
AIXP
AI-Exchange Protocol (AIXP): A Communication Standard for Artificial Intelligence Agents
Stars: 71

The AI-Exchange Protocol (AIXP) is a communication standard designed to facilitate information and result exchange between artificial intelligence agents. It aims to enhance interoperability and collaboration among various AI systems by establishing a common framework for communication. AIXP includes components for communication, loop prevention, and task finalization, ensuring secure and efficient collaboration while avoiding infinite communication loops. The protocol defines access points, data formats, authentication, authorization, versioning, loop detection, status codes, error messages, and task completion verification. AIXP enables AI agents to collaborate seamlessly and complete tasks effectively, contributing to the overall efficiency and reliability of AI systems.
README:
In the rapidly evolving field of artificial intelligence (AI), collaboration and communication between AI agents are essential for achieving breakthroughs and advancements. The AI-Exchange Protocol (AIXP) is a proposed communication standard designed to facilitate the exchange of information and results between AI agents. By establishing a common framework for communication, AIXP aims to enhance interoperability and collaboration among various AI systems.
AIXP is built upon the following key principles:
- Facilitate information and result exchange between AI agents.
- Establish a common standard for communication between different AI systems.
To achieve these goals, AIXP incorporates the following groups and components:
Group | Description | Points |
---|---|---|
Communication | This group vocers the aspects related to data exchange and access control | Access Points, Data Formats, Authentication and Ahthorization, Versioning |
Loop Prevention | This group focuses on detectiong and preventing loops in the system | Loop Detection and Prevention |
Task Finalization | This group deals with the process of verifying task completion and terminating loops | Status Codes and Error Messages, Task Completion, Verification and Loop Termination |
-
Access Points AIXP defines specific access points for each function or task that AI agents can perform. For example, separate endpoints may be designated for text analysis, image recognition, and other tasks. This approach ensures that AI agents can easily identify and access the appropriate resources for their needs.
-
Data Formats AIXP establishes a common data format for information exchange, such as JSON or XML. This ensures that all AI agents can interpret and process the received data, regardless of their underlying technologies or platforms.
Here is an example of code using the JSON format to exchange data between two artificial intelligence agents in English:
{
"request": {
"agent_id": "Agent_A",
"task": "text_analysis",
"data": {
"text": "The quick brown fox jumps over the lazy dog."
}
},
"response": {
"agent_id": "Agent_B",
"task": "text_analysis",
"status": "success",
"data": {
"word_count": 9,
"most_common_word": "the",
"sentiment": "neutral"
}
}
}
In this example, Agent A requests Agent B to perform text analysis. The request and response are structured using the JSON format, which allows both agents to easily interpret and process the exchanged data.
-
Authentication and Authorization To guarantee the security and privacy of shared data, AIXP implements an authentication and authorization system. This may include the use of access tokens, digital signatures, or other authentication methods to verify the identity of AI agents and control access to resources.
-
Versioning AIXP includes versioning information in protocol requests and responses to ensure compatibility between different versions of AI agents and their functions. This allows for seamless integration and collaboration, even as AI systems evolve and improve over time.
- Loop Detection and Prevention To handle the potential issue of infinite communication loops between AI agents, AIXP includes a mechanism for loop detection and prevention. This component ensures that AI agents do not get stuck in a cycle of continuous communication without making progress on their tasks.
Example of BabyAGI infinite loop
sequenceDiagram
participant Execution Agent
participant Context Agent
participant Task Agent
participant Priotization Agent
participant Vector DB
autonumber
loop BabyAGI
%% Execution step
Execution Agent --> Execution Agent: Pull the first incomplete task
Execution Agent --> Execution Agent: Execute Task
Execution Agent --) Vector DB: Enrich vectors
Execution Agent ->> Context Agent: Exchange result
Context Agent ->> Execution Agent: Response code XXXX
%% Context step
Context Agent --) Vector DB: Retrieve vectors
Context Agent --> Context Agent: Process context
Context Agent --) Vector DB: Enrich vectors
Context Agent ->> Task Agent: Exchange context
Task Agent ->> Context Agent: Response code XXXX
%% Task step
Task Agent --> Task Agent: Create new tasks
Task Agent ->> Priotization Agent: Exchange new tasks
Priotization Agent ->> Task Agent: Response code XXXX
%% Priorization step
Priotization Agent --> Priotization Agent: Reprioritize tasks
%% Loop
Priotization Agent ->> Execution Agent: Transfer new task
Task Agent ->> Priotization Agent: Response code XXXX
end
Loop detection and prevention can be achieved through the following methods:
- Message Tracking: Each message exchanged between AI agents includes a unique identifier and a counter. The counter increments with each subsequent communication involving the same message. If the counter reaches a predefined threshold, the communication is terminated to prevent a loop.
- Time-to-Live (TTL): Each message has an associated time-to-live value, which represents the maximum time the message is allowed to exist in the communication system. Once the TTL expires, the message is discarded, preventing any further communication loops involving that message.
- Status Codes and Error Messages AIXP establishes a set of standardized status codes and error messages to inform AI agents about potential issues during information exchange. This enables AI agents to handle errors gracefully and maintain robust communication.
Status code from 5001 to 5009
Status code | Description |
---|---|
5001 | Success Agent connected |
5002 | Success Data received and processed |
5003 | Agent disconnected |
5004 | Agent identification issue (not found or invalid credentials) |
5005 | Agent communication issue (timeout or rate limit exceeded) |
5006 | Data format and compatibility issue (unsupported format or incompatible version) |
5007 | Access and privilege issue (insufficient access or maximum agents reached) |
5008 | Connection limit issue (agent connection limit exceeded) |
5009 | Unexpected agent disconnection |
- Task Completion Verification and Loop Termination To ensure that tasks performed by AI agents are completed successfully and to finalize the communication loop, AIXP incorporates a task completion verification protocol. This protocol reviews the results of the tasks and determines whether the loop can be terminated.
The task completion verification protocol consists of the following steps:
- Result Report Generation: After an AI agent completes a task, it generates a result report that includes the task’s outcome, any relevant data, and a status code indicating the success or failure of the task. This result report is then sent back to the initiating AI agent or a designated supervisor agent responsible for overseeing the task’s completion.
- Result Report Assessment: The receiving agent assesses the result report by checking the status code and any additional information provided. If the task is deemed successful, the loop is terminated, and the AI agents involved can proceed to the next task or collaboration.
- Result Report Resolution: If the task is not completed successfully, the receiving agent may decide to retry the task, assign it to a different AI agent, or request assistance from other agents. This process continues until the task is successfully completed or a predefined retry limit is reached.
By implementing the task completion verification protocol, AIXP ensures that AI agents can effectively collaborate and complete tasks while avoiding infinite communication loops. This contributes to the overall efficiency and reliability of the AI systems involved in the collaboration.
Consider two AI entities, Agent A and Agent B, collaborating on a project. Agent A is proficient in Optical Character Recognition (OCR), while Agent B specializes in Natural Language Processing (NLP). Utilizing the Artificial Intelligence Exchange Protocol (AIXP), Agent A receives an OCR request and carries out the essential authorization. Following the OCR operation, Agent A shares the text with Agent B, who then processes the request and performs the requisite NLP analysis. The exchange concludes with Agent B returning the results to Agent A in a standardized format. Throughout this entire operation, AIXP guarantees secure, efficient, and seamless communication between the two AI agents.
To conclude, both agents enrich the reports: RRG: Result Report Generation, RRA: Result Report Assessment, RRR: Result Report Resolution.
---
title: AIXP Example
---
stateDiagram-v2
state "Text analysis request sending image" as Start
%% Agent A
state "Authenticate" as agentATask1
state "OCR process" as agentATask2
state "Format data" as agentATask3
%% Agent B
state "Receive data" as agentBTask1
state "Process text (NLP)" as agentBTask2
state "Respond with text" as agentBTask3
%% Reports
state "RRG: Result Report Generation" as reportDefinition1
state "RRA: Result Report Assessment" as reportDefinition2
state "RRR: Result Report Resolution" as reportDefinition3
direction LR
[*] --> Start
Start --> AgentA
state AgentA {
[*] --> agentATask1
agentATask1 --> agentATask2
agentATask2 --> agentATask3
}
AgentA --> AgentB: Send OCR text
state AgentB {
[*] --> agentBTask1
agentBTask1 --> agentBTask2
agentBTask2 --> agentBTask3
}
AgentB --> AgentA: Send NLP analysis
AgentA --> Reports: Enrich report
AgentB --> Reports: Enrich report
state Reports {
direction LR
[*] --> reportDefinition1
[*] --> reportDefinition2
[*] --> reportDefinition3
}
The AI-Exchange Protocol (AIXP) is a promising communication standard for artificial intelligence agents, designed to foster collaboration and information exchange. By providing a common framework for communication, AIXP can help drive innovation and progress in the field of AI. As AI systems continue to evolve and become more sophisticated, the adoption of standards like AIXP will be crucial for enabling effective communication and collaboration among AI agents.
We've received significant interest in the AIXP project, and with the development of Agents in CodeGPT, now is a great time to push forward! Here's a glimpse of what's coming and what needs to be done:
- [x] Basic Python Example: Implement a simple example in Python demonstrating the core communication flow between two agents using AIXP. This will involve defining message structures and basic sending/receiving mechanisms. (See
aixp_example.py
) - [ ] Testing the Python Example: Add unit tests to ensure the basic communication example functions as expected.
- [ ] Initial Documentation for the Example: Document the Python example, explaining its components and how to run it.
Here are some of the key areas we plan to develop further:
- [ ] Define Formal Message Schemas: Move beyond the basic example and create more robust and well-defined schemas for AIXP messages (e.g., using JSON Schema or Protocol Buffers).
- [ ] Implement Different Transport Mechanisms: Explore and implement various ways for agents to communicate (e.g., HTTP, WebSockets, message queues).
- [ ] Standardize Access Points: Define clear conventions for how agents expose their functionalities and how others can access them (e.g., using RESTful APIs or other service discovery mechanisms).
- [ ] Implement Content Negotiation: Allow agents to specify the data formats they can handle.
- [ ] Implement Authentication: Define methods for agents to verify their identity.
- [ ] Implement Authorization: Define mechanisms to control which agents have access to specific resources or functionalities.
- [ ] Explore Encryption Options: Investigate methods for securing communication between agents.
- [ ] Implement Message Tracking: Develop a more robust system for tracking messages to detect potential loops.
- [ ] Implement Time-to-Live (TTL): Add TTL functionality to messages.
- [ ] Define Loop Detection Strategies: Document and potentially implement more sophisticated strategies for detecting communication loops.
- [ ] Expand Status Codes and Error Messages: Add more comprehensive status codes and error messages to cover various scenarios.
- [ ] Define a Task Completion Protocol: Formalize the process of verifying task completion and handling failures.
- [ ] Implement Service Discovery: Explore ways for agents to automatically discover other agents and their capabilities.
- [ ] Define Negotiation Protocols: Potentially explore protocols for agents to negotiate parameters or capabilities before initiating tasks.
- [ ] Support for Streaming Data: Consider how AIXP can handle the exchange of large or streaming datasets.
- [ ] Create SDKs/Libraries in Other Languages: Develop libraries for AIXP in other popular programming languages to facilitate broader adoption.
- [ ] Develop More Comprehensive Documentation: Expand the documentation to cover all aspects of the protocol.
- [ ] Build Real-World Examples: Create more complex examples showcasing the benefits of AIXP in practical scenarios.
Contributions are welcome! If you're interested in helping shape the future of AI agent communication, please feel free to contribute to this repository. Check the "Issues" tab for potential tasks and open discussions.
For Tasks:
Click tags to check more tools for each tasksFor Jobs:
Alternative AI tools for AIXP
Similar Open Source Tools

AIXP
The AI-Exchange Protocol (AIXP) is a communication standard designed to facilitate information and result exchange between artificial intelligence agents. It aims to enhance interoperability and collaboration among various AI systems by establishing a common framework for communication. AIXP includes components for communication, loop prevention, and task finalization, ensuring secure and efficient collaboration while avoiding infinite communication loops. The protocol defines access points, data formats, authentication, authorization, versioning, loop detection, status codes, error messages, and task completion verification. AIXP enables AI agents to collaborate seamlessly and complete tasks effectively, contributing to the overall efficiency and reliability of AI systems.

XLearning
XLearning is a scheduling platform for big data and artificial intelligence, supporting various machine learning and deep learning frameworks. It runs on Hadoop Yarn and integrates frameworks like TensorFlow, MXNet, Caffe, Theano, PyTorch, Keras, XGBoost. XLearning offers scalability, compatibility, multiple deep learning framework support, unified data management based on HDFS, visualization display, and compatibility with code at native frameworks. It provides functions for data input/output strategies, container management, TensorBoard service, and resource usage metrics display. XLearning requires JDK >= 1.7 and Maven >= 3.3 for compilation, and deployment on CentOS 7.2 with Java >= 1.7 and Hadoop 2.6, 2.7, 2.8.

AgentConnect
AgentConnect is an open-source implementation of the Agent Network Protocol (ANP) aiming to define how agents connect with each other and build an open, secure, and efficient collaboration network for billions of agents. It addresses challenges like interconnectivity, native interfaces, and efficient collaboration by providing authentication, end-to-end encryption, meta-protocol handling, and application layer protocol integration. The project focuses on performance and multi-platform support, with plans to rewrite core components in Rust and support Mac, Linux, Windows, mobile platforms, and browsers. AgentConnect aims to establish ANP as an industry standard through protocol development and forming a standardization committee.

LabelLLM
LabelLLM is an open-source data annotation platform designed to optimize the data annotation process for LLM development. It offers flexible configuration, multimodal data support, comprehensive task management, and AI-assisted annotation. Users can access a suite of annotation tools, enjoy a user-friendly experience, and enhance efficiency. The platform allows real-time monitoring of annotation progress and quality control, ensuring data integrity and timeliness.

OREAL
OREAL is a reinforcement learning framework designed for mathematical reasoning tasks, aiming to achieve optimal performance through outcome reward-based learning. The framework utilizes behavior cloning, reshaping rewards, and token-level reward models to address challenges in sparse rewards and partial correctness. OREAL has achieved significant results, with a 7B model reaching 94.0 pass@1 accuracy on MATH-500 and surpassing previous 32B models. The tool provides training tutorials and Hugging Face model repositories for easy access and implementation.

AgentConnect
AgentConnect is an open-source implementation of the Agent Network Protocol (ANP) aiming to define how agents connect with each other and build an open, secure, and efficient collaboration network for billions of agents. It addresses challenges like interconnectivity, native interfaces, and efficient collaboration. The architecture includes authentication, end-to-end encryption modules, meta-protocol module, and application layer protocol integration framework. AgentConnect focuses on performance and multi-platform support, with plans to rewrite core components in Rust and support mobile platforms and browsers. The project aims to establish ANP as an industry standard and form an ANP Standardization Committee. Installation is done via 'pip install agent-connect' and demos can be run after cloning the repository. Features include decentralized authentication based on did:wba and HTTP, and meta-protocol negotiation examples.

ai-data-analysis-MulitAgent
AI-Driven Research Assistant is an advanced AI-powered system utilizing specialized agents for data analysis, visualization, and report generation. It integrates LangChain, OpenAI's GPT models, and LangGraph for complex research processes. Key features include hypothesis generation, data processing, web search, code generation, and report writing. The system's unique Note Taker agent maintains project state, reducing overhead and improving context retention. System requirements include Python 3.10+ and Jupyter Notebook environment. Installation involves cloning the repository, setting up a Conda virtual environment, installing dependencies, and configuring environment variables. Usage instructions include setting data, running Jupyter Notebook, customizing research tasks, and viewing results. Main components include agents for hypothesis generation, process supervision, visualization, code writing, search, report writing, quality review, and note-taking. Workflow involves hypothesis generation, processing, quality review, and revision. Customization is possible by modifying agent creation and workflow definition. Current issues include OpenAI errors, NoteTaker efficiency, runtime optimization, and refiner improvement. Contributions via pull requests are welcome under the MIT License.

nesa
Nesa is a tool that allows users to run on-prem AI for a fraction of the cost through a blind API. It provides blind privacy, zero latency on protected inference, wide model coverage, cost savings compared to cloud and on-prem AI, RAG support, and ChatGPT compatibility. Nesa achieves blind AI through Equivariant Encryption (EE), a new security technology that provides complete inference encryption with no additional latency. EE allows users to perform inference on neural networks without exposing the underlying data, preserving data privacy and security.

uuWAF
uuWAF is an industrial-grade, free, high-performance, highly extensible web application and API security protection product that supports AI and semantic engines.

ControlFlow
ControlFlow is a Python framework designed for building agentic AI workflows. It provides a structured approach for defining tasks, assigning specialized AI agents, and orchestrating complex behaviors. By balancing AI autonomy with precise oversight, users can create sophisticated AI-powered applications with confidence. ControlFlow offers a task-centric architecture, structured results with type-safe outputs, specialized agents for efficient problem-solving, ecosystem integration with LangChain models, flexible control over workflows, multi-agent orchestration, and native observability and debugging capabilities.

agentUniverse
agentUniverse is a framework for developing applications powered by multi-agent based on large language model. It provides essential components for building single agent and multi-agent collaboration mechanism for customizing collaboration patterns. Developers can easily construct multi-agent applications and share pattern practices from different fields. The framework includes pre-installed collaboration patterns like PEER and DOE for complex task breakdown and data-intensive tasks.

fast-wiki
FastWiki is an enterprise-level artificial intelligence customer service management system. It is a high-performance knowledge base system designed for large-scale information retrieval and intelligent search. Leveraging Microsoft's Semantic Kernel for deep learning and natural language processing, combined with .NET 8 and React framework, it provides an efficient, user-friendly, and scalable intelligent vector search platform. The system aims to offer an intelligent search solution that can understand and process complex queries, assisting users in quickly and accurately obtaining the needed information.

Equivariant-Encryption-for-AI
At Nesa, privacy is a critical objective. Equivariant Encryption (EE) is a solution developed to perform inference on neural networks without exposing input and output data. EE integrates specialized transformations for neural networks, maintaining data privacy while ensuring inference operates correctly on encrypted inputs. It provides the same latency as plaintext inference with no slowdowns and offers strong security guarantees. EE avoids the computational costs of traditional Homomorphic Encryption (HE) by preserving non-linear neural functions. The tool is designed for modern neural architectures, ensuring accuracy, scalability, and compatibility with existing pipelines.

codebase-context-spec
The Codebase Context Specification (CCS) project aims to standardize embedding contextual information within codebases to enhance understanding for both AI and human developers. It introduces a convention similar to `.env` and `.editorconfig` files but focused on documenting code for both AI and humans. By providing structured contextual metadata, collaborative documentation guidelines, and standardized context files, developers can improve code comprehension, collaboration, and development efficiency. The project includes a linter for validating context files and provides guidelines for using the specification with AI assistants. Tooling recommendations suggest creating memory systems, IDE plugins, AI model integrations, and agents for context creation and utilization. Future directions include integration with existing documentation systems, dynamic context generation, and support for explicit context overriding.

wandbot
Wandbot is a question-answering bot designed for Weights & Biases documentation. It employs Retrieval Augmented Generation with a ChromaDB backend for efficient responses. The bot features periodic data ingestion, integration with Discord and Slack, and performance monitoring through logging. It has a fallback mechanism for model selection and is evaluated based on retrieval accuracy and model-generated responses. The implementation includes creating document embeddings, constructing the Q&A RAGPipeline, model selection, deployment on FastAPI, Discord, and Slack, logging and analysis with Weights & Biases Tables, and performance evaluation.
For similar tasks

phospho
Phospho is a text analytics platform for LLM apps. It helps you detect issues and extract insights from text messages of your users or your app. You can gather user feedback, measure success, and iterate on your app to create the best conversational experience for your users.

OpenFactVerification
Loki is an open-source tool designed to automate the process of verifying the factuality of information. It provides a comprehensive pipeline for dissecting long texts into individual claims, assessing their worthiness for verification, generating queries for evidence search, crawling for evidence, and ultimately verifying the claims. This tool is especially useful for journalists, researchers, and anyone interested in the factuality of information.

open-parse
Open Parse is a Python library for visually discerning document layouts and chunking them effectively. It is designed to fill the gap in open-source libraries for handling complex documents. Unlike text splitting, which converts a file to raw text and slices it up, Open Parse visually analyzes documents for superior LLM input. It also supports basic markdown for parsing headings, bold, and italics, and has high-precision table support, extracting tables into clean Markdown formats with accuracy that surpasses traditional tools. Open Parse is extensible, allowing users to easily implement their own post-processing steps. It is also intuitive, with great editor support and completion everywhere, making it easy to use and learn.

spaCy
spaCy is an industrial-strength Natural Language Processing (NLP) library in Python and Cython. It incorporates the latest research and is designed for real-world applications. The library offers pretrained pipelines supporting 70+ languages, with advanced neural network models for tasks such as tagging, parsing, named entity recognition, and text classification. It also facilitates multi-task learning with pretrained transformers like BERT, along with a production-ready training system and streamlined model packaging, deployment, and workflow management. spaCy is commercial open-source software released under the MIT license.

NanoLLM
NanoLLM is a tool designed for optimized local inference for Large Language Models (LLMs) using HuggingFace-like APIs. It supports quantization, vision/language models, multimodal agents, speech, vector DB, and RAG. The tool aims to provide efficient and effective processing for LLMs on local devices, enhancing performance and usability for various AI applications.

ontogpt
OntoGPT is a Python package for extracting structured information from text using large language models, instruction prompts, and ontology-based grounding. It provides a command line interface and a minimal web app for easy usage. The tool has been evaluated on test data and is used in related projects like TALISMAN for gene set analysis. OntoGPT enables users to extract information from text by specifying relevant terms and provides the extracted objects as output.

lima
LIMA is a multilingual linguistic analyzer developed by the CEA LIST, LASTI laboratory. It is Free Software available under the MIT license. LIMA has state-of-the-art performance for more than 60 languages using deep learning modules. It also includes a powerful rules-based mechanism called ModEx for extracting information in new domains without annotated data.

liboai
liboai is a simple C++17 library for the OpenAI API, providing developers with access to OpenAI endpoints through a collection of methods and classes. It serves as a spiritual port of OpenAI's Python library, 'openai', with similar structure and features. The library supports various functionalities such as ChatGPT, Audio, Azure, Functions, Image DALL·E, Models, Completions, Edit, Embeddings, Files, Fine-tunes, Moderation, and Asynchronous Support. Users can easily integrate the library into their C++ projects to interact with OpenAI services.
For similar jobs

AIXP
The AI-Exchange Protocol (AIXP) is a communication standard designed to facilitate information and result exchange between artificial intelligence agents. It aims to enhance interoperability and collaboration among various AI systems by establishing a common framework for communication. AIXP includes components for communication, loop prevention, and task finalization, ensuring secure and efficient collaboration while avoiding infinite communication loops. The protocol defines access points, data formats, authentication, authorization, versioning, loop detection, status codes, error messages, and task completion verification. AIXP enables AI agents to collaborate seamlessly and complete tasks effectively, contributing to the overall efficiency and reliability of AI systems.

FlagPerf
FlagPerf is an integrated AI hardware evaluation engine jointly built by the Institute of Intelligence and AI hardware manufacturers. It aims to establish an industry-oriented metric system to evaluate the actual capabilities of AI hardware under software stack combinations (model + framework + compiler). FlagPerf features a multidimensional evaluation metric system that goes beyond just measuring 'whether the chip can support specific model training.' It covers various scenarios and tasks, including computer vision, natural language processing, speech, multimodal, with support for multiple training frameworks and inference engines to connect AI hardware with software ecosystems. It also supports various testing environments to comprehensively assess the performance of domestic AI chips in different scenarios.

AI-System-School
AI System School is a curated list of research in machine learning systems, focusing on ML/DL infra, LLM infra, domain-specific infra, ML/LLM conferences, and general resources. It provides resources such as data processing, training systems, video systems, autoML systems, and more. The repository aims to help users navigate the landscape of AI systems and machine learning infrastructure, offering insights into conferences, surveys, books, videos, courses, and blogs related to the field.

multi-agent-orchestrator
Multi-Agent Orchestrator is a flexible and powerful framework for managing multiple AI agents and handling complex conversations. It intelligently routes queries to the most suitable agent based on context and content, supports dual language implementation in Python and TypeScript, offers flexible agent responses, context management across agents, extensible architecture for customization, universal deployment options, and pre-built agents and classifiers. It is suitable for various applications, from simple chatbots to sophisticated AI systems, accommodating diverse requirements and scaling efficiently.

AIInfra
AIInfra is an open-source project focused on AI infrastructure, specifically targeting large models in distributed clusters, distributed architecture, distributed training, and algorithms related to large models. The project aims to explore and study system design in artificial intelligence and deep learning, with a focus on the hardware and software stack for building AI large model systems. It provides a comprehensive curriculum covering topics such as AI chip principles, communication and storage, AI clusters, large model training, and inference, as well as algorithms for large models. The course is designed for undergraduate and graduate students, as well as professionals working with AI large model systems, to gain a deep understanding of AI computer system architecture and design.

eino
Eino is an ultimate LLM application development framework in Golang, emphasizing simplicity, scalability, reliability, and effectiveness. It provides a curated list of component abstractions, a powerful composition framework, meticulously designed APIs, best practices, and tools covering the entire development cycle. Eino standardizes and improves efficiency in AI application development by offering rich components, powerful orchestration, complete stream processing, highly extensible aspects, and a comprehensive framework structure.

LLM-FineTuning-Large-Language-Models
This repository contains projects and notes on common practical techniques for fine-tuning Large Language Models (LLMs). It includes fine-tuning LLM notebooks, Colab links, LLM techniques and utils, and other smaller language models. The repository also provides links to YouTube videos explaining the concepts and techniques discussed in the notebooks.

lloco
LLoCO is a technique that learns documents offline through context compression and in-domain parameter-efficient finetuning using LoRA, which enables LLMs to handle long context efficiently.