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Smoke testing

Smoke testing is a preliminary testing practice used to verify the basic functionality and stability of a system or build, determining if it is suitable for more comprehensive testing or use. In , it checks core features and critical paths of a new build to identify major issues early, preventing wasted effort on unstable code. Also known as build verification testing or testing, the term originates from practices in hardware engineering and , where failures might produce visible smoke (e.g., powering on a circuit board or testing pipes for leaks); in software, it metaphorically ensures the build "doesn't smoke" by confirming it runs without immediate crashes. Typically performed after a team delivers a new build or integrates changes, smoke testing in software is conducted by (QA) teams using a predefined set of high-level test cases that cover essential functionalities, such as processes, , or key user workflows. It can be executed manually, through automated scripts for efficiency in repetitive checks, or via a approach combining both methods to balance speed and thoroughness. For instance, in an application, smoke tests might validate that users can access the homepage, add items to a cart, and proceed to checkout without errors. The primary benefits of smoke testing include early detection of severe defects, rapid feedback to developers for quick fixes, and resource optimization by avoiding detailed testing on broken builds. It is recommended as a standard practice in lifecycles, including by experts like Steve McConnell in Code Complete, who was a former editor-in-chief of IEEE Software magazine. However, it is not exhaustive, as it deliberately limits coverage to broad, shallow checks rather than deep validation, distinguishing it from more targeted sanity testing.

Overview and Etymology

Definition

Smoke testing is a preliminary, shallow, and broad method applied to systems in , , , and contexts to confirm that fundamental components function without immediate or , thereby avoiding the waste of resources on deeper testing of fundamentally broken builds. This approach ensures early detection of major issues, allowing teams to proceed only if basic stability is established. Key characteristics of smoke testing include its rapid execution, often completing in minutes to hours, and its focus exclusively on critical paths and essential features rather than exhaustive coverage. The test is considered successful if no metaphorical "smoke"—indicating severe failure—emerges, such as system crashes, non-responsive interfaces, or visible damage. In , for instance, it typically involves verifying that an application launches successfully and that core functionalities, like user login or primary , respond as expected. In mechanical and plumbing applications, actual non-toxic smoke is introduced into or systems to detect leaks or breaches by observing where the smoke escapes. For electrical and testing, it entails powering on the device to check for immediate burnout, overheating, or smoke emission from components. The practice of smoke testing in hardware contexts, including electrical systems, was documented in the late 19th and early 20th centuries, drawing from earlier mechanical traditions, and was adapted to software engineering in the late 20th century to support efficient build validation in agile development cycles.

Origins of the Term

The term "smoke testing" originated in the mechanical engineering field during the late 19th century, specifically in plumbing and pipe system inspections. As early as 1886, it referred to a method of introducing smoke into drains, sewers, or ducts to visualize leaks, cracks, or improper connections, allowing inspectors to identify issues without invasive disassembly. This practice, documented in the Encyclopaedia Britannica, drew from earlier mechanical testing traditions. In the , the term took on a metaphorical meaning in and testing, where engineers would power on newly assembled boards or devices to for basic functionality. If no emerged—indicating overheating, short circuits, or component —the build was deemed stable enough for further development, avoiding catastrophic damage. This "smoke test" evolved from the literal risk of producing visible , serving as a quick to confirm the system did not immediately under initial power. Early electrical examples include a usage for determining machine capacity and a reference in journals. The adoption of "smoke testing" into occurred in the late , primarily through engineers transitioning to software roles, who applied the metaphor to preliminary build . By the early , it gained prominence in , as highlighted in Cem Kaner, James Bach, and Bret Pettichord's 2001 book Lessons Learned in , which described it as a foundational check for software stability akin to electrical testing. During this period, the practice integrated into emerging agile methodologies and workflows, where automated smoke tests became part of pipelines to enable frequent, low-risk releases and align with the —often catching approximately 80% of critical build issues through just 20% of test effort.

Smoke Testing in Software Development

Purpose and Benefits

Smoke testing serves as a preliminary step in to ensure that a new build is fundamentally stable and suitable for more extensive testing, , or deployment. By focusing on functionalities, it acts as a gatekeeper in / (CI/CD) pipelines, preventing unstable code from advancing and thereby safeguarding subsequent development efforts. The primary benefits of smoke testing include reducing wasted resources on defective builds, accelerating release cycles through rapid validation, and enhancing team efficiency with immediate feedback on build viability. It catches critical defects early, minimizing the time and cost associated with and rework, as issues identified at this stage are far less expensive to resolve than those discovered later in the process. For instance, automated smoke tests can execute in 15-30 minutes while covering essential paths, representing a focused of the overall to provide quick confidence without exhaustive coverage. This practice not only streamlines workflows but also boosts developer morale by avoiding prolonged investigations into fundamentally broken software. In specific scenarios, smoke testing is commonly applied immediately after code commits to verify integration success in environments, following major system integrations to confirm overall stability, and during agile sprints to high-level validate user stories before deeper .

Process and Implementation

The process of smoke testing in begins with identifying critical paths in the application, such as procedures, main navigation flows, and core user interactions, to ensure focus on high-risk areas that could indicate broader build instability. Next, teams create a minimal set of test cases, typically 5-10 scenarios, that verify these paths without delving into detailed validations; for instance, checking if a user can successfully log in and access the . These tests are then executed on the new build, either manually by testers or via scripts, to confirm basic functionality and determine if the build is stable enough for further testing. Upon completion, results are reported as pass or fail, with any issues logged in detail, including screenshots or error messages; if the build fails, the process iterates by notifying developers for fixes before retesting. This approach serves as early defect detection to prevent wasted effort on unstable software. Implementation tips emphasize prioritizing tests based on risk, starting with user-facing features like payment processing or search functionality to maximize impact. Smoke tests should be integrated into pipelines to run automatically after every build, ensuring rapid feedback; the entire process typically lasts 15-60 minutes to maintain efficiency without delaying development cycles. Smoke testing can be conducted manually, which is suitable for exploratory checks where human judgment assesses visual or ad-hoc behaviors, or scripted for greater repeatability and speed in regression-prone environments. A scripted example might involve verifying that an site allows a to add an item to the without crashing, using simple assertions on page loads and responses. Best practices include maintaining a dedicated smoke test suite document that outlines test cases, environments, and expected outcomes for team consistency. Tests should run after every build in setups to catch issues early, with clear failure criteria defined as any breakdown in core functions, such as failed navigation or errors, triggering immediate investigation.

Automation and Tools

Automating smoke testing in software development allows for frequent execution within continuous integration and continuous deployment (CI/CD) pipelines, such as after every code commit, to quickly identify major integration issues and ensure build stability without extensive manual effort. This approach leverages scripts to provide consistent, rapid validation of core functionalities, reducing the time from development to deployment and minimizing the risk of releasing faulty builds. By integrating automation early in the pipeline, teams achieve faster feedback loops, enabling developers to address critical failures immediately rather than later in the process. Popular tools for automating smoke tests include , which is widely used for web UI smoke testing to simulate user interactions and verify basic navigation and rendering. For Java-based applications, and TestNG frameworks facilitate unit-level smoke tests by structuring assertions around key methods and dependencies. Pipeline integration is commonly handled by Jenkins or Actions, which orchestrate test runs post-build and report results in real-time. For mobile applications, enables cross-platform smoke testing by automating interactions on and devices, focusing on essential app launches and flows. Implementation typically involves creating targeted scripts that check core and endpoints, such as verifying HTTP 200 status responses for primary routes to confirm availability and basic connectivity. For instance, a script using the pytest framework can automate checks for HTTP status responses and expected content, ensuring the application's basic endpoints function before deeper testing proceeds. These scripts are kept lightweight, often comprising a small set of high-level tests that run in minutes, and are triggered automatically in environments to validate deployments without requiring human intervention. Automated smoke testing faces challenges like flakiness in automation, often caused by timing issues or environmental inconsistencies, which can be mitigated through retry mechanisms and stable test environments to improve reliability. Maintenance overhead is another concern, addressed by maintaining a small, focused to focus only on critical paths and reduce update efforts as the application evolves. Post-2020 trends in smoke testing automation include AI-assisted test generation, as seen in tools like Testim.io, which use to dynamically create and stabilize smoke test suites, adapting to UI changes and reducing manual scripting. As of 2025, agentic AI has emerged as a key advancement, enabling autonomous test creation and execution for more adaptive smoke testing in pipelines. Cloud-based execution platforms, such as , have gained prominence for enabling parallel runs across diverse devices and browsers, supporting scalable smoke testing in distributed setups without local infrastructure. Smoke testing differs from sanity testing in scope, timing, and objectives. Smoke testing is a broad, preliminary check conducted early in the development cycle to verify the overall stability of a new build at a high level, ensuring that the system launches and basic functionalities operate without major crashes. In contrast, sanity testing is narrower and typically performed after smoke testing or following a specific code change, focusing on validating whether particular fixes or recent modifications work as intended without retesting the entire application. For example, while smoke testing might confirm that an entire web application loads and navigates to key pages, sanity testing could target just one resolved bug, such as a login form validation. Compared to , smoke testing is shallow and executed frequently after each build to quickly identify if the software is stable enough for further testing. , however, is more comprehensive and in-depth, aimed at confirming that recent changes or updates have not adversely affected existing functionalities across the system. It is typically run later in the cycle, often after or feature additions, to ensure and prevent defects from re-emerging. Smoke tests thus serve as a rapid gatekeeper, while provide thorough validation of ongoing reliability. Smoke testing also contrasts with unit testing in terms of granularity and integration level. involves isolated examination of individual components or modules in a controlled environment, often by developers, to verify that each functions correctly on its own without dependencies. Smoke testing, by comparison, operates at the system or level, combining these units to assess end-to-end basic workflows and overall build integrity. It does not delve into internal logic but confirms that the assembled application behaves as expected at a superficial level. There are notable overlaps and sequences in how these testing types interact within a development pipeline. Smoke testing may incorporate elements of unit tests to evaluate integrated components but emphasizes end-to-end basics rather than isolation. According to the ISTQB glossary, a smoke test is a test suite that covers the main functionality of a component or system, to determine whether it works properly before more extensive planned testing begins; note that ISTQB lists "sanity test" as a synonym, though in practice smoke and sanity testing are often distinguished by their broad versus focused scopes. In practice, smoke testing often precedes sanity, regression, and deeper integration efforts, forming an initial filter in continuous integration environments. A practical decision framework for applying smoke testing revolves around its role in answering "Does it work at all?" for a build. If smoke tests pass, teams can confidently proceed to sanity checks for specific updates, regression suites for change impacts, or unit validations for component details; failure prompts immediate fixes without advancing to costlier tests. This approach minimizes wasted effort in agile and workflows by prioritizing early detection of showstopper issues.

Smoke Testing in Other Fields

Mechanical and Plumbing Applications

In and contexts, smoke testing employs non-toxic, artificially generated —typically produced by theatrical fog machines, chemical smoke generators, or specialized blowers—to pressurize enclosed systems and reveal leaks, cracks, or faulty connections in , sewers, ducts, and related . This visual method highlights escape points where emerges, enabling precise identification of defects without invasive disassembly. The technique has been a standard practice in building and inspections since the mid-19th century, with origins in early efforts to test sanitary systems for integrity—predating similar uses in electrical testing. The process begins by sealing access points, such as manholes or duct ends, and introducing smoke under controlled low pressure via a blower unit connected to the system inlet. Technicians then monitor for smoke exiting at unintended locations, such as joints, vents, or ground surfaces, to map defect locations; for optimal results, all drain traps must be filled with water to prevent indoor smoke entry. Safety protocols emphasize using inert, non-toxic smoke formulations to avoid health hazards or residue buildup, with testing conducted in well-ventilated areas and under mild pressure (typically 0.5–2 inches of water column) to mimic operational conditions without risking system damage. Key applications include municipal sewer systems, where smoke testing detects inflow and infiltration (I/I) sources—such as cracked laterals or illicit connections—that contribute to overflows and environmental contamination, aligning with EPA recommendations for capacity management under the Clean Water Act. In HVAC systems, it identifies air leaks in ductwork to ensure energy efficiency and proper airflow, as outlined in SMACNA's HVAC Air Duct Leakage Test Manual, which endorses smoke visualization as a supplementary diagnostic after pressure testing. Automotive exhaust testing uses similar smoke introduction at the tailpipe to locate leaks that could release harmful gases into the cabin or environment, a routine diagnostic in repair shops to comply with emissions standards. Equipment typically consists of portable smoke blowers (e.g., models like the Superior 5E for ), smoke candles or fluid reservoirs for generation, and fans to propagate the smoke evenly; these tools produce dense, visible vapor lasting 5–10 minutes per test cycle. Post-2010 advancements have integrated smoke testing with (CCTV) inspections, allowing real-time correlation of visual smoke escape with internal imaging for more accurate mapping in sewers and ducts, enhancing in large-scale municipal projects. Regulations, such as EPA guidelines for evaluation, mandate non-toxic materials and documentation of findings to support inflow reduction programs, while organizations like NASSCO provide specification guidelines for standardized smoke testing protocols in assessments.

Electrical and Hardware Testing

In electrical and testing, smoke testing refers to an initial power-up procedure applied to circuits, printed circuit boards (PCBs), or assembled devices to verify basic electrical integrity and detect immediate faults such as , overloads, or misconnections that could lead to overheating, emission, or . This preliminary check ensures the hardware is stable enough for further rigorous evaluation, preventing escalation of defects that might damage components irreparably. Note that while the term's metaphorical use in software derives from this practice, the literal smoke testing in predates electrical applications. The process typically begins with a visual and inspection using a to confirm connections and before applying power. is then introduced gradually—often starting at a fraction of the rated supply—to power the device under test (DUT), while monitoring current draw, voltage rails, and temperature for anomalies like excessive heat or sparks. In manufacturing settings, such as assembly lines, this is performed in a controlled with current-limiting power supplies to cap draw at safe levels, allowing quick shutdown if issues arise; successful passage indicates no catastrophic failures, enabling progression to functional tests. This practice became commonplace in electronics laboratories with the rise of integrated circuits and complex designs in the mid-to-late , where powering untested boards risked literal smoke from faulty joints or component failures; it later influenced the of the term in for analogous quick verifications. Smoke testing finds applications in validation to confirm design viability before full production, during assembly—such as verifying circuit boards for power stability—and high-reliability sectors like hardware, where it ensures no immediate electrical hazards in systems prior to environmental . Essential tools include multimeters for voltage and resistance checks, oscilloscopes to observe on power rails, and power supplies with built-in current limits for safe energization. Safety protocols adhere to standards like IPC-6012, which specifies performance qualifications for rigid PCBs including electrical continuity and insulation resistance to minimize risks during initial powering. In the 2020s, thermal imaging cameras have become integral, enabling non-contact detection of hot spots—such as those from partial shorts—before visible smoke occurs, with resolutions identifying temperature differentials as low as 0.1°C across the board. Despite precautions, risks remain, including actual component from undetected faults, earning the procedure its humorous moniker as a "smoke test" to underscore the potential for visible indicators like wisps of smoke from overheated traces. Mitigation involves using simulated loads or dummy components to replicate operational conditions without full power demands, along with fuses and rapid disconnect switches to isolate issues promptly.

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