Tag: shift left

  • JFrog swampUP: Keynotes and What’s Next

    JFrog swampUP: Keynotes and What’s Next

    At the sold-out JFrog swampUP conference this morning, the event’s keynotes were headlined by JFrog CEO Shlomi Ben Haim and co-founder and CTO Yoav Landman. The theme was “next”—what’s next for DevOps and what’s next for developers.

    Of course, there are several answers, but cutting to the chase, it seems security is job one. Developers are squarely in the crosshairs of the bad guys, and protecting them and their code is top priority at JFrog. To do so requires shifting security even further left into the integrated development environment (IDE) itself. Landman demonstrated new functionality in the JFrog Xray scanning and remediation solution’s IDE and emphasized the difference between quality assurance and quality testing.

    CEO Ben Haim took a higher-level view, looking at the issues facing organizations as they seek to develop more, develop faster and do so more securely. He also reinforced the themes hit on by Landman. Overall, the message from both co-founders was that the amount of code being deployed continues to increase exponentially. The need to go faster while being more secure is greater than ever, and JFrog has adopted that as the company’s mission, Ben Haim and Landman said.

    Audience enthusiasm was high, and despite growing to almost 1,000 employees, many of whom have been on board for less than a year, the culture at JFrog remains a constant focus. Landman and Ben Haim reiterated that the company is committed to their customers and their community. 

    That community was well represented, with all three of the major cloud providers exhibiting in the expo area, as well as a good mix of other DevOps providers like CloudBees (whose own DevOps World Roadshow kicked off today). Additionally, some of the new channel partners, such as IT Methods, also exhibited.

    Beyond the keynote, other JFrog presenters in the morning keynote sessions included the leadership of the Artifactory team and senior leadership of the security team.

    JFrog leaders were not the only ones on the agenda at swampUP. A leading games company presented a demonstration of their use of JFrog for CI/CD pipelines. One of the big three cloud providers presented a session discussing whether AI will replace developers (spoiler alert: The answer is no). Additionally, frequent devopsy.kinsta.cloud contributors Tracy Ragan and John Willis also presented throughout the day. Our own Will Willis will be recapping some of those highlights.

    All in all, it was a return to normalcy for swampUP. This event felt much like previous swampUPs that occurred before  the COVID-19 pandemic began. The event was sold out with over 400 attendees, which tracks with what we’ve seen at other in-person events recently.

    JFrog has grown and matured but continues to emphasize what has made the company successful. We’re excited to see lots of new features for developers and DevOps practitioners to explore.

  • Using AI to Shift Production Wisdom Left

    Using AI to Shift Production Wisdom Left

    In my recent blog, Revolutionizing the Nine Pillars of SRE with AI-Engineered Tools, I indicated that AI could assist in shifting the wisdom of production to the left. In this blog, I’ll explain in more detail how AI-engineered tools can be used to improve the pillar that I call SRE culture.

    AI Use Cases for Shifting SRE Culture Left

    Shifting the “wisdom of production” to the left is all about bringing production considerations into the development process as early as possible. Here are some use cases where AI can help facilitate this shift, along with specific challenges and AI tools that can assist.

    Predicting System Behavior: Predicting system behavior under various conditions can be difficult, especially as systems grow more complex. AI can help by analyzing historical data and predicting system behavior. Tools like Splunk can use machine learning to provide these predictions and facilitate earlier decision-making.

    Automated Code Reviews: Manually reviewing code for potential production issues can be time-consuming and error-prone. AI can automate this process, identifying potential issues more quickly and accurately. Tools like DeepCode or Codota use AI to analyze code and identify potential issues.

    Security Vulnerability Detection: Identifying security vulnerabilities early in the development process can prevent costly and damaging breaches in production. AI can analyze code to identify potential vulnerabilities that might be missed by human reviewers. Tools like Snyk or WhiteSource can help with this.

    Performance Optimization: Predicting how code changes will impact performance can be challenging. AI can analyze changes and predict their impact on system performance. Tools like Akamas leverage AI to automate the performance optimization process.

    Dependency Analysis: Identifying how changes in one part of a system will impact other parts can be difficult. AI can analyze system dependencies and predict the impact of changes. Tools like FOSSA can help in automating dependency analysis and identifying potential issues.

    Resource Allocation: Predicting resource needs for new features or changes can help prevent resource shortages in production. AI can analyze resource usage patterns and predict future needs. Tools like Turbonomic or Densify use AI to optimize resource allocation.

    User Experience Optimization: Predicting how changes will impact the user experience can help prevent negative impacts in production. AI can analyze user behavior and predict the impact of changes on user experience. Tools like FullStory or Crazy Egg can provide AI-driven insights into user behavior.

    RoadMap to SRE Wisdom

    A practical implementation roadmap for introducing AI tools to help shift wisdom to the left may include the following steps.

    Identify Needs and Goals: Start by identifying the areas where shifting wisdom to the left could have the most impact. This might include areas where issues are frequently discovered late in the development process or where manual processes are time-consuming or error-prone. Define clear goals for what you hope to achieve by introducing AI in these areas.

    Research Tools: Once you’ve identified your needs and goals, research the AI tools available that could help meet those needs. Consider factors like the tool’s capabilities, integration with your existing systems, cost and support options.

    Evaluate Tools: Based on your research, select a few tools to evaluate more thoroughly. This could involve setting up trials or demos, speaking with the tool’s developers or other users and assessing how well the tool meets your needs.

    Pilot Implementation: Once you’ve selected a tool, start with a pilot implementation on a small scale. This will allow you to learn how to use the tool, identify any potential issues or obstacles and understand the tool’s impact before rolling it out more broadly.

    Training: Provide training for your team on the new tool. This could include formal training sessions as well as ongoing support as they start using the tool.

    Monitor and Adjust: After the tool has been implemented, monitor its use and impact. This could involve tracking metrics related to your initial goals, as well as soliciting feedback from your team. Use this information to make any necessary adjustments to your use of the tool.

    Expand Use: Once you’re satisfied with the results of your pilot implementation, expand the use of the tool to other areas of your organization. Continue to monitor its use and impact and make any necessary adjustments.

    Repeat: Technology is constantly evolving, and there may be new tools or features that could further improve your ability to shift wisdom to the left. Periodically revisit your needs and goals, and repeat this process to continuously improve your processes.

    Summary

    Shifting the wisdom of production to the left is an essential strategy for modern IT organizations, but it’s a journey that requires thoughtful planning, the right tools, and a commitment to continuous learning and improvement. As we’ve explored, there are several compelling use cases for leveraging AI in this transformative process. Whether it’s predicting system behavior, automating code reviews, detecting security vulnerabilities, optimizing performance, analyzing dependencies, managing resources or enhancing the user experience, AI tools are helping organizations tackle these challenges more efficiently and effectively.

    While embarking on this journey may seem daunting, a well-crafted implementation roadmap can help make the process manageable and rewarding. By identifying specific needs and goals, researching and evaluating the right tools, piloting their implementation, providing comprehensive training and consistently monitoring and adjusting their usage, organizations can successfully adopt AI tools to shift the wisdom of production to the left. With continued effort and commitment, this transformation can lead to more informed decision-making, more efficient processes and, ultimately, better outcomes in production.

  • Communicating Common Web App Security Threats to Developers

    Communicating Common Web App Security Threats to Developers

    Automated security testing tools enable us to identify web application vulnerabilities early and often, but what happens after a vulnerability has been identified? Does your security team have the coding skills to mitigate it themselves, or are your developers suddenly security experts once a vulnerability is discovered? Most likely not. So, how do we go from finding vulnerabilities to fixing them? Enter a key component of shifting left: Collaboration between security and developer teams. And a portion of that involves providing developers with the context they need to prioritize and remediate threats appropriately.

    Useful context includes (but is not limited to):
    – The vulnerability type
    – How it works
    – What malicious actors can accomplish by exploiting the vulnerability
    – Ways to mitigate

    The list below provides context around five common web application security threats to help you collaborate on resolutions with your developers. A shared understanding of these threats and how to mitigate them early in the development life cycle will significantly improve overall security posture without impacting software delivery.

    SQL Injection

    A SQL injection attack is executed when an attacker injects malicious code into an application’s database through user-controlled data. While these types of attacks can accomplish many different things, there are several common outcomes. SQL injection attacks can enable attackers to gain unauthorized access to sensitive data stored in the database, and largely depending on what data is stored in a particular database, can result in access to authentication information, financial information and personal data. The second key outcome is the manipulation or removal of data. Malicious actors can then leverage this outcome to access the larger infrastructure and find even more sensitive information.

    To help protect against SQL injection attacks, organizations should never implicitly trust and always validate user input and utilize input encoding, prepared statements, parameterized queries or stored procedures instead of dynamic SQL statements whenever possible. By combining frontend and backend standards to prevent SQL injection from happening, your application can increase its security against this type of threat.

    Cross-Site Scripting (XSS)

    Another common web application attack is cross-site scripting (XSS) which involves inserting malicious code or script into a website. The website will then execute on the given script, enabling attackers to steal sensitive user data, such as session tokens and cookies.

    There are three main types of XSS attacks we regularly encounter: Reflective, stored and DOM. Reflective XSS attacks insert malicious code into a website that is immediately executed, whereas a stored XSS attack involves injecting malicious code into a website that is stored and executed later. DOM XSS is an attack pattern that is used more in single-page applications but acts similarly to reflective XSS. If successful, a cross-site scripting attack can lead to the theft of user session IDs and/or website defacement and lead to redirection to malicious sites, thus enabling phishing attacks.

    Similar to SQL injection attacks, to protect against cross-site scripting, organizations must never implicitly trust and always validate user input and use output encoding techniques while also using auto-sanitization libraries such as OWASP AntiSamy and implementing a content security policy.

    Cross-Site Request Forgery (CSRF)

    Cross-site request forgery (CSRF|XSRF) attacks trick users into performing an action on a website without their knowledge or consent. This is often achieved by inserting a malicious link or form into a website where a user is already authenticated. When the user clicks the link or submits the form, the action is performed on their behalf, leading to potential data loss or unauthorized access.

    Mitigating these types of attacks requires leveraging CSRF protections which are built into the framework you are using, if applicable. Using CSRF tokens, which are unique, randomized values associated with a user’s session and can verify the authenticity of a request will also help migrate an attack. In addition, SameSite cookie settings can help prevent attackers from being able to send requests on behalf of a victim.

    Insecure Direct Object References (IDOR)

    Insecure direct object references (IDOR) occur when an application exposes direct object references, like URLs or database keys, which allow attackers to gain access to restricted data by manipulating these references.

    Safeguarding against IDOR requires the implementation of proper access controls and session management, ensuring that only authorized users have access to certain resources or data. Also, avoid using predictable references and instead utilize globally unique identifiers (GUIDs) to prevent attackers from guessing the direct object references they need to access restricted data.

    It is important to remember that IDOR-based vulnerabilities don’t occur singularly and are coupled with other vulnerabilities to become an effective attack vector.

    Remote Code Execution (RCE)

    Remote code execution (RCE) gives an attacker the ability to execute arbitrary code on a server, which can lead to the compromise of entire systems and offer unauthorized access to highly sensitive data. RCE attacks can occur through an array of means, including exploiting vulnerabilities in code libraries or injecting malicious code through user input fields. As illustrated by the critical zero-day exploit discovered in the Java logging library Log4j in December 2021, RCE can be a determinantal vulnerability.

    A successful RCE attack can cause denial-of-service (DoS) attacks, expose sensitive data, lead to illicit cryptocurrency mining and the execution of malware. In more severe instances, a successful RCE attack can allow an attacker to gain full control over the compromised machine.

    The good news is organizations can implement the same tactics used for protection against SQL Injection and XSS—never implicitly trust user data and adhere to strong user input sanitization and validation.

    Understanding Common Threats

    Safeguarding applications and ensuring a sound security posture requires both security and developer teams to have a shared understanding of common threats and the associated risks.

    The details provided in these examples only scratch the surface in terms of useful context for developers. When you can pinpoint when a vulnerability was introduced, which repository branch and code commit it’s associated with and whether it is exploitable from the outside, you create a powerful feedback loop that accelerates fixes.

  • How TestOps Enhances DevOps and Software Development

    How TestOps Enhances DevOps and Software Development

    Businesses increasingly use DevOps and TestOps practices to develop and deliver high-quality software products. In this article, I will explore the concept of TestOps, its integration with DevOps and the benefits of implementing automated testing to enhance product quality, accelerate release cycles and increase the transparency of CI/CD processes.

    Why DevOps and TestOps Should be Integrated

    TestOps, a combination of testing and operations, is a software development methodology emphasizing the importance of integrating testing throughout the development life cycle. On the other hand, DevOps focuses on bridging the gap between development and operations to achieve faster delivery and higher-quality products.

    The key benefits of seamlessly integrating TestOps and DevOps include the following:

    • Enhanced product quality and accelerated release cycles
    • Increased transparency and efficiency in CI/CD processes
    • Faster bug detection (shifting left)
    • Improved user experience and reduced amount of bugs in the final product

    By properly setting up TestOps, companies can make their DevOps processes more efficient, transparent and bug-free. Well-integrated testing in the CI/CD process allows for faster bug detection, ultimately saving companies resources, money and time.

    Detailed Benefits of Integrating TestOps With DevOps

    Organizations can reap several benefits by seamlessly integrating testing into the deployment pipeline. In this section, I will outline the key goals of integrating TestOps with DevOps and how they contribute to the success of software development projects.

    Integration of DevOps and TestOps for Seamless Shift Left

    Integrating DevOps and TestOps aims to facilitate shift-left testing, enabling organizations to identify and address issues early in development. By incorporating testing from the outset, organizations can achieve the following goals:

    • Early bug detection and prevention through continuous testing: By conducting continuous testing throughout the development cycle, potential bugs and issues can be detected and addressed early on, reducing the likelihood of significant problems arising later.
    • Ensuring clean and efficient code deployment: Integration of TestOps with DevOps enables organizations to establish streamlined processes for code deployment, ensuring that the code is clean, efficient and free from defects, thereby improving the overall quality of the product. By such integration, tests will suit each phase in the deployment process, meaning that the only relevant parts will run when needed and take only required resources.

    Empowering Bug-Free Software Development With TestOps

    TestOps, when integrated with DevOps, empowers organizations to develop bug-free software and enhance product quality by offering distinct bug detection, cost savings and resource optimization advantages. The following benefits can be realized through this integration:

    • Rapid bug identification and resolution: TestOps practices enable organizations to quickly detect and address bugs during the testing phase, minimizing the impact on the development timeline and preventing defects from reaching the end user.
    • Significant cost savings and improved customer experience: Proactively identifying and resolving defects during the testing phase with TestOps reduces post-production defects, leading to cost savings associated with bug fixes and an enhanced overall customer experience.
    • Empowering testers and optimizing resource utilization: The integration of TestOps with DevOps ensures efficient testing activities and resource allocation, contributing to the delivery of higher-quality end products that meet or exceed customer expectations.

    How to Get Started With Test Automation

    While the process of integrating TestOps with DevOps can vary depending on the maturity of the company and the project, certain key steps can be taken to ensure success:

    1. Analyzing critical paths: Identify the essential processes and areas that require testing and prioritize them accordingly.
    2. Starting with small chunks: Begin by changing one area at a time and gradually expand the scope of your testing as you gain confidence in the process.
    3. Reviewing existing tests: Review logs and artifacts of existing tests to identify areas that require improvement or additional testing.
    4. Finding the right specialists: Ensure you have the right specialists on your team to help you with the integration process.

    Also, it is essential to consider the following factors when defining a test automation strategy:

    1. Release frequency and the requirement for diverse test types: Determine the frequency of releases and the types of tests required to ensure that your automated testing strategy is tailored to your needs.
    2. Availability and usability of tools: Choose testing tools that are reliable and easy to use and that can be integrated seamlessly with your existing DevOps tools.
    3. Product maturity: Decide whether to incorporate automated testing from the outset or during the transition to CI/CD, depending on the maturity of your product.
    4. CI/CD environments and testing data: Establish the necessary testing infrastructure and provisioning test environments early to ensure your automated testing process runs smoothly.
  • The Future of Continuous Testing in CI/CD

    The Future of Continuous Testing in CI/CD

    If you ever wonder why continuous testing is so important, think about the following: In the past, software testing was typically done after the code was written and sent to the QA department for independent testing. When bugs were discovered, the code was returned to the developers for correction. While this testing method worked, it was time-consuming. Nowadays, companies want to produce high-quality products quickly, so they need a faster and more efficient testing process. This is when continuous testing comes in.

    In this article, we will explore continuous testing from its current state and its future in CI/CD to the emerging technologies and trends that will shape its development. We will also cover the importance of continuous testing for businesses and some of its challenges.

    What is Continuous Testing?

    Continuous testing is a software testing approach in which tests are automated and run throughout the software development life cycle. It is a part of the continuous delivery (CD) process, in which software changes are delivered to customers continuously and iteratively.

    Continuous testing aims to identify defects and issues as early as possible, reducing the cost and time of fixing them later. Continuous testing provides immediate feedback to the development team, helping them to detect and address potential problems quickly and efficiently.

    According to the Reports and Data source survey, 21% of QA professionals have incorporated continuous testing, source code management and continuous integration into their DevOps process to speed up code release.

    Advantages of Continuous Testing

    Here are several advantages of implementing continuous testing as a part of the software development process:
    ● Continuous testing enables teams to identify bugs earlier in the software development process;
    ● Continuous testing provides immediate feedback to developers on the quality of their code, enabling them to address any issues immediately;
    ● You can minimize business risks by assessing and identifying potential issues before they become real problems;
    ● Automating your test cases can reduce the time spent on testing;
    ● Accelerating the process of software delivery to production helps release the product faster;
    ● You can run performance tests in similitude, which can increase the speed of test execution.

    Disadvantages of Continuous Testing

    While continuous testing has become an integral part of the software development process, it’s not without its challenges. As software development teams work to incorporate testing into their CI/CD pipelines, they may encounter obstacles that can hinder their progress.
    ● Continuous testing requires a different skillset than traditional testing, including expertise in DevOps, automation and CI/CD pipelines;
    ● Different tools and technologies are available for continuous testing, and choosing the right ones can be tough. Integrating these tools with other parts of the development process can also be challenging;
    ● To fully realize the benefits of continuous testing, you need to update your testing strategy by moving away from relying solely on traditional testing methods and adopting a well-defined approach to test data management;
    ● Failing to integrate code regularly can result in issues such as duplicated coding efforts and non-compatible code, leading to defects.

    Emerging Technologies in Continuous Testing

    With the increasing demand for faster and more reliable software releases, emerging technologies such as AI/ML, automation and DevOps appeared in continuous testing. These technologies help teams to automate and streamline their testing processes, identify defects more quickly and improve overall software quality. Let’s examine some of them:

    Artificial intelligence/machine learning (AI/ML). AI and ML refer to the field of computer science that deals with developing intelligent machines that can simulate human intelligence and learn from data.

    One of the main benefits of AI and ML in continuous testing is the ability to automate test case generation, which reduces the need for manual testing and frees up time for other tasks. This enables testers to test applications more comprehensively and frequently, ensuring defects or issues are identified and addressed quickly. AI and ML increase testing accuracy by identifying patterns and anomalies in the testing data.

    AI and ML techniques can efficiently and rapidly analyze extensive amounts of data, allowing them to recognize patterns and irregularities in testing data that human testers might overlook.

    Automation: Automation in continuous testing refers to using automated tools and processes to execute software tests repeatedly and consistently. It involves automating various stages of the software testing life cycle, such as test planning, test case design, test execution and test reporting.

    Automation can efficiently perform regression testing, ensuring that changes do not introduce new defects or issues in the software. Tests can be executed 24/7 without human intervention, reducing the time and cost required for testing.

    DevOps: DevOps in continuous testing is the application of DevOps principles to continuous testing, focusing on integrating testing into the software development life cycle and enabling faster and more reliable delivery of software.

    In the context of continuous testing, DevOps emphasizes testing integration into the development process, enabling developers to detect and fix defects early in the cycle. DevOps also promotes automation, collaboration and communication between development and operations teams, allowing faster and more efficient testing and deployment.

    Blockchain: Blockchain technology has been gaining increasing attention in the software development and testing industry due to its ability to provide secure and tamper-proof data storage.

    In continuous testing, blockchain stores testing results and data in a decentralized and transparent way, making it virtually impossible for anyone to modify or manipulate the data. This enhances the credibility of the testing process and outcomes and provides an added layer of security to ensure the integrity of the data.

    Blockchain technology enables efficient and seamless data sharing between stakeholders involved in the testing process, enabling faster and more accurate decision-making.

    Internet-of-Things (IoT): In continuous testing, IoT simulates many IoT devices and platforms, enabling testers to test their applications across multiple devices and platforms. This ensures that applications are compatible with various IoT devices and platforms and perform reliably and consistently in various environments.

    For instance, when creating an application that needs to run on multiple devices, it is possible to use an emulator to test the app on your laptop without setting up a development environment for each type of device.

    IoT-enabled continuous testing provides real-time feedback on the performance and functionality of applications, enabling organizations to identify and address issues quickly and effectively.

    Trends in Continuous Testing

    Continuous testing is rapidly evolving to meet the needs of modern software development practices, with new trends emerging to address the challenges development teams face. Three key trends currently gaining traction in continuous testing are cloud-based testing, shift-left testing and security testing. These trends are driven by the need to increase efficiency and speed in software development while ensuring the highest quality and security levels. Let’s take a closer look at these trends.

    Cloud-Based Testing: Continuous testing is deployed through cloud-based computing, which provides multiple benefits like ease of deployment, mobile accessibility and quick setup time. Businesses are now adopting cloud-based services due to their availability, flexibility and cost-effectiveness. Cloud-based testing doesn’t require coding skills or setup time, which makes it a popular choice for businesses.

    AI-Driven Testing: AI-driven continuous testing is often integrated into cloud-based testing platforms, providing end-to-end automation for web, mobile and API testing. AI and cloud-based testing allows for access to testing environments anywhere, anytime, and provides for regular automated testing using platforms like Selenium.

    Shift-Left Testing: Shift-left testing is software testing that involves testing earlier in the development cycle rather than waiting until later stages, such as system or acceptance testing. The goal of shift-left testing is to identify and address defects as early as possible.

    Delaying testing until the end of development often results in more complicated bug fixes since the software is already fully built. This can cause an increase in cost and time to market. Identifying and fixing bugs earlier in the software development life cycle is generally more cost-effective.

    As IBM’s Systems Sciences Institute claimed, repairing a bug discovered during implementation costs roughly six times more than one found during design. If a mistake is detected after product release, the cost of fixing it is four to five times greater than one found during design and up to 100 times greater than one found during the maintenance phase. This suggests that a bug’s cost increases exponentially as the software progresses through the SDLC.

    Low-Code/No-Code: Low- or no-code in continuous testing refers to using visual interfaces and pre-built elements or modules to create and execute automated tests instead of writing complex code. Low-code/no-code testing tools often provide drag-and-drop interfaces and pre-built components that can be combined to create tests, reducing the time and effort required to develop and maintain test scripts.

    This type of testing provides several advantages, such as allowing non-technical business experts to run testing, speeding up test production and execution and enhancing product quality by enabling more thorough and efficient testing.

    Generally, according to statistics, by 2025, around 70% of new business applications are predicted to use low-code or no-code technologies.

    Security Testing: Due to the rising incidence of cybersecurity threats and data breaches, security testing has become a crucial aspect of software quality assurance. In the year 2023, the tech world anticipates that there will be a stronger focus on security testing, with the emergence of more advanced tools and methodologies aimed at detecting and resolving security weaknesses in software applications.

  • The Time for Automated Testing is Now

    The Time for Automated Testing is Now

    Skilled software testers continue to be in high demand, and it appears that trend won’t change any time soon. The current labor shortage and a looming recession is giving software development leaders good cause to think about how to attract and keep qualified personnel and, more importantly, enable them to work as efficiently as possible. Added to this scenario is a trend in the software development cycle toward shift left testing, which has put increased pressure on developers to take on testing responsibilities that often require taking on new perspectives and using new tools. Automated testing solves these problems by making it easier to learn how to build a consistent, reliable testing program in less time, requiring less maintenance.

    Add to this the future promise of artificial intelligence or AI-augmented testing platforms and current machine learning (ML) capabilities, such as self-repairing of test scripts, and you have a platform that both levels the learning curve and accelerates efficiency. The sooner organizations can transition from manual to automated testing, the better they can withstand internal and external market fluctuations.

    A Developer and a Tester Walk Into a Bar …

    Traditional software testing is a manual process in which testers are employed to replicate users and are expected to bring that perspective to their work. As such, software testers have a very different mindset than software developers. Where developers are protective of their creative output, software testers are driven by a curiosity to probe the limitations of a system. It stands to reason that the qualities that make someone excel at either of these roles is, likewise, not the same. And yet, with the trend toward shift left testing and continuous integration/continuous development (CI/CD), the industry has blurred the distinction between coder and tester to the dismay of both sides.

    Automated testing removes much of the monotonous work associated with repetitious test plans. It allows testers to focus on writing better scripts, extending the scope of their testing plans and scheduling more powerful load tests. From the organization’s perspective, once you have established a library of reusable test scripts, your testing program will be protected from future turbulence in the employment market, including recession and attrition.

    Low-Code/No-Code

    Regardless of the tool you use, code will be created if you are creating software — even test scripts. Ideally, however, a low-code/no-code tool can hide some of the complexity and promote best practices. Using a low-code/no-code tool can relieve a tester from creating test scripts from scratch by recording manual interactions and offering suggestions. In the case of shift left testing, a low-code tool can eliminate the need to learn entire testing frameworks while still enabling a developer to access code when desired. Automating testing also eliminates the human error inherent in repetitive manual tests. In short, test automation does not diminish the value of skilled software testers and developers; it increases it.

    Placed in the hands of skilled testers, automated testing will only become more powerful, more effective and more critical to your development cycle. It elevates the skills of testers and makes them more productive, accurate and thorough. Test automation also makes for a smoother transition to shift left testing, allowing developers to spend less time testing their software and more time doing the creative work that makes them thrive. In a market where attracting and keeping top talent is only going to get more difficult, anything you can do to lighten the burden on your employees and make them more productive will be a big win for your business. So, the question is not whether you should transition from manual to automated testing but when.