Context Graphs: What They Actually Solve?

Context Graphs: What They Actually Solve?

Context Graphs: What They Actually Solve?
and Why AI Agents Need Them?

Many AI Agents' unreliability stems from context challenges. It can be hallucinations because the Agent doesn’t have access to the correct information, a guardrail not followed as it wasn’t visible to the Agent, a wrong decision because data provided are incoherent or contradictory.

Those are context failures: the agent had access to information, but no reliable way to determine whether that information was applicable, valid, or allowed for the action it was about to take.

This problem becomes visible the moment AI systems move from answering questions to taking actions. As error compounds, a 5% error rate becomes 40% in a 10-step workflow. The same infrastructure used for a RAG-based LLM chatbot doesn’t work for an Agent.

The real problem: context without constraints

In modern systems, context is everywhere.

It lives in:

  • CRMs

  • ticketing systems

  • policy documents

  • product catalogs

  • logs

  • databases

  • embeddings and vector stores

All of this provides information, very little of it provides applicability.

When a human makes a decision, they implicitly filter context:

  • “This policy doesn’t apply to enterprise customers.”

  • “That exception expired last quarter.”

  • “We’ve overridden this rule before, but only for renewals.”

  • “This contract clause applies only in the EU.”

Humans carry this filtering logic in their heads.

AI agents do not.

Why this breaks as soon as agents act

The traditional way to build an LLM-based application such as a chatbot is the following:

Prompt an LLM in a loop to achieve an objective, provide some tools to achieve the objective and provide context to the LLM using a retrieval method (RAG, GraphRAG etc).

The agent doesn’t have a clear workflow to execute so it has to make decisions. Should I call tool A or tool B? Should I send an email or call the prospect? Should I assign the Jira ticket to IC A or IC B?

To make those defining decisions, the only help given to the LLM is what's usually called “context”. Most genAI systems today rely on some form of context retrieval:

  • keyword search

  • SQL queries

  • RAG pipelines

  • Embeddings

But what’s this context? Most of the time cold data such as Salesforce fields, a policy, a user buying history or just some text related in a way or another to the objective.

And there’s the rub:

1- The data found is not necessarily the one needed to make the decision, 

90% of the time the LLM will still answer something, as the data was missing with a very high chance of inventing a fact, saying something false or unjustified (hallucinations)

2- There’s no guide toward the decision

Even with the right data point how to make the decision? 

E.g. the context provided is a Jira ticket, the LLM still has to choose to assign it IC A or IC B

What lacks here is either (a) a guidance to make the decision with a rational behind or (b) a system that makes the decision instead of the LLM.

Retrieval is not decision context

RAG is often described as “giving the model context.”, in reality RAG gives the model documents, not decision context.

A retrieved document does not tell you:

  • whether it applies,

  • whether it is superseded,

  • whether it conflicts with another rule,

  • or whether it was already overridden in similar cases.

As a result, agents often combine incompatible rules, apply outdated policies, or invent constraints to fill gaps.

At scale, the question isn’t will it happen but when will it happen.

What a Context Graph actually is

A Context Graph is a structured system that represents:

  • business entities (customers, contracts, products, roles),

  • rules and policies,

  • exceptions and their scope and validity over time,

  • Decision traces on how to move from a state to the next one

The latter is key: traditional systems of records store states. For example, in Salesforce the different state of the lead. What is not stored is actually how the lead moved from a prospect to a qualified lead. What happened? Which decisions? Which actions? As we’ve seen acting agents need to make decisions, to help them do that context graphs encompass the decision traces of the past.

It is optimized for one question:

“Given this situation, which context is applicable right now?”

The key distinction is simple but fundamental:

A Context Graph encodes applicability, not just relationships.

Relationships are not enough

Traditional data models answer questions like:

  • “Which contract belongs to which customer?”

  • “Which policy references which product?”

  • “Which ticket is linked to which account?”

These relationships are static.

Decision-making is not.

Applicability depends on who is acting, what action is proposed, when the action occurs, under which constraints, and which exceptions exist.

A Context Graph makes these dimensions explicit.

Temporal validity is not optional

One of the most common sources of agent failure is time.

We’ve seen in real enterprise contexts: policies change, contracts expire and exceptions are temporary.

Yet most systems treat context as timeless.

A Context Graph treats time as a first-class dimension: rules have effective dates, exceptions have scopes and expirations, decisions are anchored to the context that existed at the time they were made.

Without this, reproducibility is impossible.

Why agents specifically need this layer

Static systems can tolerate ambiguity as humans can compensate.

With an autonomous agent, by definition there is no more human to compensate.

Without a Context Graph:

  • agents rely on probabilistic reasoning over unbounded inputs,

  • behavior changes subtly as data evolves,

  • errors are hard to reproduce,

  • and explanations are post-hoc at best.

With a Context Graph: agents operate within explicit constraints, behavior is deterministic given the same inputs, and decisions are auditable.
It is about building predictable systems.

The Rippletide approach

Rippletide’s Context Graph is deliberately narrow in scope.

It focuses on three principles:

1. Applicability

Context is returned only if it applies to the situation. No global context dumps.
No “the model will figure it out.”

2. Temporal validity

Every rule, exception, and decision is time-scoped.

The system knows not just what is true, but when it was true.

3. Traceability

For every piece of context included or excluded, the system can explain why.

This makes decisions:

  • auditable,

  • debuggable,

  • and defensible.

That’s it.

Context Graphs as infrastructure

As AI agents move into production systems, organizations need a way to: qualify context, constrain behavior, and explain outcomes.

Context Graphs are emerging as the simplest structure that fills that gap.

Read more here regarding the Market Shift Around the $1T Context Opportunity



Context Graphs: What They Actually Solve?
and Why AI Agents Need Them?

Many AI Agents' unreliability stems from context challenges. It can be hallucinations because the Agent doesn’t have access to the correct information, a guardrail not followed as it wasn’t visible to the Agent, a wrong decision because data provided are incoherent or contradictory.

Those are context failures: the agent had access to information, but no reliable way to determine whether that information was applicable, valid, or allowed for the action it was about to take.

This problem becomes visible the moment AI systems move from answering questions to taking actions. As error compounds, a 5% error rate becomes 40% in a 10-step workflow. The same infrastructure used for a RAG-based LLM chatbot doesn’t work for an Agent.

The real problem: context without constraints

In modern systems, context is everywhere.

It lives in:

  • CRMs

  • ticketing systems

  • policy documents

  • product catalogs

  • logs

  • databases

  • embeddings and vector stores

All of this provides information, very little of it provides applicability.

When a human makes a decision, they implicitly filter context:

  • “This policy doesn’t apply to enterprise customers.”

  • “That exception expired last quarter.”

  • “We’ve overridden this rule before, but only for renewals.”

  • “This contract clause applies only in the EU.”

Humans carry this filtering logic in their heads.

AI agents do not.

Why this breaks as soon as agents act

The traditional way to build an LLM-based application such as a chatbot is the following:

Prompt an LLM in a loop to achieve an objective, provide some tools to achieve the objective and provide context to the LLM using a retrieval method (RAG, GraphRAG etc).

The agent doesn’t have a clear workflow to execute so it has to make decisions. Should I call tool A or tool B? Should I send an email or call the prospect? Should I assign the Jira ticket to IC A or IC B?

To make those defining decisions, the only help given to the LLM is what's usually called “context”. Most genAI systems today rely on some form of context retrieval:

  • keyword search

  • SQL queries

  • RAG pipelines

  • Embeddings

But what’s this context? Most of the time cold data such as Salesforce fields, a policy, a user buying history or just some text related in a way or another to the objective.

And there’s the rub:

1- The data found is not necessarily the one needed to make the decision, 

90% of the time the LLM will still answer something, as the data was missing with a very high chance of inventing a fact, saying something false or unjustified (hallucinations)

2- There’s no guide toward the decision

Even with the right data point how to make the decision? 

E.g. the context provided is a Jira ticket, the LLM still has to choose to assign it IC A or IC B

What lacks here is either (a) a guidance to make the decision with a rational behind or (b) a system that makes the decision instead of the LLM.

Retrieval is not decision context

RAG is often described as “giving the model context.”, in reality RAG gives the model documents, not decision context.

A retrieved document does not tell you:

  • whether it applies,

  • whether it is superseded,

  • whether it conflicts with another rule,

  • or whether it was already overridden in similar cases.

As a result, agents often combine incompatible rules, apply outdated policies, or invent constraints to fill gaps.

At scale, the question isn’t will it happen but when will it happen.

What a Context Graph actually is

A Context Graph is a structured system that represents:

  • business entities (customers, contracts, products, roles),

  • rules and policies,

  • exceptions and their scope and validity over time,

  • Decision traces on how to move from a state to the next one

The latter is key: traditional systems of records store states. For example, in Salesforce the different state of the lead. What is not stored is actually how the lead moved from a prospect to a qualified lead. What happened? Which decisions? Which actions? As we’ve seen acting agents need to make decisions, to help them do that context graphs encompass the decision traces of the past.

It is optimized for one question:

“Given this situation, which context is applicable right now?”

The key distinction is simple but fundamental:

A Context Graph encodes applicability, not just relationships.

Relationships are not enough

Traditional data models answer questions like:

  • “Which contract belongs to which customer?”

  • “Which policy references which product?”

  • “Which ticket is linked to which account?”

These relationships are static.

Decision-making is not.

Applicability depends on who is acting, what action is proposed, when the action occurs, under which constraints, and which exceptions exist.

A Context Graph makes these dimensions explicit.

Temporal validity is not optional

One of the most common sources of agent failure is time.

We’ve seen in real enterprise contexts: policies change, contracts expire and exceptions are temporary.

Yet most systems treat context as timeless.

A Context Graph treats time as a first-class dimension: rules have effective dates, exceptions have scopes and expirations, decisions are anchored to the context that existed at the time they were made.

Without this, reproducibility is impossible.

Why agents specifically need this layer

Static systems can tolerate ambiguity as humans can compensate.

With an autonomous agent, by definition there is no more human to compensate.

Without a Context Graph:

  • agents rely on probabilistic reasoning over unbounded inputs,

  • behavior changes subtly as data evolves,

  • errors are hard to reproduce,

  • and explanations are post-hoc at best.

With a Context Graph: agents operate within explicit constraints, behavior is deterministic given the same inputs, and decisions are auditable.
It is about building predictable systems.

The Rippletide approach

Rippletide’s Context Graph is deliberately narrow in scope.

It focuses on three principles:

1. Applicability

Context is returned only if it applies to the situation. No global context dumps.
No “the model will figure it out.”

2. Temporal validity

Every rule, exception, and decision is time-scoped.

The system knows not just what is true, but when it was true.

3. Traceability

For every piece of context included or excluded, the system can explain why.

This makes decisions:

  • auditable,

  • debuggable,

  • and defensible.

That’s it.

Context Graphs as infrastructure

As AI agents move into production systems, organizations need a way to: qualify context, constrain behavior, and explain outcomes.

Context Graphs are emerging as the simplest structure that fills that gap.

Read more here regarding the Market Shift Around the $1T Context Opportunity



Ready to see how autonomous agents transform your enterprise?

Rippletide helps large organizations unlock growth with enterprise-grade autonomous agents

Rippletide wave

Ready to see how autonomous agents transform your enterprise?

Rippletide helps large organizations unlock growth with enterprise-grade autonomous agents

Ready to see how autonomous agents transform your enterprise?

Rippletide helps large organizations unlock growth with enterprise-grade autonomous agents

Rippletide wave

Stay up to date with the latest product news,
expert tips, and Rippletide resources
delivered straight to your inbox!

© 2025 Rippletide All rights reserved.
Rippletide USA corp. I 2 embarcadero 94111 San Francisco, CA, USA

Stay up to date with the latest product news,
expert tips, and Rippletide resources
delivered straight to your inbox!

© 2025 Rippletide All rights reserved.
Rippletide USA corp. I 2 embarcadero 94111 San Francisco, CA, USA

Stay up to date with the latest product news,
expert tips, and Rippletide resources
delivered straight to your inbox!

© 2025 Rippletide All rights reserved.
Rippletide USA corp. I 2 embarcadero 94111 San Francisco, CA, USA