Innovative Research in Neural Networks

We specialize in advanced research design, focusing on tensor networks, neural networks, and their applications in complex systems and quantum states.

A complex, dynamic structure of interconnected turquoise wireframes forms a swirling pattern on a black background. The lines create a hypnotic, three-dimensional effect as they converge towards the center.
A complex, dynamic structure of interconnected turquoise wireframes forms a swirling pattern on a black background. The lines create a hypnotic, three-dimensional effect as they converge towards the center.
A 3D geometric structure consisting of interconnected spheres and rods resembles a molecular model or network. The spheres are primarily pink with hints of purple and blue, set against a black background, creating a striking contrast.
A 3D geometric structure consisting of interconnected spheres and rods resembles a molecular model or network. The spheres are primarily pink with hints of purple and blue, set against a black background, creating a striking contrast.
A complex mesh of intertwined fishing nets in varying shades of blue and white. The nets are intricately layered, creating a textured pattern with gaps and openings of different sizes.
A complex mesh of intertwined fishing nets in varying shades of blue and white. The nets are intricately layered, creating a textured pattern with gaps and openings of different sizes.

Our Research Methodology

Our approach includes theoretical framework construction, model architecture design, rigorous training, and exploring applications in various complex systems.

Research Design Services

We provide comprehensive research design services across theoretical frameworks, model architecture, training, and application exploration.

An intricate and complex network of intertwined lines and patterns, forming a mesh-like structure with a sense of movement and flow. The lines are predominantly white against a dark background, giving a sense of depth.
An intricate and complex network of intertwined lines and patterns, forming a mesh-like structure with a sense of movement and flow. The lines are predominantly white against a dark background, giving a sense of depth.
A complex network of intertwined, thorny branches, resembling a dense and chaotic mesh. The image is in black and white, highlighting the intricate, spiky patterns against a dark background.
A complex network of intertwined, thorny branches, resembling a dense and chaotic mesh. The image is in black and white, highlighting the intricate, spiky patterns against a dark background.
Theoretical Frameworks

Establish precise mathematical mappings and conversion rules between tensor networks and neural networks effectively.

Model Architecture

Develop specialized network layers and design loss functions that maintain essential physical constraints and properties.

A complex network of translucent, web-like structures with vibrant pink and purple hues against a dark background. The glowing strands are interwoven, creating a dynamic pattern punctuated by small red dots.
A complex network of translucent, web-like structures with vibrant pink and purple hues against a dark background. The glowing strands are interwoven, creating a dynamic pattern punctuated by small red dots.

1) Establishing a mathematical framework connecting Transformer architectures with lattice quantum field theory, revealing deep connections between self-attention mechanisms and quantum entanglement representations; 2) Developing specialized neural network architectures capable of efficiently simulating large-scale lattice systems, transcending computational limitations of existing numerical methods; 3) Constructing quantum phase identification systems automatically detecting phase transition points and calculating critical exponents, independent of manually designed order parameters;