Trust Infrastructure for Machines and AI

Machine and AI behavior blurs the lines between traditional Identity, Access Controls, and Data Loss Prevention (DLP). This requires a new product category: Zero Trust Infrastructure for Machines and AI

Operant governs how machines and AI agents connect, access, and use data: enforcing security, privacy, and governance per connection, in real time

Trust Is Enforced at Runtime - Not at Login

Traditional security and privacy controls were built for humans logging into applications. Identity systems, access controls, and DLP  policies assume static users, long-lived credentials, and predictable data 

Machines and AI agents don't work that way.

A connected device or sensor never logs in; it's always on, continuously communicating, with no natural moment to check its credentials. An AI agent goes further: it acts autonomously, chains tools dynamically, reuses data across contexts, and operates continuously making access, intent, and data use inseparable. An agent can be fully authorized, trigger no DLP alert, and still misuse data by combining, inferring, or propagating it beyond its intended purpose.

Operant enforces trust at runtime, at the point of connection governing not just what's allowed to connect, but what it is allowed to do with data, in what context, and for what purpose.

The Operant Trust Fabric

Operant enforces runtime trust through a protocol-gapped Trust Fabric that sits between machines, AI agents, and the systems they connect to.

Instead of embedding logic into agents, devices, or application protocols, Operant enforces policy at the communication boundary where requests are made, data flows, and connections occur. This allows Operant to govern identity, access, and how data is used per connection without trusting a device's firmware or an agent's internal logic.

The Trust Fabric acts as a runtime control plane for every machine and AI connection, continuously evaluating each interaction against centrally defined trust rules before allowing it to proceed.

Operant Trust Fabric 2D 12_16_25 - Edited - JPEG

Identity and Authorization at Machine Speed

Traditional IAM authenticates humans at login and grants standing permissions. That model breaks down for machines and AI agents alike; devices that stay connected around the clock, and agents that act continuously, invoke tools dynamically, and operate across systems.

Operant treats every participant: machines, AI agents, tools, APIs, and data services as a first-class identity. Each connection is evaluated in real time against centrally defined trust rules, and if permitted, Operant issues a short-lived, least-privilege credential scoped to that specific connection.

There are no standing privileges and no long-lived secrets inside devices or agents. Trust is verifed not assumed.


Privacy Is Enforced Where Data Flows

Privacy failures in AI systems rarely come from breaches. Instead, they come from authorized misuse, inference, and unintended propagation of sensitive data.

Operant enforces privacy controls in the data path, not in prompts or agent logic. For AI systems, sensitive data flows are routed through policy-driven sanitization and transformation components before reaching an agent or downstream system.

This prevents data retrieved in one context from being reused in another and ensures that privacy policies are enforced technically, not just documented.


Proof of Enforcement

Machine and AI systems alike need more than logs. They need evidence of how decisions were made and how data was used

Every policy decision, credential issuance, and connection event in Operant generates a signed, tamper-evident record at the network layer. This creates an immutable evidence stream that supports audit, forensics, compliance, and post-incident analysis.

Protocol-Gapped Enforcement, Enabled by DeftT

Operant enforces trust without modifying application protocols, agent frameworks, or model behavior. Built on DeftT (Defined-Trust Transport), a data-centric protocol rooted in Named Data Networking (NDN) research, a networking architecture designed for secure, machine-to-machine systems.

DeftT allows Operant to enforce identity, authorization, and data governance at the communication layer itself, as the control plane governing every connection rather than inside agents, devices, or applications. This creates a protocol-gapped trust fabric where enforcement is external, non-bypassable, and independent of how a device or AI agent is implemented or how it behaves.

Because trust lives at the communication boundary, not inside the endpoint, Operant can evaluate and authorize each connection at runtime, issue scoped credentials, govern data flows, and generate signed evidence all without embedding logic into models, prompts, devices, or APIs.

*For OT and industrial systems protocols, DeftT also runs natively as the transport layer itself see OT & Industrial Solutions for that architecture

Multi-Dimensional Trust

Every interaction is verified across identity, context, policy, and scope. Trust is continuously re-established

Cross-Environment

Whether on-prem, in the cloud, or at the edge, trust policies follow the data removing the gaps at system boundaries

Invisible by Design

Our trust fabric operates as a protocol-gapped overlay, making it nearly impossible to detect, target, or disrupt

Blocks Session Hijacking

By binding policy enforcement to each action, Operant prevents man-in-the-middle and session hijacking

Updates and Insights from the Operant Team

Operant Networks Launches Data Privacy for AI Agents

By Astrid Morris | September 16, 2025

Operant Networks Launches Secure AI Sandbox for MCP, Solving the AI POC-to-Production Gap

By Astrid Morris | August 11, 2025

The 4 Phases of Enterprise AI Adoption (and Why Security Must Catch Up)

By Astrid Morris | July 16, 2025

Why AI Breaks Traditional Security – and How to Fix It

By Astrid Morris | June 20, 2025

Operant Networks Launches Embedded Zero Trust Security Software for PLCs

By Astrid Morris | March 19, 2025

Operant Networks Celebrates 15GW Deployment Milestone – A Trailblazer in Cybersecurity for the Power Generation Industry

By Astrid Morris | September 9, 2024

Secure-by-Design Part 2: Implementing Secure-by-Design through a Data-Centric Approach

By Astrid Morris | November 1, 2023

Secure-by-Design Part 1: Cyber-informed Engineering & Secure By Design for the Energy Industry

By Astrid Morris | November 1, 2023

NIST 800-207A Special Publication Recommendations using Operant Network’s Multi-Part Trust (MPT)

By Astrid Morris | September 27, 2023

Operant Networks Celebrates 10GW Deployment Milestone – A Trailblazer in Cybersecurity for the Power Generation Industry

By Astrid Morris | August 7, 2023

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