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API security

API security platforms help teams discover, assess, and protect APIs across development and production. As organisations move to microservices, mobile backends, and partner integrations, APIs become the primary interface to data and business logic — and a common path for account takeover, data exposure, and abuse. The challenge is that APIs change quickly, are often owned by many teams, and are not always fully documented or consistently governed. <div></div> <div></div> <div></div> Standalone controls like WAFs and gateways can help, but they don’t usually provide a connected view of API risk. A WAF is tuned for generic web threats. An API gateway enforces authentication, routing, and rate limits, but it may not tell you which endpoints are undocumented, where sensitive fields are leaking, or which patterns look like enumeration and business logic abuse. API security sits above these point controls by adding API discovery, schema awareness, runtime analysis, and risk context. <div></div> <div></div> <div></div> Modern API security platforms often combine passive discovery (from traffic, logs, or gateways) with active assessment of API definitions and behaviours. The goal is to help security and engineering teams answer practical questions: what APIs exist, which ones are exposed, who owns them, what data they return, how they are actually used, and where broken authorisation or abusive usage creates real risk — not just isolated alerts. <h2>7 Common Requirements in This Category</h2> Technical buyers typically look for: <h3>1. API Discovery and Inventory</h3> Automatic discovery of APIs across environments — including public, private, and internal services — and identification of shadow, zombie, and deprecated APIs. Clear ownership mapping (service, repo, team), exposure level, and traffic activity so teams can prioritise what matters. <h3>2. Spec and Schema Awareness</h3> Support for OpenAPI/Swagger and other API definitions, with the ability to detect drift between documented schemas and observed behaviour. Coverage for modern API styles (e.g. REST, GraphQL, and gRPC where relevant), including undocumented endpoints, methods, and parameters that expand the attack surface. <h3>3. Runtime Visibility and Behavioural Detection</h3> Analysis of API traffic to detect abuse patterns like enumeration, credential stuffing, token replay/misuse, injection attempts, and high-risk sequences that indicate business logic abuse. Baselining that helps reduce noise, with enough evidence (requests, parameters, identities, timing) to support investigation. <h3>4. AuthN/AuthZ and Identity Context</h3> Visibility into how APIs are accessed (API keys, OAuth, JWTs, service identities) and where authorisation breaks down. Detection of issues such as broken object level authorisation, overly broad scopes/roles, risky trust relationships, and inconsistent enforcement across services and environments. <h3>5. Data Exposure and Sensitive Field Awareness</h3> Identification of sensitive data in requests and responses (PII, financial data, secrets), and detection of excessive data exposure or over-broad responses. Policy controls that align with privacy and compliance requirements, plus developer-friendly guidance on what to change. <h3>6. Testing and Shift-Left Coverage</h3> Where supported, integration into design/build workflows: spec linting, conformance checks, security testing of APIs, and CI/CD hooks to catch risky patterns before deployment. Practical feedback loops for engineering teams (clear diffs, owners, and recommended fixes), not just security findings. <h3>7. Operational Fit, Enforcement, and Reporting</h3> Deployment options that fit reality: out-of-band monitoring (mirrored traffic/logs), integration with existing gateways, or inline enforcement where appropriate. Integrations with SIEM/SOAR/ticketing, role-aware dashboards for security and engineering, and reporting that supports audits and executive updates (exposure trends, top abused APIs, MTTR by team). <div></div> <strong>With Cybermatch, API security platforms are compared against these criteria so teams can quickly see which vendors match their API footprint, architecture (gateway/service mesh/cloud), delivery practices, and risk priorities before investing in a PoC.</strong>

Automated Penetration Testing

<span style="font-weight: 400">Automated penetration testing platforms continuously emulate real-world attackers against your assets, so you’re not limited to waiting for an annual red team or manual penetration test to understand your exposure. Instead of static vuln scan results, these tools chain misconfigurations, exploits, and attack paths to show how an attacker could move through your environment – and what to fix first.</span> <span style="font-weight: 400">Where traditional vulnerability scanners focus on breadth of detection, automated pen testing aims to validate exploitability and business impact. The best tools combine attack simulation, safe exploitation, and clear remediation guidance, integrated into your existing pipelines and workflows.</span> <h2>Automated pen testing vs Breach and Attack Simulation (BAS)</h2> <span style="font-weight: 400">BAS tools are primarily designed to validate whether specific controls are working as expected. For example, whether EDR and SIEM detections fired.</span> <span style="font-weight: 400">Automated penetration testing / Continuous Automated Red Teaming (CART) goes a step further and focuses on whether an attacker can still achieve their objective (initial access, lateral movement, data exfiltration, domain dominance) even when some controls do fire. Modern platforms increasingly blend both approaches: BAS-style control validation inside end-to-end, goal-driven attack campaigns.</span> <h2>7 Common requirements in this category</h2> <span style="font-weight: 400">Technical buyers typically look for:</span> <h3>1. Coverage & scope</h3> <span style="font-weight: 400">External perimeter, web apps, APIs, cloud accounts, internal networks, and identity infrastructure, with the ability to target specific assets, environments (prod vs non-prod), and critical apps.</span> <h3>2. Attack realism & safety</h3> <span style="font-weight: 400">Realistic TTPs, chaining of findings into end-to-end attack paths, and safety controls (rate limiting, “do no harm” safeguards, maintenance windows, blast radius control).</span> <h3>3. Automation & CI/CD integration</h3> <span style="font-weight: 400">Scheduled and event-driven tests (e.g. new deploy, new internet-exposed asset), plus integrations with CI/CD, ticketing, and messaging tools.</span> <h3>4. Prioritization & remediation guidance</h3> <span style="font-weight: 400">Clear explanation of attack paths (“from internet to domain admin via X, Y, Z”), exploit evidence, and ranked remediation steps mapped to owners and systems.</span> <h3>5. Authentication & identity awareness</h3> <span style="font-weight: 400">Testing of authenticated user flows, multi-tenant apps, and role/permission boundaries using SSO/OIDC, service accounts, or test identities.</span> <h3>6. Governance, auditability & reporting</h3> <span style="font-weight: 400">Executive-ready summaries, technical detail for engineers, and traceability over time (what was tested, when, and with what result), supporting regulatory and customer evidence.</span> <h3>7. Deployment & data handling</h3> <span style="font-weight: 400">SaaS, private cloud, or on-prem options, with clear data residency, log retention, and handling of sensitive payloads such as credentials or test data.</span> <strong>With Cybermatch, Automated Penetration Testing tools are compared against these kinds of criteria so security teams can quickly see which platforms fit their stack, risk model, and operating constraints, before committing to a PoC.</strong>

Cloud Identity Governance (CIG)

<span style="font-weight: 400">Cloud Identity Governance platforms provide security and identity teams with a unified, continuous view of who has access to what across cloud providers, SaaS applications, and identity stores, and whether that access is appropriate. Instead of spreadsheet-driven access reviews and one-off IAM audits, CIG tools continuously ingest entitlements, groups, and roles to surface toxic combinations, privilege creep, and access that no longer matches a user’s role.</span> <span style="font-weight: 400">Traditional IGA was built around on-prem directories and a small set of core apps. Cloud Identity Governance extends that model to multi-cloud and SaaS environments where access is spread across IAM roles, SaaS tenants, and ephemeral resources. Legacy IGA platforms remain strong at workflow (joiner/mover/leaver, approvals, attestations) but often struggle with cloud entitlements such as thousands of granular permissions, Kubernetes roles, and SaaS-specific privilege models. CIG platforms specialise in discovering and normalising these entitlements, analysing risk, and feeding decisions back into IGA or ITSM for approvals and lifecycle.</span> <h2>7 Common requirements in this category</h2> <span style="font-weight: 400">Technical buyers typically look for:</span> <h3>1. Coverage and integrations</h3> <span style="font-weight: 400">Connectors into major cloud providers, SaaS applications, identity providers, directories, HR systems, and ticketing tools.</span> <h3>2. Entitlement discovery and modelling</h3> <span style="font-weight: 400">Normalisation of IAM policies, groups, and roles into a consistent model; detection of excessive and unused permissions; visibility into machine identities and service accounts.</span> <h3>3. Access reviews and certifications</h3> <span style="font-weight: 400">Campaigns scoped by application, team, or manager, with bulk decisions, recommendations for approve or remove, and strong evidence trails.</span> <h3>4. Policy and segregation of duties (SoD) management</h3> <span style="font-weight: 400">Definition and detection of SoD conflicts, toxic role combinations, and policy violations across applications and clouds.</span><span style="font-weight: 400"> </span> <h3>5. Lifecycle and workflow automation</h3> <span style="font-weight: 400">Integration with HR and identity providers for joiner, mover, and leaver flows; automated provisioning, deprovisioning, and role changes via APIs or orchestration.</span> <h3>6. Risk scoring and prioritisation</h3> <span style="font-weight: 400">Contextual risk models that combine entitlement criticality, data sensitivity, usage, and identity risk to highlight what to fix first.</span> <h3>7. Auditability and reporting</h3> <span style="font-weight: 400">Clear reports for internal audit, regulators, and customers showing who approved which access, when, and on what basis.</span>   <strong>With Cybermatch, Cloud Identity Governance tools are compared against these criteria so security teams can see which platforms map cleanly to their identity stack, risk model, and compliance obligations before committing to a PoC.</strong>

CNAPP (Cloud Native Application Protection Platform)

<span style="font-weight: 400">Cloud-native application protection platforms bring together multiple cloud security capabilities in one place. They typically include CSPM, CWPP, CIEM, and sometimes DSPM. The goal is to provide security and platform teams with a connected view of risk across cloud accounts, workloads, and the software delivery lifecycle, rather than juggling separate tools for misconfigurations, vulnerabilities, and excessive entitlements.</span> <span style="font-weight: 400">Standalone CSPM focuses on configuration drift in cloud services. CWPP protects workloads at runtime. CNAPP sits above both. It correlates findings across build, deploy, and run so you can see how issues in IaC templates, container images, Kubernetes manifests, live workloads, identities, and data stores combine into practical attack paths rather than isolated alerts.</span> <span style="font-weight: 400">Modern CNAPP platforms also add “shift-left” controls by integrating with source control and CI systems. This lets teams fail builds or block deployments when critical policies are violated, and reserve runtime controls for catching what slips through. For leadership, that means a clearer story: which cloud risks matter most, where they sit in the lifecycle, and who owns the fix.</span> <h2>7 Common Requirements in This Category</h2> <span style="font-weight: 400">Technical buyers typically look for:</span> <h3>1. Cloud and Workload Coverage</h3> <span style="font-weight: 400">Support for the major cloud providers, containers, Kubernetes, serverless, and managed services. A deployment model that fits how workloads actually run (agents, sidecars, eBPF, agentless, or a mix) and can be operated by platform and SRE teams without excessive friction.</span> <h3>2. Build-Time and Pipeline Integration</h3> <span style="font-weight: 400">Scanning of IaC templates, container images, and deployment manifests. Integration with SCM and CI/CD systems. Policy-as-code so cloud and security policies can be versioned, tested, and reviewed like application code, with clear ownership for engineering teams.</span> <h3>3. Posture and Vulnerability Management</h3> <span style="font-weight: 400">Detection of cloud misconfigurations, exposed services, and unpatched packages or images. Normalisation and deduplication of findings across accounts, clusters, and regions, allowing security and platform teams to work from a single, prioritised view.</span> <h3>4. Identity and Entitlement Awareness (CIEM)</h3> <span style="font-weight: 400">Visibility into cloud identities, roles, and permissions. Detection of over-privileged principals, unused access, and risky trust relationships between services and accounts, with enough context for both security engineers and cloud owners to make changes confidently.</span> <h3>5. Risk Correlation and Attack Path Analysis</h3> <span style="font-weight: 400">Grouping of findings into risk scenarios. For example, an internet-exposed workload, a vulnerable image, a privilege escalation path, and access to sensitive data. Clear explanation of impact and likely entry points so leadership can understand the risk and teams can agree on priorities.</span> <h3>6. Runtime Visibility and Protection</h3> <span style="font-weight: 400">Telemetry from workloads and orchestration layers. Anomaly detection for processes and network flows. Optional enforcement controls that align with existing incident response and change management processes, so operations teams are not surprised by blocking actions.</span> <h3>7. Operational Fit and Reporting</h3> <span style="font-weight: 400">Integrations with ticketing, messaging, SIEM, and SOAR. Role-aware dashboards for security, platform, and application teams. Reporting that can be reused for audits, customer assessments, and executive updates, showing how cloud risk is trending over time.</span>   <strong>With Cybermatch, CNAPP platforms are compared against these criteria so teams can quickly see which vendors align with their cloud footprint, delivery practices, and risk priorities before investing in a PoC.</strong>

External Attack Surface Management (EASM)

<span style="font-weight: 400">External Attack Surface Management platforms continuously map and monitor your organisation’s internet-facing footprint from an attacker’s point of view. Instead of relying on internal CMDBs and manually maintained asset lists, EASM tools discover domains, subdomains, IP ranges, services, certificates, and common SaaS usage to reveal unknown or unmanaged assets—common initial breach points.</span> <span style="font-weight: 400">Traditional vulnerability scanning assumes you already know what to scan and where it lives. EASM starts earlier. It focuses on discovery and attribution: finding assets that appear to belong to your organisation and tying them back to owners, environments, and business units. Modern platforms then layer exposure analysis, risk scoring, and alerting on top so security teams can drive remediation by the teams that actually control those assets.</span> <span style="font-weight: 400">For leadership, EASM provides a way to talk about external risk in concrete terms: how many internet-facing assets you have, which ones are most exposed, and how that picture is changing over time.</span> <h2>7 Common Requirements in This Category</h2> <span style="font-weight: 400">Technical buyers typically look for:</span> <h3>1. Discovery and Coverage</h3> <span style="font-weight: 400">Automated discovery of domains, subdomains, IPs, certificates, cloud-hosted assets, exposed services, and common SaaS footprints. Support for multiple discovery methods (DNS, WHOIS, certificates, banners, ASNs, web crawling) to reduce blind spots.</span> <h3>2. Attribution and Ownership</h3> <span style="font-weight: 400">Heuristics and workflows to associate discovered assets with legal entities, business units, environments (production vs non-production), and responsible teams. Mechanisms to flag third-party or ambiguous assets without losing visibility.</span> <h3>3. Exposure and Misconfiguration Analysis</h3> <span style="font-weight: 400">Identification of open ports and services, weak or default configurations, exposed admin interfaces, test environments, outdated software, and insecure protocols. Optional integration with vulnerability data where scanners already exist. Some platforms also enrich findings with internet-wide scan data and external intelligence to validate exposures and identify patterns that attackers are likely to target.</span> <h3><b>4. Risk Scoring and Prioritisation</b></h3> <span style="font-weight: 400">Contextual scoring that considers asset criticality, exposure level, exploitability, and presence in threat intelligence or breach datasets. A prioritised backlog that security and asset owners can work through without wading through low-value noise.</span> <h3>5. Change Detection and Monitoring</h3> <span style="font-weight: 400">Continuous tracking of new and changed assets, services, and certificates, with alerting tuned to meaningful changes rather than every minor variation. Support for baselining the attack surface and measuring reduction over time.</span> <h3>6. Workflow and Integration</h3> <span style="font-weight: 400">Integration with ticketing, messaging, SIEM, and vulnerability management platforms so discovered issues flow into existing processes. Clear status tracking from discovery through to remediation, including ownership and due dates.</span> <h3>7. Reporting and Stakeholder Views</h3> <span style="font-weight: 400">Dashboards tailored for security operations, asset owners, and leadership. Trends that show how the external attack surface is evolving and which categories of exposure are being addressed.</span>   <strong>With Cybermatch, External Attack Surface Management products are compared using these criteria, allowing security teams to identify which platforms will effectively integrate into their asset management and remediation workflows, rather than merely producing another list of internet-facing hosts.</strong>

Secure Access Service Edge (SASE)

<span style="font-weight: 400">Secure Access Service Edge platforms unify network connectivity and security controls in a cloud-delivered edge service. Instead of backhauling traffic to a central data centre, SASE routes user and site traffic through distributed points of presence (PoPs) that act as policy enforcement points. Those PoPs provide secure web gateway (SWG), cloud access security broker (CASB), zero-trust network access (ZTNA), firewall-as-a-service (FWaaS), and often DNS protection or data loss prevention (DLP).</span> <span style="font-weight: 400">Traditional architectures rely on VPNs and hub-and-spoke networks that assume users are on the corporate network and applications live in a few data centres. SASE is designed for distributed users and SaaS. Access is applied per application, based on identity, device posture, and context, and enforced as close to the user or branch as possible, rather than within the private network.</span> <span style="font-weight: 400">For leadership, SASE offers a way to simplify the edge: fewer appliances to manage, a single policy plane across web, SaaS, and private apps, and clearer visibility into who is accessing what from where.</span> <h2>7 Common Requirements in This Category</h2> <span style="font-weight: 400">Technical buyers typically look for:</span> <h3><b>1. Service Coverage and Consolidation</b></h3> <span style="font-weight: 400">A cohesive set of services across SWG, CASB, ZTNA, FWaaS, and SD-WAN, with a clear roadmap for add-ons such as DNS security and DLP. A single policy model rather than loosely coupled point products.</span> <h3>2. Global PoP Footprint and Performance</h3> <span style="font-weight: 400">Points of presence close to major user locations, good peering with SaaS and cloud providers, and predictable latency. Options for client agents, branch connectors, and traffic steering that work for both users and sites.</span> <h3>3. Identity, Device, and Context Integration</h3> <span style="font-weight: 400">Tight integration with identity providers, endpoint security, and device management. Support for posture checks, step-up authentication, and context-aware policies based on user, group, device, location, and risk.</span> <h3>4. Policy Model and Application Access</h3> <span style="font-weight: 400">Fine-grained, application-level policies for private and SaaS apps. Micro-segmentation and least-privilege access, with the ability to replace broad network-level VPN access using ZTNA-based models.</span> <h3>5. Visibility, Logging, and Analytics</h3> <span style="font-weight: 400">Unified logs across all SASE services and real-time visibility into users, applications, and traffic. Export into SIEM or data platforms, plus analytics that help security and networking teams understand usage, risk, and performance.</span> <h3>6. Migration and Coexistence</h3> <span style="font-weight: 400">Support for phased rollout alongside existing VPN and MPLS. Flexible tunnelling options, traffic steering rules and patterns for migrating users, branches and applications without a big-bang cutover.</span> <h3>7. Resilience, Compliance, and Operations</h3> <span style="font-weight: 400">High availability by design, clear SLAs, and documented failure behaviours. Data residency controls, relevant compliance attestations, and role-based administration so operations teams can manage day-to-day changes safely.</span>   <strong>With Cybermatch, Secure Access Service Edge vendors are evaluated against these criteria, enabling security and networking teams to determine which platforms best align with their topology, identity stack, and consolidation goals before committing to a rollout.</strong>

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