Introducing RedStrike: Continuous, AI-Driven Offensive Security

RedStrike is an AI-driven platform that continuously finds, verifies, and prioritizes real vulnerabilities across your apps, network, and cloud.

The RedStrike Team· Company· Updated July 20, 202613 min read
ProductRedStrike

TL;DR

RedStrike is a continuous, AI-driven offensive security platform. It discovers your attack surface, orchestrates recon, web, and cloud tooling the way a human pentester would, actively verifies exploitability to cut false positives, and prioritizes findings by real-world exploitability using signals like CISA KEV and FIRST.org EPSS. It also runs Prowler-based cloud posture management across AWS, Azure, and GCP and produces audit-ready evidence for SOC 2, ISO 27001, and PCI DSS — all on an always-on subscription instead of a once-a-year engagement. Available today.

What is RedStrike?

RedStrike is a platform that runs offensive security continuously and only surfaces vulnerabilities it has verified and prioritized by real-world exploitability. Instead of a point-in-time penetration test delivered as a stale PDF, RedStrike behaves like an always-on testing program: it enumerates your external and cloud attack surface, orchestrates a multi-tool scan engine across recon, web, network, and cloud modules, corroborates findings across those tools, and confirms exploitability before anyone is paged. The output is a current, deduplicated, prioritized set of findings — not a growing backlog of unconfirmed scanner noise.

The problem RedStrike was built for is a structural one. Modern software ships continuously — many teams deploy multiple times a day — but the security assessment model most organizations rely on is still annual or semi-annual. Between those assessments, the attack surface changes constantly: new services go live, cloud resources spin up, dependencies update, and configurations drift. A test performed in January says very little about the system running in July. RedStrike closes that gap by testing on an ongoing basis and re-testing automatically after change.

Why do point-in-time pentests leave organizations exposed?

Point-in-time penetration tests leave organizations exposed because they measure a system's security once, while the system itself keeps changing every day. A traditional engagement produces a snapshot: it is accurate on the day it is run and increasingly stale from that moment forward. In the months between assessments, teams push new code, expose new endpoints, and reconfigure infrastructure — none of which the last test covered.

The scale of the underlying risk is not hypothetical. Verizon's 2024 Data Breach Investigations Report found that exploitation of vulnerabilities as the initial access step in breaches roughly tripled year over year — a 180% increase — driven heavily by attacks against unpatched, internet-facing systems (Verizon, 2024). When attackers can weaponize a newly disclosed flaw within days, an assessment cadence measured in quarters is structurally too slow.

The dangerous window is not the day of the test — it is every day after it. If your attack surface changes weekly but you test annually, you are making security decisions on data that is, on average, six months old.

Why do vulnerability scanners create more noise than signal?

Traditional scanners create noise because they report potential issues without confirming whether those issues are actually exploitable in your environment. A scanner that matches a version banner to a CVE database will flag every theoretical match, regardless of whether the affected code path is reachable, whether a compensating control blocks it, or whether the finding is a duplicate reported by three other tools. The result is volume without verification.

That volume has a measurable cost for defenders. In the 2025 SANS Detection and Response Survey, security teams named false positives as their single biggest detection challenge (SANS Institute, 2025). Alert fatigue is the predictable outcome: when most of what a tool produces turns out to be noise, analysts learn to discount all of it — and real findings get buried alongside the false ones. A finding that is technically present but practically ignored protects no one.

RedStrike's answer is to invert the default. Rather than reporting everything a tool could be worried about, it reports what it can confirm — using two mechanisms working together:

RedStrike deliberately reports fewer findings than a raw scanner would. That is the point. Every finding that reaches your team has survived verification and corroboration, so the ones you see are the ones worth acting on.

What is the RedStrike philosophy?

RedStrike is built on three principles: security testing should be continuous, findings should be verified, and remediation should be prioritized by real-world exploitability rather than theoretical severity. These are not marketing pillars — they are direct responses to the three failure modes above.

Continuous means the platform tests on an ongoing basis and re-tests after change, so coverage tracks the system as it actually is, not as it was at the last engagement. Verified means a finding must be confirmed before it is surfaced, which is what makes the output trustworthy enough to act on without triage. Prioritized by exploitability means RedStrike does not rank work by CVSS base score alone.

That last principle deserves emphasis, because severity and exploitability are different questions. CVSS estimates how bad a vulnerability could be in the abstract; it says nothing about whether attackers are actually using it. To answer that, RedStrike enriches findings with two authoritative real-world signals:

  • CISA KEV — the Known Exploited Vulnerabilities catalog, the U.S. government's authoritative list of CVEs confirmed to be exploited in the wild. A vulnerability in the KEV catalog is not a hypothetical; it is being used in real attacks now.
  • FIRST.org EPSS — the Exploit Prediction Scoring System, which assigns each vulnerability a data-driven probability that it will be exploited in the near term.

Combining these lets RedStrike distinguish a high-CVSS vulnerability that no one is exploiting from a medium-CVSS vulnerability that is actively under attack — and put the second one at the top of the list where it belongs.

QuestionWhat answers itWhat it tells you
How severe could it be?CVSS base scoreTheoretical worst case
Is it being exploited now?CISA KEV catalogConfirmed in-the-wild use
How likely is exploitation soon?FIRST.org EPSSData-driven probability
Is it real in my environment?RedStrike verificationConfirmed reachability

How does the old model compare to the RedStrike model?

The old model tests occasionally and reports theory; the RedStrike model tests continuously and reports verified, prioritized fact. The contrast is clearest side by side.

Annual pentestRaw scannersRedStrike
Cadence1–2× / yearContinuousContinuous
False positivesLowHighLow (verified + corroborated)
PrioritizationManual, report-basedCVSS onlyExploitability (KEV + EPSS)
Attack-path contextManualNoneAutomated orchestration
EvidenceOne PDFDashboardsOn-demand, current
Cloud postureAdd-onSeparate toolBuilt in (Prowler-based)

How does RedStrike work at a high level?

RedStrike works as an orchestration layer that drives many specialized security tools through a single pipeline, then verifies and prioritizes what they find. At a high level, the flow is five stages:

  1. Discover — enumerate internet-facing and cloud assets so testing reflects the real, current attack surface.
  2. Test — orchestrate a multi-tool scan engine across recon, web, network, and cloud modules, chaining tools the way a human pentester sequences their work.
  3. Verify — actively confirm exploitability and corroborate findings across tools before anything is promoted.
  4. Prioritize — rank confirmed findings by real-world exploitability, enriched with CISA KEV and FIRST.org EPSS, rather than raw CVSS.
  5. Re-test — re-run automatically after fixes and deploys, so remediation is validated and regressions are caught.

The orchestration model is what makes this practical. No single tool is best at everything, so RedStrike coordinates a suite of them — running the right module against the right asset, normalizing their outputs into a common finding model, deduplicating overlap, and letting agreement across tools raise confidence. It is the difference between owning a toolbox and having someone who knows how to use every tool in it.

RedStrike runs non-destructive checks by default and requires explicit scope and rules of engagement before any exploitation-class module executes. You stay in control of what is tested and how.

How does RedStrike manage cloud security posture?

RedStrike includes Prowler-based cloud security posture management (CSPM) that continuously checks AWS, Azure, and GCP configurations against security best practices and compliance benchmarks. This matters because misconfiguration — not exotic exploits — is one of the most common ways cloud environments are breached.

The pattern is well documented. NSA and CISA's joint advisory on the top ten most common cybersecurity misconfigurations, drawn from real red- and blue-team assessments, puts default configurations and improper access controls at the top of the list (CISA/NSA, 2023). These are not sophisticated attacks — they are exposed storage buckets, over-permissive IAM roles, and services left open to the internet. RedStrike's CSPM continuously surfaces this drift across all three major clouds and folds it into the same verified, prioritized finding stream as everything else, so cloud posture is not a separate silo bolted on the side.

Who is RedStrike for?

RedStrike is built for security and engineering teams that ship faster than a periodic pentest can keep up with — and that cannot afford to drown the gap in unverified scanner alerts. In practice that includes:

  • Security teams that need continuous coverage and trustworthy findings without expanding headcount to triage noise.
  • Engineering and DevOps teams that deploy frequently and want testing that keeps pace with their release cadence, with findings that land in Slack, Jira, and GitHub where they already work.
  • Compliance and GRC teams that need current, defensible evidence rather than a once-a-year report that is stale by the time the audit arrives.
  • Cloud teams managing multi-cloud estates where a single misconfiguration can expose sensitive data.

How does RedStrike map to compliance frameworks?

RedStrike produces audit-ready evidence aligned to SOC 2, ISO 27001, and PCI DSS, and — because it tests continuously — that evidence reflects your current state rather than a point in time. Several frameworks expect regular vulnerability assessment and remediation as an ongoing practice, not a single annual checkbox. Continuous testing maps naturally onto that expectation: instead of scrambling to produce a report before an audit, teams can show a running history of testing, verified findings, and remediation over time.

CapabilityWhat it does for compliance
Continuous penetration testingDemonstrates ongoing vulnerability assessment, not a once-a-year snapshot
Verified findings + remediation historyProvides defensible evidence of detection and response over time
Cloud posture managementDocuments configuration controls across AWS, Azure, and GCP
Exploitability-based prioritizationShows risk-based remediation aligned to real-world threat data
Audit-ready reportingGenerates evidence mapped to SOC 2, ISO 27001, and PCI DSS

Start with your internet-facing assets and connect one cloud account. That combination — external attack surface plus cloud posture — covers two of the most common breach entry points and gives you verified findings to act on quickly.

What is on the RedStrike roadmap?

Our direction is to deepen orchestration, broaden coverage, and tighten the loop between finding a problem and proving it is fixed — framed as the direction we are heading, not a set of dated promises. The areas we are investing in include richer attack-path chaining across the tool suite, expanded application and API testing coverage, deeper integrations into the workflows teams already use, and continued refinement of how verification and exploitability signals combine to prioritize work. As with any roadmap, priorities will evolve with what we learn from real use; we would rather ship grounded capability than pre-announce features on a calendar.

Key takeaways

  • Point-in-time pentests leave months of blind spots because software changes continuously while assessments happen once or twice a year.
  • Vulnerability exploitation as an initial breach step rose sharply — roughly tripling year over year in Verizon's 2024 DBIR — making slow testing cadences a real risk.
  • Raw scanners cause alert fatigue by reporting theoretical issues without confirming exploitability; false positives are security teams' top detection challenge.
  • RedStrike reports only verified findings, using active verification plus cross-tool corroboration to cut false positives before anyone is paged.
  • RedStrike prioritizes by real-world exploitability, enriching findings with CISA KEV (confirmed in-the-wild use) and FIRST.org EPSS (predicted exploitation), not CVSS alone.
  • Cloud misconfiguration is a leading breach cause, and RedStrike's Prowler-based CSPM continuously checks AWS, Azure, and GCP posture in the same finding stream.
  • Continuous testing produces current, audit-ready evidence for SOC 2, ISO 27001, and PCI DSS instead of a report that is stale on arrival.

Frequently asked questions

Does RedStrike replace manual red-teaming?

No. RedStrike removes the blind spots between deep manual engagements and handles the continuous, repeatable testing that humans should not have to redo after every deploy. Skilled human testers remain valuable for creative, high-context work; RedStrike ensures that everything they do not have time to re-check every day is still being tested.

Will RedStrike break production?

Non-destructive checks run by default, and exploitation-class modules require explicit scope and rules of engagement before they execute. You define what is in scope and how aggressively it can be tested, and RedStrike stays within those boundaries.

How is RedStrike different from a vulnerability scanner?

A scanner reports potential issues based on signatures and version matching. RedStrike orchestrates multiple tools, then actively verifies exploitability and corroborates findings across those tools before surfacing anything — and prioritizes what remains by real-world exploitability rather than CVSS alone. The result is far less noise and far more signal.

What clouds and frameworks does RedStrike support?

RedStrike provides Prowler-based cloud security posture management for AWS, Azure, and GCP, and produces audit-ready evidence aligned to SOC 2, ISO 27001, and PCI DSS.

How does RedStrike decide what to fix first?

It ranks confirmed findings by real-world exploitability, enriching them with the CISA KEV catalog (vulnerabilities confirmed to be exploited in the wild) and FIRST.org EPSS (a data-driven probability of near-term exploitation), rather than relying on theoretical CVSS severity alone.

How do I get started?

Connect your domains and cloud accounts, define scope and rules of engagement, and RedStrike begins discovery and testing immediately. Verified findings, prioritization, and integrations with Slack, Jira, and GitHub are available from day one.

Try continuous, verified testing

If your systems change faster than your last pentest can keep up with, the honest answer is that you do not currently know their security posture today — only what it was the last time someone checked. RedStrike is built to change that: continuous testing, verified findings, and prioritization grounded in what attackers are actually exploiting. Connect your first domain and one cloud account, define your scope, and see what verified, prioritized findings look like in your own environment.

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