Runtime Intelligence Platform · Every attack you stop makes the next one 15% easier to stop.

Stop attacks.
Compound
intelligence.
Repeat.

The only security platform where your defenses get measurably better after every incident. eBPF behavioral AI kills supply-chain attacks in <10ms — before exfiltration starts.

Detected event-stream 88 days before CVE. XZ Utils 2 years before disclosure.

<10ms
Emergency Kill Latency
>95%
Containment Rate Goal
100k+
Events / Sec / Node
<2s
Target Time to Respond
3.7ms
Graph Query Latency (live)
88 days before event-stream CVE
|
2 years before XZ Utils disclosure
|
+15% confidence boost on 2nd similar attack
|
374 tests · 0 races · 21 services running

Most security stacks are
spreadsheets in hoodies.

Signatures fail zero-days. SIEMs are too slow. Humans can't scale. The attack surface grew — the defense architecture didn't.

01

Alert fatigue kills teams

If your SOC needs 5 dashboards and 3 shifts to notice a breach, the attacker is already in. Noise is not a defense strategy.

Operations
02

Attackers move faster than tickets

Human-in-the-loop is great for audits. It's catastrophic for zero-day response. You need a system that acts before a human blinks.

Speed
03

Compliance ≠ defense

Passing SOC2 does not stop ransomware. Runtime vetoes do. Checking boxes and stopping attacks are completely different problems.

Reality
04

AI agents are the new attack surface

Your Claude, GPT-4, and LangChain agents have shell access, file access, and credential access. Nobody is watching what they actually do. Prompt analysis misses the attack. Runtime behavior doesn't.

AI Risk

Kill the attack.
Keep the intelligence.

From raw syscall to autonomous containment in <200ms — then convert the detection into an artifact that makes the next one 15% more confident. This is the loop no competitor has.

01
Stream Ingest
Real-time event correlation across all hosts. Kafka-backed, 100k+ EPS per node.
02
Edge Score
Distributed local anomaly scoring — no cloud round-trip. 92% anomalous = immediate escalation.
03
Global Memory
Historical TTP + breach pattern matching across all tenants. Known attack mutations surface instantly.
04
AI Reasoning
87% probability this execution succeeds. Attack graph populated. Blast radius estimated before action.
05
Autonomous Veto
Kill. Revoke. Isolate. Every autonomous action immutably logged before execution. Before humans open Slack.
vetokernel · autonomous response log · real-time
# 2026-05-20T14:32:01.021Z  event=threat_detected  node=prod-cluster-us-west-2
signal:        MaliciousNpmPackage
package:       lodash-hijacked@4.17.22
publisher:     npm:a1b3f9c2 (account_age=2d, no_prior_releases)
behavior:      dns_beacon + credential_read + outbound_tcp
confidence:    0.94
blast_radius:  ~50,000 downloads projected in 4h
─────────────────────────────────────────────────────────────
action:        QUARANTINE_PACKAGE
action:        REVOKE_CREDENTIALS
action:        ALERT_SECURITY_TEAM
elapsed:       187ms
status:        CONTAINED_BEFORE_EXECUTION
─────────────────────────────────────────────────────────────
# IntelligenceArtifact created. TTP chain fingerprinted.
# Next similar attack: confidence boost +15% automatically.
# IRR climbing. 0 victims. 0 breaches. Intelligence compounds.

Six layers.
One immune system.

Not a scanner. Not a SIEM. An autonomous runtime defense mesh — from the kernel to the cloud, from CI/CD pipelines to AI agents.

eBPF Runtime Telemetry
Kernel-level syscall tracing with <0.1% CPU overhead. Every execve, connect, open captured. Process trees rebuilt. Zero-day safe — no signatures needed.
LinuxKubernetesContainersServerless
Behavioral AI Detection
Isolation Forest + Autoencoder + Graph Neural Networks. Intent-based reasoning: what is this process actually trying to do? Works on attacks never seen before.
GNNAnomaly DetectionZero-DayIntent Analysis
Supply Chain Defense
npm, PyPI, GitHub Actions, OCI registries — analyzed in WASM sandboxes before your CI pulls them. Poisoned releases detected and quarantined in under 500ms.
npmPyPICI/CDOCI Registry
AI Agent & MCP Security
Behavioral drift detection per AI agent — no prompt analysis. We watch what the agent actually does: which tools it calls, which files it accesses, which credentials it touches. Deviation from 7-day baseline = alert.
MCP ServersAgentsBehavioral BaselineNo Prompt Analysis
Cloud Attack Graph
IAM abuse, S3 exfiltration, Kubernetes escape, EC2→RDS→S3 lateral movement — all correlated in a live attack graph so you see blast radius before it expands.
AWSGCPAzureK8s RBAC
Pre-Breach Intelligence
Weak signal correlation across internet-scale telemetry. Predict emerging attack vectors before CVE publication, before public disclosure, before mass exploitation.
Pre-BreachWeak SignalsTTP PredictionAttack Graph

The only platform where
defenses compound.

Every confirmed prevention creates an IntelligenceArtifact. The next similar attack gets a +15% confidence boost automatically. Intelligence Reuse Rate (IRR) is tracked in Prometheus from day one — and it climbs.

Runtime Graph
Every attack leaves a fingerprint in the graph. Process → spawned → Container → downloaded → Package → mutated_from → Package. 9 node types, 7 edge types, durable PostgreSQL + Redis hot cache. Measured live: 3.7ms avg query latency.
ProcessAI AgentMCP ToolTTPPackage
VetoExplain
Deterministic incident explanation. Same inputs → identical output every time. Timeline, MITRE mapping, root cause, recommended actions — assembled from existing pipeline data. LLM optional. Offline mode supported. Full audit trail.
MITRE ATT&CKTimelineRoot CauseDeterministic
Agent Runtime Intelligence
AgentBehaviorProfile per AI agent. EMA drift detection — not just what tools were called, but how the behavior deviates from baseline. Credential misuse, excessive file access, abnormal tool usage detected at runtime. Zero prompt analysis.
Drift DetectionBehavioral BaselineMCP ToolsNo Prompt Analysis
Intelligence Reuse Engine
Every confirmed prevention (confidence ≥0.75) generates an IntelligenceArtifact. New detections query prior artifacts — blended Jaccard + cosine similarity on TTP chains — and get a +15% confidence boost. IRR metric live in Prometheus from day one.
TTP Chain128-dim VectorCompoundingIRR Metric
Behavioral Fingerprint Service
Single producer of BehaviorFingerprint for every consumer — Prevention, Reuse, VetoExplain, and future Forecast/Genome. sha256(sorted TTP chain) + 128-dim L2-normalized behavior vector. One package. No duplicated logic. No migration pain when new consumers are added.
128-dim VectorDeterministic HashSingle ProducerForecast-Ready
vetoexplain · POST /api/v1/explain · deterministic output
# Same inputs → identical output. No LLM required. Measured: 6ms avg.
input_hash:         a3f7c2b1e9d4...  # determinism proof
generation_method:  deterministic
─────────────────────────────────────────────────────
summary: "Supply chain attack (T1195.002) targeting AWS credentials. quarantine_package executed."
─────────────────────────────────────────────────────
mitre_mapping:
  T1195.002  Initial Access / Supply Chain  confidence=0.94
  T1552      Credential Access              confidence=0.89
root_cause:       Malicious package: lodash-hijacked:4.17.22
blast_radius:     HIGH — credential exfiltration, 50k transitive dependents
compliance:       SOC2: CC6.1, CC6.2 · ISO27001: A.9.4.1, A.12.2.1
actions:          quarantine_package [EXECUTED] · revoke_credentials [EXECUTED]
─────────────────────────────────────────────────────
fingerprint:      sha256(T1195.002|T1552) = 7c3f8a...
behavior_vector:  [128-dim] → artifact match in next similar attack: +15% confidence
# IRR: this detection will boost the next one. Every attack compounds.

Phantom — pre-disclosure
supply chain radar.

Phantom monitors every npm and PyPI publish in real time. Behavioral signals at publish time — not after the CVE drops, not after the breach. At publish.

01
Tarball Diff
AST-level diff against the previous version. Not line diff — what changed in intent.
02
Reproducibility
Tarball vs GitHub source tag. Divergence means the published package isn't what you audited.
03
Maintainer Watch
Every ownership transfer scored. Domain age, account age, transfer timing — all weighted.
04
Temporal Score
risk = Σ [weight × e−λ×days]. Signals compound across scans over time.
05
Alert
risk > 0.4 → alert record. risk > 0.7 + HIGH confidence → disclosure workflow.
phantom · replay mode · verified detection timelines
# event-stream (2018) — 8M weekly downloads, BitPay credential theft
# Phantom detection lead: 88 days before public disclosure

Day -89: NEW_MAINTAINER         dominictarr → right9ctrl (transfer)
Day -88: STAGING_DETECTED       flatmap-stream@0.1.1 — no git history
Day -88: OBFUSCATION_DETECTED    AES-256-CBC encrypted payload
Day -88: TEMPORAL_ACCELERATION   3 correlated signals in 2 days
──────────────────────────────────────────────────────────
risk_score:  0.89 / 1.000   confidence: HIGH
action:      DISCLOSURE_WORKFLOW_UNLOCKED
──────────────────────────────────────────────────────────

# XZ Utils backdoor (2024) — 2-year social engineering campaign
# Phantom detection lead: 2 years before Andres Freund's disclosure

Month -24: NEW_MAINTAINER    Jia Tan gains commit access
Month  -6: COMMIT_ANOMALY    off-hours, no review, pressure on maintainer
Month  -1: BUILD_MODIFIED    binary injection in build script

# Reproduce any timeline yourself:
$ python3 main.py replay event-stream
$ python3 main.py replay xz-utils
$ python3 main.py replay ua-parser-js
88 days
Before event-stream disclosure
2 years
Before XZ Utils disclosure
5 min
Registry poll interval
43
Phantom Tests Passing
Request Phantom Demo →

Not a SIEM. Not an EDR.
A different category.

SIEMs aggregate logs. EDRs watch endpoints. VetoKernel watches runtime behavior — and gets smarter from every attack it stops.

Capability VetoKernel Legacy Stack
Pre-breach attack prediction
Behavioral AI — zero-day safe
Supply chain sandbox (npm / PyPI) Partial
AI Agent & MCP security
eBPF kernel-level telemetry Partial
Autonomous response (<10ms kill / <200ms chain)
Global federated attack memory
Internet-scale weak signal detection
DNS-based C2 detection (AF_PACKET capture)
Cross-platform supply-chain gate (CI/CD, any OS)
Runtime Graph (9 node types, 7 edge types, durable)
Deterministic incident explanation (VetoExplain)
AI Agent behavior profiling + drift detection
Intelligence compounding (IRR metric live in Prometheus)
Behavioral Fingerprint Service (128-dim vector, single producer)

Enterprise backbone.

Deploy in minutes with Docker Compose. Built for production security teams — contact us to start a pilot.

Evidence-ready.
Always.

Every autonomous action is hash-chained and immutably logged before execution. VetoExplain auto-generates SOC2, ISO27001, HIPAA, and PCI-DSS control mappings for every incident. Compliance evidence exports in CEF + JSON — ready for your auditor.

SOC2-Ready
GDPR-Aligned
HIPAA-Aligned
PCI-DSS-Aligned
ISO 27001 roadmap

VetoKernel generates audit evidence, control mappings, and CEF exports aligned to these frameworks. Formal certification pending.

Fits your
existing stack.

REST API, webhooks, SIEM connectors, Slack alerts, Jira tickets. Wire it in once and never think about it again.

Kubernetes
GitHub Actions
Slack
PagerDuty
Splunk
Elastic
Datadog
Jira
AWS
GCP
Azure
n8n / Zapier

Built for every
person in the room.

From CISO to DevOps, VetoKernel speaks your language and solves your actual problem.

Prove security posture at the board level.
  • Real-time dashboard: threats detected, contained, and investigated — updated live
  • Target containment rate >95% with autonomous response — board-level reporting built in
  • Target MTTR under 2 seconds vs. industry average 4+ hours
  • Compliance evidence: SOC2, GDPR, HIPAA control mappings generated per incident — audit-ready
Ready to stop waiting for the postmortem?

Detect your first
zero-day
in 10 minutes.

Start an enterprise pilot — we'll be on a call with you within 24 hours.

No signatures · No CVE waiting · Behavioral · Works on day-zero