Top 30 Application Security & DevSecOps Platforms 2027

This report forms part of The Economy Rankings’ Cloud, Infrastructure & Security portfolio. This series evaluates named application-security, software-supply-chain and DevSecOps platforms with maintained technical security functions.

Application security follows software through several forms. Developers work with source code, incorporate dependencies, assemble build artifacts and deploy services with interfaces that can be tested. Each stage exposes different evidence about risk. The platforms in this series provide technology for analyzing or protecting that software, and for connecting security work with the people who develop and maintain it.

The market includes broad testing suites and focused tools. Static analysis examines code, dynamic testing observes an accessible running application and composition analysis examines third-party components. Supply-chain platforms may instead assess package behavior, build integrity or the software artifact that will be distributed. These functions are compared through their stated technical purpose rather than treated as interchangeable scanner labels.

The evaluated unit is a named product or platform. A generic repository or CI service qualifies here only through its security offering, while an advisory firm without maintained technology does not. Posture platforms that connect findings with development context can qualify through an active risk and remediation workflow, with original detections still attributed to the relevant connected analysis tool.

This 2027 edition reflects research reviewed on October 22, 2026. Tier I contains five leading platforms, Tier II ten established platforms and Tier III fifteen specialist platforms. Lower bands are alphabetical. The assessment concerns documented capabilities and maintained operating workflows, rather than a claim that the publication ran a common testing benchmark or observed future 2027 outcomes.

Market Overview

A security finding becomes useful when it can be connected with a software change. A report may identify a line of code, a package version, a behavior observed during testing or an unexpected binary component. The technical workflow needs to preserve that evidence while identifying the application and owner able to act. This makes developer integration part of application-security capability rather than an optional presentation feature.

Broad platforms such as Checkmarx, Veracode, Black Duck and OpenText organize several analysis disciplines. Their breadth can support a coordinated program across many applications. The individual methods still have distinct visibility: an external scanner does not automatically inspect every source path, and a source analysis does not itself demonstrate the deployed behavior of every service. The comparison considers how the methods are documented and used together.

Repository-centered offerings bring security closer to the development collaboration process. GitHub and GitLab supply security functions within environments where code is already reviewed and delivered. Semgrep, SonarQube and DeepSource also connect analysis with ordinary engineering activity. The relevant distinction is the actual feedback and policy workflow, rather than the general popularity of a repository or development platform.

Software-supply-chain specialists examine other parts of the problem. Socket emphasizes package behavior, ReversingLabs examines software artifacts and Chainguard supplies maintained software inputs. Anchore organizes security work around component information, while Seal concentrates on dependency remediation. These functions qualify under the original series scope because they provide concrete software-security technology, even where the output differs from a conventional source-code finding.

Application-security posture platforms address coordination among tools and teams. Apiiro and ArmorCode can connect findings with application context and engineering workflows. Their value is assessed through that active operating role. Receiving a result from a static or dynamic scanner is not the same as producing the original result, so the profiles preserve the distinction between analysis, context, prioritization and remediation orchestration.

Industry Trend — 2027

Application-security tools are connecting more closely with the code, package and release processes that developers operate every day. The following developments frame 2027 through concrete changes in analysis and workflow, including dependency behavior, artifact inspection and technologies that supply a remediation rather than only a finding.

2027 market development	Current evidence and direction	Implication for the sector
Connected analysis	Platforms relate static, dynamic and dependency findings.	Different evidence can support a more specific remediation conversation.
Security in code review	Results appear near repository, IDE and pipeline activity.	Developers can investigate findings alongside the software change.
Dependency behavior	Package analysis considers malicious activity as well as known vulnerabilities.	Intake decisions can address risk before a conventional advisory exists.
Final-artifact assessment	Tools examine packages and binaries prepared for release.	The delivered software can be assessed in addition to the source repository.
Remediation technology	Patching and maintained software inputs participate in security workflows.	Some platforms change the software supply chain rather than only report findings.
Context and ownership	Posture platforms connect evidence with applications and teams.	A security queue becomes more useful when engineering responsibility is identifiable.

These developments follow software through different forms: source code, dependencies, build artifacts and running services. A strong operating workflow preserves the evidence from the relevant analysis and connects it with the application owner able to change the software. The useful outcome is an identifiable engineering decision, with each method understood through what it actually observes.

Methodology — Core Eligibility Criteria

The ranking uses an evidence-based editorial assessment tailored to this technical market. Candidates were required to satisfy the following core conditions:

• A maintained named application-security, software-supply-chain or DevSecOps platform with a concrete technical security function.
• Static, dynamic, composition, secrets, package-integrity, secure-artifact or active application-risk management functions qualify within their documented scope.
• Generic source hosting, CI/CD or code-quality tools qualify only through an identifiable security product or capability.
• Public technical documentation must establish what is analyzed or protected and how results or policies participate in an operating workflow.
• Integrated findings are distinguished from native analysis, and supported languages, runtimes or artifact types define the actual product boundary.
• Consulting-only businesses, isolated assessments and descriptive catalogs without active software-security functions are excluded.
• Current operators, absorbed products, provider locations and establishment dates are identified with qualified labels where corporate and product histories differ.

Methodology — Ranking Factors

• Application and supply-chain detection — 30%: Documented SAST, DAST, SCA, secrets or build-integrity capabilities and analysis depth within stated specialism.
• Actionability and validation — 25%: Reproducible rules, reachability or exploit validation, triage and developer feedback; no invented detection or false-positive rates.
• Secure software lifecycle controls — 20%: Policy enforcement, permissions, provenance, auditability and secure deployment of scanning infrastructure.
• Developer workflow integration — 15%: IDE, repository and CI/CD support, APIs, remediation guidance and fit for intended development workflows.
• Technical transparency and maintenance — 10%: Supported languages, published limitations, rules/advisories, release history and current product ownership.

The five criteria carry weights of 30%, 25%, 20%, 15% and 10%, respectively. The private research record documents criterion-level editorial assessments and supporting sources. These are judgments about the documented offering, not scores from laboratory tests performed by The Economy Rankings. Missing material evidence is pursued before selection rather than silently treated as average performance. Licensing, sponsorship and likelihood of purchasing recognition do not influence eligibility, scores or tier placement.

Company Profiles and Further Reference

Names appearing in this ranking are linked to their corresponding organizational profiles in The Economy Wiki, where available. These profiles provide further background on principal activities, technology capabilities, product and service portfolios, market positioning and related rankings and analysis across The Economy Network.

Where an entry identifies a product or service line, its provider or operator is identified so that the scope of the organizational profile is clear. The Economy Wiki profiles are maintained as editorial reference pages and may be updated as new public information becomes available.

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Tier I — Leading Application Security & DevSecOps Platforms

1. Checkmarx One

• Provider / operator: Checkmarx
• Headquarters: Atlanta, Georgia, United States
• Provider origins / establishment: 2006

Checkmarx One organizes application-security analysis through a maintained platform with static analysis, software-composition and other development-security functions. Its technical documentation identifies current platform releases and provides guides for the user interface, APIs, command-line tools and plugins. This gives the product an identifiable technical and operational perimeter beyond a general security advisory proposition.

Development teams can integrate analysis through a supported pipeline or command-line workflow and review findings within the platform. Security teams can use the documented policy and administration structure to organize application risk across projects. The practical use case is continuing application assessment as code changes, with results connected to the people and processes responsible for remediation.

The leading distinction reflects broad application-security coverage with a substantial integration and maintenance record. Release-specific documentation supports understanding which capabilities are available in a particular deployment, including different tenant arrangements. The editorial assessment credits that technical visibility and workflow breadth without converting the number of engines or supported integrations into an unsupported measurement of security outcomes.

2. Snyk

• Provider / operator: Snyk
• Headquarters: Boston, Massachusetts, United States
• Provider origins / establishment: 2015

Snyk connects source-code analysis, dependency security and other development security checks within a developer-oriented platform. Its current documentation also describes connecting static analysis with Snyk API & Web dynamic findings. That relationship makes the platform relevant to teams examining both the code they write and the behavior of a running application.

The SAST and DAST integration associates a runtime finding with the vulnerable location in source code when the documented prerequisites are met. Developers can move from an application observation to the code requiring investigation. This supports a remediation conversation around an identifiable change instead of leaving a security team to translate an external scan result manually.

The leading recognition reflects the combination of several application-security disciplines with developer workflow integration. Dependencies, custom code and running applications create different evidence, and Snyk supplies documented ways to connect parts of that evidence. Its assessment concerns those capabilities and the maintained operating workflow, with no assumption that the integration constitutes a universal detection or false-positive benchmark.

3. GitHub Advanced Security

• Provider / operator: GitHub / Microsoft
• Headquarters: San Francisco, California, United States (GitHub business)
• Provider origins / establishment: 2008 (GitHub)

GitHub’s security offering places code scanning and secret scanning close to repository activity. Current documentation separates GitHub Code Security and Secret Protection availability while describing the underlying analysis workflows. The evaluated family is the recognizable Advanced Security proposition, with the actual enabled product and repository entitlement determining which functions are present.

Code scanning associates security findings with a project’s code, while secret scanning examines repository history for supported credential types. A development team can investigate a result where code is reviewed and maintained, reducing the translation between a scanner report and the repository involved. That makes the offering particularly relevant to organizations using GitHub as the center of development collaboration.

The leading recognition reflects direct integration between security analysis and the repository workflow. Its technical documentation explains product access and the role of scanning tools, allowing the deployment boundary to be identified. The profile credits the documented code and secret functions, while keeping their distinct evidence and subscription requirements visible rather than treating every repository as automatically receiving the full family.

4. GitLab Ultimate Security

• Provider / operator: GitLab
• Headquarters: San Francisco, California, United States (corporate address); all-remote operations
• Provider origins / establishment: 2011 (project origins); 2014 (company)

GitLab Ultimate includes application-security capabilities within the software delivery platform. Its documentation describes static and dynamic testing alongside other security functions, making this entry more specific than a generic CI/CD product. The named security offering qualifies through its actual analysis and policy workflows, connected with the repository and pipeline environment.

Dynamic testing can be run during the software lifecycle to examine an application before production deployment. Other supported checks examine code and components through their respective methods. A development organization can use pipeline execution and security results together, connecting a finding with the software project and the change process in which the corrective work will occur.

The leading proposition is the integration of application-security work with an established development and delivery environment. This supports organizations seeking shared project context between developers and security teams. The assessment credits the documented security functions and lifecycle controls, while distinguishing the Ultimate security offering from the simple use of GitLab for source hosting or ordinary build automation.

5. Veracode

• Provider / operator: Veracode
• Headquarters: Burlington, Massachusetts, United States
• Provider origins / establishment: 2006

Veracode provides an application-security platform spanning static, dynamic and software-composition analysis. Its DAST documentation specifically describes scanning web applications and APIs through the behavior of the running target. The platform therefore supports several distinct views of application risk, rather than relying on a single source-code or dependency assessment method.

An application team can use dynamic testing to examine an accessible service while using other supported analysis for code and components. These functions support a program in which security assessment continues through development and deployment. Findings can be organized around application ownership and remediation work, making the platform relevant to organizations managing a portfolio of internally developed software.

The leading recognition reflects a maintained application-security platform with documented analysis methods and a clear operating history. Its different assessment types are considered according to their technical roles: runtime testing observes behavior, while static and composition analysis examine different evidence. That distinction provides a more useful basis for comparison than an undifferentiated count of vulnerabilities reported by the platform.

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Tier II — Established Application Security & DevSecOps Platforms

(Alphabetical order)

Black Duck Polaris

• Provider / operator: Black Duck
• Headquarters: Burlington, Massachusetts, United States
• Provider origins / establishment: 2024 (current independent company; earlier product lineage)

Polaris is Black Duck’s integrated SaaS application-security and risk-management platform. The current documentation portal places it alongside maintained static-analysis and software-composition technologies. This gives organizations an identifiable platform for coordinating application-security analysis while preserving the distinction between the platform and the individual engines contributing results.

An application-security program can bring source and dependency assessments into a common workflow and relate them to development activity. Black Duck’s current portfolio also includes dynamic application analysis, providing another way to assess running software where included in the deployment. The relevant use case is coordinated security work across application projects and the tools supporting their release processes.

The established distinction reflects a substantial technical lineage now operated under the independent Black Duck company. The fact box uses 2024 for that current corporate formation, rather than attributing every predecessor product to a new origin. The assessment concerns maintained platform capability and integration, with the former Synopsys Software Integrity Group identity treated as history rather than a separate competing entry.

Burp Suite DAST

• Provider / operator: PortSwigger
• Headquarters: Knutsford, Cheshire, United Kingdom
• Provider origins / establishment: 2008 (company incorporation; Burp origins 2002)

Burp Suite DAST provides automated web-application security scanning with integration into software development processes. It is the current product identity used for the offering previously presented as Burp Suite Enterprise Edition. The platform qualifies through continuing automated dynamic testing, distinct from a consultant conducting an isolated assessment with a desktop tool.

An application-security team can configure scanning around defined targets and integrate execution with its software process. The resulting findings concern the behavior of the application exposed to the scanner. This makes the offering useful for organizations operating a portfolio of web applications and wanting a repeatable testing workflow alongside development and release activity.

The established distinction rests on a focused dynamic-testing product with detailed maintained documentation and a recognizable research and tooling foundation. Its assessment concerns the automated platform and its operational integration, rather than assigning credit for every use of the wider Burp tool family. PortSwigger’s company incorporation is distinguished from the earlier origins of the original Burp tools.

Endor Labs

• Provider / operator: Endor Labs
• Headquarters: Palo Alto, California, United States
• Provider origins / establishment: 2021

Endor Labs provides application-security technology with a substantial focus on dependencies and their use in software. Current product material also describes static analysis, secrets and package-security functions. Its technical proposition uses dependency and code context to help examine which software risks are relevant to an application, rather than organizing work solely around a list of known package vulnerabilities.

A development team can investigate a vulnerable dependency in relation to the application’s use of that component. Package controls can also participate earlier in the process of selecting and introducing software. This supports a workflow spanning intake, analysis and remediation, with code and dependency information helping teams decide where an engineering change should be made.

The established recognition reflects the connection between software-composition analysis, application context and current package-security controls. The assessment considers the maintained product and its documented integration model. Reachability is treated as an analysis function with a defined scope; it is not converted into an unsupported assertion that every unreported path is safe or that every identified dependency issue is exploitable.

HCL AppScan

• Provider / operator: HCLSoftware / HCL Technologies Limited
• Headquarters: Noida, India (HCL Technologies headquarters)
• Provider origins / establishment: 1976 (HCL group); HCL Technologies incorporated 1991

HCL AppScan supplies application-security testing through a product family with maintained documentation, implementation guidance and technical support. Its portfolio addresses static and dynamic assessment, allowing organizations to evaluate custom code and running applications through their respective methods. The named security product qualifies independently of HCL’s broader services and software businesses.

An application-security program can select the relevant AppScan deployment and integrate assessment into its development process. Static analysis supports code investigation, while dynamic testing examines an accessible application environment. The documentation and support structure help operators organize configuration, execution and review around the product edition actually used, rather than treating the entire portfolio as one undifferentiated scanner.

The established proposition is a substantial application-testing family with continuity under HCLSoftware. It can serve organizations maintaining established testing practices while connecting assessment with current development workflows. The editorial assessment credits documented testing scope and operating support, with the provider’s wider systems-integration capabilities kept separate from the technical functions of AppScan itself.

Invicti

• Provider / operator: Invicti Security
• Headquarters: Austin, Texas, United States
• Provider origins / establishment: 2018 (combined business; predecessor products earlier)

Invicti provides application-security technology centered on dynamic assessment, with current material describing integration with static, composition and API security findings. Its platform connects code and runtime evidence to support validation and prioritization. The named product incorporates the recognizable Netsparker and Acunetix lineage without treating those brands as separate providers in this comparison.

A team can investigate a web-application finding and relate it to supporting analysis where the relevant integration is deployed. This is useful when the remediation conversation needs both a behavior observed in a running application and information about the code or component involved. The platform’s validation-oriented workflow supports distinguishing reported conditions and organizing engineering follow-up.

The established recognition reflects a maintained application-security offering with an established dynamic-testing foundation. The assessment distinguishes original analysis from integrated results and considers the product’s documented workflow. Its provider’s 2018 formation describes the combined business, while the earlier histories of individual products remain part of the technical lineage rather than additional entries in the ranking.

JFrog Advanced Security

• Provider / operator: JFrog
• Headquarters: Sunnyvale, California, United States; Netanya, Israel
• Provider origins / establishment: 2008

JFrog Advanced Security provides scanning for source code and binaries through analysis engines described in current technical documentation. Its scope includes first-party code, dependencies, secrets, misconfigurations and infrastructure-as-code. This places the product at the intersection of development analysis and the artifacts that an organization builds, stores and distributes.

An engineering team can relate a source or dependency issue to the binary and release workflow supporting its application. That is useful when security needs to follow software beyond an individual source repository into artifact management. The documented product and licensing boundaries make it possible to identify which advanced analysis functions participate in a particular JFrog deployment.

The established distinction reflects the relationship between application-security analysis and the software artifact lifecycle. The platform can support teams that want release artifacts and development findings considered together. Its assessment concerns the documented analysis and operating controls, rather than assuming that the presence of a binary repository independently establishes security validation for every package stored within it.

OpenText Fortify

• Provider / operator: OpenText
• Headquarters: Waterloo, Ontario, Canada
• Provider origins / establishment: 1991

OpenText Fortify is the application-security portfolio within OpenText’s current software offering. Its documented scope includes static, dynamic and software-composition analysis alongside application-security posture functions. This provides several ways to examine risk in custom code, third-party components and running applications, with the specific deployed products determining the actual assessment workflow.

Developers and security teams can integrate analysis with the software lifecycle and use the resulting findings to organize remediation. The portfolio can support organizations combining centralized application-security operations with development teams maintaining individual projects. Its different analysis types provide complementary observations, helping distinguish a source-code issue from a component vulnerability or a condition demonstrated through runtime testing.

The established distinction reflects a broad, maintained application-security family with a recognizable technical lineage. The assessment uses the current OpenText operator and considers the actual product functions rather than inherited brand reputation. Integration into development work and the clarity of the supported deployment model provide the practical basis for evaluating the portfolio’s role in an application-security program.

ReversingLabs Spectra Assure

• Provider / operator: ReversingLabs
• Headquarters: Cambridge, Massachusetts, United States
• Provider origins / establishment: 2009

Spectra Assure examines software packages and final build artifacts for security risk. ReversingLabs’ technical proposition includes binary analysis for issues such as malicious content, tampering and exposed information in software. The evaluated platform therefore addresses the artifact an organization receives or releases, supplying evidence that differs from a source-only assessment.

A software producer can investigate a build before distribution, while a software consumer can examine a package entering its environment. This supports a final-artifact security workflow in which the contents of the delivered software are assessed directly. It is useful when a supply-chain question concerns what is actually present in a package rather than only the declared dependency manifest.

The established recognition reflects a distinct binary and software-package assessment capability supported by ReversingLabs’ maintained product material. Its role complements development scanners and component inventories. The comparison evaluates the documented analysis and operating workflow, without assuming that the presence of a clean source repository independently validates a compiled package or that an artifact assessment observes every possible runtime behavior.

Semgrep AppSec Platform

• Provider / operator: Semgrep
• Headquarters: San Francisco, California, United States
• Provider origins / establishment: 2017 (company; formerly r2c)

Semgrep combines static analysis, software-composition analysis and secrets detection in a developer-oriented application-security platform. Its extensible rule approach is a distinctive part of the technical proposition, supported by an open-source analysis foundation. The named commercial platform coordinates those capabilities around the source code and dependencies that development teams maintain.

Engineering teams can connect scanning with repository and CI activity and work with findings in the context of the code being changed. Rule visibility supports understanding why a pattern is reported, while the platform organizes the operating workflow around the results. This can suit teams that want security analysis to reflect their languages, code patterns and development conventions.

The established recognition reflects extensibility, developer integration and a visible technical foundation. Semgrep’s different scan types address different evidence, including custom code, dependency risk and credentials. The editorial assessment considers that combination and its maintained documentation, without treating the provider’s claims about automated triage or analysis assistance as independently verified numerical accuracy.

SonarQube Advanced Security

• Provider / operator: Sonar
• Headquarters: Geneva, Switzerland
• Provider origins / establishment: 2008

SonarQube Advanced Security brings application-security analysis into the SonarQube code assessment environment. Current product material describes both static analysis and software-composition analysis, with integration into CI/CD and developer tools. The named offering is assessed through these security functions, rather than the wider code-quality proposition alone.

A development team can receive security feedback during the build process and investigate the associated code in its existing workflow. Combining custom-code and dependency assessment helps organize different sources of application risk around the project being developed. This is useful when an organization wants security expectations to accompany ordinary code review and the continuing maintenance of its software.

The established distinction concerns the close relationship between code assessment and development activity. Sonar’s maintained documentation establishes a current security product with an identifiable integration model. The comparison treats code quality and security as related but distinct observations, giving credit to the documented security analysis instead of assuming that a general quality gate proves the absence of application vulnerabilities.

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Tier III — Specialist Application Security & DevSecOps Platforms

(Alphabetical order)

Aikido Security

• Provider / operator: Aikido Security
• Headquarters: Ghent, Belgium
• Provider origins / establishment: 2022

Aikido brings application-security checks into a consolidated platform for code, dependencies and related deployment risks. Its current material identifies static and dynamic analysis alongside broader security functions. The product qualifies through those concrete application and software-supply-chain capabilities, with its wider cloud or runtime scope considered where it supports the development workflow.

A team can review findings from different assessment types without beginning with an unrelated report for each tool. This is useful for development organizations seeking an organized security backlog around their application estate. Static findings can lead to code investigation, while dynamic findings concern the behavior of an application that has been made available for testing.

The specialist proposition is a unified operating view for several application-security tasks. Aikido’s product presentation emphasizes prioritization and remediation, giving teams a way to connect assessment with engineering work. The comparison evaluates the identifiable functions and workflow; customer quotations or vendor claims about fewer false positives are not treated as a controlled comparative test of detection quality.

Anchore Enterprise

• Provider / operator: Anchore
• Headquarters: Santa Barbara, California, United States
• Provider origins / establishment: 2016

Anchore Enterprise uses software bill-of-materials information and software analysis to support vulnerability and policy assessment. Its product is particularly associated with container and software-supply-chain workflows. The platform qualifies through active security analysis and policy controls around software components, rather than the production of a descriptive inventory alone.

An engineering team can examine the contents of a software artifact and apply security policies as part of the build or release process. Component information provides a basis for investigating newly disclosed vulnerabilities in software already assembled. The workflow helps connect a package-level observation with the artifacts and applications that contain the affected component.

The specialist proposition is an SBOM-centered security operating model with integration into software delivery. It can serve organizations needing repeatable component analysis and policy decisions around containerized software. The assessment distinguishes an inventory from a security outcome: the technical value lies in how the documented analysis, policy and remediation workflows use the component information over the software lifecycle.

Apiiro

• Provider / operator: Apiiro
• Headquarters: New York, New York, United States
• Provider origins / establishment: 2019

Apiiro builds application-risk context by connecting source-control and security information through a context graph. Its documented integrations include static, composition and dynamic findings alongside other software-security evidence. The platform qualifies as application-security posture technology, with the role of connected scanners distinguished from the contextual work performed by Apiiro itself.

An application-security team can bring findings from different tools into a view associated with the software and development environment. Context can help identify which project and change are involved, making remediation ownership more concrete. The workflow is useful when an organization already runs several scanners but needs to connect their results with the applications and developers responsible for action.

The specialist recognition reflects the organization of application-security evidence through a connected context model. It addresses the coordination problem between detection tools and engineering decisions. The assessment credits that documented function and its integration record, without misrepresenting every imported finding as an original detection produced by Apiiro or treating connector counts as a standalone measure of technical superiority.

ArmorCode

• Provider / operator: ArmorCode
• Headquarters: Palo Alto, California, United States
• Provider origins / establishment: 2020

ArmorCode provides application-security posture management by connecting findings and workflows across security and development tools. Its documented integration catalog spans application, infrastructure, cloud and container security alongside DevOps systems. The product’s eligibility rests on active application-risk coordination and remediation technology, with the original detection engine remaining attributable to the connected tool.

A security team can consolidate findings and distribute work through the development systems used by application owners. This is useful when separate scanners create overlapping queues or inconsistent project context. The platform provides an operating layer for prioritization and workflow, helping connect a security issue with the team that can change the affected software.

The specialist proposition is coordination across a heterogeneous application-security toolchain. ArmorCode’s contribution is particularly relevant where an enterprise intends to retain specialized scanners while organizing their outputs. The assessment therefore gives weight to integrations, risk workflow and operating controls, rather than crediting the platform with undocumented native static or dynamic engines simply because it receives those finding types.

Bright Security

• Provider / operator: Bright Security
• Headquarters: San Rafael, California, United States
• Provider origins / establishment: 2018

Bright Security provides application and API security assessment with a dynamic-testing foundation. Its current platform presentation emphasizes automated testing and the connection between findings and remediation. The product therefore addresses an identifiable application-security task, with the running service and its accessible behavior supplying the evidence for dynamic assessment.

An application team can organize testing around the service it is developing and review the resulting security findings. This supports a workflow in which application and API assessment participates in software delivery rather than existing only as an occasional external report. The practical task is connecting an observed condition with the application owner and the engineering change required to address it.

The specialist recognition reflects a focused application-testing platform with a clear developer and remediation orientation. Its current automation language is interpreted through the documented testing function rather than taken as an independent performance result. The useful distinction is the way the platform organizes recurring dynamic assessment and developer follow-up for applications and APIs within its supported scope.

Chainguard

• Provider / operator: Chainguard
• Headquarters: Kirkland, Washington, United States (corporate address); distributed operations
• Provider origins / establishment: 2021

Chainguard provides maintained software artifacts, including container images and other supported components, with security-oriented build and update practices. Its role in this series concerns software-supply-chain protection through the artifacts used to construct applications. It is assessed as a maintained technical platform and delivery system, rather than as a reseller offering an unrelated catalog.

A development team can incorporate supported artifacts into its build and deployment process and use the associated provenance and update information. That supports reducing the distance between selecting a software foundation and maintaining it after new vulnerabilities emerge. The workflow is particularly relevant to organizations standardizing container bases and other common software building blocks across many applications.

The specialist distinction is a preventive supply-chain approach centered on maintained inputs to software development. It differs from a scanner that primarily produces a remediation backlog after software has been assembled. The assessment credits the documented artifact and lifecycle model, while treating security claims as specific to the provided components and their maintenance scope rather than a guarantee covering the entire resulting application.

Contrast AST

• Provider / operator: Contrast Security
• Headquarters: Los Altos, California, United States
• Provider origins / establishment: 2014 (current business establishment)

Contrast’s application-security technology uses instrumentation within applications to examine behavior and data flow. Its documentation describes an agent-based approach alongside static, dynamic and interactive assessment concepts. This gives the platform a distinct position: some evidence comes from observing the application internally while it runs, rather than only examining source text or probing an external interface.

An engineering team can deploy the supported agent and investigate findings associated with application execution. Agent health, configuration and supported runtime versions become part of the operating workflow. The approach is useful when teams want security evidence related to the paths exercised during testing or operation and need to connect a result with the application’s internal behavior.

The specialist recognition reflects the documented instrumentation model and its connection to application-level investigation. Its technical value depends on the supported language and runtime environment and on the activity available for observation. The assessment credits the identifiable analysis mechanism and operating documentation, without interpreting the provider’s accuracy claims as an independently controlled comparison with every other testing method.

DeepSource SAST

• Provider / operator: DeepSource
• Headquarters: San Francisco, California, United States (corporate business location)
• Provider origins / establishment: 2018

DeepSource SAST performs static application-security analysis within a code assessment platform. Its documented product runs security checks as code changes, making the repository and commit workflow central to the offering. The named security capability qualifies separately from the provider’s broader code-quality functions through its analysis of potential vulnerabilities in application source.

A development team can integrate assessment into pre-merge work and investigate a finding alongside the change that introduced or exposed it. This supports earlier engineering feedback and an identifiable remediation path in the repository. The workflow is useful for teams that want recurring security analysis to participate in ordinary code review instead of remaining detached from daily software development.

The specialist proposition is a direct connection between static security checks and continuing code maintenance. Its assessment credits the documented scan workflow and the security-specific product scope. Vendor statements about low false positives are not treated as an independently verified comparative result; the relevant evidence is the maintained analysis function and the way findings reach the developers responsible for changing the software.

Legit Security

• Provider / operator: Legit Security / Palo Alto Networks
• Headquarters: Santa Clara, California, United States (current parent); Tel Aviv, Israel (development business)
• Provider origins / establishment: 2020 (Legit business)

Legit Security connects application-security findings with the software delivery environment. Current product material also describes enhanced static and composition analysis, including reachability for dependency risk. This gives the platform a role in both the evidence around an application and the development pipeline through which software is built and released.

A security team can examine software risks alongside information about repositories and delivery processes. That helps connect a dependency finding with the application and development workflow it affects. The documented analysis enhancements make the current product more than a passive inventory of pipeline tools, while its context model supports organizing remediation around the software’s development environment.

The specialist recognition reflects a combination of delivery-environment visibility and current application-security analysis. Corporate ownership is normalized through the CyberArk acquisition and its subsequent Palo Alto Networks parent relationship. The assessment concerns the maintained Legit platform; a completed corporate transaction does not itself prove that every capability from the parent’s wider product catalog has been technically integrated.

Mend AppSec Platform

• Provider / operator: Mend.io
• Headquarters: Givatayim, Israel
• Provider origins / establishment: 2011

Mend’s application-security platform includes static analysis and software-composition analysis for custom code and third-party dependencies. Its documentation describes the process of integrating Mend SAST and reviewing scan results. The product therefore supplies an identifiable continuing assessment workflow around application development, with different analysis methods addressing different sources of software risk.

A team can bring security assessment into development activity and work with findings through the platform’s supported integrations. Dependency analysis addresses the packages an application incorporates, while static analysis examines custom code. Keeping these views associated with the same application helps developers distinguish a required code change from a dependency update or another remediation task.

The specialist proposition is a maintained application-security platform with a recognizable dependency-security lineage and current custom-code analysis. This can suit organizations organizing several AppSec disciplines within one operating environment. The assessment credits documented integration and remediation support, while treating reachability or automated assistance as specific product functions rather than a general guarantee that every remaining finding is exploitable.

OX Security

• Provider / operator: OX Security
• Headquarters: Tel Aviv, Israel
• Provider origins / establishment: 2021

OX Security connects software-supply-chain and application-security evidence across the development lifecycle. Its platform includes component and pipeline-oriented information, with a focus on understanding how software is assembled and delivered. This provides a security function beyond a generic development toolchain by examining risks associated with the software and its path to deployment.

An application-security team can relate findings to repositories, components and delivery processes instead of maintaining a separate disconnected inventory for each tool. That context supports identifying the application and engineering owner responsible for a change. The platform is relevant to organizations seeking an operating view across several parts of the software supply chain and the security evidence associated with them.

The specialist proposition is lifecycle context for software-security prioritization and remediation. Its role is assessed through documented platform functions, including the relationship between software components and development activity. The comparison does not equate a bill of materials with proof of secure software; the important connection is how the component information participates in an actionable security workflow.

Rapid7 InsightAppSec

• Provider / operator: Rapid7
• Headquarters: Boston, Massachusetts, United States
• Provider origins / establishment: 2000

InsightAppSec provides dynamic application-security testing for web applications within Rapid7’s security platform. Its documentation addresses modern application behavior and the assessment of applications using richer client-side frameworks. The product qualifies through ongoing application testing, with the evaluated evidence coming from the behavior of the accessible application rather than a static source analysis alone.

An application-security team can configure a scan, review the findings and connect remediation work with the application owner. Authentication and target configuration are part of making a dynamic assessment representative of the intended application path. The workflow can serve teams maintaining multiple web services and requiring a repeatable way to examine them during development or continuing operation.

The specialist distinction is a focused dynamic-testing offering with maintained technical documentation and an identifiable operating workflow. Its role complements other assessment methods that inspect source or dependencies. The comparison credits the documented DAST function and integration support, without presuming that external application testing can observe every internal code path or replace all other software-security analysis.

Seal Security

• Provider / operator: Seal Security
• Headquarters: Tel Aviv, Israel (business location)
• Provider origins / establishment: 2022

Seal Security addresses open-source vulnerability remediation by producing patches for dependency versions that an organization already uses. Its current material describes starting from an upstream fix, backporting it, building and testing the result, and reviewing the patch before delivery. The platform therefore supplies an active software-security intervention rather than only another list of dependency findings.

A development team can use a supported patched dependency while retaining the relevant version line, where the service provides that coverage. This is useful when a broad upgrade would require application changes unrelated to the security fix. The documented workflow connects the original vulnerability and upstream correction with a maintained patched artifact for the customer’s dependency environment.

The specialist recognition reflects a focused remediation capability within the software supply chain. It addresses a different task from code scanning or external application testing, while remaining within the series’ dependency-security scope. The assessment credits the documented patch process and supported ecosystems, without interpreting the approach as proof that every dependency version or compatibility scenario can be handled identically.

Socket

• Provider / operator: Socket
• Headquarters: San Francisco, California, United States
• Provider origins / establishment: 2020

Socket examines open-source dependency risk with attention to package content and potentially malicious behavior as well as known vulnerabilities. Its platform places software-supply-chain assessment near the point at which developers select and change dependencies. This gives it a distinct application-security role beyond simply matching a package version against a vulnerability identifier.

A team can review a dependency change through repository checks and examine the package characteristics identified by the platform. Package firewall capabilities extend the proposition toward controlling intake. The workflow is relevant when development teams need to consider whether newly introduced software behaves unexpectedly, including cases where the issue is not yet represented by a conventional vulnerability record.

The specialist distinction reflects a focus on dependency behavior and the software intake process. It complements analysis centered on custom code or running application interfaces. The editorial assessment credits the documented package-security functions and integration with development activity, while keeping provider claims about malicious-package detection separate from an independently measured rate across the entire open-source ecosystem.

StackHawk

• Provider / operator: StackHawk
• Headquarters: Denver, Colorado, United States
• Provider origins / establishment: 2019

StackHawk provides dynamic application-security testing organized around developer workflows. Its product addresses testing applications and APIs through an automated process that can participate in software delivery. The named platform qualifies through that maintained assessment technology, with the development setting central to how findings are generated and used.

A development team can connect dynamic assessment with the environment in which an application is built and tested. Configuration and authentication help define the application paths available to the scanner. Findings can then become engineering work associated with the relevant service, helping teams investigate application behavior before a release or as part of recurring development activity.

The specialist proposition is a developer-oriented route for making dynamic testing part of ordinary application work. This is particularly relevant when security testing needs to follow frequent software changes instead of remaining a separate periodic activity. The assessment credits the documented testing and integration model, while keeping runtime observations distinct from the evidence supplied by source-code or dependency analysis.

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Remarks

The weighted factors are editorial assessments of documented technology, integration and maintenance. They do not represent measured detection rates or a claim that all products were tested against a shared application corpus. Different analysis methods observe different evidence, and a larger number of reported findings does not establish a better security result. Private numeric scores support tier selection and are not printed in the profiles.

Actionability connects analysis with an engineering decision. A reproducible observation, a supported rule, a reachable dependency or a finding associated with an application change can each supply useful evidence. Their relevance depends on the product’s method and scope. The profiles therefore describe the technical function and workflow rather than treating every vendor’s automated triage or artificial-intelligence terminology as an independently validated outcome.

The tiers include broad suites and focused platforms because the original scope covers application testing and software-supply-chain technology. Their use cases remain distinct. A secure artifact service changes an input to development, a binary assessment examines a deliverable and a posture platform organizes evidence and ownership. Those differences are part of the comparison rather than reasons to invent a universal scanner benchmark.

Current company identity and product continuity are preserved throughout. Black Duck’s independent corporate formation is distinguished from its predecessor technologies, and absorbed brands are not counted again as independent competitors. Fact boxes identify the provider or business whose history is being described. Recognition follows the documented technical assessment, with licensing and other commercial arrangements separate from inclusion, scoring and ties.

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Recognition

Inclusion in the Top 30 Application Security & DevSecOps Platforms 2027 ranking is an editorial determination of The Economy Rankings and does not require licensing, advertising, sponsorship, or other commercial participation.

Ranked organizations may factually refer to their inclusion in the ranking in their own communications. When describing the result, entities should accurately reflect the tier structure and methodology used in the published ranking.

How the ranking should be interpreted

• Tier I represents the Top 5 entities, and the published order within Tier I reflects the ranking order.
• Tier II represents entities ranked within the Top 15, following Tier I. Entities within Tier II are displayed alphabetically; their displayed order should therefore not be interpreted as an individual numerical ranking.
• Tier III represents entities ranked within the Top 30, following Tiers I and II. Entities within Tier III are also displayed alphabetically, and their displayed order should not be interpreted as an individual numerical ranking.
• An entity's tier, rather than its alphabetical position within Tier II or Tier III, should therefore be used when describing its standing.

Referencing the ranking

Depending on the entity's published tier, appropriate factual descriptions may include:

• Tier I: “Ranked Tier I” or “Ranked among the Top 5”
• Tier II: “Ranked Tier II” or “Ranked among the Top 15”
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Entities should not describe an alphabetical position within Tier II or Tier III as a specific numerical rank.

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  The Economy Rankings License Structure | The Economy Rankings
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  The Economy Rankings License Policy | The Economy Rankings
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  Recognition Use Guide | The Economy Rankings

Purchasing or holding a recognition-materials licence does not confer inclusion or a higher tier.

Recognized organizations may reference the designation in:

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