THE ACTIVE DEFENSE & REMEDIATION PLATFORM

Understand Every Change.
Break the Attack Path.
Restore the Safe State.

Remediation Labs combines application lifecycle context, AI agents, attack-path reasoning, active response, remediation, and verification into one platform.

Automate security and operations work while continuously identifying and disrupting agentic attacks, chained vulnerabilities, unknown attack paths, and active incidents across code, software delivery, cloud, and production.

Actors

Human Developer
AI Coding Agent
Security Engineer
DevOps
Platform Engineer
SRE

Application lifecycle

Code
Build
Artifact
Delivery
Cloud
Runtime

Signals entering the platform

SAST finding
SCA finding
DAST issue
Dependency change
Deployment
IAM change
Network exposure
Cloud config change
Runtime anomaly
AI-agent action

Remediation Labs intelligence & control layer

Observe
Contextualize
Diagnose
Assess Paths
Decide
Contain / Remediate
Verify
Context Engine
Every material change becomes a security decision.
Active across the full lifecycle
FROM SIGNALS TO DEFENSE

From Fragmented Signals to Active Defense

Modern security systems generate enormous amounts of evidence — individually, these signals may appear unrelated.

Fragmented evidence

Each tool sees a slice

  • ·SAST finds a vulnerability.
  • ·SCA finds a vulnerable dependency.
  • ·DAST finds an exploitable endpoint.
  • ·Cloud security finds an exposed resource.
  • ·IAM sees a new permission.
  • ·CI/CD records a deployment.
  • ·Runtime detects unusual behavior.
  • ·An AI agent makes another change.

Remediation Labs asks

One continuously updated application model

  • ?What changed?
  • ?What does it affect?
  • ?What is actually deployed?
  • ?What is reachable?
  • ?Which identities can exercise the capability?
  • ?Are multiple weaknesses forming an attack path?
  • ?Is an AI or human action appropriate?
  • ?Where should we intervene?
  • ?Did the response remove the dangerous capability?

Platform flow

Observe
Contextualize
Diagnose
Assess Attack Paths
Decide
Contain / Remediate
Verify
Update System State
THE FOUNDATION

Application Lifecycle Context Engine

Security decisions require application context.

Traditional security tools understand findings. Remediation Labs understands the application, its lifecycle, its state, and the changes occurring around it.

Code & Supply Chain

Source repositories
Commits & branches
AI-generated code
Dependencies
Builds
Packages
Containers
Artifacts
Registries
SBOM / X-BOM
SAST
SCA
Secrets

Delivery & Infrastructure

CI/CD
GitOps
Deployment systems
Infrastructure as Code
Kubernetes
Cloud resources
Configuration changes
Network changes
Approvals
Release history

Identity & Runtime

Users
Service accounts
AI agents
Roles
Permissions
Runtime behavior
Logs
Metrics
Audit events
Security detections
Application comms

Application Lifecycle Context Engine

Continuously updated contextual model

A continuously updated model — not a static asset inventory.

CONTEXT BEYOND INVENTORY

Understand Structure, Change, and Intent

01

Structural Context

Question

What exists and how is it connected?

Understand applications, code, artifacts, deployments, infrastructure, identities, permissions, dependencies, and network relationships.

Capabilities

  • ·Risk prioritization
  • ·Reachability analysis
  • ·Blast-radius analysis
  • ·Application mapping
  • ·Ownership resolution
02

Temporal Context

Question

What changed and what did the change enable?

Track changes over time across code, deployments, infrastructure, permissions, and runtime state.

Capabilities

  • ·Before / after comparison
  • ·Attack-path progression
  • ·Change attribution
  • ·Incident reconstruction
  • ·Emerging-risk detection
03

Intent & Policy Context

Question

Was the action appropriate for this actor and task?

An action can be technically authorized and still be dangerous. Understand human vs AI-agent actor, assigned task, expected behavior, application scope, policy, current system state, and resulting capability.

Capabilities

  • ·Agent governance
  • ·Trusted-action analysis
  • ·Policy-aware response
  • ·Controlled autonomy
MISSION 1

Automate the Work Humans Cannot Scale

Use application context and specialized AI agents to automate high-volume security, compliance, delivery, and operations work.

Capability 01

Assess & Prioritize

  • Correlate SAST + SCA + DAST + Cloud + Identity + Deployment + Runtime
  • Reachability
  • Exploitability
  • Production presence
  • Application criticality
  • Effective permissions
  • Blast radius
Thousands of findingsContextualized application risk

Capability 02

Correlate & Consolidate

Cross-tool correlation across the lifecycle. The platform consolidates fragmented evidence into a single, actionable risk.

Example

SAST

Vulnerable code

DAST

Exploitable endpoint

SCA

Vulnerable dependency

Deployment

Running in production

Runtime

Externally reachable

One contextualized, exploitable application risk with a defined remediation path.

Capability 03

Compliance & Supply Chain Automation

Automate

  • SBOM / X-BOM generation
  • Dependency inventory
  • Artifact provenance
  • Deployment evidence
  • Policy assessment
  • Compliance evidence collection
  • Control mapping
  • Audit packages
Fragmented evidenceApplication-level compliance context

Capability 04

Active Diagnostics

Determine

  • Root cause
  • What changed
  • Application impact
  • Blast radius
  • Ownership
  • Intervention point
  • Recommended resolution

Use cases

  • Security findings
  • Failed deployments
  • Kubernetes issues
  • Cloud misconfiguration
  • Runtime incidents
  • Delivery problems
  • Agent-induced failures
AlertRoot cause → Resolution plan

Capability 05

Remediate & Verify

Generate or coordinate

Source-code fixDependency updateIaC changeCI/CD actionGitOps changeKubernetes actionCloud correctionIAM correctionRuntime controlCompensating controlRollback

Then verify

  • Fix was deployed
  • Vulnerable occurrence disappeared
  • Dangerous capability was removed
  • Attack path was broken
  • Application health remains intact
  • Policy remains satisfied
Diagnosis → Action → Deployed stateVerified resolution
MISSION 2

Actively Defend Against Agentic and Chained Attacks

The attack may not exist until the attacker starts creating it.

Traditional security looks for known vulnerabilities or known attack signatures.

Modern attackers — and increasingly autonomous agents — can construct attacks dynamically by combining:

Vulnerabilities
Identities
Permissions
Network exposure
Configuration
Credentials
Deployments
Runtime behavior

No individual step needs to appear critical.

The danger emerges from the chain.

The most dangerous attack may not be a single CVE.
It may be the chain.

ATTACK-PATH REASONING

Understand What an Attacker Can Do Next

Example attack path

Code Vulnerability
Deployed Artifact
Exposed Service
Identity Capability
Cloud Permission
Credential
Production Resource

Platform assesses

  • ·Feasibility
  • ·Reachability
  • ·Required privileges
  • ·Network exposure
  • ·Effective permissions
  • ·Application importance
  • ·Existing controls
  • ·Current system state
  • ·Observed progression

Why this matters

Traditional tools score individual nodes.

Remediation Labs assesses the capability created by the path.

CHAINED ATTACKS

Stop Looking at Vulnerabilities in Isolation

Each in isolation

CVEMedium severity
MisconfigurationAcceptable in isolation
PermissionValid grant
Network PathIntentional
Runtime AccessNormal behavior
But together

Critical Attack Path

Individually acceptable. Collectively dangerous.

Core principle

Risk lives in the path,not only in the node.

AI-AGENT DEFENSE

Defend Against Actions That Look Legitimate

AI agents increasingly interact with:

Source repositories
Development environments
CI/CD systems
Cloud APIs
Kubernetes
Infrastructure
Production systems

An agent may be authorized to perform each individual action.

But the sequence of actions may create dangerous system state.

The platform asks

Who or what is acting?
What task is being performed?
Is this action expected for that task?
What does the action change?
What new capability does the change create?
Does it advance a dangerous attack path?

The critical distinction

Not enough

Permitted Action

Technically authorized

What we require

Appropriate Action

Right for the actor, task, and state

PROGRESSION STATE

Track Risk as It Becomes an Attack

Potential
Feasible
Progressing
Active
Contained
Verified

Potential

A theoretical path exists.

Feasible

Current system state makes the path possible.

Progressing

Observed activity is moving through the path.

Active

The path is being exercised.

Contained

A defensive action interrupts the path.

Verified

The dangerous capability has been removed.

EVENT-DRIVEN DEFENSE

Detect the Events That Change the Attack

Instead of treating every event equally, Remediation Labs identifies material changes that can alter important attack paths. These become watchpoints.

Example events

New deployment
New vulnerability
Permission grant
Role assumption
Identity creation
Network exposure
Configuration change
Dependency update
AI-agent action
Runtime anomaly

When a watchpoint triggers

Event
Update Context
Reassess Affected Paths
Update Risk
Respond if Required

Every material change becomes a security decision.

FROM DETECTION TO INTERVENTION

Select the Right Response for the Risk

Observe

Continue monitoring when confidence or risk is low.

Recommend

Present the safest remediation or containment option.

Request Approval

Escalate higher-impact actions to a human.

Constrain

Reduce privileges or agent capabilities.

Contain

Interrupt an active path.

Remediate

Remove the underlying vulnerability or condition.

Roll Back

Reverse an unsafe deployment or change.

Response authority is based on:

RiskConfidenceUrgencyReversibilityApplication criticalityPolicyHuman approval requirements
INCIDENT RESPONSE

Diagnose, Contain, Remediate, and Verify in One Loop

Traditional incident response requires humans to manually assemble evidence across many tools. Remediation Labs reconstructs it automatically.

Reconstructs

What happened
What changed
Who or what acted
Which application was affected
Which attack path was used
What capabilities were gained
What remains exposed

Then coordinate

Detect
Diagnose
Contain
Remediate
Verify

The goal is not simply closing an incident.

The goal is restoring a known safe state.

CONTINUOUS ACTIVE DEFENSE

Continuously Maintain the Safe State

Context Engine · Center of Loop
01

Observe

Inputs

  • ·Security signals
  • ·Deployments
  • ·Configuration changes
  • ·Identity events
  • ·AI-agent actions
  • ·Runtime activity
02

Update Context

Reconstruct

  • ·The current application state.
03

Reassess Attack Paths

Identify

  • ·Newly enabled or progressing dangerous paths.
04

Decide

Determine response using

  • ·Risk
  • ·Confidence
  • ·Policy
  • ·Reversibility
  • ·Criticality
05

Act

Response

  • ·Recommend
  • ·Approve
  • ·Constrain
  • ·Contain
  • ·Remediate
  • ·Roll back
06

Verify

Confirm

  • ·The dangerous capability disappeared.
07

Update Context

The verified outcome

  • ·Becomes the new system state.

Continuous

Observe
Understand
Defend
Verify
repeats
LIFECYCLE COVERAGE

Active Defense & Remediation
Across the Application Lifecycle

01

Code & Agent Defense

Protect human-written and AI-generated code and the agents creating it.

Capabilities

Code securityDependency analysisSecretsAI-generated code analysisAgent activity contextRepository protectionPull-request remediation
02

Code-to-Cloud Defense

Protect the systems that build and deploy software.

Capabilities

Supply-chain securitySBOM / X-BOMBuild provenanceCI/CD securityGitOpsInfrastructure as CodeDeployment protectionHuman and agent change analysis
03

Runtime Defense

Protect the deployed application and its operating environment.

Capabilities

KubernetesCloudIdentityRuntime evidenceReachabilityAttack pathsWatchpointsContainment
04

Active Diagnostics & Remediation

Understand and resolve security and operational failures.

Capabilities

Root-cause analysisBlast radiusIncident diagnosisDeployment diagnosisKubernetes diagnosisRemediation planningCorrective actionsOutcome verification
HUMANS + AI AGENTS

Humans Control Policy.
Agents Accelerate Response.

Not every response should be autonomous. Remediation Labs supports progressive levels of response authority.

Human authority
Agent authority
Level 1
Observe
Level 2
Recommend
Level 3
Generate Fix
Level 4
Request Approval
Level 5
Execute
Level 6
Contain Automatically
Level 7
Verify

Authority depends on:

RiskConfidenceApplication criticalityAction reversibilityEnterprise policy

Autonomous where safe.
Human-governed where necessary.
Verified always.

ARCHITECTURE

One Context-to-Action System

LAYER 1

Actors

Humans
AI Agents
Security Teams
DevOps
Platform
SRE

LAYER 2

Application Lifecycle

Code
Build
Artifact
Delivery
Cloud
Runtime

LAYER 3

Active Defense & Automation

Assess
Diagnose
Attack Paths
Respond
Remediate
Verify

LAYER 4

Intelligence

Context Engine
Policy
Temporal State
Intent
Risk
Agent Reasoning

LAYER 5

Data & Control Systems

SCM
Security Tools
CI/CD
Registries
Kubernetes
Cloud
IAM
Observability
Runtime
Context Engine is the common foundation across every layer.
WHY REMEDIATION LABS

Context Is What Turns AI Into Reliable Defense

Application-Level Understanding

Reason about applications and deployed occurrences, not isolated assets.

Lifecycle Awareness

Understand how code became a running system.

Temporal State

Understand what changed and what capability the change created.

Chained Attack Reasoning

Evaluate risk across paths instead of isolated findings.

Intent-Aware Agent Governance

Determine whether an authorized action is appropriate.

Context-Aware Remediation

Select the correct intervention point.

Active Response

Contain and remediate dangerous progression.

Verification

Prove that the resulting state is safer.

ACTIVE DEFENSE & REMEDIATION

Don't Just Find the Risk.
Break the Path.

Automate security and operations work today.

Detect and disrupt agentic, chained, and emerging attacks as they develop.

Restore and verify the safe state of applications across code, cloud, and production.

Or email us at info@remediationlabs.com