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How AI Integration Models Shape Security for Agentic Applications

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Written by
Girish Chandrasekar
Published on
November 14, 2025
Read time:
3 min

Enterprises are shifting from chatbots to copilots to agentic AI. This blog maps AI maturity stages, compares integration models, and shows how Straiker delivers runtime guardrails across SDK, eBPF, proxy, and gateway options to secure production AI.

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contents

An overview of how enterprises are integrating AI

Enterprises are embedding intelligence across workflows, browsers, and back-end systems using a mix of LLM orchestration frameworks, hyperscaler platforms, and custom runtimes. 

I’ve spent my career building AI with startups, scaleups, and large enterprises, and the shift is real. We are moving from simple chatbots to agentic AI that plans, chooses tools, and makes autonomous decisions. Understanding these integration patterns is critical, especially as organizations move from traditional chatbots to agentic AI applications capable of autonomous decision-making.

The Three Main Ways AI Applications Are Built

Integration Model Typical Builders Example Platforms / Tools Advantages Security Implications
1. Hyperscaler Agent Builders Large enterprises with existing cloud commitments AWS Bedrock, Microsoft Azure OpenAI, Google Vertex AI Simplifies deployment; built-in model access; strong IAM integration Vendor lock-in; limited visibility into runtime behavior
2. Orchestration Frameworks Mid-size companies or AI-native startups LangChain, LlamaIndex, N8N Flexible workflow control; reusable components; supports multiple models Expanding attack surface across tools and APIs; harder policy enforcement
3. Fully Custom Agentic Architectures AI-native or research-driven companies Claude Code, Fetch.AI, bespoke orchestration Maximum flexibility and performance; optimized control over tool use Highest complexity; runtime misuse and instruction smuggling risks

These modes span the AI maturity spectrum from drag-and-drop builders to fully autonomous, tool-using agents. Most enterprises, however, fall into the first two categories, prioritizing rapid development over fine-grained runtime oversight.

How to Secure AI Integrations in Production

Whether your AI stack is simple or highly agentic, the principle remains the same: you need visibility and guardrails at runtime, not just during training or deployment.

Here’s how to think about it step-by-step:

  1. Map your AI dependency chain
    Identify every model, API, and data store your application touches, including embedded agents (e.g., Microsoft Copilot, Sierra AI, or Harvey AI).
  2. Decide your integration scope
    • First-party AI: applications you build and control.
    • Third-party AI: external SaaS or agentic tools used by your teams.
  3. Choose the right telemetry collection method
    • SDKs for developer-owned systems.
    • eBPF or sensor-based capture for Kubernetes or cloud workloads.
    • Proxies or browser extensions for SaaS and third-party agents.
  4. Establish a detection loop
    Route traces, model inputs, and outputs to a centralized detection service capable of spotting anomalous or malicious AI behavior (e.g., exfiltration, tool misuse, prompt smuggling).
  5. Continuously monitor and adapt
    AI attack surfaces evolve rapidly. Maintain feedback loops that retrain or tune policies as new agent capabilities emerge.

AI Maturity and the Expanding Risk Surface

As enterprises move from experiments to production agentic AI, needs change fast. 

AI Maturity Level What Teams Are Doing Primary Risks
AI Explorers Early adopters experimenting with copilots, chatbots, and simple LLM integrations. Often using hyperscaler tools like Azure OpenAI, Bedrock, or Vertex AI to test ideas and automate basic workflows. Prompt injection, unsafe model outputs, accidental data exposure, and limited visibility into how AI decisions are made.
AI Builders (formerly “Immigrants”) Teams moving beyond pilots to embed AI into existing systems. They orchestrate agents using frameworks like LangChain or LlamaIndex, connect internal data sources, and pilot AI across departments. Tool misuse, unvalidated inputs and outputs, fragmented observability, and cross-application exfiltration through legitimate APIs.
AI Natives Organizations architected around AI-first workflows. They design agentic applications capable of planning, reasoning, and executing across tools and APIs. Often combine first-party and third-party agents like Copilots, Sierra, or Harvey. Instruction smuggling, chain-of-tools abuse, lateral movement through agent actions, and covert data exfiltration at runtime.

Straiker Defend AI is built to plug in at each stage so you can add runtime guardrails without re-architecting your stack.

How We’re for Real-Time Agentic Defense with Defend AI

At Straiker, we designed Defend AI to work natively across all of these integration models from enterprise AWS Bedrock deployments to fully custom orchestration frameworks.

Our goal at Straiker: detect and stop agentic threats in real time, regardless of where or how your AI runs.

Straiker Integration Modes for AI Runtime Guardrails

Integration Mode Used For How It Works
SDK Mode Developer-built first-party agents Exports OTLP traces via one-line config to Straiker’s detection engine for real-time threat analysis.
eBPF Sensor Mode Cloud and Kubernetes workloads Captures low-level system and network telemetry from AI containers, enabling zero-instrumentation detection.
Proxy Mode Third-party AI or SaaS apps Ingests proxy logs to analyze model calls and payloads, ideal for agents like Sierra AI or Harvey AI accessed through the browser.
Browser Extension Mode Lightweight monitoring for web agents Collects input/output data from agentic web apps used by employees.
Gateway & API Mode Simpler or early-stage AI apps Routes requests through a Straiker gateway or direct API to evaluate model payloads for malicious patterns.

Why Straiker Chose This Architecture

  1. Flexibility for every AI architecture
    Enterprises use a mix of models, frameworks, and deployment styles. Straiker’s hybrid SDK and eBPF design supports AWS Bedrock pipelines, LangChain workflows, and fully custom agentic systems.
  2. Low-friction integration
    Setup takes only a one-line export or simple proxy configuration. No code rewrites, no vendor lock-in, and no disruption to existing development cycles.
  3. Real-time detection for agentic threats
    Straiker analyzes every trace, model call, and network request to detect behaviors such as instruction smuggling, prompt injection, or data exfiltration before they cause harm.
  4. Unified visibility across first- and third-party AI
    Whether an AI runs in your infrastructure or inside a SaaS product, Straiker delivers consistent monitoring, policy enforcement, and auditability.

How to Get Started

  1. Deploy the SDK or eBPF sensor in your AI environment.
  2. Route model traces or proxy logs to Straiker’s Detection Cloud.
  3. Enable policies for data exfiltration, prompt injection, and unsafe tool use.
  4. Monitor in real time through Straiker’s dashboard or your SIEM.

See why we’re building an AI-native security solution trained to reason across the deep context of each AI and agent interaction. Book a demo to see Straiker Defend AI in action.

FAQs: AI Integration and Security

Q1. What is the difference between first-party and third-party AI agents?
First-party agents are those built in-house (e.g., a custom Copilot or workflow agent). Third-party agents are SaaS products that embed AI behavior, such as customer-service agents or browser-based assistants.

Q2. How do eBPF-based sensors help with AI security?
eBPF sensors observe runtime system calls and network activity directly in your Kubernetes or cloud environment, allowing defenders to detect abnormal agent behavior without code changes.

Q3. Can SDKs and proxies be used together?
Yes. SDKs give fine-grained developer-level visibility, while proxies capture higher-level application traffic. Combining both provides layered defense.

Q4. Why is runtime monitoring more important for AI than traditional apps?
Agentic AI operates autonomously; these applications plan, execute, and call APIs on their own. Static code scanning can’t detect when an AI goes off-policy or begins exfiltrating data through legitimate interfaces.

No items found.

An overview of how enterprises are integrating AI

Enterprises are embedding intelligence across workflows, browsers, and back-end systems using a mix of LLM orchestration frameworks, hyperscaler platforms, and custom runtimes. 

I’ve spent my career building AI with startups, scaleups, and large enterprises, and the shift is real. We are moving from simple chatbots to agentic AI that plans, chooses tools, and makes autonomous decisions. Understanding these integration patterns is critical, especially as organizations move from traditional chatbots to agentic AI applications capable of autonomous decision-making.

The Three Main Ways AI Applications Are Built

Integration Model Typical Builders Example Platforms / Tools Advantages Security Implications
1. Hyperscaler Agent Builders Large enterprises with existing cloud commitments AWS Bedrock, Microsoft Azure OpenAI, Google Vertex AI Simplifies deployment; built-in model access; strong IAM integration Vendor lock-in; limited visibility into runtime behavior
2. Orchestration Frameworks Mid-size companies or AI-native startups LangChain, LlamaIndex, N8N Flexible workflow control; reusable components; supports multiple models Expanding attack surface across tools and APIs; harder policy enforcement
3. Fully Custom Agentic Architectures AI-native or research-driven companies Claude Code, Fetch.AI, bespoke orchestration Maximum flexibility and performance; optimized control over tool use Highest complexity; runtime misuse and instruction smuggling risks

These modes span the AI maturity spectrum from drag-and-drop builders to fully autonomous, tool-using agents. Most enterprises, however, fall into the first two categories, prioritizing rapid development over fine-grained runtime oversight.

How to Secure AI Integrations in Production

Whether your AI stack is simple or highly agentic, the principle remains the same: you need visibility and guardrails at runtime, not just during training or deployment.

Here’s how to think about it step-by-step:

  1. Map your AI dependency chain
    Identify every model, API, and data store your application touches, including embedded agents (e.g., Microsoft Copilot, Sierra AI, or Harvey AI).
  2. Decide your integration scope
    • First-party AI: applications you build and control.
    • Third-party AI: external SaaS or agentic tools used by your teams.
  3. Choose the right telemetry collection method
    • SDKs for developer-owned systems.
    • eBPF or sensor-based capture for Kubernetes or cloud workloads.
    • Proxies or browser extensions for SaaS and third-party agents.
  4. Establish a detection loop
    Route traces, model inputs, and outputs to a centralized detection service capable of spotting anomalous or malicious AI behavior (e.g., exfiltration, tool misuse, prompt smuggling).
  5. Continuously monitor and adapt
    AI attack surfaces evolve rapidly. Maintain feedback loops that retrain or tune policies as new agent capabilities emerge.

AI Maturity and the Expanding Risk Surface

As enterprises move from experiments to production agentic AI, needs change fast. 

AI Maturity Level What Teams Are Doing Primary Risks
AI Explorers Early adopters experimenting with copilots, chatbots, and simple LLM integrations. Often using hyperscaler tools like Azure OpenAI, Bedrock, or Vertex AI to test ideas and automate basic workflows. Prompt injection, unsafe model outputs, accidental data exposure, and limited visibility into how AI decisions are made.
AI Builders (formerly “Immigrants”) Teams moving beyond pilots to embed AI into existing systems. They orchestrate agents using frameworks like LangChain or LlamaIndex, connect internal data sources, and pilot AI across departments. Tool misuse, unvalidated inputs and outputs, fragmented observability, and cross-application exfiltration through legitimate APIs.
AI Natives Organizations architected around AI-first workflows. They design agentic applications capable of planning, reasoning, and executing across tools and APIs. Often combine first-party and third-party agents like Copilots, Sierra, or Harvey. Instruction smuggling, chain-of-tools abuse, lateral movement through agent actions, and covert data exfiltration at runtime.

Straiker Defend AI is built to plug in at each stage so you can add runtime guardrails without re-architecting your stack.

How We’re for Real-Time Agentic Defense with Defend AI

At Straiker, we designed Defend AI to work natively across all of these integration models from enterprise AWS Bedrock deployments to fully custom orchestration frameworks.

Our goal at Straiker: detect and stop agentic threats in real time, regardless of where or how your AI runs.

Straiker Integration Modes for AI Runtime Guardrails

Integration Mode Used For How It Works
SDK Mode Developer-built first-party agents Exports OTLP traces via one-line config to Straiker’s detection engine for real-time threat analysis.
eBPF Sensor Mode Cloud and Kubernetes workloads Captures low-level system and network telemetry from AI containers, enabling zero-instrumentation detection.
Proxy Mode Third-party AI or SaaS apps Ingests proxy logs to analyze model calls and payloads, ideal for agents like Sierra AI or Harvey AI accessed through the browser.
Browser Extension Mode Lightweight monitoring for web agents Collects input/output data from agentic web apps used by employees.
Gateway & API Mode Simpler or early-stage AI apps Routes requests through a Straiker gateway or direct API to evaluate model payloads for malicious patterns.

Why Straiker Chose This Architecture

  1. Flexibility for every AI architecture
    Enterprises use a mix of models, frameworks, and deployment styles. Straiker’s hybrid SDK and eBPF design supports AWS Bedrock pipelines, LangChain workflows, and fully custom agentic systems.
  2. Low-friction integration
    Setup takes only a one-line export or simple proxy configuration. No code rewrites, no vendor lock-in, and no disruption to existing development cycles.
  3. Real-time detection for agentic threats
    Straiker analyzes every trace, model call, and network request to detect behaviors such as instruction smuggling, prompt injection, or data exfiltration before they cause harm.
  4. Unified visibility across first- and third-party AI
    Whether an AI runs in your infrastructure or inside a SaaS product, Straiker delivers consistent monitoring, policy enforcement, and auditability.

How to Get Started

  1. Deploy the SDK or eBPF sensor in your AI environment.
  2. Route model traces or proxy logs to Straiker’s Detection Cloud.
  3. Enable policies for data exfiltration, prompt injection, and unsafe tool use.
  4. Monitor in real time through Straiker’s dashboard or your SIEM.

See why we’re building an AI-native security solution trained to reason across the deep context of each AI and agent interaction. Book a demo to see Straiker Defend AI in action.

FAQs: AI Integration and Security

Q1. What is the difference between first-party and third-party AI agents?
First-party agents are those built in-house (e.g., a custom Copilot or workflow agent). Third-party agents are SaaS products that embed AI behavior, such as customer-service agents or browser-based assistants.

Q2. How do eBPF-based sensors help with AI security?
eBPF sensors observe runtime system calls and network activity directly in your Kubernetes or cloud environment, allowing defenders to detect abnormal agent behavior without code changes.

Q3. Can SDKs and proxies be used together?
Yes. SDKs give fine-grained developer-level visibility, while proxies capture higher-level application traffic. Combining both provides layered defense.

Q4. Why is runtime monitoring more important for AI than traditional apps?
Agentic AI operates autonomously; these applications plan, execute, and call APIs on their own. Static code scanning can’t detect when an AI goes off-policy or begins exfiltrating data through legitimate interfaces.

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