
AccuKnox AI Security Roadmap for Securing AI Models, Agents and Data (AI-SPM, AI-DR, AI-GRC, AI-DSPM) – 2026
AI agents are being exploited in production. Shadow AI runs in 78% of enterprises. Legacy cloud security tools miss the AI attack surface entirely. AccuKnox AI-Security delivers GA modules for prompt injection, shadow AI discovery, data classification, and supply chain vulnerabilities.
Reading Time: 13 minutes
TL;DR
- Shadow AI is everywhere, unmanaged tools like local models, agents, and SDKs run without visibility or security controls.
- AccuKnox AI-Security provides end-to-end coverage including prompt firewall, AI asset discovery, AI-DSPM, AI-BOM, detection & response, and red teaming.
- Regulation pressure is coming fast, enterprises need compliance-ready AI security (MITRE ATLAS, ISO 42001, NIST AI RMF).
- AI breaches are more expensive and dangerous – on average costing ~$670K more due to broader data access, higher privileges, and bypassing standard security controls.
- AccuKnox enforces runtime and kernel-level protection (KnoxClaw) securing AI agents with shell, filesystem, and network access using eBPF + KubeArmor, beyond what application-layer security can handle.
The Complete AI-Security Platform Updates Coming Up in AccuKnox
AccuKnox announced AI Security 2.0, a framework for an identity-powered, zero-trust platform to secure AI models, Agents, and Data at RSAC 2026
It includes GPU-based prompt firewall optimisation, local unmanaged AI asset discovery (Ollama, vLLM, and MCP servers), cloud-native AI detection and response with auto-remediation, multi-cloud DSPM for AI training data and vector databases, AI-BOM with vulnerability scanning, and compliance frameworks (MITRE ATLAS, ISO 42001, and NIST AI RMF).
At RSA Conference 2026, AI security buzz was impossible to miss. The most in-demand product capability was AI red teaming. This roadmap reflects what enterprises are prioritising: runtime protection for agentic AI, visibility in shadow AI, and compliance-ready controls for regulated environments.

Production AI incidents in 2025-2026 exposed gaps in traditional security tooling. A hidden prompt in a PDF email activated an industrial pump via an AI agent with MCP access, causing equipment damage. An agentic CI/CD workflow with shell access was hijacked through prompt injection chained with cache poisoning. Radware demonstrated a zero-click exploit (ZombieAgent) that hijacks agents through hidden instructions without triggering traditional tools.
💡 Key Insight: The average AI breach costs $670K more than traditional breaches because AI systems have access to broader data sets, run with elevated privileges, and often bypass traditional security controls entirely.
AccuKnox AI-SPM is Deeply Integrated Where Your Models, Agents, Workflow and Data Resides

See the AccuKnox AI Security platform in action: full asset discovery, prompt firewall, red teaming, and data classification across a multi-cloud heterogeneous stack.
Simon Willison’s “Lethal Trifecta”
Security researcher Simon Willison identifies three conditions that, when present together, make any agentic system exploitable by design:
⚠️ If all three are present, the system is exploitable.

Indirect prompt injection, where malicious instructions arrive through the data the model ingests, now succeeds with fewer attempts than direct attacks .
The attacker never touches the prompt box. They poison a webpage, a PDF, an MCP tool description, or a memory entry and wait for the agent to ingest it.
Why These Roadmap Items?
AccuKnox prioritised these capabilities based on three inputs: production incident patterns and regulatory compliance timelines. The security outlook for AI is stark. Most cloud security tools treat models as stateless APIs and agents as web services. This architectural mismatch creates blind spots that attackers are actively exploiting. The table below maps the specific threats driving the roadmap to the features that address them.
| Threat / Security Risk | Roadmap Feature | Real-World Example |
|---|---|---|
| Prompt injection via poisoned PDF, email attachments, or MCP metadata bypassing application controls | GPU-Based Prompt Firewall | Hidden white-on-white text in email attachment instructed AI agent with MCP access to write values to SCADA system, activating industrial pump and causing equipment damage (MDPI 2026) |
| Shadow AI running with zero visibility: local Ollama, MCP servers, unregistered LangChain agents with no audit trail | Local Unmanaged AI Asset Discovery | 78% of enterprises run shadow AI with zero visibility (Gartner 2025). Developer installs Ollama on laptop, connects to Claude Code, processes customer data locally with no security controls or logging |
| AI agent deployed in non-approved cloud region or publicly exposed without authorization, violating data residency laws | AI Detection and Response | AI model serving endpoint deployed in US region processes customer data from India-based enterprise, violating data residency requirements. AI-DR detects via CloudTrail correlation and auto-remediates via CDR policy |
| PII and sensitive data in training datasets, vector embeddings, inference logs sitting unencrypted in cloud storage | DSPM for AI | Training dataset in AWS RDS contains customer SSNs and credit card numbers, stored unencrypted. Traditional CSPM checks infrastructure config but does not inspect data content. AI-DSPM scans, classifies, alerts data owners |
| Vulnerable model framework with known CVEs running in production, exposing inference infrastructure to exploits | AI-BOM | TensorFlow Serving 2.10.0 with CVE-2023-25801 (arbitrary code execution) running in production. Traditional SBOM scanners do not cover AI-specific components. AI-BOM detects CVE across model, framework, inference server stack |
| Memory poisoning creating persistent false beliefs in agents; adversarial instructions that survive across sessions | Intelligent Red Teaming | Lakera Nov 2026 research: indirect injection via poisoned data sources corrupts agent long-term memory, creating agents that defend false beliefs as correct when questioned. Manual red teaming is too slow; continuous adversarial testing required |
| EU AI Act, NIST AI RMF, ISO 42001 compliance gaps with no audit-ready evidence collection or compliance workflows | AI-GRC & Compliance | EU AI Act enforcement begins August 2026. Enterprises deploying high-risk AI systems need MITRE ATLAS, ISO 42001, NIST AI RMF compliance evidence. Existing GRC tools do not cover AI-specific requirements |
| Unknown AI attack surfaces; untested model resilience to adversarial inputs and exploitation techniques | AI Penetration Testing | Traditional pen testing does not cover prompt injection, jailbreak, agent sandbox bypass, or memory poisoning. AI Pen Testing provides automated adversarial testing across models, agents, and AI infrastructure in controlled environments |
| AI agents with unrestricted shell, filesystem, and network access running on local infrastructure with no containment | KnoxClaw (Available Now) | OpenClaw 512 vulnerabilities including CVSS 8.8 WebSocket bypass. Application-layer patches cannot stop prompt injection or sandbox escapes. KnoxClaw enforces security at kernel syscall level using KubeArmor and eBPF |
The Full AccuKnox AI Security Offerings – What’s Live and What’s Coming Next
01. GPU-Based Prompt Firewall
The prompt firewall is being optimized for GPU-based execution to handle production traffic at scale. Key improvements include profiling model execution with flamegraphs to identify hotspots, changing core engine architecture to allow different models to execute on separate instances, supporting tenant-specific GPU instances, and comprehensive benchmarking across GPU types.
| Capability | Technical Details |
|---|---|
| Profiling of model execution | Flamegraph of different execution aspects; identify hotspots |
| Model execution architecture | Core engine changes to instantiate models separately on different instances |
| Tenant-specific GPU support | Allow tenant-specific GPU instances to be used for isolation and performance |
| Benchmarking | Testing across different GPU instances for performance validation |
02. Local Unmanaged AI Assets Discovery
Shadow AI is running in 78% of enterprises with zero visibility.
Local AI assets include developer-installed Ollama instances, MCP clients and servers, LangChain/LangGraph agents, Anthropic SDK usage, CrewAI frameworks, vLLM and NVIDIA Triton inference servers, vector databases, and locally deployed agents like OpenClaw. These assets are not registered in cloud accounts, do not appear in IAM logs, and operate outside traditional network monitoring.
| Asset Type | Detection Method |
|---|---|
| MCP clients/servers | Detecting use of FastMCP library and MCP protocol signatures |
| AI agent frameworks | SDK fingerprinting for LangChain, Anthropic SDKs, CrewAI, LangGraph |
| SaaS AI services | Endpoints using ChatGPT, Claude Code, and other SaaS AI services directly |
| Model inference servers | Process detection for Ollama, vLLM, NVIDIA Triton/Dynamo inference servers |
| Vector databases | Locally deployed vector DB instances (Chroma, Weaviate, Pinecone local) |
| Local agents | Locally deployed agents like OpenClaw; databases and AI services |

03. AI Detection and Response (AI-DR)
Cloud-native detection and response for AI assets across AWS, Azure, and GCP. AI-DR correlates control plane API calls from CloudTrail, Azure Logs, and GCP Logs to detect unauthorized activity such as non-approved region deployments, public exposure of AI assets, and changes to sensitive data assets. Auto-remediation is handled via GitOps workflows and CDR (Continuous Detection and Response) policies.
| Detection Rule | Technical Implementation |
|---|---|
| Non-approved region access | Correlate control plane API calls from non-India region using CloudTrail, Azure Logs, GCP Logs |
| Public AI asset exposure | Identify AI assets with public exposure; auto-remediate via GitOps to change to private |
| Sensitive data asset changes | Alert data owners, custodians, security teams via CDR policy for control plane actions on sensitive assets |
| Risky LLM models | Restrict risky LLM models; allow only India region hosting; correlate deployment logs |
| Ransomware protection (AKS) | Runtime protection in AKS to prevent sensitive assets from being overwritten or updated |

04. Data Security Posture Management for AI (DSPM)
Training datasets, vector embeddings, and inference logs contain sensitive data that was never classified, never encrypted at rest, and in multi-cloud environments, sits in regions where it legally should not.
Standard CSPM tools check infrastructure configuration but do not inspect data content. AI-DSPM scans AWS RDS (PgSQL, MySQL, MariaDB, Oracle, SQL Server), AWS Vector DB, Azure Blob Storage, Azure Object Storage, Azure SQL Database, GCP Cloud SQL, Google Cloud Storage, and Oracle Cloud Object Storage.
Additional capabilities include log scanning for PII in application logs, integration with Microsoft Purview DLP, access control vulnerability assessment, data retention policies, and data residency compliance for India-specific regulations.
| Cloud | Assets Scanned |
|---|---|
| Azure | Azure Blob Storage, Azure Object Storage, Azure SQL Database |
| AWS | AWS RDS (PgSQL, MySQL, MariaDB, Oracle, SQL Server), AWS Vector DB |
| GCP | GCP Cloud SQL, Google Cloud Storage |
| Oracle | Oracle Cloud Object Storage |
Additional DSPM capabilities:
- Log scanning for PII data in application logs with clear reports on internal data misuse
- Access control vulnerability assessment: MFA enforcement, storage encryption, key rotation, SCPs/RCPs/Cloud Armor
- Data retention policy implementation for legal and regulatory compliance
- Identify sensitive data lacking adequate protection (encryption at rest, TDE for Azure Blob Storage)
- Data residency compliance: CDR policy alerts if data asset created outside India region; remediation options

05. AI Bill of Materials (AI-BOM)
Models in production depend on frameworks with CVEs, datasets with licensing obligations, and inference servers with known vulnerabilities.
None of this appears in traditional SBOMs. AI-BOMs are becoming mandatory in 2026 (Adversa AI).
AccuKnox AI-BOM generates bills of materials based on discovered applications, detects vulnerabilities across the entire AI stack (model, framework, inference server), imports AI-BOMs from third parties to show licenses and component details, and compares multiple AI-BOMs to identify added, updated, or deleted components.
| Capability | Details |
|---|---|
| Generate AI-BOM | Automatically generate based on discovered applications and AI assets |
| Vulnerability detection | Detect CVEs across model, framework, inference server components |
| Import third-party AI-BOMs | Show licenses, component versions, and dependency details from vendor AI-BOMs |
| Compare AI-BOMs | Diff multiple AI-BOMs to show added, updated, deleted components over time |

06. Intelligent Red Teaming
Manual red teaming is expensive, infrequent, and stale before ink dries.
AccuKnox Intelligent Red Teaming dynamically generates adversarial probes based on the application domain, identifies the specific domain used by the agent and loads probes dynamically, and highlights the exact snippets in prompts or responses that violated policy clauses.
Red teaming extensions include GCP Model Garden integration, CP Studio red teaming, and prompt firewall integration on AgentEngine behind GCP APIGEE AI Gateway.
AccuKnox AI Red Teaming is continuous running the same adversarial tests that a red team would run, at machine speed, every time the model or its configuration changes.
| Capability | Details |
|---|---|
| Dynamic probe generation | Generate probes based on app type; identify domain and load relevant probes |
| Policy violation highlighting | Highlight exact snippets that violated policy; LLM-powered snippet identification |
| GCP Model Garden | Red teaming support for GCP Model Garden deployments |
| CP Studio integration | Red teaming for CP Studio |
| APIGEE AI Gateway | Prompt firewall integration on AgentEngine behind GCP APIGEE |
07. AI Application Inventory View
A centralized inventory view for all AI applications discovered across the environment. Categorized by application category, type, and sub-type. Includes export options for partial or full inventory data, and frontend navigation across categories. This gives security teams a single pane of glass for all AI assets in the organization.

08. AI-GRC and Compliance
AccuKnox is building compliance frameworks directly into the platform.
Supported frameworks include MITRE ATLAS (adversarial threat landscape for AI systems), ISO 42001 (AI management system standard), and NIST AI Risk Management Framework.
UI/UX improvements for compliance workflows make it easier to generate audit reports, track compliance posture, and remediate gaps.

| Framework | Coverage |
|---|---|
| MITRE ATLAS | Adversarial Threat Landscape for AI Systems; maps attacks to tactics and techniques |
| ISO 42001 | AI management system standard; requirements for governance, risk, and compliance |
| NIST AI RMF | AI Risk Management Framework; govern, map, measure, manage AI risks |
09. AI Penetration Testing
AI Pen Testing provides automated adversarial testing across models, agents, and AI infrastructure.
This includes model vulnerability testing to identify weaknesses in deployed models, AI attack simulation to replicate real-world adversarial scenarios, AI attack surface discovery to map all AI assets and their exposure points, and AI exploit simulation to test prompt injection, jailbreak, and sandbox bypass techniques in controlled environments.
| Capability | Details |
|---|---|
| Model Vulnerability Testing | Identify weaknesses in deployed models including adversarial input resilience, model poisoning susceptibility, and output manipulation vectors |
| AI Attack Simulation | Replicate real-world adversarial scenarios including prompt injection chains, memory poisoning attacks, and multi-step agent compromise workflows |
| AI Attack Surface Discovery | Map all AI assets and their exposure points including APIs, model endpoints, agent tool access, MCP server connections, and data store integrations |
| AI Exploit Simulation | Test prompt injection, jailbreak techniques, sandbox bypass methods, and privilege escalation paths in controlled environments with full audit trails |


Generally Available Today

The following AccuKnox AI Security capabilities are already production-ready and generally available.
| Module | Capabilities |
|---|---|
| AI-SPM | Discover SaaS AI (OpenAI, Anthropic, Cohere, Mistral, Hugging Face), cloud-hosted AI (AWS Bedrock, Azure OpenAI, GCP Vertex AI), agentic frameworks (AutoGPT, BabyAGI), and model serving (TensorFlow Serving, TorchServe, MLflow) |
| Prompt Firewall | Intercepts prompts and responses at the gateway; detects prompt injection, jailbreaks, PII leakage, toxic content; deployed inline with models |
| AI-DR | Runtime detection for agentic AI threats; correlates CloudTrail, Azure Logs, GCP Logs for control plane activity; GitOps-based auto-remediation |
KnoxClaw – Sandboxing for OpenClaw with Kernel-Level Protection (AI Agent Security)

While the Q2 2026 roadmap focuses on cloud-native AI security across models, agents, and data, KnoxClaw addresses a different but critical problem: securing AI agents that run with shell, filesystem, and network access on local infrastructure. OpenClaw reached 247,000 GitHub stars in under 60 days but accumulated 512 vulnerabilities in its first two months, including a CVSS 8.8 WebSocket authentication bypass.
KnoxClaw takes a different approach. Instead of patching vulnerabilities at the application layer, KnoxClaw enforces security at the Linux kernel syscall level using KubeArmor and eBPF.
Read the full blog here: Introducing KnoxClaw – Secure your OpenClaw Instances with KubeArmor Sandboxing
FAQ
How does AccuKnox AI-DSPM differ from existing DSPM tools?
Traditional DSPM scans structured databases and file storage for PII. AI-DSPM extends that to training datasets, vector embeddings, inference logs, and model artifacts. It also enforces AI-specific data residency (e.g., India-region model restrictions) and scans unstructured AI application logs for PII.
Why do I need AI-BOM if I already have SBOM scanning?
SBOMs cover code dependencies. AI-BOMs cover the AI stack: models, frameworks (TensorFlow, PyTorch, LangChain), inference servers (Ollama, vLLM, Triton), vector databases, and training datasets. CVEs in model serving infrastructure and dataset licensing violations never show up in a traditional SBOM.
What compliance frameworks does AccuKnox support for AI?
MITRE ATLAS, ISO 42001, and NIST AI RMF. EU AI Act enforcement starts August 2026 — AccuKnox compliance workflows are built for audit-ready evidence collection ahead of that deadline.
How does the Prompt Firewall handle production traffic at scale?
The Q2 2026 roadmap adds GPU-based optimization: flamegraph profiling to find bottlenecks, parallel model instances, tenant-specific GPU isolation, and cross-GPU benchmarking. The result is production-scale throughput without added latency.
Can AccuKnox detect shadow AI running on local laptops?
Yes. Local Unmanaged AI Assets Discovery MCP clients and servers, LangChain and LangGraph agents, Anthropic SDK usage, Ollama and vLLM servers, vector databases, and local agents — none of which appear in cloud logs or IAM events. Detection runs via SDK fingerprinting and process scanning.
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