Automated Moving Target Defense

EMBRACE
THE CHAOS

If they can't see it, they can't attack it. Phoenix continuously rotates your infrastructure so attackers never get a stable target.

CLUSTER_ENTROPY:84%
TARGETS_ROTATED:2,847%
DWELL_TIME:0ms
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Google Cloud logo
Red Hat logo
NVIDIA logo
Cisco logo
IBM logo
Deckhouse logo
IEEE logo
MathWorks logo
Skyscanner logo
Moving the Target

MEET PHOENIX

Chaos engineering meets cybersecurity. Phoenix continuously rotates your workloads — turning infrastructure into a moving target attackers can't pin down.

AgentlessKubernetes-native1-2% overheadSelf-healingOpen Source CoreView on GitHub
Live Telemetry
POD_ROTATION312
THREAT_SIGNALS47
MUTATION_CYCLE2.1s
CONTAINERS_HEALED89

Continuous Mutation

IPs and identities change before attackers finish scans. Every probe hits a different target.

Self-Healing Workloads

Automatic regeneration to known-good baselines. Specialized for NVIDIA NIMs.

Zero-Trust Runtime

Compromised credentials are worthless — the environment is already gone.

Zero Dwell Time

Eliminates lateral movement. Defeats persistence attacks entirely.

See the difference

What happens when
the maze fights back

Two Paths

One Platform. Two Missions.

Secure your container infrastructure and your AI inference pipelines from a single control plane.

KUBERNETES / INFRASTRUCTURE

Move the Target

Automated Moving Target Defense for Kubernetes clusters. Continuous pod rotation, dynamic network obfuscation, and self-healing workloads — no agents, no code changes.

  • Automated Pod Rotation
  • Dynamic Network Obfuscation
  • Falco-Integrated Response
  • Helm / Terraform / Operator

For DevSecOps, Platform Leads, SREs

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AI / ML WORKLOADS

Secure the Inference

Purpose-built defense for AI inference pipelines. Protect GPU resources, model endpoints, and training data from model theft, LLM jacking, and prompt injection.

  • GPU Pipeline Mutation
  • Context-Aware Defense
  • Inference Endpoint Ephemerality
  • NIM-Specific Optimization

For AI/ML Infrastructure, CTOs, ML Engineers

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How It Works

Five Steps to Moving Target Defense

From signal to defense. No agents, no code changes, no disruption to your pipeline.

01

Collects Signals

Monitors Kubernetes workloads and AI runtimes for risk indicators across your entire cluster.

02

Analyzes Context

Controller decides if workloads need rotation or adaptation based on telemetry and threat signals.

03

Rotates Workloads

Containers and AI runtimes refreshed continuously, invalidating attacker footholds.

04

Adapts Security

Container settings auto-adjust based on risk signals. Every rotation is a hardening opportunity.

05

Runs Seamlessly

No agents, no code changes, no disruption. 1-2% overhead. Zero downtime.

Threat Coverage

Seven Vectors. Zero Persistence.

Each attack vector neutralized by making the target disappear.

01

Model Theft / Tampering

Continuous workload rotation prevents container hijacking

02

Credential Harvesting

Container mutation and short-lived runtimes invalidate stolen creds

03

Training Data Poisoning

Rotating pipelines disrupt long-running poisoning campaigns

04

Prompt Injection & LLM Jacking

Runtime variability defeats memory manipulation attacks

05

Ransomware

Self-healing + zero trust = no static targets to encrypt

06

Model Inference Manipulation

Ephemeral endpoints + context-aware defense

07

Session Hijacking

Static endpoints don't exist long enough to hijack

The Real Cost

$10.5T

Annual global cybercrime cost. Average breach takes 277 days to detect. 68% involve human error or misconfiguration. Static defense is a liability.

2025–2026 “Static Defense” Failures

01
The Ingress NightmareKubernetes Infrastructure

CVE-2025-1097 / Ingress-NGINX Critical RCE

The Attack: A chain of unauthenticated Remote Code Execution vulnerabilities in the Ingress NGINX Controller. Attackers could bypass static network controls to gain full control of the cluster.

The AMTD Cure: Even if an attacker gains entry via an Ingress zero-day, Phoenix K8s invalidates their foothold. By the time they attempt lateral movement, the target pod and its network context have already mutated.

02

The Shai-Hulud 2.0 Worm

Supply Chain

NPM Supply Chain Campaign (Jan 2026)

The Attack: A massive malware campaign affecting 25,000+ repositories. The worm automatically harvested secrets and published malicious versions of any package it could access — moving across cloud environments at 1,000 new repos every 30 minutes.

The AMTD Cure: Static secrets and static CI/CD pipelines are the "fuel" for this worm. Phoenix Metadata Obfuscation makes secrets and tokens unreadable to unauthorized automated scripts, stopping the worm’s self-replication in its tracks.

03

CVE-2025-33245: RCE via Malicious Data Injection

The Attack: A critical vulnerability in the NVIDIA NeMo Framework allowing full code execution through insecure deserialization. This specifically threatened model weights and inference results.

The AMTD Cure: Phoenix AI ensures that the NeMo inference environment is ephemeral. If an attacker injects a malicious payload to steal model weights, the underlying pod is rotated before the data exfiltration can complete, severing the attacker’s connection.

04

CISA KEV Addition: CVE-2026-20127

The Attack: Active exploitation (detected Feb 2026) of an authentication bypass in Cisco Catalyst SD-WAN. Attackers gained administrative access to rewire entire networks and create persistent backdoors.

The AMTD Cure: This attack relies on the persistence of the management interface. AMTD logic applied to management clusters ensures that administrative sessions are constantly re-validated and the underlying infrastructure is never static enough for a long-term backdoor to take root.

Real incidents. Real CVEs. Static infrastructure made each one possible — Automated Moving Target Defense would have stopped them.

Case Studies

Phoenix in the Field

Real deployments. Real results. See how teams use Phoenix to eliminate their static attack surface.

FINTECH

Eliminating Dwell Time in Production Clusters

A financial services platform reduced their attack surface exposure from weeks to zero by deploying Phoenix's automated pod rotation.

0ms dwell time achieved
AI / ML

Securing Inference Pipelines at Scale

An AI company running NVIDIA NIMs deployed Phoenix to protect GPU-intensive inference endpoints from model theft and LLM jacking.

100% endpoint ephemerality
ENTERPRISE

From Reactive SOC to Autonomous Defense

A global enterprise replaced manual incident response with Phoenix's self-healing infrastructure, cutting mean time to recovery by 94%.

94% MTTR reduction
Frequently Asked Questions
Kubernetes / Infrastructure

Ready to Move
the Target?

Deploy Phoenix OSS and turn your static clusters into moving targets.

Get Started
AI / ML Workloads

Secure Your
Inference

Purpose-built protection for AI inference — models, pipelines, and GPU resources.

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