Revolutionizing Corporate AI with Ollama: How Local LLMs Boost Privacy, Efficiency, and Cost Savings

The integration of Ollama into corporate environments marks a pivotal shift in the deployment and operation of large language models (LLMs). By enabling local hosting of LLMs, Ollama provides companies with enhanced privacy, greater efficiency, and significant cost reductions.

In the evolving world of artificial intelligence, the trend of deploying large language models (LLMs) locally is gaining unprecedented momentum. Traditionally dominated by cloud-based services offered by giants like Open AI, Google, and Anthropic, LLMs’ accessibility has been both a boon and a bane. While these platforms provide easy-to-use interfaces and powerful functionalities, they pose significant privacy concerns, as they can access any data processed through their systems.

In response to these concerns, the landscape is shifting. Companies and individual users prioritizing data security are increasingly turning towards solutions allowing them to operate LLMs on their hardware. This movement was galvanized by the advent of open-source models like the new Llama3, which have democratized access to powerful AI tools without the hefty price tag of proprietary systems.

However, local deployment comes with challenges, primarily regarding resource management and hardware requirements. Initial models required significant computational power, making them impractical for standard hardware. However, technological advancements such as model quantization, which compresses model weights to reduce size drastically, are making local deployment more feasible and efficient.

This blog post delves into why running LLMs locally is becoming a popular choice. It explores the benefits of enhanced privacy, reduced reliance on internet connectivity, and the potential for lower latency in applications requiring real-time data processing. As we continue to navigate the intricacies of AI deployment, the shift towards local solutions represents a critical step in balancing power and privacy in the digital age.

What is Ollama?

Ollama is an open-source application that facilitates the local operation of large language models (LLMs) directly on personal or corporate hardware. It supports a variety of models from different sources, such as Llama3, Mistral, Openchat, and many others, allowing users to run these models on their local machines without the need for continuous internet connectivity. This local deployment secures sensitive data and provides complete control over the AI models and their operation.

Enhanced Privacy

Running LLMs locally / on-premise with Ollama ensures that sensitive data remains protected within the corporate firewall, significantly reducing the risks associated with data breaches and unauthorized access often seen in cloud-based solutions. This local control is vital for industries where data governance and privacy are paramount.

Increased Efficiency

Ollama dramatically improves the performance of LLMs by reducing model inference time by up to 50% compared to traditional cloud-based platforms, depending on hardware configuration. This is primarily due to eliminating data transfer delays and enhancing response times for AI-driven applications.

Cost Savings

Ollama is notably cost-effective, eliminating many expenses associated with cloud services. By running models on local infrastructure, companies can avoid continuous subscription costs and reduce their reliance on external data management services.

10 advantages to use Ollama in the corporate environment

Using Ollama in a corporate environment can offer several distinct advantages, particularly for companies leveraging local large language models (LLMs) for various applications. Here are ten advantages based on the capabilities and features of Ollama:

  1. Local Data Control: Ollama allows for the local running of models, which ensures all data processed remains within the company’s infrastructure, enhancing security and privacy.
  2. Customization and Flexibility: Thanks to Ollama’s support for customizable prompts and parameters, companies can customize models to suit specific needs or requirements.
  3. Cross-Platform Compatibility: Ollama supports multiple operating systems, including Windows, macOS, and Linux, facilitating integration into diverse IT environments.
  4. GPU Acceleration: Ollama can leverage GPU acceleration to speed up model inference, which is particularly useful for computationally intensive tasks.
  5. Ease of Integration: It integrates seamlessly with Python, the leading programming language for data science and machine learning, allowing for easy incorporation into existing projects.
  6. Support for Multimodal Models: Ollama supports multimodal LLMs, enabling the processing of both text and image data within the same model, which is beneficial for tasks requiring analysis of varied data types.
  7. Community and Open Source: Being an open-source tool, Ollama benefits from community contributions, which continually enhance its capabilities and features.
  8. Enhanced AI Capabilities: Ollama can be paired with tools like Langchain to create sophisticated applications like Retrieval-Augmented Generation systems, enhancing the depth and contextuality of responses.
  9. Web and Desktop Applications: There are numerous open-source clients and frameworks that facilitate the deployment of Ollama on both web and desktop platforms, enhancing accessibility and user interaction.
  10. Retrieval Capabilities: Ollama has robust retrieval features that can be utilized to fetch relevant information from large datasets, which can significantly improve the effectiveness of language models in generating informed and accurate outputs.

These advantages make Ollama a powerful and versatile choice for organizations looking to leverage advanced AI capabilities while maintaining control over their data and computational infrastructure.

Pros and Cons of Ollama: A Detailed Analysis

Pros of Ollama

  1. Data Privacy:
    Ollama ensures that all sensitive data is processed and stored locally, preventing external access and significantly mitigating the risk of data breaches. This is especially crucial for industries that handle sensitive information, such as healthcare and finance, where data privacy regulations are stringent.
  2. Cost-Effectiveness:
    By hosting LLMs locally, Ollama eliminates the need for costly cloud service subscriptions and data transfer fees. This can result in substantial long-term savings, particularly for organizations that require extensive data processing capabilities.
  3. Customization:
    Ollama provides extensive customization options that allow users to tailor models to specific business needs. This includes adjusting model parameters, integrating unique data sets, and modifying the model’s behavior to better align with organizational goals.
  4. Ease of Setup:
    Despite its advanced capabilities, Ollama offers a user-friendly installation process that is well-documented and supported for macOS and Linux. This simplifies the deployment of LLMs, making it accessible even to those with limited IT infrastructure.

Cons of Ollama

  1. Complexity for Beginners:
    The reliance on command-line interfaces can be a barrier for users without technical expertise. Although powerful, the CLI approach requires a learning curve that might deter non-technical users from fully leveraging the platform’s capabilities.
  2. Hardware Requirements:
    Running LLMs locally requires substantial computational resources, particularly for larger models. These can include high-end GPUs and significant memory allocation might be beyond the reach of small—to medium-sized enterprises without the necessary IT infrastructure.
  3. Scalability Challenges:
    While not previously mentioned, scalability can be a concern with Ollama. Unlike cloud services offering on-demand scalability, local deployment means scaling up operations often requires additional physical infrastructure. This can involve considerable investment in hardware and maintenance as needs grow.

Overall, Ollama presents a compelling option for organizations looking to maintain control over their AI operations with a focus on privacy, cost savings, and customization. However, the potential technical and infrastructural challenges must be carefully considered to ensure that they align with the organization’s capabilities and long-term strategy.

Real-World Applications of Ollama in Organizations

  1. Financial Sector – Fraud Detection:
    Banks could use Ollama to run models that analyze transaction patterns on local servers, ensuring sensitive financial data remains secure while detecting potential fraudulent activities in real-time.
  2. Healthcare – Patient Data Analysis:
    Hospitals might deploy Ollama to analyze patient records locally to ensure compliance with health data privacy regulations (like HIPAA in the U.S.), while utilizing AI to predict patient outcomes or personalize treatment plans.
  3. Legal – Document Review:
    Law firms could utilize Ollama for in-house document review systems, allowing lawyers to quickly parse through large volumes of legal documents without exposing client-sensitive information to third-party cloud providers.
  4. Retail – Customer Service Automation:
    Retail companies could implement Ollama to run customer service bots locally, handling inquiries and complaints while ensuring all customer data stays within the company’s control.
  5. Telecommunications – Network Optimization:
    Telecom companies might use Ollama to process data from network traffic locally to predict and prevent outages and optimize network performance without the latency involved in cloud processing.
  6. Manufacturing – Predictive Maintenance:
    Manufacturing firms could deploy Ollama to analyze machinery sensor data on-premises, predicting failures and scheduling maintenance without the need to send potentially sensitive operational data to the cloud.
  7. Education – Personalized Learning:
    Educational institutions might use Ollama to run models that adapt learning content based on student performance data stored and processed locally, enhancing student privacy and data security.
  8. Real Estate – Market Analysis:
    Real estate agencies could employ Ollama to analyze local market trends and client preferences securely on their servers, aiding in personalized property recommendations without exposing client data externally.
  9. Media and Entertainment – Content Recommendation:
    Media companies could use Ollama to host recommendation systems on local servers, processing user data to personalize content recommendations while keeping user preferences confidential and secure.
  10. Automotive – Autonomous Vehicle Development:
    Automotive companies might deploy Ollama locally in research centers to develop and test AI models for autonomous vehicles, processing large volumes of sensor data securely on-premises.

These examples illustrate the versatility of Ollama in various industries, highlighting its benefits in terms of data security, compliance, and operational efficiency.

How to install Ollama?

You can visit the official Ollama website or use the instructions below to set up Ollama using Docker.

Step 1: Install Docker

Before you can run Ollama in a Docker container, you need to have Docker installed on your system. If it’s not already installed, you can download and install Docker from the official Docker website. This process varies depending on your operating system (Windows, macOS, or Linux).

Step 2: Pull the Ollama Docker Image

Once Docker is installed, you can pull the Ollama Docker image from the Docker Hub or any other registry where it’s hosted. Open your terminal or command prompt and run the following command:

docker pull ollama/ollama

This command downloads the Ollama image to your local machine, allowing you to run it inside a Docker container.

Step 3: Run Ollama Using Docker

To start an Ollama container, use the Docker run command. This command creates a new container and starts it. Here’s how you can run the Ollama Docker container:

docker run -d --gpus=all -v ollama:/root/.ollama -p 11434:11434 --name ollama ollama/ollama

The -it flag attaches an interactive terminal to the Docker container, allowing you to interact with Ollama directly.

Model Customization and Advanced Setup

If you need to customize Ollama’s behavior or use specific models, you can modify the Docker command to mount a directory from your host into the container. This is useful for providing custom Modelfiles or accessing specific datasets:

docker exec -it ollama run llama3:70b

Using the steps outlined in this guide, you can switch to any model you prefer. Here’s a link to a tutorial that shows you how.

docker exec -it ollama run <model>

Following these steps, you can easily set up and run Ollama in a Docker environment, making it more portable and easier to manage across different machines and platforms.

Build Chatbot on Llama 3 with Ollama Locally

In this guide, we will walk through the steps to set up Ollama with the Llama 3 model and deploy a local ChatBot interface. This process allows users to interact with the powerful Llama 3 AI model locally, enhancing privacy and customizability. OLama is a tool designed to simplify the installation and management of large language models on local systems. We’ll also cover the setup of a chatbot interface using the ChatBot OLama tool developed by Ivan.

Pre-Requisites

Before beginning the installation, ensure the following prerequisites are met:

  1. Operating System: Ubuntu 22.02 or a compatible Linux distribution.
  2. Installed Software:
  • Docker: For running containerized applications.
  • Node.js: Latest version, for running JavaScript server-side.
  • npm (Node Package Manager): For managing JavaScript packages.

Step-by-Step Setup

Step 1: Install OLlama

  1. Download Ollama: Use the curl command to download and install OLama on your local system. If Ollama is already installed, you can skip this step.
   curl -s https://example.com/install-olama | sudo bash

Step 2: Verify Installation

  1. Check Installed Software: Ensure Docker, Node.js, and npm are correctly installed by checking their versions.
   docker --version
   node --version
   npm --version
  1. Run Ollama List: Verify that Ollama is running and list the installed models.
   olama list

Step 3: Download and Run Llama 3

  1. Download Llama 3 Model: Use Ollama to download the Llama 3 model.
   olama run lama3
  1. Wait for Download and Verification: Ollama will download the model and verify its checksum automatically.

Step 4: Deploy the ChatBot Interface

  1. Clone ChatBot Ollama Repository: Clone the repository containing the ChatBot interface.
   git clone https://github.com/ivan/chatbot-olama.git
   cd chatbot-olama
  1. Install Dependencies: Use npm to install necessary dependencies.
   npm install
  1. Configure .env File: Create and configure the .env file to specify your OLama host IP and port.
   echo "OLAMA_HOST=http://0.0.0.0:3000" > .env
  1. Run the ChatBot Interface:
   npm run dev

Step 5: Access the ChatBot UI

  1. Open a Web Browser: Navigate to http://localhost:3000 to access the ChatBot UI.
  2. Interact with Llama 3: Use the interface to send queries and receive responses from Llama 3.

This project is based on chatbot-ui by Mckay Wrigley.

Here are another alternatives for running large language models (LLMs) locally besides Ollama

  1. Hugging Face and Transformers: This method involves using the Hugging Face library to run various models like GPT-2. You’ll need to download and set up the model manually using the Transformers library. It’s ideal for experimentation and learning due to its extensive library of models and easy-to-use code snippets.
  2. LangChain: A Python framework that simplifies building AI applications on top of LLMs. It provides useful abstractions and middleware to develop AI applications, making it easier to manage models and integrate AI into your applications.
  3. LM Studio: A comprehensive tool for running LLMs locally, allowing experimentation with different models, usually sourced from the HuggingFace repository. It provides a chat interface and an OpenAI-compatible local server, making it suitable for more advanced users who need a robust environment for LLM experimentation.
  4. GPT4All: This desktop application is user-friendly and supports a variety of models. It includes a GUI for easy interaction and can process local documents for privacy-focused applications. GPT4All is particularly noted for its streamlined user experience.
  5. Google Gemma: A commercial alternative known for being a lightweight, state-of-the-art model assisting developers in building AI responsibly. It is popular among Windows users.
  6. Devin and Devika: Web-based tools that are designed to automate tasks and manage AI-driven projects without requiring extensive coding knowledge. These platforms focus on enhancing productivity and supporting engineers by automating routine tasks.
  7. Private GPT: Focuses on privacy, allowing you to run LLMs on your local environment without an internet connection, ensuring that no data leaves your computer. This makes it ideal for sensitive or proprietary data applications.

These options provide a range of functionalities and environments to suit different needs, whether for development, experimentation, or specific applications like task automation and privacy-focused operations.

Conclusion

Ollama is reshaping how businesses utilize AI by offering a secure, efficient, cost-effective solution for running LLMs locally. As it continues to evolve with more features and broader platform support, Ollama is expected to become a vital tool in corporate AI strategies, enabling businesses to maximize their AI capabilities while maintaining stringent data privacy and operational efficiency.

For additional details on implementing Ollama within your organization, please feel free to reach out to me using this link.

That’s it for today!

Sources:

What is Ollama? A shallow dive into running LLMs locally | Isaac Chung (isaac-chung.github.io)

https://ollama.com

6 Ways to Run LLMs Locally (also how to use HuggingFace) (semaphoreci.com)

Seven Ways of Running Large Language Models (LLMs) Locally (April 2024) (kleiber.me)

Initiating the Future: 2024 Marks the Beginning of AI Agents’ Evolution

As we navigate the dawn of the 21st century, the evolution of Artificial Intelligence (AI) presents an intriguing narrative of technological advancement and innovation. The concept of AI agents, once a speculative fiction, is now becoming a tangible reality, promising to redefine our interaction with technology. The discourse surrounding AI agents has been significantly enriched by the contributions of elite AI experts such as Andrej Karpathy, co-founder of OpenAI; Andrew Ng, creator of Google Brain; Arthur Mensch, CEO of Mistral AI; and Harrison Chase, founder of LankChain. Their collective insights, drawn from their pioneering work and shared at a recent Sequoia-hosted AI event, underscore the transformative potential of AI agents in pioneering the future of technology.

Exploring Gemini: Google Unveils Revolutionary AI Agents at Google Next 2024

At the recent Google Next 2024 event, held from April 9 to April 11 in Las Vegas, Google introduced a transformative suite of AI agents named Google Gemini, marking a significant advancement in artificial intelligence technology. These AI agents are designed to revolutionize various facets of business operations, enhancing customer service, improving workplace productivity, streamlining software development, and amplifying data analysis capabilities.

Elevating Customer Service: Google Gemini AI agents are set to transform customer interactions by providing seamless, consistent service across all platforms, including web, mobile apps, and call centers. By integrating advanced voice and video technologies, these agents offer a unified user experience that sets new standards in customer engagement, with capabilities like personalized product recommendations and proactive support.

Boosting Workplace Productivity: In workplace efficiency, Google Gemini’s AI agents integrate deeply with Google Workspace to assist with routine tasks, freeing employees to focus on strategic initiatives. This integration promises to enhance productivity and streamline internal workflows significantly.

Empowering Creative and Marketing Teams: For creative and marketing endeavors, Google Gemini provides AI agents that assist in content creation and tailor marketing strategies in real time. These agents leverage data-driven insights for a more personalized and agile approach, enhancing campaign creativity and effectiveness.

Advancing Data Analytics: Google Gemini’s data agents excel in extracting meaningful insights from complex datasets, maintaining factual accuracy, and enabling sophisticated analyses with tools like BigQuery and Looker. These capabilities empower organizations to make informed decisions and leverage data for strategic advantage.

Streamlining Software Development: Google Gemini offers AI code agents for developers that guide complex codebases, suggest efficiency improvements, and ensure adherence to best security practices. This facilitates faster and more secure software development cycles.

Enhancing System and Data Security: Recognizing the critical importance of security, Google Gemini includes AI security agents that integrate with Google Cloud to provide robust protection and ensure compliance with data regulations, thereby safeguarding business operations.

Collaboration and Integration: Google Gemini also emphasizes the importance of cooperation and integration, with tools like Vertex AI Agent Builder that allow businesses to develop custom AI agents quickly. This suite of AI agents is already being adopted by industry leaders such as Mercedes-Benz and Samsung, showcasing its potential to enhance customer experiences and refine operations. These partnerships highlight Google Gemini’s broad applicability and transformative potential across various sectors.

As AI technology evolves, Google Gemini AI Agents stand out as a pivotal development. They promise to reshape the future of business and technology by enhancing efficiency, fostering creativity, and supporting data-driven decision-making. The deployment of these agents at Google Next

The Paradigm Shift to Autonomous Agents

At the heart of this evolution is a shift from static, rule-based AI to dynamic, learning-based agents capable of more nuanced understanding and interaction with the world. Andrej Karpathy, renowned for his work at OpenAI, emphasizes the necessity of bridging the gap between human and model psychology, highlighting the unique challenges and opportunities in designing AI agents that can effectively mimic human decision-making processes. This insight into the fundamental differences between human and AI cognition underscores the complexities of creating agents that can navigate the world as humans do.

The Democratization of AI Technology

Andrew Ng, a stalwart in AI education and the mind behind Google Brain, argues for democratizing AI technology. He envisions a future where the development of AI agents becomes an essential skill akin to reading and writing. Ng’s perspective is not just about accessibility but about empowering individuals to leverage AI to create personalized solutions. This vision for AI agents extends beyond mere utility, suggesting a future where AI becomes a collaborative partner in problem-solving.

Bridging the Developer-User Divide

Arthur Mensch and Harrison Chase propose reducing the gap between AI developers and end-users. Mensch’s Mistral AI is pioneering in making AI more accessible to a broader audience, with tools like Le Chat to provide intuitive interfaces for interacting with AI technologies. Similarly, Chase’s work with LangChain underscores the importance of user-centric design in developing AI agents, ensuring that these technologies are not just powerful but also accessible and easy to use.

Looking Forward: The Impact on Society

The collective insights of these AI luminaries paint a future where AI agents become an integral part of our daily lives, transforming how we work, learn, and interact. The evolution of AI agents is not just a technical milestone but a societal shift, promising to bring about a new era of human-computer collaboration. As these technologies continue to advance, the work of Karpathy, Ng, Mensch, and Chase serves as both a blueprint and inspiration for the future of AI.

The architecture of an AI Agent

An AI agent is built with a complex structure designed to handle iterative, multi-step reasoning tasks effectively. Below are the four core components that constitute the backbone of an AI agent:

Agent Core

  • The core of an AI agent sets the foundation by defining its goals, objectives, and behavioral traits. It manages the coordination and interaction of other components and directs the large language models (LLM) by providing specific prompts or instructions.

Memory

  • Memory in AI agents serves dual purposes. It stores the short-term “train of thought” for ongoing tasks and maintains a long-term log of past actions, context, and user preferences. This memory system enables the agent to retrieve necessary information for efficient decision-making.

Tools

  • AI agents can access various tools and data sources that extend their capabilities beyond their initial training data. These tools include capabilities like web search, code execution, and access to external data or knowledge bases, allowing the agent to dynamically handle a wide range of inputs and outputs.

Planning

  • Effective planning is critical in breaking down complex problems into manageable sub-tasks or steps. AI agents employ task decomposition and self-reflection techniques to iteratively refine and enhance their execution plans, ensuring precise and targeted outcomes.

Frameworks for Building AI Agents

The development of AI agents is supported by a variety of open-sourced frameworks that cater to different needs and scales:

Single-Agent Frameworks

  • LangChain Agents: Offers a comprehensive toolkit for building applications and agents powered by large language models.
  • LlamaIndex Agents: This company specializes in creating question-and-answer agents that operate over specific data sources, using techniques like retrieval-augmented generation (RAG).
  • AutoGPT: Developed by OpenAI, this framework enables semi-autonomous agents to execute tasks solely on text-based prompts.

Multi-Agent Frameworks:

  • AutoGen is a Microsoft Research initiative that allows the creation of applications using multiple interacting agents, enhancing problem-solving capabilities.
  • Crew AI: Builds on the foundations of LangChain to support multi-agent frameworks where agents can collaborate to achieve complex tasks.

The Power of Multi-Agent Systems

Multi-agent systems represent a significant leap in artificial intelligence, transcending the capabilities of individual AI agents by leveraging their collective strength. These systems are structured to harness the unique abilities of different agents, thereby facilitating complex interactions and collaboration that lead to enhanced performance and innovative solutions.

Enhanced Capabilities Through Specialization and Collaboration

Each agent can specialize in a specific domain in multi-agent systems, bringing expertise and efficiency to their designated tasks. This specialization is akin to having a team of experts, each skilled in a different area, working together towards a common goal. For example, in content creation, one AI might focus on generating initial drafts while another specializes in stylistic refinement and editing. This division of labor not only speeds up the process but also improves the quality of the output.

Task Sharing and Scalability

Multi-agent systems excel in distributing tasks among various agents, allowing them to tackle more extensive and more complex projects than would be possible individually. This task sharing also makes the system highly scalable, as additional agents can be introduced to handle increased workloads or to bring new expertise to the team. For instance, agents could manage inquiries in various languages when handling customer service. In contrast, others could specialize in resolving specific issues, such as technical support or billing inquiries.

Iterative Feedback for Continuous Improvement

Another critical aspect of multi-agent systems is the iterative feedback loop established among the agents. Each agent’s output can serve as input for another, creating a continuous improvement cycle. For example, an AI that generates content might pass its output to another AI specialized in critical analysis, which then provides feedback. This feedback is used to refine subsequent outputs, leading to progressively higher-quality results.

Case Studies and Practical Applications

One practical example of a multi-agent system in action is in autonomous vehicle technology. Here, multiple AI agents operate simultaneously, one managing navigation, another monitoring environmental conditions, and others controlling the vehicle’s mechanics. These agents coordinate to navigate traffic, adjust to changing road conditions, and ensure passenger safety.

In more dynamic environments such as financial markets or supply chain management, multi-agent systems can adapt to rapid changes by redistributing tasks based on shifting priorities and conditions. This adaptability is crucial for maintaining efficiency and responsiveness in high-stakes or rapidly evolving situations.

Embracing the Future Together

As we stand on the brink of this new technological frontier, the contributions of Andrej Karpathy, Andrew Ng, Arthur Mensch, and Harrison Chase illuminate the path forward. Their visionary work not only showcases the potential of AI agents to transform industries, enhance productivity, and solve complex problems but also highlights the importance of ethical considerations, user-centric design, and accessibility in developing these technologies. The evolution of AI agents represents more than just a leap in computational capabilities; it signifies a paradigm shift towards a more integrated, intelligent, and intuitive interaction between humans and machines.

The future shaped by AI agents will be characterized by partnerships that extend beyond mere functionality to include creativity, empathy, and mutual growth. In the future, AI agents will not only perform tasks. Still, they will also learn from and adapt to the needs of their human counterparts, offering personalized experiences and enabling a deeper connection to technology.

Fostering an environment of collaboration, innovation, and ethical responsibility is crucial as we embark on this journey. By doing so, we can ensure that the evolution of AI agents advances technological frontiers and promotes a more equitable, sustainable, and human-centric future. The work of Karpathy, Ng, Mensch, and Chase, among others, serves as a beacon, guiding us toward a future where AI agents empower every individual to achieve more, dream bigger, and explore further.

In conclusion, the evolution of AI agents is not just an exciting technological development; it is a call to action for developers, policymakers, educators, and individuals to come together and shape a future where technology amplifies our potential without compromising our values. As we continue to pioneer the future of technology, let us embrace AI agents as partners in our quest for a better, more innovative, and more inclusive world.

That’s it for today!

Sources

AI Agents: A Primer on Their Evolution, Architecture, and Future Potential – algorithmicscale

Google Gemini AI Agents unveiled at Google Next 2024 – Geeky Gadgets (geeky-gadgets.com)

Google Cloud debuts agent builder to ease GenAI adoption | Computer Weekly

(2) AI Agents – A Beginner’s Guide | LinkedIn