Tagtal Labs
Welcome to Tagtal Labs
We are researching on Aspect-Oriented AI where plays key roles in AGI to build evolvable AGI Agents.
We got a three million doller angel investment from Emgen Capital!
Tagtal Labs received a three million dollar angel investment from Emgen Capital. This investment aims to support HyperAGI, an AGI solution built on Bitcoin. HyperAGI focuses on decentralized AGI applications and aims to foster an autonomous cryptocurrency economy. The ultimate goal of the project is to establish Unconditional Basic Agent Income (UBAI). The HyperAGI project encompasses a full stack of decentralized AGI technologies, including GPU DePIN, AI microservices, a peer-to-peer 3D AI Gym space, and an agent framework.
Tagtal Labs has been committed to evolvable artificial neural software for decades and has made breakthroughs in recent years in AOAI (Aspect-Oriented Artificial Intelligence) and decentralized GPU infrastructure with Proof of Useful Work. In AOAI, neurons in artificial neural networks are modeled as aspects rather than objects. This kind of neural network architecture is highly adaptive and flexible, making the self-evolution of neural networks possible. Along with the high performance achieved by traditional deep neural networks (such as transformers), AOAI becomes the core of AGI.
This new approach allows for more dynamic and adaptive neural network architectures, enhancing their ability to evolve and meet new challenges autonomously. By leveraging the flexibility and modularity offered by AOAI, Tagtal Labs aims to push the boundaries of what AGI can achieve, driving innovation in decentralized AI applications and fostering a more autonomous and efficient cryptocurrency economy.
Separation of Concerns:
AOP addresses cross-cutting concerns that are typically scattered and tangled across various modules in conventional programming paradigms. By modularizing these concerns into distinct aspects, AOP enhances code maintainability and scalability.
Aspect
An aspect in AOP encapsulates behaviors that affect multiple classes into reusable modules. This modularization is analogous to neurons in biological nervous systems, where each neuron handles specific functions independently but works cohesively within a network.
Join Point and Pointcut:
Join points are specific points in the execution of the program, such as method calls or field accesses, where aspects can be applied. Pointcuts define the conditions under which aspects are woven into the main code, enabling dynamic and context-specific behavior modification.
Advice
Advice is the action taken by an aspect at a particular join point. It can alter the program flow by executing additional code before, after, or around the join points.
Application in Neural Network
Applying AOP to ANNs can significantly enhance their flexibility and evolvability:
Dynamic Adaptation:AOP allows for dynamic changes in the neural network's structure and behavior without modifying the core logic. This capability is essential for creating self-evolving systems that can adapt to new data and environments in real-time.
Improved Modularity:Neural networks implemented with AOP benefit from better modularity, making it easier to isolate and update specific functionalities, such as learning algorithms or activation functions, without affecting the entire system.
Enhanced Maintainability:By separating cross-cutting concerns, such as logging, error handling, and security, into aspects, AOP reduces code redundancy and simplifies the maintenance of large-scale neural networks.
Biologically-Inspired AI Agent Framework
The biologically-inspired programming paradigm suggests that the nervous system's handling of cross-cutting concerns can be mirrored in software development. The nervous system’s modular approach, where neurons (aspects) handle specific tasks and communicate through synapses (join points), can be applied to create adaptive and evolvable software systems.
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