Agentic AI that adapts, decides and acts

Empower your organization with Agentic AI—autonomous systems that perceive, learn, and act to achieve your business goals. Unlock new levels of automation, adaptability, and collaboration with next-generation AI agents.

Adapt. Decide. Act.

Our business tools

01 What it is

What is agentic AI?

Agentic AI refers to artificial intelligence systems that act as autonomous agents—capable of perceiving their environment, making decisions, and taking actions to achieve specific goals. Unlike traditional AI, which often follows static rules or models, agentic AI adapts, learns, and collaborates, making it ideal for dynamic, real-world scenarios.

Why do we need agentic AI?

  • Automates complex, multi-step business processes.
  • Adapts to changing environments and requirements.
  • Reduces manual intervention and operational costs.
  • Enables real-time decision-making and optimization.
  • Drives innovation in customer service, logistics, finance, and more.
  1. Perceive Its environment and the data around it
  2. Decide Smarter, context-aware decisions in real time
  3. Act Actions that move it towards a specific goal
  4. Learn From data and feedback, adapting as it goes
An autonomous agent's loop: it perceives, decides, acts and learns from feedback.

02 Architecture

An autonomous agent, layer by layer

An autonomous agent, layer by layer Environment: Data, Platforms, People. Agent: Perceive, Decide, Act. Improvement: Learn, Adapt. Oversight: Monitoring, Human oversight Environment Data Platforms People Agent Perceive Decide Act Improvement Learn Adapt Oversight Monitoring Human oversight
An autonomous agent, layer by layer

03 Use cases

How does agentic AI solve my problem?

04 Explore

Agentic AI types

Respond instantly to stimuli

Reactive agents

Reactive Agents act only on current input, without memory or internal state. They are fast and simple, ideal for straightforward, repetitive tasks.

  • Example: Basic chatbots, thermostat controls
  • Strength: Speed and reliability in predictable environments
  • Limitation: Cannot learn or adapt to new situations

Plan actions using reasoning

Deliberative agents

Deliberative Agents build internal models and plan before acting. They can handle complex scenarios by predicting outcomes and making informed decisions.

  • Example: Route-planning in autonomous vehicles
  • Strength: Can solve complex, multi-step problems
  • Limitation: Requires more computation and time

Pursue explicit objectives

Goal-based agents

Goal-Based Agents select actions that move them closer to defined goals, evaluating possible future states to make choices.

  • Example: Game-playing AIs (like chess engines)
  • Strength: Flexible and adaptable to changing goals
  • Limitation: Needs clear goal definitions

Maximize overall benefit

Utility-based agents

Utility-Based Agents weigh the desirability of outcomes, choosing actions that maximize their expected utility or satisfaction.

  • Example: Recommendation systems optimizing user satisfaction
  • Strength: Can balance multiple objectives and trade-offs
  • Limitation: Utility functions can be hard to define

Adapt and improve over time

Learning agents

Learning Agents use feedback to refine their behavior, improving performance as they gain experience.

  • Example: Self-improving chatbots, adaptive spam filters
  • Strength: Can handle new, unseen situations
  • Limitation: Needs data and training time

Use internal world models

Model-based reflex agents

Model-Based Reflex Agents maintain a simple internal model to handle partially observable environments, enabling more flexible responses.

  • Example: Smart home systems that track room occupancy
  • Strength: More robust than simple reflex agents
  • Limitation: Still limited by model complexity

Multiple agents working together

Multi-agent systems

Multi-Agent Systems involve several agents that interact, cooperate, or compete to solve distributed problems.

  • Example: Swarm robotics, distributed sensor networks
  • Strength: Scalability and robustness
  • Limitation: Coordination and communication overhead

Operate independently

Autonomous agents

Autonomous Agents make decisions and act without human intervention, adapting to their environment as needed.

  • Example: Self-driving cars, robotic vacuum cleaners
  • Strength: Reduces need for human oversight
  • Limitation: Must handle unexpected situations safely

Physical presence in the world

Embodied agents

Embodied Agents are robots or devices that interact with the physical world using sensors and actuators.

  • Example: Industrial robots, drones
  • Strength: Can manipulate and sense the real world
  • Limitation: Hardware constraints and maintenance

Human-like reasoning

Cognitive agents

Cognitive Agents use models inspired by human thought, enabling reasoning, learning, and problem-solving.

  • Example: Virtual assistants with memory and reasoning
  • Strength: Can handle complex, ambiguous tasks
  • Limitation: Computationally intensive

Interact with others

Social agents

Social Agents communicate and collaborate with humans or other agents, often used in assistants and collaborative tools.

  • Example: Customer service bots, negotiation agents
  • Strength: Effective in team or user-facing roles
  • Limitation: Needs advanced communication skills

Develop and execute plans

Planning agents

Planning Agents generate and adapt action sequences to achieve complex goals.

  • Example: Automated logistics and scheduling systems
  • Strength: Can optimize for efficiency and resources
  • Limitation: May struggle with highly dynamic environments

Engage in dialogue

Conversational agents

Conversational Agents interact with users via natural language, such as chatbots and virtual assistants.

  • Example: ChatGPT, Alexa, Google Assistant
  • Strength: Natural, intuitive user interaction
  • Limitation: May misunderstand context or intent

Autonomous robots

Robotic agents

Robotic Agents are physical robots capable of sensing, reasoning, and acting in the real world.

  • Example: Delivery robots, warehouse automation
  • Strength: Can perform physical tasks at scale
  • Limitation: Expensive and complex to deploy

Digital task automation

Software agents

Software Agents are programs that autonomously perform tasks in digital environments, like web crawlers or trading bots.

  • Example: Email filters, automated trading systems
  • Strength: Fast, scalable, and tireless
  • Limitation: Limited to digital environments

Belief-Desire-Intention model

BDI agents

BDI Agents use beliefs, desires, and intentions to make rational decisions and plan actions.

  • Example: Research prototypes, advanced planning bots
  • Strength: Flexible and theoretically robust
  • Limitation: Complex to implement and scale

Evolve and adapt

Evolutionary agents

Evolutionary Agents use evolutionary algorithms to adapt and improve their behavior or structure.

  • Example: AI for game strategy optimization
  • Strength: Can discover novel solutions
  • Limitation: May require many iterations to improve

Move across networks

Mobile agents

Mobile Agents can migrate between systems or network nodes to perform distributed tasks.

  • Example: Distributed monitoring tools
  • Strength: Flexible deployment across systems
  • Limitation: Security and coordination challenges

Work in teams

Collaborative agents

Collaborative Agents coordinate with others to solve problems that require teamwork.

  • Example: Multi-agent scheduling, swarm robotics
  • Strength: Can solve problems beyond single-agent capability
  • Limitation: Requires robust communication protocols

Assist with software interfaces

Interface agents

Interface Agents help users interact with applications, learning preferences and automating tasks.

  • Example: Personal assistants, smart UI helpers
  • Strength: Improves user productivity and experience
  • Limitation: Needs to learn user preferences accurately

Maximize performance

Rational agents

Rational Agents always choose actions that maximize their expected performance, given their knowledge.

  • Example: Automated bidding systems
  • Strength: Consistent and goal-oriented
  • Limitation: Dependent on quality of knowledge base

Combine multiple approaches

Hybrid agents

Hybrid Agents integrate features from different agent types to leverage their strengths.

  • Example: Self-driving cars (combining reactive and deliberative)
  • Strength: Flexible and robust in complex environments
  • Limitation: Increased system complexity

Take initiative

Proactive agents

Proactive Agents anticipate needs or problems and act in advance, not just in response to events.

  • Example: Predictive maintenance systems
  • Strength: Prevents issues before they occur
  • Limitation: Risk of acting on incorrect predictions

Balance reaction and initiative

Reactive-proactive hybrid agents

Reactive-Proactive Hybrid Agents combine immediate responses with proactive planning for flexible behavior.

  • Example: Advanced customer support bots
  • Strength: Can handle both urgent and long-term needs
  • Limitation: Complex to design and tune

05 FAQ

Questions about Agentic AI

What makes Agentic AI different from traditional AI?

Agentic AI systems act autonomously, adapt to changing environments, and make decisions to achieve specific goals, unlike traditional AI which often follows static rules.

Can Agentic AI work with my existing business systems?

Yes, Agentic AI can integrate with your current platforms and tools, enabling seamless automation and collaboration across your organization.

Is Agentic AI safe and reliable?

With proper monitoring, high-quality data, and human oversight, Agentic AI can be both safe and reliable for business-critical applications.

What are the first steps to adopt Agentic AI?

Start by identifying processes that benefit from autonomy, assess your data readiness, and launch pilot projects to measure impact before scaling.

06 More AI capabilities

Next step

Start with Agentic AI

Adapt. Decide. Act.