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111 lines
4.7 KiB
Python
111 lines
4.7 KiB
Python
#!/usr/bin/env python
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"""
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Example script demonstrating how to integrate Genjo with Enso MoE architecture.
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"""
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import os
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import argparse
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import torch
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from transformers import AutoTokenizer, AutoModel
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def create_directory_if_not_exists(path):
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"""Create directory if it doesn't exist."""
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if not os.path.exists(path):
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os.makedirs(path)
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print(f"Created directory: {path}")
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def main():
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parser = argparse.ArgumentParser(description='Demonstrate Genjo-Enso integration')
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parser.add_argument('--base-model', type=str, default='GSAI-ML/Genjo-8B-Base',
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help='Base Genjo model to start from')
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parser.add_argument('--output-dir', type=str, default='./genjo-moe',
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help='Output directory for the converted model')
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parser.add_argument('--num-experts', type=int, default=8,
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help='Number of experts for the MoE model')
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parser.add_argument('--experts-per-token', type=int, default=2,
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help='Number of experts to use per token')
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parser.add_argument('--only-demo', action='store_true',
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help='Only run the demo without conversion')
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args = parser.parse_args()
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# Create output directory
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create_directory_if_not_exists(args.output_dir)
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if not args.only_demo:
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print(f"This script would convert {args.base_model} to a Genjo-MoE model")
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print(f"Using {args.num_experts} experts with {args.experts_per_token} experts per token")
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print(f"The converted model would be saved to {args.output_dir}")
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print("""
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The conversion would involve:
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1. Loading the base Genjo model
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2. Replacing the standard MLP layers with MoE layers
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3. Initializing experts weights and routing networks
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4. Saving the converted model
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This functionality will be implemented as part of the integration
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""")
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# Demo of Genjo-Enso integration concept
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print("\nDemonstrating the potential Genjo-Enso integration concept:")
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# Sample Genjo generation
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print("\nStandard Genjo generation approach:")
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print("""
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# Genjo generation (diffusion-based)
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x = torch.full((1, prompt.shape[1] + gen_length), mask_id, dtype=torch.long)
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x[:, :prompt.shape[1]] = prompt.clone()
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# Iterative denoising (as in current Genjo implementation)
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for num_block in range(num_blocks):
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block_mask_index = (x == mask_id)
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num_transfer_tokens = get_num_transfer_tokens(block_mask_index, steps)
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for i in range(steps):
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mask_index = (x == mask_id)
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logits = model(x).logits
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x0 = torch.argmax(add_gumbel_noise(logits), dim=-1)
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# Select tokens to unmask based on confidence
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# Update sequence with new tokens
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""")
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# Sample Genjo-MoE integration
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print("\nEnso MoE integration approach:")
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print("""
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# Genjo-MoE generation
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x = torch.full((1, prompt.shape[1] + gen_length), mask_id, dtype=torch.long)
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x[:, :prompt.shape[1]] = prompt.clone()
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# Iterative denoising with MoE optimization
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for num_block in range(num_blocks):
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block_mask_index = (x == mask_id)
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num_transfer_tokens = get_num_transfer_tokens(block_mask_index, steps)
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for i in range(steps):
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mask_index = (x == mask_id)
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# MoE routing optimization
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feature_map = model.encoder(x)
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topk_idx, topk_weight, _ = model.gate(feature_map)
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# Batch tokens by expert for parallel processing
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expert_outputs = []
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for expert_idx in range(num_experts):
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tokens_for_expert = (topk_idx == expert_idx)
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if tokens_for_expert.any():
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expert_output = model.experts[expert_idx](feature_map[tokens_for_expert])
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expert_outputs.append((expert_output, tokens_for_expert, topk_weight))
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# Combine expert outputs and continue with denoising
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# ...
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""")
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# Explain benefits
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print("\nKey benefits of Genjo-Enso integration:")
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print("1. Parameter Efficiency: MoE architecture allows scaling to 16B+ parameters with similar compute")
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print("2. Expert Specialization: Different experts can specialize in different language tasks")
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print("3. Optimized Inference: Batch processing of tokens by expert reduces computation")
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print("4. Scalability: Model can scale to larger sizes while maintaining efficient inference")
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print("\nThis integration script demonstrates the concept, but actual implementation")
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print("would require deeper integration between the Genjo and Enso codebases.")
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if __name__ == "__main__":
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main() |