AI Security & Red Teaming

Lock Down Your AI Agents Before
Attackers Find the Gaps

AI agents open up an entirely different class of attack surface. Prompt injection, tool abuse, privilege escalation, and data exfiltration are threats that traditional security tools were never built to handle. We build secure agent architectures, run adversarial red team engagements, and harden your full AI stack against the OWASP LLM Top 10.
AI Agent Security Assessments Completed
0 +
LLM Top 10 Full Coverage
WASP
Hours Average Red Team Engagement
0 hrs
Post-Hardening Security Incidents
0

Trusted & Certified

Quick Answer

What is AI Agent Security?

AI agents create attack surfaces that simply do not exist in traditional software. Prompt injection can hijack agent behaviour by slipping adversarial instructions into content the agent processes, including emails, documents, and web pages. Agents that have tool access such as APIs, databases, and code execution can be manipulated into privilege escalation, data exfiltration, or outright destructive actions.
In multi-agent pipelines, a single compromised sub-agent can corrupt the entire chain. And because agent behaviour is non-deterministic, static analysis will not save you. Adversarial red teaming is the only reliable way to find what is really exploitable.
Key Benefits

Stop injection attacks Prevent adversarial instructions embedded in external content from weaponising your agent against your own systems and users.
Eliminate tool abuse Close privilege escalation and tool misuse risks before agents with real-world capabilities ever reach a production environment.
Defence in depth Layered security architecture that holds even when individual controls fail. Not a single line of defence.

ISO 27001 · Certified

SOC 2 Type II · Compliant

Deloitte Fast 50 · Awarded

ERC-3643 · Compatible

KYC / AML · Integrated

MiCA-Ready · EU Compliant

VARA · UAE Licensed

OpenAI Partner · Certified

ISO 27001 · Certified

SOC 2 Type II · Compliant

Deloitte Fast 50 · Awarded

ERC-3643 · Compatible

KYC / AML · Integrated

MiCA-Ready · EU Compliant

VARA · UAE Licensed

OpenAI Partner · Certified

Industry Challenges

Why AI Agents Are High-Value Targets

When you give an LLM real tools such as APIs, databases, and code runners, you create something attackers genuinely want to compromise. Here is what that looks like in practice.

Prompt Injection at Scale

Agents that read external content are vulnerable to indirect injection. Attackers embed malicious instructions in documents or web pages the agent processes. It then acts on those instructions as if they came from a trusted source.

Tool Abuse and Privilege Escalation

Agents with API access, code execution, or database permissions can be manipulated into actions well outside their intended scope, including approving transactions, running arbitrary commands, or accessing restricted records.

Data Exfiltration Via LLM Outputs

Adversarial prompts can instruct agents to encode and leak sensitive data through seemingly ordinary outputs or downstream API calls, with no obvious red flag in the logs.

Multi-Agent Trust Failures

In multi-agent systems, a compromised orchestrator or sub-agent can cascade malicious instructions across the entire network. One bad node can corrupt every downstream agent in the pipeline.

74%

Of LLM applications vulnerable to prompt injection (OWASP)

10x

AI agent incidents increased in 2024 vs 2023

$4.5M

Average AI security breach cost (IBM 2024)

The Cost of Inaction

A single successful prompt injection on a customer-facing AI agent can expose everything that agent has access to, including customer PII, internal documents, and API keys, with no traditional security control to stop it.

Our Solution

Defence-in-Depth AI Agent Security

Multi-layer protection across every attack surface, not just the obvious ones.

Secure Agent Architecture

Least-privilege design, tool sandboxing, trust boundaries, and data flow isolation built into the architecture from the start, not bolted on afterwards.

Agentic AI Red Teaming

Adversarial testing by AI security specialists covering prompt injection, jailbreak, tool abuse, and multi-agent attack scenarios specific to your system.

LLM Input and Output Filtering

Bidirectional content filtering with injection detection, PII redaction, and output sanitisation applied before tool calls and before delivery to users.

Real-Time Agent Monitoring

Behavioural anomaly detection, tool call monitoring, rate limiting, and automatic circuit breaking when agent behaviour looks suspicious.

Core Capabilities

AI Agent Security Capabilities

OWASP LLM Top 10 coverage and beyond. Everything needed to secure agentic AI in production.

Security Assessment and Red Teaming

Systematic adversarial testing across all OWASP LLM Top 10 categories plus attack scenarios specific to agentic AI systems.

Prompt Injection Prevention

Direct and indirect injection detection, input sanitisation, and instruction hierarchy enforcement to prevent prompt hijacking at every entry point.

Agent IAM And Least Privilege

Identity and access management built for AI agents, including scoped permissions, tool sandboxing, and just-in-time access provisioning.

LLM Output Filtering and DLP

PII detection, secret scanning, and content policy enforcement on every response to stop data exfiltration through AI outputs.

Multi-Agent Trust Architecture

Cryptographic agent identity, message signing, and trust hierarchy design so that one compromised node cannot take down the whole system.

Agent Behavioural Monitoring

Real-time anomaly detection on agent actions, tool calls, and outputs, with automatic quarantine for anything that looks out of the ordinary.

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Technical Architecture

AI Agent Security Architecture

Defense-in-depth security across all agent attack surfaces.

System Architecture
01
Input Security Layer

All inputs are screened before they reach the agent.

Injection Detector
Input Sanitiser
Source Validation
Rate Limiter
02
Agent Runtime Controls

Agents operate under minimal permissions at all times.

Least-privilege IAM
Tool Sandbox
Permission Scoping
Trust Hierarchy
03
Output Security Layer

All outputs are filtered before delivery to users or downstream systems.

PII Detector
Secret Scanner
Content Policy
DLP Filter
04
Monitoring and Response Layer

Real-time behavioural monitoring with automatic circuit breaking.

Behavioural Analytics
Anomaly Alerts
Circuit Breaker
Forensic Logging
PyRIT
Garak
PromptFoo
Burp Suite AI
Rebuff
Guardrails AI
LLM Guard
NeMo Guardrails
Arize AI
Weights & Biases
Langfuse
Phoenix
AWS Bedrock
Azure AI Safety
Google Model Armor
Cloudflare AI
Technology Stack

Built with Enterprise-Grade Technology

AI Frameworks & Libraries

Python
PyTorch
TensorFlow
JAX
Hugging Face
LangChain
LlamaIndex
AutoGen
CrewAI
OpenAI API
Anthropic Claude
Google Gemini

ML Infrastructure & Cloud

AWS SageMaker
Google Vertex AI
Azure OpenAI
Pinecone
Weaviate
Qdrant
Redis
Kafka
Kubernetes
MLflow

Foundation LLM Models

GPT-4o
Claude 3.5 Sonnet
Llama 3.1 70B
Mistral Large
Gemini 1.5 Pro
Cohere Command R+
Whisper
DALL·E 3 Contract

Business Integrations

OWASP LLM Top 10 Security Standard
LangChain Security Agent Framework
LlamaIndex Security RAG Security
Rebuff Injection Protection
Guardrails AI Output Filtering
NeMo Guardrails NVIDIA Safety
Microsoft PyRIT Red Teaming
Garak LLM Scanner
PromptFoo Security Testing
Arize AI Monitoring
AWS Bedrock Guardrails Cloud Safety
Azure AI Content Safety Cloud Safety

42+ technologies integrated

Our Process

AI Agent Security Engagement

From initial threat modelling to a hardened, monitored agent deployment. Six weeks end to end.

Total Timeline: 4 weeks from kickoff to production

Step 1 Days 1 to 3

Threat modelling and attack surface mapping

We map every agent input, output, tool connection, and trust boundary. A full threat model is built covering the OWASP LLM Top 10 and agentic-specific threats.

Deliverables
Threat model attack surface map risk prioritisation tool permission audit
Step 2 Days 4 to 7

Automated vulnerability scanning

We run automated LLM security scanners against all agent endpoints to identify known vulnerability classes quickly and build a structured remediation backlog.

Deliverables
Scan report CVE mapping OWASP coverage report remediation backlog
Step 3 Days 8 to 14

Adversarial red teaming

Manual red team engagement testing prompt injection, tool abuse, jailbreak, multi-agent attacks, and data exfiltration. All testing is specific to your system's real capabilities.

Deliverables
Red team report successful attacks documented proof-of-concept exploits risk ratings
Step 4 Weeks 3 to 5

Security architecture hardening

We implement defence-in-depth controls across all four layers, covering injection detection, output filtering, IAM scoping, and live behavioural monitoring.

Deliverables
Hardened architecture controls implemented monitoring live IAM scoped
Step 5 Week 6

Validation and security sign-off

Every identified vulnerability is re-tested to confirm remediation. We produce a formal sign-off report and hand over an ongoing monitoring plan and incident response playbook.

Deliverables
Remediation validation sign-off report monitoring plan IR playbook
Launch - 6 weeks from threat modeling to hardened, validated agent deployment total
Compliance & Regulatory

AI Security Compliance Frameworks

AI agent security aligned to all major security and AI governance standards.

🇪🇺

European Union

EU AI Act

GDPR

AI Liability Directive

🇺🇸

United States

NIST AI RMF

Executive Order on AI

CCPA

🇬🇧

United Kingdom

UK AI Regulation

ICO Guidance

CDEI

🇸🇬

Singapore

MAS AI Guidelines

PDPA

Model AI Governance

🇦🇪

UAE

UAE AI Strategy

PDPL

TDRA

🇨🇦

Canada

AIDA

PIPEDA

OSFI Guidelines

🇦🇺

Australia

AI Ethics Framework

Privacy Act

APRA

ISO/IEC 42001

AI management system

SOC 2 Type II

Security & confidentiality

ISO 27001

Information security

GDPR Compliant

Security & availability controls

OWASP Hardened

LLM security standards

HIPAA Ready

Healthcare AI compliance

OWASP LLM Top 10

Full coverage of all 10 LLM security risk categories for AI applications

NIST AI RMF (MEASURE)

AI risk measurement including adversarial testing and security assessment

EU AI Act (Art. 15)

Robustness, accuracy, and cybersecurity requirements for high-risk AI

ISO/IEC 27001

Information security management for AI system infrastructure

SOC 2 Type II

Security, availability, and confidentiality for AI systems

MITRE ATLAS

Adversarial threat landscape for AI systems attack taxonomy

Security & Audit

Our Security Team Credentials

AI security specialists with offensive and defensive expertise.

Trail of Bits

AI/ML security assessments

HiddenLayer

AI model security platform

Robust Intelligence

AI risk management

BishopFox

AI red teaming services

NCC Group

Enterprise AI security

Cure53

LLM API security testing

OSCP

CISSP

GREM (Reverse Engineering)

AWS Security Specialty

ISO 27001 LA

Prompt injection detection & prevention

LLM output filtering and content moderation

Hardware security modules (HSM)

PII detection & automatic redaction

Hallucination detection & confidence scoring

Rate limiting & abuse prevention

Audit logging for all AI interactions

Model versioning & rollback capability

Adversarial input detection

Data residency & sovereignty controls

End-to-end encryption for sensitive prompts

Human-in-the-loop escalation workflows

Enterprise-Grade Security

Bank-level encryption and compliance standards

256-bit AES Encryption

99.99% Uptime SLA

24/7 Monitoring

Industry Applications

AI Agent Security Scenarios

Real attack scenarios we detect and prevent.

Customer service AI

Prompt injection via customer emails

Indirect injection through inbound customer emails redirected the AI agent to exfiltrate CRM data. Detected and blocked before it reached production.

Attack blocked

zero data exposure

Developer Tools

Tool abuse in a coding agent

Jailbreak caused a coding agent to execute malicious shell commands through the code sandbox. Prevented via tool sandboxing and strict execution policies.

Sandbox escape blocked

Zero system access

Enterprise Automation

Multi-Agent Trust Chain Attack

A compromised sub-agent sent malicious instructions to the orchestrator. Prevented through cryptographic message signing across the agent network.

Attack chain broken

Trust verified

Document AI

RAG Data Exfiltration

An adversarial query caused a RAG agent to retrieve and surface confidential document sections. Prevented by output DLP filtering at the response layer.

Data leak prevented

DLP controls live

FinTech

Finance Agent Privilege Escalation

A finance AI agent was manipulated through tool abuse to approve transactions outside its authorised scope. Stopped by hard transaction limit controls.

Zero fraud exposure

Transaction limits enforced

HR Tech

AI Agent Social Engineering

Social engineering through an HR agent conversation was used to extract employee PII. Stopped by output PII detection and content filtering.

PII protected

GDPR compliant

See Our AI Solutions in Action

Get a personalized live demo tailored to your exact use case - built by the same engineers who will work on your project.

Comparison

AI Agent Security vs Traditional AppSec

Why traditional security tools miss AI-specific attack vectors.

Features
Traditional SAST/DAST
No Security Testing
Prompt Injection Detection
Tool Abuse Testing
Multi-Agent Attack Scenarios
Output DLP Filtering
Partial
Behavioral Monitoring
OWASP LLM Coverage
100%
0%
0%

Our Recommendation

Traditional AppSec tools miss prompt injection, tool abuse, and agentic attack vectors entirely, AI-specific security testing is essential.

Case Study

FinTech AI Agent: 14 Critical Vulnerabilities
Found & Fixed

Global Payments FinTech

Financial Technology

The Challenge

A customer-facing AI agent had been deployed with access to payment APIs. The internal security team had applied standard web security controls but had run no AI-specific testing against the agent itself.

What We Did

Full AI agent security assessment covering threat modelling, automated scanning, a manual red team engagement, and complete security architecture hardening across all four layers.

14 found All remediated before production launch

Critical Vulnerabilities

Eliminated Injection detection layer deployed

Prompt Injection Risk

Reduced 80% Least-privilege IAM implemented

Tool Permission Scope

Zero In 18 months post-hardening

Production Incidents

"The red team surfaced attack vectors our entire security team had never thought of. This engagement may have prevented a catastrophic breach."
CISO
Global payments FinTech

ROI & Value

AI Agent Security ROI

The cost of prevention vs. the cost of an AI security breach.

Key Metrics

vs. IBM Cost of Data Breach Report 2024
$ 0 M
vs. Complete red team + hardening engagement
$ 0 -150K
vs. ROI of preventing a single serious incident
0 -90x
vs. From initial assessment to secure deployment
0 weeks

Breach Prevention

IBM 2024 average AI/data breach cost

$4.5M average breach cost

Regulatory Fine Avoidance

EU AI Act Article 15 security requirements

Up to €30M

Brand Protection

Customer trust and reputation preservation

Immeasurable

Potential Annual Savings

Up to 70%

Engagement Models

AI Agent Security Engagement Models

Security Assessment

Threat modeling, OWASP scan, vulnerability report

Ideal for

pre-production AI agents and existing deployments that have never been tested.

Red Team + Hardening

Full adversarial testing and security architecture implementation

Ideal for

high-value agents in production or near-production that need full adversarial coverage.

Continuous AI Security

Ongoing security monitoring, quarterly red teaming, advisory

Ideal for

Organizations with multiple AI agents in production

What's Included in Every Engagement

Get Your Tailored Project Quote

Share your requirements and receive a detailed technical proposal with transparent pricing within 48 business hours.

FAQ

Frequently Asked Questions

Everything you need to know about deploying our turnkey RWA tokenization platform.

Prompt injection is when an attacker embeds malicious instructions inside content that the agent processes, such as a customer email, a document, or a web page. The agent reads that content and, if unprotected, follows the embedded instructions as if they came from a trusted source. Direct injection targets the agent input directly. Indirect injection hides instructions inside external content the agent retrieves during a task.

Traditional API security handles structured, predictable inputs. AI agents process natural language that can contain adversarial instructions, produce non-deterministic outputs, and take actions through tools that can have real-world consequences. Static analysis and standard WAF rules cannot catch these threats. You need adversarial red teaming, behavioural monitoring, and LLM-specific input and output filtering that understands what the model is actually doing.
Not with a single control, but it can be made extremely difficult with the right layered approach. Injection detection at input, instruction hierarchy enforcement, least-privilege tool access, and output filtering working together reduce the attack surface dramatically. The goal is defence in depth: even if one layer is bypassed, the attacker cannot achieve their objective through the others.
The OWASP LLM Top 10 is the industry-standard list of the most critical security risks in large language model applications. It covers prompt injection, insecure output handling, training data poisoning, model denial of service, supply chain vulnerabilities, and more. Our assessments provide full coverage of all ten categories, plus additional agentic-specific threats that go beyond the standard list.
Yes. Multi-agent systems are one of our specialisations. We test trust boundaries between agents, orchestrator-to-sub-agent communication, and chain-of-trust assumptions across the whole pipeline. We also implement cryptographic message signing and trust hierarchy controls so that a compromised sub-agent cannot cascade malicious instructions to the rest of the system.
Six weeks from kick-off to security sign-off. Days 1 to 3 are threat modelling and attack surface mapping. Days 4 to 7 are automated scanning. Days 8 to 14 are manual red teaming. Weeks 3 to 5 are architecture hardening and control implementation. Week 6 is remediation validation and formal sign-off. Timelines can be compressed for urgent production deployments.
MITRE ATLAS stands for Adversarial Threat Landscape for Artificial Intelligence Systems. It is a knowledge base of real-world adversarial tactics and techniques against AI systems, similar to the MITRE ATT&CK framework for traditional infrastructure. We use ATLAS as a structured taxonomy when developing attack scenarios for red team engagements, ensuring we cover known adversarial techniques that have been observed against deployed AI systems in the wild.

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