Reachability-first application security

Application security that prioritizes reachable risk.

Find risk in code, correlate it with cloud, runtime and AI context, and fix only what an attacker can actually reach. One platform in place of five point tools — deployed in days, not quarters.

1 repository free · 5 scans a month Read-only onboarding SOC 2 · ISO 27001 · GDPR aligned
payments-api · mainReachability
CVSS 9.8
CVE-2025-41722 · lib/serializer
Invoked on the public checkout path · internet-facing task · role can read the payments bucket
Reachable
CVSS 9.1
CVE-2025-38104 · image-proc
Transitive dependency, function never called · component not present at runtime
Not reachable
SECRET
aws_access_key · infra/deploy.tf
Live credential · unlocks 3 production roles · rotation PR drafted
Reachable
CVSS 7.5
S3 bucket public-read · reports-eu
Segmented VPC, no external route · no sensitive objects classified
Not reachable
12,431findings30 reachableranked, owned, fixable this sprint
Works with what you already run
GitHubGitLabBitbucketAzure DevOpsJenkinsAWSKubernetesTerraformJiraSlackServiceNowOktaDatadogSplunk
3x
faster triage through reachability context
70%
fewer false starts for engineering teams
40%
faster mean time to remediation
5+
point tools consolidated into one platform
The problem

Security teams are drowning in findings, not fixing risk

Every new scanner adds volume. None of them add context. The result is a backlog nobody can defend to the board.

Alert volume without exploitability

A mid-size estate generates 10,000+ findings a quarter. Severity scores ignore whether the vulnerable path is ever executed, exposed or privileged.

Five tools, five consoles, no shared truth

SAST, SCA, secrets, IaC and CSPM each own a slice. Nothing joins a leaked key to the identity it unlocks, or a CVE to an internet-facing workload.

Remediation measured in quarters

Findings become tickets, tickets become backlog. Mean time to remediate stretches while the exploited window stays open.

Developers disengage

Security arrives after the merge, in a tool developers do not use, with a list they cannot triage. Adoption stalls and coverage gaps grow.

5+
point tools to license, run and reconcile
<5%
of findings are genuinely reachable and exposed
Weeks
of analyst time spent triaging noise each quarter
Zero
audit-ready evidence without manual assembly
The shift

Severity says what is broken. Reachability says what is dangerous.

Securefase changes the unit of work from ‘findings closed’ to ‘attack paths removed’.

Severity-first · the old model

  • Ranks by CVSS in isolation
  • Treats every repository as equally exposed
  • Cannot tell a dead code path from a production entry point
  • Ignores identity, privilege and network reachability
  • Produces a backlog that grows faster than it is closed
Outcome: effort spread thin, real exposure survives

Reachability-first · Securefase

  • Scores each finding against real-world reachability
  • Joins code findings to cloud exposure and live workloads
  • Weighs identity, entitlement and blast radius
  • Surfaces a ranked shortlist, with owner and fix attached
  • Blocks the reachable class at the merge gate
Outcome: a small, defensible queue that actually shrinks

The question is no longer “how many criticals do we have?” — it is “which of them can an attacker actually reach today?”

The platform

Four security surfaces, one correlated risk model

Each pillar stands on its own — together they produce context no single scanner can see.

SAST · SCA · SECRETS · IAC

Code security

SAST across modern languages, software composition analysis with transitive dependency mapping, secrets detection before merge, and IaC scanning for Terraform, Kubernetes and containers.

CSPM · CIEM · EXPOSURE

Cloud posture

Continuous inventory of accounts, resources and identities. Misconfiguration and entitlement drift ranked by what is genuinely reachable from the internet or a compromised role.

WORKLOAD · BEHAVIOUR · PATHS

Runtime defence

Anomaly detection on live workloads, connecting build-time findings to production behaviour so teams follow real attack paths instead of disconnected alert streams.

SHADOW AI · POSTURE · POLICY

AI security

Discovery of models, agents and shadow AI across the estate, with posture assessment, data-exposure checks and policy controls for the systems moving fastest into production.

The differentiator

From 12,000 findings to the 30 that matter

Reachability is computed from signals no single scanner owns. The funnel is a representative mid-size estate.

All findings, all scanners12,431
Component present at runtime4,180
Vulnerable path actually invoked912
Exposed to internet or privileged role214
Reachable, exploitable, owned30

A 99.75% reduction in what the team is asked to look at — and every remaining item carries an owner, an exposure path and a proposed fix.

SIGNALS THE ENGINE JOINS
  • 01
    Code path & call graph
    Is the vulnerable function ever invoked?
  • 02
    Network exposure
    Is the workload internet-facing or segmented?
  • 03
    Identity & entitlement
    What does a compromise actually unlock?
  • 04
    Runtime behaviour
    Is the affected component running in production?
  • 05
    Ownership & blast radius
    Who fixes it, and what breaks if it is exploited?
How it works

From first connection to prioritized risk in hours

No agents to roll out across the estate before value appears. Connect, scan, correlate — same-day remediation is realistic.

1

Connect

Link source control and cloud accounts. GitHub, GitLab, Bitbucket, AWS, Azure DevOps — read-only to start.

2

Scan

Full engines run across code, dependencies, secrets, IaC, cloud configuration, runtime and AI assets.

3

Correlate

Signals are joined with exposure, identity and ownership context across the SDLC and production.

4

Prioritize

Findings are ranked by reachability, not volume — a shortlist a team can finish this sprint.

5

Remediate

Fixes land in existing workflows: pull requests, tickets, chat and policy gates.

Time to first prioritized risk: hours. Full coverage reported at two weeks by a healthcare technology customer.
See the full workflow
Adoption

Security that lands in the pull request, not in a ticket queue

Securefase is PR-native. Developers meet it where they already work, which is why coverage sticks.

Merge gates

Policy decides what cannot ship: a reachable critical, a leaked credential, a non-compliant IaC change. Enforcement is per-policy, so teams tighten gradually rather than blocking on day one.

AI remediation

The platform generates the fix as a pull request — dependency bump, config correction, secret rotation path — with the reasoning attached for review.

Ownership routing

Findings route to the team that owns the code or resource, into Jira, Slack, ServiceNow or PagerDuty. No central triage bottleneck.

Audit evidence

Every decision, exception and fix is captured against OWASP, CIS and SOC 2 controls — so the evidence pack assembles itself.

Outcomes

What changes in the first quarter

Results reported by early Securefase customers across SaaS, fintech and healthcare technology.

“
We finally have a single view of reachable risk across repos and cloud.
Head of Application SecurityGlobal SaaS company · 65% faster remediation
“
Developers fix issues in the PR instead of chasing tickets.
DevSecOps LeadFintech platform · 4 scanners consolidated
“
Onboarding was measured in days, not quarters.
CISOHealthcare technology · 2 weeks to full coverage
Enterprise readiness

Built for the controls your auditors already ask about

Security, governance and evidence are part of the platform, not a services add-on.

Governance

  • SSO and SCIM provisioning
  • Role-based access control
  • Immutable audit trails
  • Policy controls per team and repo

Data protection

  • Encrypted secrets handling
  • Least-privilege, read-only onboarding
  • Tenant isolation
  • Configurable data residency

Standards alignment

  • SOC 2 · ISO 27001 · GDPR
  • OWASP Top 10 coverage mapping
  • CIS benchmark checks
  • Evidence collection for audit

Start free. Scale when the value is proven.

One repository, five scans a month, full scan engines — so evaluation runs on real code, not a sandbox.