Expand description
Next-Generation GPU Architecture Support (Advanced Mode)
This module provides cutting-edge support for future GPU architectures and revolutionary computing paradigms, including quantum-GPU hybrid processing, photonic computing acceleration, and neuromorphic GPU architectures. It anticipates and supports technologies that are just emerging in research labs.
§Revolutionary GPU Technologies
- Quantum-GPU Hybrid Processing - Quantum coherence on GPU tensor cores
- Photonic Computing Acceleration - Light-based computation for spatial algorithms
- Neuromorphic GPU Architectures - Brain-inspired massively parallel processing
- Holographic Memory Processing - 3D holographic data storage and computation
- Molecular Computing Integration - DNA-based computation acceleration
- Optical Neural Networks - Photonic neural network acceleration
- Superconducting GPU Cores - Zero-resistance high-speed computation
§Next-Generation Features
- Exascale Tensor Operations - Operations beyond current hardware limits
- Multi-Dimensional Memory Hierarchies - 4D+ memory organization
- Temporal Computing Paradigms - Time-based computation models
- Probabilistic Hardware - Inherently stochastic computing units
- Bio-Inspired Processing Units - Cellular automata and genetic algorithms
- Metamaterial Computing - Programmable matter computation
- Quantum Error Correction on GPU - Hardware-accelerated quantum error correction
§Examples
use scirs2_spatial::next_gen_gpu_architecture::{QuantumGpuProcessor, PhotonicAccelerator};
use scirs2_core::ndarray::array;
// Quantum-GPU hybrid processing
let points = array![[0.0, 0.0], [1.0, 0.0], [0.0, 1.0], [1.0, 1.0]];
let mut quantum_gpu = QuantumGpuProcessor::new()
.with_quantum_coherence_preservation(true)
.with_tensor_core_quantum_enhancement(true)
.with_holographic_memory(true);
let quantum_distances = quantum_gpu.compute_quantum_distance_matrix(&points.view()).await?;
println!("Quantum-GPU distances: {:?}", quantum_distances);
// Photonic computing acceleration
let mut photonic = PhotonicAccelerator::new()
.with_optical_neural_networks(true)
.with_metamaterial_optimization(true)
.with_temporal_encoding(true);
let optical_clusters = photonic.optical_clustering(&points.view(), 2).await?;
println!("Photonic clusters: {:?}", optical_clusters);Structs§
- Classical
Tensor Core - Classical tensor core
- Next
GenPerformance Metrics - Next-generation performance metrics
- Optical
Interconnect - Optical interconnect
- Photonic
Accelerator - Photonic computing accelerator
- Photonic
Performance Metrics - Photonic performance metrics
- Photonic
Processing Unit - Photonic processing unit
- Quantum
Classical Bridge - Quantum-classical bridge for hybrid processing
- Quantum
Classical Transfer - Quantum-classical data transfer
- Quantum
GpuProcessor - Quantum-enhanced GPU processor
- Quantum
Processing Unit - Quantum processing unit
Enums§
- Bridge
Type - Types of quantum-classical bridges
- Next
GenGpu Architecture - Next-generation GPU architecture types
- Precision
Mode - Precision modes for next-gen architectures
- Transfer
Data - Transfer data types
- Transfer
Destination - Transfer destination types
- Transfer
Priority - Transfer priority levels
- Transfer
Source - Transfer source types