A next-generation, high-performance deep learning framework built for the Ultimate Paradox ecosystem. It combines PyTorch-like flexibility with advanced cognitive and quantum-inspired capabilities.
- Autograd Ready: Full automatic differentiation with a custom computation graph.
- Paradma Backend: Optimized for CPU performance via
Paradma, with seamlessCuPysupport for GPU acceleration. - Tensor Axioms: Mathematical operations designed for high-dimensional latent space manipulation.
- Cognitive Training: Integrated with
LatentMemoryEnginefor memory-augmented learning. - Dreaming & Sleep: Autonomous "dream" cycles for latent space exploration and clustering dynamics during "sleep".
- Emotional Regulation: Training loops influenced by
AIEmotions(Reflexion, Inceptio, etc.), dynamically adjusting learning rates based on model "state". - Evolutionary Optimization: Built-in modules for genetic and evolutionary parameter tuning.
- Superposition Tensors: Hold multiple conflicting hypotheses simultaneously using
SuperpositionTensor. - Spooky Action (Entanglement): Parameters can be linked via
EntanglementManager, allowing gradients to flow across "entangled" layers even without direct graph connections.
- NN Module: PyTorch-style
Module,Parameter, and functional layers. - Optimizers: Advanced
AdamWandSGDwith momentum. - Mixed Precision (AMP): Support for float16 training to optimize memory and speed.
- Quantization: Tools for model compression and efficient inference.
The framework is part of the Paradox ecosystem. Ensure you have the paradma backend available for maximum performance.
# Ensure dependencies are met
pip install numpy cupy-cuda12x # (Choose cupy version based on your CUDA)frommodules.framework.tensorimportTensor# Create tensorsx=Tensor([1.0, 2.0, 3.0], requires_grad=True)
y=Tensor([4.0, 5.0, 6.0])
# Math operationsz= (x*y).sum()
z.backward()
print(x.grad) # Gradient calculated automaticallyfrommodules.framework.moduleimportModulefrommodules.framework.nn.layersimportLinearclassParadoxModel(Module):
def__init__(self):
super().__init__()
self.fc1=Linear(128, 64)
self.fc2=Linear(64, 10)
defforward(self, x):
x=self.fc1(x).relu()
returnself.fc2(x)
model=ParadoxModel()frommodules.framework.quantumimportSuperpositionTensor, EntanglementManager# Create a state in superpositionstates= [Tensor([1, 0]), Tensor([0, 1])]
q_tensor=SuperpositionTensor(states)
# Collapse to a single hypothesisresult=q_tensor.collapse()
# Entangle two parametersmanager=EntanglementManager()
manager.entangle(model.fc1.weight, model.fc2.weight, strength=0.2)
# Gradients will now sync between fc1 and fc2manager.sync_gradients()Unlike standard frameworks, Paradox supports Cognitive Training:
frommodules.framework.cognitiveimportCognitiveTrainertrainer=CognitiveTrainer(
model=model,
optimizer=optimizer,
criterion=loss_fn,
memory_engine=my_latent_memory
)
# Standard training step + Emotional feedback + Memory formationtrainer.train_step(inputs, targets)
# Run a dream cycle to consolidate knowledgetrainer.dream(num_dreams=10)tensor.py: Core multidimensional array with autograd.module.py: Base class for neural network components.nn/: Common layers (Linear), loss functions, and activation functions.optim.py: Optimizers (AdamW,SGD).quantum.py: Quantum-inspired logic (Superposition, Entanglement).cognitive.py: High-level trainers with memory and dreaming.device.py: Backend management (CPU/GPU).ops/: Low-level mathematical operation kernels.
Internal Paradox AI Framework. proprietary. powerd by ethco coders team