
As artificial intelligence (AI) continues to evolve, a new field has emerged known as Agentic AI. Unlike traditional AI, agentic AIs are designed to understand and make strategic decision for more complex scenarios.
In this post, we will look into the world of agentic AI. We cover its key components and history, how it differs from traditional AI. We will also discuss the benefits and risk of its implementation in business operations and the future of it.
Looking for a quick and insightful overview? Tune in to our podcast on “Introduction to Agentic AI and Agentic Workflow” and dive deeper into this fascinating topic!

Agentic AI is an advanced artificial intelligence system specifically designed to autonomously comprehend complex workflows and accomplish objectives with minimal human intervention. This form of AI has the potential to revolutionize numerous industries by enhancing productivity and streamlining operations. Below, we explore several key characteristics that define Agentic AI, along with detailed explanations, examples, and potential use cases.
Agentic AI possesses its own set of goals, objectives, and motivations that guide its decision-making processes. Unlike traditional AI, which requires explicit instructions from humans, Agentic AI can independently determine the most effective actions to take in pursuit of its goals.
For instance, in a manufacturing environment, an Agentic AI system might autonomously adjust production schedules based on real-time data about supply chain disruptions, thus ensuring optimal output without human oversight.
One of the hallmark features of Agentic AI is its capacity for adaptive learning. By gathering insights from its interactions with the environment, Agentic AI learns from both successes and failures.
For example, in an e-commerce setting, an Agentic AI could analyze customer purchasing behaviors, adapt its marketing strategies accordingly, and ultimately maximize sales. This ability to reason and solve problems enables Agentic AI to refine its approaches and improve its outcomes over time, making it an invaluable tool for enterprises striving for continuous improvement.
Agentic AI utilizes cutting-edge natural language processing (NLP) techniques, such as transformers and large language models, to deeply understand human language. This capability is not merely about basic comprehension; it involves grasping nuanced meanings and context.
For example, in customer service, an Agentic AI can interact with customers in natural language, identify their needs, and provide relevant solutions or escalate issues seamlessly. This level of language proficiency allows for richer interactions and enhances user satisfaction.
By merging language understanding with analytical reasoning, Agentic AI can significantly optimize workflows and business processes. This includes tasks such as resource allocation, streamlining channels of communication, and identifying automation opportunities.
For instance, in project management, an Agentic AI agent might analyze team members’ workloads, optimize task assignments, and ensure that deadlines are met while reducing bottlenecks. This capability makes it a vital asset for organizations looking to enhance efficiency and operational effectiveness.
Another unique feature of Agentic AI is its ability to facilitate communication among multiple agents, which allows for the creation of complex workflows. This means that it can interact with other systems and tools—such as email clients, code execution platforms, and search engines—to execute a wide variety of tasks.
For example, in a research setting, an Agentic AI might gather data from various databases, compile findings, and generate reports, all while coordinating with other AI agents for enhanced research results. This connectivity fosters a collaborative environment where various AI systems work in tandem to achieve common goals.
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The synthesis of these capabilities enables Agentic AI to be a transformative force in enhancing productivity and refining decision-making processes. By offering a level of functionality that surpasses traditional AI systems, Agentic AI stands at the forefront of technical innovation, ready to redefine the landscape of autonomous workflows and intelligent systems.
Agentic AI and traditional AI have a huge dissimilarity from different aspects. The following table analyzes the differences between two types of AI and list some example of each type.
Harrison Chase, the founder of LangChain has described that the building blocks of each agentic AI includes four main perspectives, Planning, Memory, Tool, and Action.

These four perspectives will run in a loop and form a cycle until the given task is completed. The process starts from planning, to equipping tool, follow by action, then memory and back to planning to start the next stage in the plan or another task.
For instance, if we have to calculating (1+2)/3 by agentic AI, the agent will start with the planning stage. It plan to compute 1+2 first. The agent equip with the tool calculator, and take action to perform addition. After generating the calculation result, it will store the result in the short-term memory for the next step. Finally it will go back to the planning stage to reflect on the plan, then decide and perform division with the result stored in the memory to complete the task.
To perform a more complex task or work flow, a multi-agent system can be created with multiple agentic AI with different tools or planning that specify for different subtask.
The past decades has witnessed a remarkable change in the field of conversational AI, from simple rule-based chatbots with predetermined responses to specific user inputs to advanced agentic AI systems capable of decision-making and goal-oriented behaviors. There are a few key stages in the evolution process.

Early conversational AI systems were primarily rule-based, with predetermined responses to specific user inputs. They do not have memory and are task specific. These systems were limited in their ability to engage in natural, contextual dialogue, and often struggled with understanding complex language.
With advancement on natural language processing (NLP) and machining learning, AI can grasp the broader context and nuances of the conversation after training with much more data. Through integrating the language models, dialogue management, and knowledge bases , conversational AI systems became more adept at understanding context, maintaining coherent conversations, and adapting their natural-sounding responses based on the flow of the dialogue.
Under enterprise-utilization, enterprises require not only responses, but also a system to autonomously manage and execute complex workflows or tasks. They also need AI to take initiative to anticipate, plan, and take independent actions to achieve their goals. Therefore, such agentic AI assistants are developed to fulfill the requirements, which includes autonomous goal-setting, context-aware decision-making, robust language understanding, and the ability to integrate with various enterprise system.
Agentic workflow refers to connecting multiple agentic AI to form a more iterative or a multi-step framework such that the agents can perform more complex tasks and make decision autonomously. There are a few key aspects that enable agentic workflows to solve more complex tasks: data integration, decision points, and feedback mechanism. For further details, check out the post "The Power of AI Agent and How to Build AI Agents".
The shift to agentic workflow from a single agentic AI indicates a shift in emphasis toward using AI to provide better results, showing that even less advanced LLMs may produce impressive outcomes when integrated into these intricate, multi-tiered systems. To set up such impressive system, there are a few major steps.
Before you really start building the agentic assistants or the workflow, you should first identify the structure of the agentic workflow or the role of the individual AI agents such that you will have a clearer idea on how the workflow will look like. You may want to ask yourselves the following questions to understand the structure of your agentic workflow and the agentic AI assistants:
When you have answers for the above questions, you should have a better idea on your workflow structure and you could proceed to the next step.
After you know how many agents and the role of them, you may start building you agents according to their responsibility. To create an agentic AI, there are four main building blocks to considerate as mentioned above:
When your have determined the requirements of all building blocks, then you could set up your agents smoothly with the chosen LLM model. To learn more difference between different LLM model, please refer to the table in the blog post "How to Create an AI Assistant Without Any Coding Skills".
After setting up all agents, this is the time to build the agentic workflow. With the consideration in the first step, you can set up the connection between the agents by the passing one's agent output as another input or any other way as you want. You may have to refine your agents' prompts or add an extra step to reformat the output in order to fit in another agent's prompt as an input.
After setting up your agentic workflow, you should monitor its performance and refine its structure to optimize your system for efficiency, accuracy and creativity.
Agentic AI could bring huge benefits to enterprises including increase efficiency with its ability to connect with multiple systems and tools, and automate complex workflow from the start to the end. It could also help to save time for human employees by taking over repetitive mundane tasks, while optimize the workflow and enhance decision-making process.
The following are a few use cases of agentic workflow and assistant.
While the implementation of agentic assistants can bring significant benefits, there are also potential risks that organizations should be mindful of:
Agentic AI systems, with their increased autonomy and decision-making capabilities, can raise ethical questions around transparency, fairness, and accountability. The complex algorithms that power AI’s decision-making capability can be difficult to understand and predict by average users. This lack of transparency may reduce the trustworthiness of AI’s decisions and prove to be an obstacle to its adoption and auditability. Therefore, there is a need to demand the agentic AI systems to provide explanations for their decisions in order to understand the logic behind AI's reasoning and enhance trustworthiness. Enterprise could also include AI ethics committee, bias detection tools to further ensure transparency, fairness, and accountability in the use of agentic AI.
Agentic AI systems will connect to enterprise networks and data sources which may introduce new cybersecurity vulnerabilities if not properly secured. Malicious actors could potentially exploit weaknesses in the AI systems, leading to data breaches, system disruptions, or even the manipulation of the AI's decision-making processes. Comprehensive security measures, including robust access controls, encryption, and incident response protocols, are essential.
As the systems grow in complexity and scale, enterprises may face challenges in maintaining, updating, and scaling these systems effectively. The need for continuous learning, model refinement, and system maintenance can be resource-intensive and require specialized expertise. Enterprises should invest in robust infrastructure, processes, and skilled personnel to ensure the long-term sustainability and scalability of their agentic AI initiatives.
The agentic AI will continuously developed in the future and the followings some predictions on the future usage and development of the agentic AI.
The emergence of agentic AI signals a transformative phase in the enterprise AI revolution. With the capacity for autonomous planning, reasoning, execution, and adaptation, agentic AI is poised to usher in a new era of enhanced efficiency and productivity across core business operations.
As we look into the implementation, it comes with a range of potential risks that organizations must be prepared to address, from ethical and accountability concerns to security vulnerabilities. However, as we’ve implemented different ethical and security measures, and further develop on infrastructure, this could have managed the risk and guide us to a successful implementation of the agentic AI.
By embracing this transformation, organizations can position themselves for long-term success, enhance their service quality, streamline their operations, and maintain a strategic advantage in the ever-evolving business landscape.
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Agentic AI is an advanced artificial intelligence system designed to understand complex workflows and autonomously achieve goals with minimal human intervention. Its smart capabilities allow it to enhance productivity and streamline operations across various industries.
The key characteristics of Agentic AI include:
Agentic AI exhibits autonomy by possessing its own set of goals and motivations, enabling it to independently determine the most effective actions to achieve those goals. For example, in a manufacturing environment, it can adjust production schedules based on real-time data without needing human direction.
Yes, Agentic AI has adaptive learning capabilities that allow it to gather information from interactions and learn from both successes and failures. By analyzing patterns in data, it can continuously improve its methods and outcomes over time.
Language understanding is critical to Agentic AI as it uses state-of-the-art natural language processing models to deeply comprehend and interact in human language. This allows Agentic AI to engage in meaningful conversations, identify user needs, and provide effective solutions, such as in customer service applications.
Agentic AI optimizes workflows by combining its language understanding with decision-making and reasoning capabilities. It can analyze team workloads, streamline communication, and recommend task assignments, thus enhancing overall efficiency and productivity in various settings, such as project management.
The ability of Agentic AI to communicate with multiple agents is significant as it allows the creation of complex workflows and collaboration among different systems. For example, it can gather data from various platforms and coordinate efforts to achieve tasks that require collaboration, making it highly effective in research and development.
Agentic AI differs from traditional AI in its level of autonomy and capability for adaptive learning. While traditional AI often requires explicit instructions and can only perform tasks as programmed, Agentic AI operates independently, learns from experiences, and can optimize workflows, making it a more versatile and efficient tool.
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