Wednesday, September 16, 2026

AI That Can See, Think and Act: The Convergence of Multimodal and Agentic AI

 

AI That Can See, Think and Act: The Convergence of Multimodal and Agentic AI

For years, we interacted with AI mainly through text.

We typed a question.
AI generated an answer.

Then AI learned to understand images, audio, video, documents, and screens. That was the rise of multimodal AI.

Now something even more interesting is happening.

AI is increasingly being designed not just to understand information, but to reason about it and take action.

This is where multimodal AI and agentic AI begin to converge.

The next generation of AI systems won't simply answer:

"What am I looking at?"

They will increasingly be able to answer:

"What is happening, what should happen next, and what action should I take?"

That shift could fundamentally change how we build software and automate business processes.


From Chatbots to Systems That Can Act

Traditional AI applications generally follow a simple pattern:

Input → AI → Response

For example:

A user uploads an invoice and asks:

"What is the total amount?"

The AI reads the invoice and provides the answer.

An agentic system can go much further:

Observe → Understand → Reason → Plan → Act → Verify

For the same invoice, an AI agent might:

  1. Read the invoice.
  2. Identify the supplier.
  3. Extract invoice details.
  4. Compare them with a purchase order.
  5. Check whether the goods were received.
  6. Detect a mismatch.
  7. Ask for human approval if necessary.
  8. Update the accounting system.
  9. Notify the appropriate person.
  10. Verify that the transaction was completed successfully.

The AI is no longer simply answering a question.

It is participating in the workflow.


What Does "Multimodal" Really Mean?

Multimodal AI refers to systems capable of working with multiple types of information.

That can include:

  • Text
  • Images
  • Audio
  • Video
  • Documents
  • Screenshots
  • Tables
  • Code
  • Structured business data
  • Application interfaces

Consider a manufacturing environment.

A traditional AI system might analyze machine sensor data.

A multimodal system could combine:

Sensor data + maintenance history + technician notes + machine images + video

Now the AI has a much richer understanding of the situation.

Instead of seeing one isolated data point, it can connect different forms of evidence.


Agentic AI Adds the "Action" Layer

Multimodal AI gives an AI system more ways to perceive the world.

Agentic AI gives it the ability to pursue a goal through multiple steps.

This distinction is important.

Imagine an IT operations environment.

A monitoring system detects:

"Database CPU utilization is 95%."

That's useful, but limited.

A multimodal agent could potentially examine:

  • Monitoring dashboards
  • SQL Server logs
  • Query execution statistics
  • Recent deployment information
  • Alert history
  • Configuration changes
  • Incident tickets

It could then reason:

"CPU increased shortly after a deployment. Query X is consuming unusually high CPU. The execution plan changed after the deployment."

Depending on the permissions and guardrails, the agent could then:

  • Create an incident.
  • Notify the DBA team.
  • Collect diagnostic information.
  • Recommend a rollback.
  • Request approval.
  • Execute an approved remediation.
  • Monitor the result.

This is a fundamentally different architecture from a chatbot.


The New AI Loop

A useful way to think about this emerging architecture is:

1. See

The system receives information from different modalities.

Images, documents, video, audio, APIs, databases, screens, sensors and text.

2. Understand

The AI converts those inputs into a meaningful representation of the current situation.

3. Think

The reasoning layer determines:

  • What is happening?
  • What is the objective?
  • What information is missing?
  • What options are available?
  • What could go wrong?

4. Plan

The agent breaks the objective into smaller tasks.

For example:

Goal: Resolve a failed database job.

Plan:

Check job history → identify error → inspect dependencies → determine impact → propose remediation → obtain approval → execute → validate.

5. Act

The agent interacts with external systems through tools and APIs.

6. Verify

This step may become one of the most important.

The agent shouldn't simply assume that an action succeeded.

It should check.

Action → Result → Verification → Next action

That feedback loop is what makes agentic systems considerably more powerful than simple automation.


Why Multimodal + Agentic AI Is More Powerful

Individually, both technologies are useful.

Together, they create something much more interesting.

Consider a customer-support scenario.

A customer uploads a photograph showing a damaged product and writes:

"This arrived broken."

A multimodal AI can understand the photograph, read the order information and interpret the customer's message.

An agent can then potentially:

  1. Identify the product.
  2. Retrieve the order.
  3. Check the purchase date.
  4. Review the warranty or return policy.
  5. Determine eligibility.
  6. Create a return request.
  7. Generate a shipping label.
  8. Update the CRM.
  9. Notify the customer.
  10. Track the resolution.

The image provides perception.

The agent provides reasoning and action.

Together they create an end-to-end workflow.


The Enterprise Opportunity

This convergence could be particularly important for enterprises because businesses are full of processes that require people to:

Look → Understand → Decide → Act → Verify

Examples include:

Finance

Invoice → Purchase Order → Goods Receipt → Payment

IT Operations

Alert → Logs → Diagnosis → Remediation → Validation

HR

Resume → Job Requirements → Candidate Screening → Interview → Scheduling

Supply Chain

Order → Shipment → Warehouse → Inventory → Delivery

Customer Service

Message → Account → Product → Policy → Resolution

Many of these workflows contain repetitive cognitive tasks.

That's where AI agents could potentially create significant value.


But There Is a Major Difference Between "Can" and "Should"

This is where the conversation around AI agents becomes more serious.

Just because an AI can perform an action doesn't mean it should perform that action autonomously.

Imagine an agent that has access to:

  • Production databases
  • Financial systems
  • Customer records
  • Email
  • Cloud infrastructure
  • Internal applications

A mistake could have real consequences.

Therefore, enterprise agentic AI needs more than a powerful model.

It needs:

Permissions + Policies + Guardrails + Observability + Human Oversight

A useful architecture might look like:

                ┌───────────────────┐
                │   Human / Goal    │
                └─────────┬─────────┘
                          │
                          ▼
                ┌───────────────────┐
                │   AI Agent        │
                │ Reason + Plan     │
                └─────────┬─────────┘
                          │
              ┌───────────┼───────────┐
              ▼           ▼           ▼
          Multimodal    Memory       Tools
          Perception                 / APIs
              │           │           │
              └───────────┼───────────┘
                          ▼
                ┌───────────────────┐
                │ External Systems  │
                └─────────┬─────────┘
                          │
                          ▼
                ┌───────────────────┐
                │ Verify + Monitor  │
                └───────────────────┘

The important component isn't just the model.

It is the entire system around the model.


Human-in-the-Loop Will Still Matter

The future of agentic AI is not necessarily:

"AI does everything."

A more realistic enterprise model is:

AI handles routine decisions; humans handle exceptions, approvals and high-impact decisions.

For example:

Low risk

AI can automatically categorize an expense.

Medium risk

AI prepares a payment but requires approval.

High risk

AI analyzes the situation and recommends an action, but a human must approve it.

This creates a spectrum of autonomy rather than a simple "AI vs human" model.


The Rise of AI Workflow Designers

This shift also changes what AI skills will be valuable.

Prompt engineering was an important early skill.

But building useful agentic systems requires much more.

People increasingly need to understand:

  • Workflow design
  • APIs
  • Tool calling
  • Data retrieval
  • RAG
  • Memory
  • Authentication
  • Permissions
  • Observability
  • Evaluation
  • Error handling
  • Human approval workflows
  • Security

In other words:

The important skill is moving from writing better prompts to designing better AI systems.

A good AI workflow designer doesn't simply ask:

"What should the AI say?"

They ask:

"What should the AI observe, decide, do, verify and escalate?"


What Happens to Traditional Software?

AI agents won't necessarily replace traditional applications.

Instead, we may see a new software architecture where conventional applications provide reliable systems of record, while AI agents provide a natural-language reasoning and orchestration layer.

For example:

User
  ↓
AI Agent
  ↓
Reasoning / Planning
  ↓
 ┌──────────────┬───────────────┐
 ↓              ↓               ↓
Database       API           Enterprise App
 ↓              ↓               ↓
Result ─────────┴───────────────┘
              ↓
          AI verifies
              ↓
           User

The database still stores the data.

The ERP still manages transactions.

The CRM still manages customers.

The AI becomes the layer that understands the user's objective and coordinates the systems.


The Real Challenge: Trust

The biggest challenge may not be intelligence.

It may be trust.

Before organizations allow AI agents to operate production systems, they will need answers to questions such as:

  • Why did the agent make this decision?
  • Which data did it use?
  • Which tools did it access?
  • What actions did it take?
  • Who authorized those actions?
  • Can we reproduce the decision?
  • What happens when the model is wrong?
  • Can we stop the agent?
  • Can we roll back its actions?

This makes AI governance and observability just as important as model capability.


From AI Assistant to AI Coworker

Perhaps the simplest way to understand the transition is this:

Generation 1

AI as a search assistant

"Find this information."

Generation 2

AI as a content assistant

"Create this document."

Generation 3

AI as a reasoning assistant

"Analyze this situation."

Generation 4

AI as an agent

"Achieve this goal."

Emerging Generation 5

AI as a multimodal agent

"Understand everything relevant, decide what needs to happen, execute the workflow, and verify the outcome."

The boundaries between software, automation and AI are becoming increasingly blurred.


The Bigger Picture

The interesting question is no longer simply:

"How intelligent is the AI?"

A better question is:

"What can the AI perceive, what can it reason about, what can it access, and what can it safely do?"

Multimodal AI expands the AI's perception.

Reasoning models expand its problem-solving capability.

Agentic architectures expand its ability to act.

Tools and APIs expand its reach.

Memory expands its continuity.

Governance determines its boundaries.

Put these together and we get a new class of software:

AI systems that can see, think, act and learn from the results of their actions.

That could be one of the defining directions of enterprise AI over the next few years.

And perhaps the biggest shift is this:

We are moving from AI that generates answers to AI that participates in work.

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