use cases. Below, we delve into some sample scenarios where each approach excels, offering insights into their practical applications.

Network Performance

Monitoring tools are incredibly effective for tracking network performance metrics like latency, packet loss, and throughput. These metrics are often predefined, allowing system administrators to quickly identify issues affecting network reliability. For example, if a VPN connection experiences high packet loss, monitoring tools can trigger an alert, prompting immediate action.

Debugging Microservices

In a microservices architecture, services are loosely coupled but have to work in harmony. When latency spikes in one service, it can be a herculean task to pinpoint the issue. This is where observability shines. By leveraging high-cardinality data and dynamic queries, engineers can dissect interactions between services at a granular level, identifying bottlenecks or failures that are not immediately obvious.

Case Study: Transitioning from Monitoring to Observability

Consider a real-world example of a SaaS company that initially relied solely on monitoring tools. As their application grew in complexity and customer base, they started noticing unexplained latency issues affecting their API. Traditional monitoring tools could indicate that latency had increased but couldn’t offer insights into why it was happening.

The company then transitioned to an observability platform, enabling them to drill down into granular metrics and traces. They discovered that the latency was tied to a specific database query that only became problematic under certain conditions. Using observability, they could identify the issue, fix the inefficient query, and substantially improve their API response times. This transition not only solved their immediate problem but equipped them with the tools to proactively identify and address issues in the future.

Synergy and Evolution: The Future of Monitoring and Observability

The choice between monitoring and observability isn’t binary; often, they can complement each other. Monitoring provides the guardrails that keep your system running smoothly, while observability gives you the tools to understand your system deeply, especially as it grows in complexity.

As we continue to push the boundaries of what’s possible in software development and system architecture, both monitoring and observability paradigms are evolving to meet new challenges and leverage emerging technologies. The sheer volume of data generated by modern systems is often too vast for humans to analyze in real-time. AI and machine learning algorithms can sift through this sea of information to detect anomalies and even predict issues before they occur. For example, machine learning models can be trained to recognize the signs of an impending system failure, such as subtle but unusual patterns in request latency or CPU utilization, allowing for preemptive action.

Monitoring and observability serve distinct but complementary roles in the management of modern software systems. Monitoring provides a reactive approach to known issues, offering immediate alerts for predefined conditions. It excels in areas like network performance and infrastructure health, acting as a first line of defense against system failures. Observability, on the other hand, allows for a more proactive and exploratory interaction with your system. It shines in complex, dynamic environments, enabling teams to understand the ‘why’ behind system behavior, particularly in microservices architectures and real-world debugging scenarios.

Netdata: Real-Time Metrics Meet Deep Insights

Netdata offers capabilities that span both monitoring and observability. It delivers real-time, per-second metrics, making it a powerful resource for those in need of high-fidelity data. Netdata provides out-of-the-box dashboards for every single metric as well as the capability to build custom dashboards, bridging the gap between static monitoring views and the dynamic, exploratory nature of observability. Whether you’re looking to simply keep an eye on key performance indicators or need to dig deep into system behavior, Netdata offers a balanced, versatile solution.

Check out Netdata’s public demo space or sign up today for free, if you haven’t already.

Happy Troubleshooting!

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Community

CloudOps vs DevOps: A Comparison

Two methods are becoming quite popular as modern businesses use digital operations to support their growth and agility: CloudOps and DevOps. According to IDC’s most recent estimates, the market for intelligent CloudOps software might grow from $15.3 billion in 2022 to $31.4 billion in 2026 globally.  

Similarly, the worldwide DevOps market is rising steadily at a compound annual growth rate (CAGR) of 19.7% throughout the forecast period. By 2028, it would have increased from an anticipated $10.4 billion in 2023 to $25.5 billion. These figures indicate that these two models are becoming popular among organizations.

Businesses need both DevOps and CloudOps to increase the agility of their software development and IT operations. Through cloud resource optimization, or clouds, scalability and cost savings are increased. 

On the other hand, DevOps promotes teamwork, automation, increased software dependability, and enhanced customer experiences.  

Even if these models are similar, knowing how they differ is necessary to select the best strategy for your company. This blog post will compare and contrast CloudOps with DevOps, highlighting their benefits and drawbacks.

What is CloudOps?

CloudOps, which stands for Cloud Operations, accelerates business processes by applying IT operations and DevOps concepts to a cloud-based architecture. The core of cloud operations is continuous operations. 

Optimizing workloads and the delivery of IT services in the public cloud is the primary objective here. Asset management and capacity planning are formed to adjust capacity as needed without additional hardware or storage purchases.

Benefits of CloudOps

Scalability: Without the need for extra hardware for storage, Cloud Operations assists in managing the capacity. Asset management and resource allocation are carried out effectively in cloud operations.

Automation: It offers automation across several SDLC phases, such as doing quality assurance and producing reports. It leads to uninterrupted application utilization and a quicker time to market.

Accessibility: Cloud Operations enables anybody, on any platform, to effortlessly administer, keep an eye on, and run servers from any location in the world.

Continuous Operation: The software is automatically updated, which assists in offering customers continuous operation and services, i.e., the cloud’s operations are constantly accessible.

Seamless Integration: Applications that share shared services can coexist in the cloud without requiring connectivity.

Limitation of CloudOps

Cost Overruns: If your cloud budget is idle or underutilized, you face the risk of going overboard. 35% of the cloud budget gets lost due to idle resources, wasted space, and inefficiencies.

Security Issues: Although cloud services safeguard underlying systems, they are nonetheless susceptible to attack and compromise. Therefore, appropriate security setups ought to be taken care of.

Absence of Governance: Cloud services might be executed rapidly and smoothly, but governance has grown difficult. Increased security risks, lack of management, and compliance might result from rapid implementation.

Skill Gap: One of the main obstacles is a need for more experience with cloud platforms.

What is DevOps?

CloudOps vs DevOps

The acronym DevOps, which stands for “Development and Operations,” refers to a group of methodologies that emphasize teamwork while expediting corporate procedures. 

It is essential to shorten the time needed to roll out updates and high-quality software. The primary goal of DevOps implementation is to assist businesses in enhancing their company procedures, instruments, and productivity to enhance employee satisfaction and consistently provide value for clients.

Benefits of DevOps

Pace: DevOps ensures that you move at the necessary pace to fulfill consumer requests, innovate more quickly, respond to changes in the market, and improve your efficiency in achieving business goals.

Security: The DevOps methodology aids in achieving security by using integrated and automated security testing technologies.

Reliability: DevOps techniques such as continuous integration and delivery (CI/CD) guarantee that the quality of the application can be preserved, and the infrastructure and application updates may happen quickly. It guarantees end users the best possible experience as well.

Faster speed to market: Increasing the frequency of releases and providing continuous delivery will help you improve your product more quickly and gain a competitive edge.

Enhanced Cooperation: The teams work closely together, assign tasks to one another, and integrate their workflows thanks to the DevOps methodology. 

Limitation of DevOps

Increased Risks: According to its high automation requirements, DevOps can cause several problems if not set up correctly. When these problems arise, DevOps may also make it challenging to identify their origin.

Integration Challenges: When implementing DevOps, a large organization with complex systems may find it challenging to accomplish the high levels of integration required between the IT Operations and IT Development teams. It could be challenging to adopt, but DevOps may also necessitate a significant culture shift for some firms.

Complexity: DevOps implementations may result in a complex production environment that is difficult to diagnose and manage. Businesses may also be compelled to spend more money on hardware and software, which would raise costs and confuse matters.

Comparison between DevOps and CloudOps methodologies

It is necessary to compare CloudOps with DevOps because they are two different but related approaches that are vital to contemporary software development and IT operations.  

Comprehending the differences between them in terms of duties, tools, technology, scope, and other elements can help organizations choose the most appropriate operational model. Among the main distinctions between the two are the following:

1. Range

Cloud environments are the primary domain in which CloudOps operates. It involves managing data storage, provisioning, monitoring, and optimizing cloud resources, addressing security and compliance issues unique to the cloud.

The software product development lifecycle, in contrast, is covered by DevOps, encompassing planning, coding, testing, deployment, and continuing operations in addition to monitoring, obtaining feedback, and incremental improvements.

2. Effective resource administration

Efficient management of cloud resources is the responsibility of CloudOps teams. They manage resource scaling to satisfy application demands, keep an eye on performance, and guarantee data security.

Teams in DevOps collaborate on tasks across the whole software development and operations lifecycle. Together, they automate procedures, guarantee the quality of the code, and uphold pipelines for continuous integration and delivery.

3. Instruments and technological advancements

For resource management, CloudOps uses technologies and tools that are specialized to cloud service providers. AWS CloudFormation, Azure Resource Manager, and Google Cloud Deployment Manager are a few examples.

Ansible, GitLab CI/CD, Jenkins, and other automation and integration tools are used by DevOps for deployment automation, testing, and configuration management.

4. Duration

Continuous monitoring and optimization of cloud resources are essential components of CloudOps, a constant process that adjusts to evolving business requirements over time.

To respond quickly to customer input and changes in the market, DevOps frequently uses shorter development cycles along with frequent releases and upgrades.

5.  Cultural change

It takes a culture shift toward cloud-centric thinking to adopt CloudOps. Prioritizing cloud-native processes and solutions is necessary for teams to run scalable and adaptable operations.

DevOps promotes a culture change in which development and operations teams work together, share responsibilities, and prioritize ongoing learning and development.

6. Cost-effectiveness

Setting up and maintaining cloud infrastructure can come with higher upfront expenditures, especially for companies that have large-scale cloud deployments.

DevOps usually has cheaper upfront costs because it places a strong emphasis on automation, which maximizes resource utilization and minimizes the need for significant infrastructure investments.

7. Information Exchange

Data sharing may be restricted in CloudOps environments because of security and privacy issues, particularly when handling sensitive data.

Better communication and information sharing are enabled by DevOps, which encourages a more adaptable and cooperative approach to data exchange between development and operations teams.

Future Trends

It is anticipated to see a growing confluence between DevOps and CloudOps in the future. As new trends like AIOps, GitOps, and NoOps gain traction and the emphasis on cloud-native development, microservices architectures, and containerization technologies intensifies, both models are probably going to change at the same time.

The emergence of hybrid and multi-cloud methods will probably make managing cloud operations much more challenging. 

For example, companies with large workloads that are cloud-native could find it advantageous to implement CloudOps. DevOps services may be more appropriate for those who want to improve internal collaboration and accelerate product delivery.

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Community Tips

Mastering DevOps in Software Engineering: A Step-by-Step Guide

Are you having trouble matching your software development methods with today’s fast-paced changes? The evolution of software development has made embracing DevOps practices not just a trend but a strategic necessity.

DevOps, derived from development and operations, signifies a transformative shift in the entire process of creating, testing, and deploying software.

Embarking on the journey of integrating DevOps into your software engineering workflows requires thoughtful consideration. For a seamless transition into this transformative process, seek personalized guidance tailored to your specific needs.

Let’s dive into the essential considerations that will pave the way for a seamless and successful implementation.

1. Understanding the DevOps Culture

The cultural transformation integral to DevOps is much more than just teamwork; it’s about fostering a sense of shared responsibility and ownership among the development and operations teams. This approach breaks down traditional silos and encourages open communication, creating an environment where everyone works towards common objectives, thus enhancing overall efficiency and productivity.

This image from Space-O Technologies shows the difference between DevOps vs Agile development methodologies. 

DevOps in Software Engineering
Source:  spaceo.ca

In this ever-evolving landscape, the insights from experienced professionals are crucial to ensure that your approach is well-aligned with modern requirements. Therefore, as you take your first step towards optimizing your software practices, it’s beneficial to seek expert guidance.

2. Choosing the Right DevOps Tools

Selecting the appropriate tools is the backbone of any successful DevOps initiative. The technology stack you choose should align with your organization’s specific needs and existing infrastructure. Here’s a closer look at some key DevOps tools:

• Jenkins

Beyond being an automation server, Jenkins serves as the heartbeat of continuous integration and continuous deployment (CI/CD) pipelines. Its versatility makes it a go-to choice for automating various stages of the development process.

• Git

Git, a distributed version control system, ensures effective source code management. Its ability to handle collaborative development seamlessly and facilitate branching and merging makes it a fundamental tool in DevOps workflows.

• Docker

As a containerization platform, Docker enables the packaging and distribution of applications along with their dependencies. This promotes consistency across different environments and streamlines the deployment process.

• Kubernetes

Kubernetes stands out for container orchestration. It automates the deployment, scaling, and management of containerized applications. This provides a strong solution for container orchestration in complex environments.

3. Establishing Continuous Integration and Continuous Deployment (CI/CD) Pipelines

Implementing CI/CD pipelines is not only a technical choice but also a strategic move toward achieving faster, more reliable software delivery. Let’s explore the benefits in more detail:

Benefits of CI/CD Pipelines

  • Faster Time-to-Market: CI/CD pipelines accelerate the development cycle, ensuring that new features and bug fixes reach users swiftly.
  • Reduced Manual Errors: Automation in testing and deployment reduces the likelihood of human errors, contributing to a more reliable release process.
  • Enhanced Collaboration: CI/CD pipelines create continuous feedback loops, fostering collaboration between development, operations, and other stakeholders.

4. Security as Code: Integrating DevSecOps

With cybersecurity threats on the rise, integrating security practices into your DevOps pipeline is non-negotiable. DevSecOps is a methodology that emphasizes incorporating security measures right from the start. Here’s a closer look at key security considerations:

Key Security Considerations

  • Automated Security Scans: Regular automated scans of code and dependencies help identify and remediate vulnerabilities proactively.
  • Access Control: Implementing robust access controls ensures that only authorized personnel have access to sensitive data and critical systems.
  • Security Training: Continuous training for development and operations teams on security best practices is essential to build a security-first mindset.

5. Monitoring and Logging for Continuous Improvement

DevOps is an iterative process, and continuous monitoring is essential for identifying areas of improvement. Robust monitoring and logging solutions offer insights into system performance, troubleshoot issues, and guide optimizations over time.

Monitoring Best Practices

  • Real-Time Monitoring: Identify and address issues as they arise, preventing potential disruptions to services.
  • Performance Metrics: Track key performance indicators (KPIs) to gain insights into application and infrastructure performance.
  • Log Analysis: Analyzing logs is crucial for troubleshooting issues, understanding system behavior, and identifying patterns that can inform future improvements.

6. Embracing Infrastructure as Code (IaC)

Infrastructure as Code (IaC) is a fundamental practice that involves managing and provisioning infrastructure through code and automation. The advantages of IaC extend beyond just efficient infrastructure management.

Advantages of IaC

  • Scalability: IaC allows for the effortless replication and scaling of infrastructure as needed, supporting the dynamic demands of modern applications.
  • Version Control: Tracking changes to infrastructure configurations using version control ensures transparency, accountability, and the ability to roll back changes if needed.
  • Consistency: IaC ensures consistency across different environments, reducing the chances of configuration drift and minimizing deployment-related issues.

7. Collaboration and Communication

Effective collaboration and communication are the bedrock of a successful DevOps culture. Creating an environment where development, operations, and other stakeholders communicate openly and collaborate seamlessly is essential for sustained success.

Collaboration Strategies

  • Cross-Functional Teams: The formation of cross-functional teams brings together individuals with diverse skills, fostering collaboration and shared responsibility.
  • Knowledge Sharing: Workshops, training sessions, and collaborative tools are instrumental in facilitating the exchange of knowledge and best practices among team members.
  • Collaborative Tools: Leveraging communication and collaboration tools, like Slack or Microsoft Teams, supports real-time communication and connect the team.

8. Scalability and Flexibility

In the dynamic landscape of software development, scalability and flexibility are paramount. Your DevOps practices should be designed to adapt to changes in technology, team structures, and business requirements.

Scalability Tips

  • Modular Architecture: Designing systems with a modular architecture facilitates easier scalability. Individual components can be scaled independently to meet varying demands.
  • Automation for Scale: Automation is a key enabler of scalability. Automate repetitive tasks to ensure efficiency and consistency as your infrastructure and application needs grow.
  • Continuous Evaluation: Regularly evaluating and adapting DevOps processes is essential for optimal performance. Continuous improvement should be ingrained in the culture.

As software engineering constantly evolves, it’s crucial to stay informed about current development trends in software engineering. Understanding these trends can guide your DevOps practices toward greater adaptability and innovation.

Conclusion

In conclusion, adopting DevOps in software engineering is a transformative journey that involves cultural shifts, strategic tool selection, and the establishment of efficient processes. By understanding the DevOps culture, choosing the right tools, establishing CI/CD pipelines, integrating security practices, monitoring for continuous improvement, embracing Infrastructure as Code, promoting collaboration, and ensuring scalability, you can lay the foundation for a successful DevOps implementation.

Remember, DevOps is not a one-time implementation but a continuous evolution. Stay committed to the principles, foster a culture of collaboration, and leverage the power of automation to propel your software engineering processes into the realm of efficiency, reliability, and innovation.

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Community Tips

Six DevOps Trends to Learn About to Stay Ahead in the New Year

DevOps methodology is an ever-evolving field that supports successful digital transformation. Advances in tech, industry trends, and greater demand to meet customer expectations have led to a growing need for this kind of solution. There’s thus been huge market growth over the last few years, and this trend is predicted to continue into 2024 and beyond.

In fact, a recent study predicted the DevOps market will grow to $51.18 billion dollars by 2030—that’s up from $7.01 billion in 2021.

While the DevOps market can be unpredictable and is ever-evolving, there are some trends you need to know about to stay ahead as we move into the new year. In this article, we’ll touch on automation and AI, serverless architecture, and the importance of diversity and inclusion. 

Keep reading to ensure you’re ahead of the DevOps game as we enter 2024.

1. Automation and AI

When it comes to trends and technological advances across industries, there’s one thing that can’t be denied – automation and AI tech are here to stay. As the DevOps market evolves, the two will continue to play a key role in helping teams run more efficiently and analyze data more effectively. 

For example, automation tools can assist DevOps teams with handling data and delta streams. What are delta streams, you ask? Essentially, these simplify the act of streaming data into a lakehouse. 

As well as automation tools, the effective use of AI can lead to better decision-making and increased performance. 

Let’s first look at automation in more detail, before exploring the use of AI in DevOps further.

Automation

There are many benefits to automation, including:

  • Increased efficiency. Automated AI tools can often complete tasks quicker and more effectively than humans. For DevOps teams, this means increased efficiency and meeting goals and targets faster.
  • A reduction in man-made errors. Automation tools don’t tire in the same way employees do, and they aren’t affected by personal problems, lack of sleep, or the common cold. Automation reduces the risk of man-made errors by removing the human element of repetitive or monotonous tasks. 
  • Programming repetitive tasks. Automated tools can help DevOps teams program repetitive activities and therefore achieve their objectives faster. Doing so means staff can focus their energy on those tasks that aren’t yet able to be completed by digital technologies. 
brain tech

Artificial intelligence

Artificial intelligence can also be used in DevOps in a multitude of ways. For a start, predictive analytics can forecast future outcomes. By analyzing past deployments and performance metrics, AI tools can help teams improve their output.

Another trend in DevOps is the use of AI for operations and incident management. Using this effectively, teams can analyze data to detect and remediate issues faster. This can help predict problems before they occur and can be particularly useful for teams working on game development pipelines, for example. 

Ultimately, automation and AI in DevOps is a trend you need to stay ahead of. Delivering improved performance, increased efficiency, and the ability to predict and prevent problems ahead of time, neither one is going anywhere fast. 

2. Cloud-native technologies and serverless architecture

Cloud-native technologies allow organizations to run their operations efficiently by enabling them to build and utilize applications more effectively. For this reason, cloud-based technologies will continue to be widely adopted in DevOps as we head into 2024.

There are many ways in which DevOps teams can use these, including cloud data management and migration. The benefits of cloud-native technologies, such as microservices and serverless architecture, are vast and include:

  • Faster deployment. DevOps teams can move quicker with cloud-based technologies. They can deploy and iterate on applications more rapidly, which is highly desirable in fast-paced organizations and industries. 
  • Improved scalability. Often, cloud-native technologies are easier for DevOps teams to scale and this therefore makes them highly advantageous.
  • More flexibility. Cloud-native technologies offer DevOps teams more flexibility, allowing them to create and deploy applications using a wide range of tools.  
  • Cost-effective. The reduced need for physical infrastructure is often more cost-effective, enabling DevOps teams to save money and focus on other priorities. 

As organizations seek to streamline DevOps operations, improve efficiency, and undergo digital transformation, cloud-native technologies and serverless architecture will thus continue to lead the way.

cloud computing

3. Infrastructure as code

Infrastructure as code (IaC) is another trend in DevOps that’s here to stay. It involves managing infrastructure using the same tools that are used for managing code. This means it’s easier for teams to automate the former and maintain consistency in their infrastructure configurations. 
When combined with a multi-cloud approach, the result is standardization across multiple resources or applications, streamlined infrastructure, and greater consistency across platforms, which in turn enhances the user experience.

4. Low code/no code applications

Low code/no code (LCNC) applications use minimal coding and allow developers to create and manage apps quickly and easily. LCNC solutions continue to change the DevOps landscape because they:

  • Enable developers to quickly build applications.
  • Streamline DevOps by including monitoring and resource management tools.
  • Speed up innovation.
  • Reduce the workload for professional developers. 
  • Enable developers to act quickly on customer feedback.

With all these benefits, it’s no wonder that LCNC is a DevOps trend you need to know about to stay ahead in the new year.

5. The use of data analytics

Another key trend that’s only getting bigger in 2024 is the use of data analytics. Using effective analytics tools can continually improve performance and help give stakeholders a better understanding of their investments. Not only that, but DevOps teams, investors, and stakeholders can use data-driven insights to make better strategic decisions. 

Better DevOps decisions lead to cost-effectiveness, better-quality applications, and increased uptake. For example, teams might use analytics to optimize software development processes by providing real-time data and feedback about these. 

Or perhaps performance analytics are required to identify and analyze issues, allowing DevOps teams to continually improve their output and, therefore, the user experience.

laptop metrics

There is an ongoing need for DevOps teams to understand and analyze the development and performance of their applications. As a first step, they may seek out data lake examples when considering their handling and analytics practices. The benefits of effective analytics are huge and, in today’s rapidly developing world of digital technologies, this need will only continue to grow.

6. An increased focus on security

With rapid advances in digital and cloud-native technologies, it’s no wonder that there continues to be an increased focus on security. As well as a need for enhanced data protection as we move into 2024 and beyond, DevOps teams need to consider:

  • Application security. Teams will see an increased need to build security processes into application development. As technologies advance, so do security risks. Implementing these practices as part of the development process will become commonplace. This is referred to as DevSecOps. 
  • Cloud security. As we discussed earlier, there’s currently a surge in cloud-native technologies and infrastructure. It goes without saying that DevOps teams will have an increased focus on cloud security as these technologies develop and become more widely used. This may include data encryption, app configuration, or access controls. 
  • Compliance. With a growing focus on security in DevOps comes a growing focus on compliance practices. An IP phone service, for example, will need to meet GDPR protocols. DevOps teams will find a continuing and growing need to ensure they’re compliant with ever-developing industry regulations and standards.

To enhance security and streamline compliance processes, consider using a tool that allows you to create electronic signature solutions for important documents.

As organizations seek to protect their applications, data, and systems against cyber security threats, the need for a greater focus on DevOps security and compliance will grow. This is likely to lead to an increased need for DevSecOps specialists.

Final thoughts

As we head into 2024, it’s essential to stay ahead of these six trends. Of course, with a rapidly evolving field such as DevOps, it is impossible to predict exactly how the landscape will develop. 

However, the trends outlined above certainly provide an insight into what the future of DevOps is likely to hold. As cloud-native and AI technology continues to evolve, so will it. The technological shifts mean that more organizations will embrace DevOps to meet their business needs and help them undergo a successful digital transformation. 

If there’s one thing that’s for sure, it’s that DevOps itself is going nowhere.

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Community Tips

How to Develop and Improve Collaboration in DevOps Teams

DevOps is becoming more and more popular in the world of business. By streamlining the development and IT management processes, DevOps reduces organizational silos and produces a better final product or service for the customer.

However, DevOps is fundamentally reliant on strong collaboration. Without honest, open, and easy communication and shared working practices across your organization, DevOps will just be a buzzword. 

If you want to introduce a true DevOps philosophy and culture to your organization, read on to learn how to develop and introduce collaboration in your DevOps teams.

What is DevOps?

DevOps refers to a set of practices and philosophies that aim to overhaul the culture of your organization – that means it’s quite difficult to get your head around what DevOps actually is.

It can be useful to start with an example. Let’s say, for instance, that you create a remote desktop software for iPad. Under a DevOps model, the people managing that software will be the same overall team that developed it. This means that any issues can be easily resolved as the management team will be true experts in the software.

DevOps is best thought of as an approach to software development and management that aims to overcome the gap between the planning and programming stage and the implementation and feedback stage. Rather than splitting the overall development process between a programming team and an IT team, DevOps creates one streamlined operation.

This can help you to draw on a wider range of expertise and skills, remove barriers to truly creative collaboration, and develop more effective operations.

In order for an organization to use a DevOps model, you must be prepared to break down the traditional divide between development and operations teams. This can take a range of different forms: you might choose to merge both operations together into one team or you might choose to integrate even more teams, such as those responsible for managing websites.

Why is collaboration so important in DevOps?

Why is collaboration so important in DevOps?

Because DevOps is all about getting previously separate teams to work together, it shouldn’t be a surprise that effective collaboration is what makes or breaks a DevOps model.

As automation – tools that make DevOps easier by automating processes previously divided between development and operations teams – is a key part of DevOps, some companies prioritize automation over collaboration. However, you have to remember that the tools are only as good as the people who use them.

Collaboration and communication is important from the very beginning of a transition to DevOps. That’s because people are naturally resistant to change – explaining why you’re overhauling existing organizational structures can create buy-in among employees. At the same time, you should show how collaboration can work in practice to produce better outcomes.

Without effective collaboration running through your DevOps team, you can probably assume that your processes will soon end up simply operating as before: divided between development and operations teams.

How to improve DevOps collaboration: a step-by-step guide

If you’re using a DevOps structure, therefore, it’s pretty clear that you need to always be developing and improving collaboration. Without this, you won’t be seeing any of the benefits that come with DevOps. So how can you improve DevOps collaboration in your organization?

1) Identify any clear collaboration problems

Before you start making any changes to your DevOps processes, you should take a step back and consider what is already working well and what can be improved. If there are any immediate issues, such as problems with your online telephone service that prevent engineers from working with each other, you should prioritize those.

You should also talk with employees from across the DevOps team. Their experiences will dictate what you need to focus on as you look to improve collaboration. You could also use business analytics tools to establish the effectiveness of collaboration in your organization.

2) Increase the visibility of everyone’s work

Increase the visibility of everyone’s work

If you want people to work collaboratively on a project, they need to actually be able to see the work that is being done. Improving visibility should be a key part of any DevOps model – engineers should be able to see what each other is working on and the levels of progress across the team so that they know who to offer help to.

For some developers, this can be a daunting step. After all, it’s easy to feel protective or embarrassed about work in progress. However, full visibility will let everyone learn from what others are doing.

Achieving full visibility in the technology sector can be difficult. Despite this, you can improve visibility by finding a workflow software that lets the entire team see test results, feedback, and ongoing development. By encouraging engineers to download remote desktop connection tools, your team will be able to have visibility of each other’s work from anywhere in the world.

3) Remove barriers to information

In the traditional model of using separate development and operations teams, engineers who produced a piece of software wouldn’t have had access to most of the information about how that software worked in practice. This had a detrimental effect on their future work, as they couldn’t learn from their earlier efforts.

That’s why an important principle that supports any DevOps culture is free access to information. This is obviously true for information such as testing results but should also apply to your overall culture and mindset: if you work in an office, keep your door open during meetings.

While you’ll have to be careful to consider privacy and security regulations, try to grant open access to your data for all DevOps engineers. By having the same information to draw on, your engineers will find collaboration much easier.

On top of this, consider communication tools like transcription software. These can remove barriers for the entire DevOps team by ensuring everyone has access to notes from meetings and can search for and edit past meeting notes in collaborative documents.

4) Celebrate bravery

Celebrate bravery

Collaboration can be an intimidating concept, especially if your developers are used to working in small siloed teams. That’s why creating a culture of collaboration is so important. One great way to do this is by publicly celebrating those engineers and developers who were brave enough to experiment with other engineers.

You should point out that collaboration is often a risk; developers will be worried about failing publicly. Celebrating the process of collaboration – even if the outcomes are failures – can be a really powerful way to develop a collaborative mindset among your DevOps team.

This culture of collaboration is also important when it comes to hiring; you shouldn’t just rely on technical screening. Instead, look for potential employees who are able and willing to collaborate effectively.

5) Mix up your teams

Many companies fail at DevOps by pursuing a DevOps model in name only – they don’t actually integrate the development and operations teams. Sometimes, building a successful DevOps team will require you to specifically diversify the subteams that deal with certain problems.

If you’re new to DevOps, you might want to buddy up developers with operations engineers. Forcing them together will encourage a collaborative practice to develop, while also speeding up the process of integration between the two teams. You should carefully consider the different skills of your employees and buddy up those with contrasting experiences and strengths.

It’s also important that you consider how to have a varied range of perspectives across your DevOps team. With remote working tools like RealVNC becoming more and more sophisticated, you can hire the perfect people for your team without having to worry about their location – this means that you can easily diversify your DevOps team as you grow.

6) Cultivate a DevOps mindset from the very top

Cultivate a DevOps mindset from the very top

Whether you’re a developer or engineer working in a DevOps team, or a member of your company’s management team, you have a responsibility to grow the DevOps mindset through your words, actions, and working processes.

This is especially important for leaders – they should model what good collaborative work looks like in practice by being open, accessible, and approachable. They should respect the insights of every team member and encourage them to put forward their views and opinions.

An important part of encouraging the DevOps mindset from the top of the organization is by providing opportunities to upskill your employees. This can let team members who originally worked solely as early-stage software developers build skills that are more applicable to the holistic and integrated environment of a DevOps workplace.

This will help to grow a collaborative DevOps mindset as employees will feel more confident and secure in their own skills, meaning that they’re more willing to risk failing publicly by working collaboratively.

Collaboration: the key to a successful DevOps mindset 

If you want DevOps to be more than just another buzzword in your organization, it’s vital that you find ways to develop and improve collaboration between your software developers and engineers.

Our guide to collaboration in DevOps will help you achieve this. By increasing visibility and removing barriers to information, some of the practical issues hindering collaboration will be overcome.

You can then start to focus on growing a collaborative mindset among your employees. Start celebrating collaborative work and model this from the top – soon, you’ll have a successful DevOps team working in harmony!