Strategies for Testing in a Continuous Delivery
Numerous projects and firms are reaping the rewards of the change to continuous delivery in software development, including quicker feedback, significantly reduced time to plug, higher quality, and improved user experience. The strategy wont to test these applications has been significantly impacted by the power to release a replacement build at the touch of a button. It’s difficult to stay up with and support the testing tempo required by Continuous Delivery’s promised delivery speed.
Continuous Delivery
From original development to production release, Continuous Delivery (CD) may be a disciplined, integrated, and highly automated procedure to hurry up the method of incorporating new code with the reassurance that the new code will perform as intended and increase the worth of the merchandise.
The transition to Continuous Deployment has also occurred. The most distinction between continuous delivery and continuous deployment is that while the program is tested automatically with continuous delivery, the deployment choice continues to be made manually. On the opposite side, a never-ending deployment pipeline will automatically deploy the working version. There’s no “correct way” to deploy to production; project teams decide the way to proceed.
In either scenario, a collection of automated jobs compile, package, test, and deploy new software when a developer commits it to the version control repository. The automated jobs also store the packaged software so it should be easily published. The procedure halts and sends the code back to the developers for correction if the code fails during any test phase along the pipeline.
Benefits of Continuous Delivery for Business
Reduced Time to Market: CD drastically cuts the time it takes to create, integrate, and validate new code into an existing software program—from months to weeks or days. Releases of particular new features, fixes, and upgrades are now made monthly or maybe daily using CD, as critical being made in bulk each year or every two years.
The ideal item: Quicker consumer input from frequent, short-lead-time releases enables marketing teams to swiftly decide whether a brand new feature is acceptable for the market. If not, months of testing and development haven’t gone to waste, unlike before CD.
Productivity: Productivity is increased since developers now do not need to spend time fixing and maintaining their test environments because CD mainly relies on automated deployments. Troubleshooting isn’t longer required of developers and operations engineers. The Continuous Delivery pipeline automates these steps. When the new application is ready, the pipeline automatically releases it to production. The cycle of develop-test-release is shortened by weeks or perhaps months as a result.
Reliable Releases Deliver Ongoing Improvements in Product Quality: The CD pipeline naturally produces continuous improvements in product quality through extremely dependable releases because it places a greater emphasis on automated testing. The developers can resolve any issues discovered by the tests. As few as 90%, fewer problems are released into production as a result of the automated testing within the pipeline.
When new software is issued, the Continuous Delivery pipeline also makes it possible to roll back to a previous release version in the event that a major issue arises, giving the customer and management some peace of mind.
Increased Customer Satisfaction: All of those features give clients a higher product, but maybe even more critically, they furnish them more assurance that the application will work pro re nata.
Automated Testing’s Function in Continuous Delivery
The CD pipeline is solely a network of automated testing nodes that execute unit tests, acceptance or functional tests, and performance tests on the build both before and after it’s integrated into the assembly environment. If the difficulty is found anywhere within the pipeline, the method stops, and also the code is shipped back to the developers for a correction. Manual testing would require months as against CD testing which might only take hours.
Code Commit: When a developer adds code to the ASCII text file repository, Continuous Delivery tools like Jenkins compile it and run unit tests automatically. When a unit test fails, the pipeline halts while the developers make the required corrections and check the updated code in to resume the method. If all goes consistent with the plan, the pipeline automatically deploys the build to an acceptance testing environment and copies the code to a binary repository.
Acceptance Testing: Automated acceptance testing is performed by the pipeline, which also installs the application in an exceedingly production-like acceptance test environment. The pipeline then executes a group of acceptance tests to substantiate that the software satisfies all user specifications and validates the functionality of the delivered application.
Performance Testing: This process verifies that the new code won’t have a negative impact on the software’s performance. As previously, the pipeline creates the environment for the performance test, executes the test, and logs the outcomes within the software quality management tool. Rather than the pre-CD technique of performing performance testing only right before an enormous release, this method enables effective performance testing on each new piece of code.
Manual Testing: Although test automation is meant to be used across the CD pipeline, manual testing is occasionally necessary, particularly for exploratory testing and a business user’s acceptance testing.
Recommendations on Testing Techniques for Continuous Delivery
A pipeline of automated tests that run smoothly is important for CD success, but test automation may be a separate field of study in and of itself.
“Shift Left” Testing: Testing that’s “Shifted Left” refers to tests that are moved to the left, or earlier within the timetable, on the standard developmental timeline. Because the developer writes the test scenario before actually developing code, test-driven development (TDD) and behavior-driven development (BDD) are the top of “shift left” testing. TDD and BDD necessitate in-depth planning and consideration of the code needed to supply the desired result. The particular code is more focused on the specified function and more testable as a result of writing the test first. Writing code with “how am I visiting test this?” as a tenet is an idea.
Testing Behavior-Driven Development (BDD): BDD could be a development methodology that grew out of TDD. Behavior-driven development provides software development and management teams with shared tools and a shared process to collaborate on software development by combining the broad techniques and principles of TDD with concepts from domain-driven design and object-oriented analysis and style. BDD is greatly aided by the utilization of an easy domain-specific language (DSL) that creates the use of language constructions (such as phrases that resemble those in English) to speak the intended behavior and results. BDD is considered an efficient technical practice, particularly when a complex business problem is at hand.
Testing across browsers: Assurance automated tests are typically accustomed to measuring functional reliability. Manual cross-browser testing of an application isn’t always possible thanks to time constraints. The foremost widely used browsers and operating systems should be the most focus of testing, per the practical testing approach. We will determine which browsers are most often utilized by end users by using application usage analytics data, like data from Google Analytics. Establish a usage threshold below which the worth of testing isn’t justifiable.
Performance testing and security testing are the 2 main forms of non-functional testing. One reasonably non-functional test called performance testing examines how operational (functional) aspects behave under time and resource constraints. Performance factors for software applications, like response speed, do matter. Performance bottlenecks must be removed instead of functional faults being found because of the aim of performance testing.
However, it’s going to be claimed that additional Non-Functional forms of tests, like Security Tests, will be conducted in addition to Performance Tests, which should particularly be exhausted by the CI/CD.
Testing in Production: In contrast to Acceptance and Performance Testing, Testing in Production could be a method of determining user acceptance of a selected feature. Only 10% of software users may first receive a brand new feature when it’s introduced. After that, employment is observed for a long time. The feature will then be presented in a different format. The functionality is eventually made available to any or all users when the user acceptability of the 2 versions is compared to work out which is employed more. A/B testing or an internet-controlled experiment are common terms wont to describe this.
About Enteros
Enteros offers a patented database performance management SaaS platform. It proactively identifies root causes of complex business-impacting database scalability and performance issues across a growing number of clouds, RDBMS, NoSQL, and machine learning database platforms.
The views expressed on this blog are those of the author and do not necessarily reflect the opinions of Enteros Inc. This blog may contain links to the content of third-party sites. By providing such links, Enteros Inc. does not adopt, guarantee, approve, or endorse the information, views, or products available on such sites.
Are you interested in writing for Enteros’ Blog? Please send us a pitch!
RELATED POSTS
Keeping Operations Running at Scale: Enteros’ AIOps-Driven Database Performance Platform
- 27 January 2026
- Database Performance Management
Introduction In manufacturing plants and insurance enterprises alike, operational continuity is non-negotiable. A delayed production schedule, a failed claims transaction, or a slow underwriting system can ripple into lost revenue, regulatory exposure, and eroded customer trust. At the heart of these operations sit databases—quietly powering everything from shop-floor automation and supply chain planning to policy … Continue reading “Keeping Operations Running at Scale: Enteros’ AIOps-Driven Database Performance Platform”
Managing Real Estate Data at Scale: Enteros AI Platform for Database Performance and Cost Estimation
Introduction The real estate sector has undergone a dramatic digital transformation over the past decade. From commercial real estate (CRE) platforms and property management systems to residential marketplaces, smart buildings, and PropTech startups, modern real estate enterprises are now fundamentally data-driven organizations. Behind digital leasing platforms, pricing engines, tenant experience apps, IoT-enabled buildings, analytics dashboards, … Continue reading “Managing Real Estate Data at Scale: Enteros AI Platform for Database Performance and Cost Estimation”
Governing AI Performance in Technology Enterprises: Enteros GenAI-Driven Intelligence Platform
- 26 January 2026
- Database Performance Management
Introduction Artificial Intelligence has moved from experimentation to the core of modern technology enterprises. AI now powers customer experiences, revenue optimization, fraud detection, personalization engines, autonomous operations, developer productivity tools, and mission-critical decision systems. From SaaS platforms and digital marketplaces to enterprise software and AI-native startups, organizations are embedding AI into nearly every layer of … Continue reading “Governing AI Performance in Technology Enterprises: Enteros GenAI-Driven Intelligence Platform”
Optimizing Healthcare Databases at Scale: How Enteros Aligns GenAI, Performance Intelligence, and Cloud FinOps
Introduction Healthcare organizations are under unprecedented pressure to deliver better patient outcomes while operating within increasingly constrained financial and regulatory environments. Hospitals, payer networks, life sciences companies, and digital health platforms now rely on massive volumes of data—electronic health records (EHRs), imaging repositories, genomics pipelines, AI-driven diagnostics, claims systems, and real-time patient monitoring platforms. At … Continue reading “Optimizing Healthcare Databases at Scale: How Enteros Aligns GenAI, Performance Intelligence, and Cloud FinOps”