builder.py

# -------------------------------------------------------------------------
# Copyright (c) Microsoft Corporation.  All rights reserved.
# Licensed under the MIT License.  See License.txt in the project root for
# license information.
# --------------------------------------------------------------------------
# Modifications Copyright(C) 2024 Advanced Micro Devices, Inc. All rights reserved
"""
Run this script to create the desired ONNX model.
"""

from onnx import helper, numpy_helper, TensorProto, external_data_helper, save_model
from onnxruntime.quantization.matmul_4bits_quantizer import MatMul4BitsQuantizer, QuantFormat
from transformers import AutoConfig, AutoModelForCausalLM, AutoTokenizer, GenerationConfig
import numpy as np
import torch

import argparse
import gc
import json
import os
import textwrap


class Model:
    def __init__(self, config, io_dtype, onnx_dtype, ep, cache_dir, extra_options): 
        self.context_length = config.seq_length if hasattr(config, "seq_length") else config.max_position_embeddings
        self.original_context_length = config.original_max_position_embeddings if hasattr(config, "original_max_position_embeddings") else config.rope_scaling["original_max_position_embeddings"] if hasattr(config, "rope_scaling") and hasattr(config.rope_scaling, "original_max_position_embeddings") else self.context_length
        self.window_size = config.sliding_window if hasattr(config, "sliding_window") else -1  # default is -1 in GroupQueryAttention kernel
        self.intermediate_size = config.ffn_hidden_size if hasattr(config, "ffn_hidden_size") else config.intermediate_size
        self.hidden_size = config.hidden_size
        self.num_kv_heads = config.num_key_value_heads if hasattr(config, "num_key_value_heads") else config.multi_query_group_num if hasattr(config, "multi_query_group_num") else config.num_attention_heads
        self.num_attn_heads = config.num_attention_heads
        self.head_size = config.head_dim if hasattr(config, "head_dim") else config.hidden_size // config.num_attention_heads
        self.num_layers = int(extra_options["num_hidden_layers"]) if "num_hidden_layers" in extra_options else config.num_hidden_layers if hasattr(config, "num_hidden_layers") else config.num_layers
        self.vocab_size = config.vocab_size
        self.activation = config.hidden_activation if hasattr(config, "hidden_activation") and config.hidden_activation is not None else config.hidden_act

        self.model_name_or_path = config._name_or_path
        self.model_type = config.architectures[0]
        self.io_dtype = io_dtype      # {'fp16', 'fp32'}
        self.onnx_dtype = onnx_dtype  # {"int4", "fp16", "fp32"}
        self.quant_type = config.quantization_config["quant_method"] if hasattr(config, "quantization_config") else None
        self.adapter_path = extra_options["adapter_path"] if "adapter_path" in extra_options else None

        self.cache_dir = cache_dir
        self.filename = extra_options["filename"] if "filename" in extra_options else "model.onnx"
        self.hf_token = parse_hf_token(extra_options.get("hf_token", "true"))
        self.extra_options = extra_options

        self.inputs = []
        self.outputs = []
        self.initializers = []
        self.value_infos = []
        self.nodes = []

        # EP-specific variables
        enable_cuda_graph = "1" if "enable_cuda_graph" in extra_options else "0"
        self.ep = ep
        self.ep_attrs = {
            "cpu": {},
            "cuda": {
                "enable_cuda_graph": enable_cuda_graph,        # "1" if the the model is able to enable cuda graph, "0" otherwise
            },
            "rocm": {
                "tunable_op_enable": "1",
                "tunable_op_tuning_enable": "1",
            },
            "dml": {},
            "web": {},
        }

        # Map input names to their types and shapes
        self.input_names = ["input_ids", "attention_mask", "position_ids"]
        self.input_types = {
            "input_ids": TensorProto.INT64,                                                                      # For standard models
            "attention_mask": TensorProto.INT64,                                                                 # For standard models
            "position_ids": TensorProto.INT64,                                                                   # For standard models
            "inputs_embeds": self.io_dtype,                                                                      # For standard models where you want to remove the embedding layer from the model (note that `inputs_embeds` is written this way to match Hugging Face format)
            "past_key_values.key": self.io_dtype,                                                                # For standard models (note that `past_key_values.key` is written this way to match Hugging Face format)
            "past_key_values.value": self.io_dtype,                                                              # For standard models (note that `past_key_values.value` is written this way to match Hugging Face format)
        }
        self.input_shapes = {
            "input_ids": ["batch_size", "sequence_length"],                                                      # For standard models
            "attention_mask": ["batch_size", "total_sequence_length"],                                           # For standard models
            "position_ids": ["batch_size", "sequence_length"],                                                   # For standard models
            "inputs_embeds": ["batch_size", "sequence_length", self.hidden_size],                                # For standard models where you want to remove the embedding layer from the model (note that `inputs_embeds` is written this way to match Hugging Face format)
            "past_key_values.key": ["batch_size", self.num_kv_heads, "past_sequence_length", self.head_size],    # For standard models (note that `past_key_values.key` is written this way to match Hugging Face format)
            "past_key_values.value": ["batch_size", self.num_kv_heads, "past_sequence_length", self.head_size],  # For standard models (note that `past_key_values.value` is written this way to match Hugging Face format)
        }
        self.exclude_embeds = "exclude_embeds" in extra_options
        if self.exclude_embeds:
            self.input_names = [name.replace("input_ids", "inputs_embeds") for name in self.input_names]

        # Map output names to their types and shapes
        self.output_names = ["logits"]
        self.output_types = {
            "hidden_states": self.io_dtype,                                                                      # For standard models where you want to remove the language modeling head from the model (note that `hidden_states` is written this way to match Hugging Face format)
            "logits": self.io_dtype,                                                                             # For standard models
            "present.key": self.io_dtype,                                                                        # For standard models (note that `present.key` is written this way to match Hugging Face format)
            "present.value": self.io_dtype,                                                                      # For standard models (note that `present.value` is written this way to match Hugging Face format)
        }
        self.output_shapes = {
            "hidden_states": ["batch_size", "sequence_length", self.hidden_size],                                # For standard models where you want to remove the language modeling head from the model (note that `hidden_states` is written this way to match Hugging Face format)
            "logits": ["batch_size", "sequence_length", self.vocab_size],                                        # For standard models
            "present.key": ["batch_size", self.num_kv_heads, "total_sequence_length", self.head_size],           # For standard models (note that `present.key` is written this way to match Hugging Face format)
            "present.value": ["batch_size", self.num_kv_heads, "total_sequence_length", self.head_size],         # For standard models (note that `present.value` is written this way to match Hugging Face format)
        }
        self.exclude_lm_head = "exclude_lm_head" in extra_options
        if self.exclude_lm_head:
            self.output_names = [name.replace("logits", "hidden_states") for name in self.output_names]

        # Store names of nodes already created
        self.node_names = set()

        # Map TensorProto dtypes to NumPy dtypes
        self.to_numpy_dtype = {
            TensorProto.INT8: np.uint8,
            TensorProto.INT32: np.int32,
            TensorProto.INT64: np.int64,
            TensorProto.FLOAT16: np.float16,
            TensorProto.FLOAT: np.float32,
        }

        # Map TensorProto dtypes to string dtypes
        self.to_str_dtype = {
            TensorProto.INT8: "TensorProto.INT8",
            TensorProto.INT32: "TensorProto.INT32",
            TensorProto.INT64: "TensorProto.INT64",
            TensorProto.FLOAT16: "TensorProto.FLOAT16",
            TensorProto.FLOAT: "TensorProto.FLOAT",
        }

        # Mask-specific variables
        # TODO: Reconcile differences between `seqlens_k` and `key_total_seq_lens` in the GroupQueryAttention and SparseAttention implementations. Ideally the same subgraph can be shared for both.
        self.mask_attrs = {
            "mask_name": "",            # Name of node that outputs 4D causal attention mask (used as add_qk in MultiHeadAttention)
            "seqlens_k": "",            # Sum of each row in attention mask - 1 (used as input to GroupQueryAttention)
            "total_seq_len": "",        # Size of total sequence length in attention mask (used as input to GroupQueryAttention and SparseAttention)
            "block_row_indices": "",    # Row indices of CSR format of block mask (used as input to SparseAttention)
            "block_col_indices": "",    # Col indices of CSR format of block mask (used as input to SparseAttention)
            "key_total_seq_lens": "",   # Sum of each row in attention mask (used as input to SparseAttention)
        }

        # Embedding-specific variables
        self.embed_attrs = {
            "scale": 1,                 # Scale value to multiply output of Embedding layer by
        }

        # LayerNorm-specific variables
        self.layernorm_attrs = {
            "simple": True,             # Use SimplifiedLayerNorm/SkipSimplifiedLayerNorm vs. LayerNorm/SkipLayerNorm
            "first_layernorm": True,    # 1st LayerNorm = LayerNorm, then SkipLayerNorm for all subsequent LayerNorms
            "last_layernorm": False,    # Last LayerNorm = SkipLayerNorm with only output 0 (no output 3)
            "root_input": "",           # Root input from parent node for LayerNorm and SkipLayerNorm
            "skip_input": "",           # Skip input from parent node for SkipLayerNorm
            "output_0": "",             # Output 0 for LayerNorm and SkipLayerNorm
            "output_3": "",             # Output 3 for SkipLayerNorm
            "add_offset": 0,            # Offset value for LayerNorm weight
        }

        # MatMul-specific variables
        is_lora = hasattr(config, "peft_type") and config.peft_type == "LORA"
        self.matmul_attrs = {
            "use_lora": is_lora,        # Use LoRA/QLoRA format
        }

        # RotaryEmbedding-specific variables
        position_scale = config.rope_position_scale if hasattr(config, "rope_position_scale") else 1
        partial_rotary_factor = config.partial_rotary_factor if hasattr(config, "partial_rotary_factor") else 1.0
        rope_theta = config.rope_theta if hasattr(config, "rope_theta") else config.rope_embedding_base if hasattr(config, "rope_embedding_base") else 10000
        self.rotemb_attrs = {
            "create_rotary_embedding_caches": True,          # Create cos/sin caches for rotary embeddings
            "cache_length": self.context_length,             # Cache length to use when creating cos/sin caches for rotary embeddings
            "theta": rope_theta,                             # Base value if calculating cos/sin caches from scratch
            "partial_rotary_factor": partial_rotary_factor,  # Factor for partial rotary embeddings
            "interleaved": 0,                                # Interleave the rotary embeddings (e.g. [0, 0, 0, 1, 1, 1] to [0, 1, 0, 1, 0, 1], RotaryEmbedding kernel expects a default value of 0)
            "num_heads": 0,                                  # For partial rotary embeddings (RotaryEmbedding kernel expects a default value of 0)
            "rotary_embedding_dim": 0,                       # For partial rotary embeddings (RotaryEmbedding kernel expects a default value of 0)
            "rescale_factors": 1,                            # Rescale factors when calculating `inv_freq` in rotary embeddings
            "t_dtype": torch.int64,                          # Torch dtype when calculating `t` in rotary embeddings
            "position_scale": position_scale,                # Scale value when calculating `t` in rotary embeddings
            "mscale": 1,                                     # Magnitude scaling factor when scaling `emb.cos()/emb.sin()` in rotary embeddings
            "mscale_policy": "",                             # Magnitude scaling policy when scaling `emb.cos()/emb.sin()` in rotary embeddings
        }
        if hasattr(config, "rope_scaling") and config.rope_scaling is not None:
            if "short_factor" in config.rope_scaling:
                # For models with multiple rotary embedding caches (e.g. Phi-3 mini 128K)
                self.rotemb_attrs["mscale_policy"] = config.rope_scaling["type"]
                short_factor = torch.tensor(config.rope_scaling["short_factor"], dtype=torch.float32)
                long_factor = torch.tensor(config.rope_scaling["long_factor"], dtype=torch.float32)

                short_mscale = config.rope_scaling["short_mscale"] if "short_mscale" in config.rope_scaling else 0
                long_mscale = config.rope_scaling["long_mscale"] if "long_mscale" in config.rope_scaling else 0
                short_mscale = short_mscale if short_mscale > 0 else self.make_mscale(self.context_length / self.original_context_length)
                long_mscale = long_mscale if long_mscale > 0 else self.make_mscale(self.context_length / self.original_context_length)

                self.rotemb_attrs["multi_cache"] = {
                    "short_factor": short_factor,                # Short factor when calculating `inv_freq` in rotary embeddings
                    "long_factor": long_factor,                  # Long factor when calculating `inv_freq` in rotary embeddings
                    "short_mscale": short_mscale,                # Magnitude scaling for short factor when scaling `emb.cos()/emb.sin()` in rotary embeddings
                    "long_mscale": long_mscale,                  # Magnitude scaling for long factor when scaling `emb.cos()/emb.sin()` in rotary embeddings
                }
            elif "low_freq_factor" in config.rope_scaling:
                # For models that rescale `inv_freq` using `low_freq_factor` and `high_freq_factor` (e.g. LLaMA-3.1)
                factor = config.rope_scaling["factor"] if "factor" in config.rope_scaling else 0
                low_freq_factor = config.rope_scaling["low_freq_factor"] if "low_freq_factor" in config.rope_scaling else 0
                high_freq_factor = config.rope_scaling["high_freq_factor"] if "high_freq_factor" in config.rope_scaling else 0
                self.rotemb_attrs["rescale_inv_freq"] = {
                    "factor": factor,                            # Scale factor when calculating `new_freq` in rotary embeddings
                    "low_freq_factor": low_freq_factor,          # Low freq factor when calculating `low_freq_wavelen` in rotary embeddings
                    "high_freq_factor": high_freq_factor,        # High freq factor when calculating `high_freq_wavelen` in rotary embeddings
                }

        # Attention-specific variables (MHA, GQA, GQA + Rot.Emb., etc.)
        # Block-sparse attention-specific variables
        sparse_block_size = config.blocksparse_block_size if hasattr(config, "blocksparse_block_size") else 0
        kernel_block_size = config.blocksparse_triton_kernel_block_size if hasattr(config, "blocksparse_triton_kernel_block_size") else 0
        local_blocks = config.blocksparse_num_local_blocks if hasattr(config, "blocksparse_num_local_blocks") else 0
        vert_block_stride = config.blocksparse_vert_stride if hasattr(config, "blocksparse_vert_stride") else 0
        homo_head = config.blocksparse_homo_head_pattern if hasattr(config, "blocksparse_homo_head_pattern") else False
        self.attention_attrs = {
            "q_path": "",                                    # Q path to attention
            "k_path": "",                                    # K path to attention
            "v_path": "",                                    # V path to attention
            "op_type": "MultiHeadAttention",                 # Attention op to use
            "scale": 1 / np.sqrt(self.head_size),            # Scale value after calculating Q x K' in attention
            "use_rotemb_in_attn": False,                     # Use rotary embeddings within attention (instead of a separate RotaryEmbedding op)
            "use_packed_matmul": False,                      # Use packed MatMul (instead of 3 separate MatMuls for Q/K/V)
            "block_sparse": {                                # Block-sparse attention-specific variables
                "sparse_block_size": sparse_block_size,      # Sparse block size for SparseAttention op
                "kernel_block_size": kernel_block_size,      # Kernel block size for sparse attention
                "local_blocks": local_blocks,                # Number of local blocks for sparse attention
                "vert_stride": vert_block_stride,            # Vertical stride to use for sparse attention
                "homo_head": homo_head,                      # Use homo head pattern for sparse attention
            }
        }
        valid_gqa_configurations = [
            ("cpu", TensorProto.FLOAT),
            ("cuda", TensorProto.FLOAT16),
            ("rocm", TensorProto.FLOAT16),
            ("dml", TensorProto.FLOAT16),
        ]
        if (self.ep, self.io_dtype) in valid_gqa_configurations:
            # Change model settings for GroupQueryAttention
            self.attention_attrs["op_type"] = "GroupQueryAttention"
            print("GroupQueryAttention (GQA) is used in this model.")

            # DML doesn't support packed Q/K/V for GQA yet
            # Packed MatMul with LoRA/QLoRA is not currently supported
            self.attention_attrs["use_packed_matmul"] = self.ep != "dml" and not self.matmul_attrs["use_lora"]

            # GQA + Rot.Emb. does not require `position ids` as input
            if self.ep != "dml":
                self.attention_attrs["use_rotemb_in_attn"] = True
                self.input_names.remove("position_ids")

        self.past_present_share_buffer = self.attention_attrs["op_type"] == "GroupQueryAttention"

        # MLP-specific variables
        self.mlp_attrs = {
            "use_proj": True,           # Use projection style for MLP (GateProj/UpProj/DownProj)
            "use_fc": False,            # Use fully-connected style for MLP (FC1/FC2)
            "output_0": "",             # Output 0 for MLP layer
        }

        # MoE-specific variables
        num_experts = config.num_experts if hasattr(config, "num_experts") else 1
        self.moe_attrs = {
            "num_experts": num_experts,                       # Number of experts in MoE layer
            "top_k": 1,                                       # Number of experts to select in MoE layer
            "activation_type": "relu",                        # Activation function for MoE layer
            "normalize_routing_weights": False,               # Normalize routing weights in MoE layer
            "use_sparse_mixer": False,                        # Use SparseMixer in MoE layer. Used in Phi3 MoE
            "use_int4": True,                                 # Use INT4 quantization in MoE layer, otherwise use INT8
        }

        # LM head-specific variables
        self.lm_head_attrs = {
            "scale": 1,                 # Scale value to multiply output of LM head by
            "mask": None,               # LM head mask for tokens in the vocabulary
        }
        if hasattr(config, "dummy_token_indices"):
            # Create LM head mask for tokens in the vocabulary
            dummy_tokens_mask = torch.zeros(self.vocab_size).bool()
            dummy_tokens_mask[config.dummy_token_indices] = True
            self.lm_head_attrs["mask"] = dummy_tokens_mask

        # Quantization-specific variables (INT4, INT8, etc.)
        self.quant_attrs = {
            "int4": {
                "block_size": int(extra_options["int4_block_size"]) if "int4_block_size" in extra_options else 32,
                "accuracy_level": int(extra_options["int4_accuracy_level"]) if "int4_accuracy_level" in extra_options else 0,   # Default is 0 for non-QDQ formats, default is 4 for QDQ formats
            },
            "use_qdq": False,           # Use QDQ format
        }
        if self.quant_type is not None:
            # Create quantized attributes from quantization config
            self.quant_attrs["bits"] = config.quantization_config["bits"]
            self.quant_attrs["group_size"] = config.quantization_config["group_size"]
            self.quant_attrs["use_g_idx"] = config.quantization_config["desc_act"] if "desc_act" in config.quantization_config else False

    def make_genai_config(self, model_name_or_path, extra_kwargs, out_dir):
        try:
            config = GenerationConfig.from_pretrained(model_name_or_path, token=self.hf_token, trust_remote_code=True, **extra_kwargs)
        except:
            config = AutoConfig.from_pretrained(model_name_or_path, token=self.hf_token, trust_remote_code=True, **extra_kwargs)
        inputs = dict(zip(self.input_names, self.input_names))
        inputs.update({
            "past_key_names": "past_key_values.%d.key",
            "past_value_names": "past_key_values.%d.value",
        })
        genai_config = {
            "model": {
                "bos_token_id": config.bos_token_id if hasattr(config, "bos_token_id") else 1,  # config.bos_token_id not present in ChatGLM model configs.
                "context_length": self.context_length,
                "decoder": {
                    "session_options" : {
                        "log_id": "onnxruntime-genai",
                        "provider_options" : [],
                    },
                    "filename": self.filename,
                    "head_size": self.head_size,
                    "hidden_size": self.hidden_size,
                    "inputs": inputs,
                    "outputs": {
                        "logits": "logits",
                        "present_key_names": "present.%d.key",
                        "present_value_names": "present.%d.value",
                    },
                    "num_attention_heads": self.num_attn_heads,
                    "num_hidden_layers": self.num_layers,
                    "num_key_value_heads": self.num_kv_heads,
                },
                "eos_token_id": config.eos_token_id,
                "pad_token_id": config.pad_token_id if hasattr(config, "pad_token_id") and config.pad_token_id is not None else config.eos_token_id[0] if isinstance(config.eos_token_id, list) else config.eos_token_id,
                "type": self.model_type[ : self.model_type.find("For")].lower(),
                "vocab_size": self.vocab_size,
            },
            "search": {
                "diversity_penalty": config.diversity_penalty if hasattr(config, "diversity_penalty") else 0.0,
                "do_sample": config.do_sample if hasattr(config, "do_sample") else False,
                "early_stopping": True,
                "length_penalty": config.length_penalty if hasattr(config, "length_penalty") else 1.0,
                "max_length": self.context_length,
                "min_length": 0,
                "no_repeat_ngram_size": config.no_repeat_ngram_size if hasattr(config, "no_repeat_ngram_size") else 0,
                "num_beams": config.num_beams if hasattr(config, "num_beams") else 1,
                "num_return_sequences": config.num_return_sequences if hasattr(config, "num_return_sequences") else 1,
                "past_present_share_buffer": self.past_present_share_buffer,
                "repetition_penalty": config.repetition_penalty if hasattr(config, "repetition_penalty") else 1.0,
                "temperature": config.temperature if hasattr(config, "temperature") else 1.0,
                "top_k": 1,
                "top_p": config.top_p if hasattr(config, "top_p") else 1.0,
            },
        }

        if self.ep != "cpu":
            ep_options = { self.ep : self.ep_attrs[self.ep] }
            genai_config["model"]["decoder"]["session_options"]["provider_options"].append(ep_options)

        print(f"Saving GenAI config in {out_dir}")
        with open(os.path.join(out_dir,"genai_config.json"), "w") as f:
            json.dump(genai_config, f, indent=4)

    def save_processing(self, model_name_or_path, extra_kwargs, out_dir):
        tokenizer = AutoTokenizer.from_pretrained(model_name_or_path, token=self.hf_token, trust_remote_code=True, **extra_kwargs)
        print(f"Saving processing files in {out_dir} for GenAI")
        tokenizer.save_pretrained(out_dir)

    def save_model(self, out_dir):
        print(f"Saving ONNX model in {out_dir}")
        gc.collect()

        # Create ONNX model
        model = helper.make_model(
            opset_imports=[self.clear_field(helper.make_operatorsetid('', 21 if self.quant_attrs["use_qdq"] else 14), 'domain'), helper.make_operatorsetid('com.microsoft', 1)],
            ir_version=7,
            producer_name="onnxruntime-genai",
            producer_version="0.0.0",
            graph=self.make_graph(
                name="main_graph",
                inputs=self.inputs,
                outputs=self.outputs,
                initializer=self.initializers,
                value_info=self.value_infos,
                nodes=self.nodes,
            )
        )

        # Load external data into ONNX model
        external_data_helper.load_external_data_for_model(model, self.cache_dir)

        # Delete external data files on disk before re-saving
        for path in os.listdir(self.cache_dir):
            if path.endswith(".bin"):
                os.remove(os.path.join(self.cache_dir, path))

        # Delete temporary cache dir if empty
        if len(os.listdir(self.cache_dir)) == 0:
            os.rmdir(self.cache_dir)

        # Quantize ONNX model to desired precision
        # TODO: Replace by quantizing the MatMuls as they are created
        if self.onnx_dtype == "int4" and self.quant_type is None:
            model = self.to_int4(model)

        # Save ONNX model with only one external data file and delete any existing duplicate copies
        out_path = os.path.join(out_dir, self.filename)
        data_path = os.path.join(out_dir, os.path.basename(out_path) + ".data")
        if os.path.exists(out_path):
            print(f"Overwriting {out_path}")
            os.remove(out_path)
        if os.path.exists(data_path):
            print(f"Overwriting {data_path}")
            os.remove(data_path)

        save_model(
            model,
            out_path,
            save_as_external_data=True,
            all_tensors_to_one_file=True,
            location=os.path.basename(data_path),
            size_threshold=0,
            convert_attribute=False,
        )

    def to_int4(self, model):
        quant = MatMul4BitsQuantizer(
            model=model,
            block_size=self.quant_attrs["int4"]["block_size"],
            is_symmetric=True,
            accuracy_level=self.quant_attrs["int4"]["accuracy_level"],
            nodes_to_exclude=[],
            quant_format=QuantFormat.QDQ if self.quant_attrs["use_qdq"] else QuantFormat.QOperator,
        )
        quant.process()
        return quant.model.model

    def clear_field(self, proto, field):
        proto.ClearField(field)
        return proto

    def order_repeated_field(self, repeated_proto, key_name, order):
        order = list(order)
        repeated_proto.sort(key=lambda x: order.index(getattr(x, key_name)))

    def make_external_tensor(self, np_data, name, unpack_int4=False, **kwargs):
        tensor = numpy_helper.from_array(np_data)
        tensor.name = name

        filename = f"{name}.bin"
        external_data_helper.set_external_data(tensor, location=filename)
        with open(os.path.join(self.cache_dir, filename), "wb") as f:
            f.write(tensor.raw_data)
        tensor.ClearField("raw_data")
        tensor.data_location = TensorProto.EXTERNAL

        if unpack_int4 and self.onnx_dtype == 'int4':
            tensor.data_type = TensorProto.UINT4
            tensor.dims[-1] *= 2

        self.initializers.append(tensor)

    def make_node(self, op_type, inputs, outputs, name=None, doc_string=None, domain=None, **kwargs):
        # Save any constants as nodes
        for input_name in inputs:
            if input_name.startswith("/model/constants") and input_name not in self.node_names:
                self.make_constant(input_name)

        # Make node only if it does not already exist
        if name not in self.node_names:
            node = helper.make_node(op_type, inputs, outputs, name, doc_string, domain, **kwargs)
            if doc_string == '':
                node.doc_string = ''
            self.order_repeated_field(node.attribute, 'name', kwargs.keys())
            self.nodes.append(node)
            self.node_names.add(name)

        # Note:
        #
        # The above approach allows functions that make similar subgraphs with the same naming schema
        # to share existing nodes without needing to know whether the nodes already exist or not
        # (e.g. attention mask subgraphs).
        #
        # This means that the nodes can be created in those functions regardless of their actual
        # status in the graph. The above checks can then decide whether the proposed node actually
        # needs to be added into the graph or not.

    def make_value_info(self, name, dtype, shape):
        value_info = helper.make_tensor_value_info(name, dtype, shape=shape)
        self.value_infos.append(value_info)

    def make_graph(self, *args, doc_string=None, **kwargs):
        graph = helper.make_graph(*args, doc_string=doc_string, **kwargs)
        if doc_string == '':
            graph.doc_string = ''
        return graph

    def make_inputs_and_outputs(self):
        # Add model-specific inputs to list of model inputs
        inputs = []
        for name in self.input_names:
            dtype = self.input_types[name]
            shape = self.input_shapes[name]
            inputs.append(helper.make_tensor_value_info(name, dtype, shape=shape))

        # Add model-specific outputs to list of model outputs
        outputs = []
        for name in self.output_names:
            dtype = self.output_types[name]
            shape = self.output_shapes[name]
            outputs.append(helper.make_tensor_value_info(name, dtype, shape=shape))

        # Add KV cache to inputs and outputs
        for i in range(self.num_layers):
            # Add KV cache to inputs
            key_name = f"past_key_values.{i}.key"
            inputs.append(helper.make_tensor_value_info(key_name, self.input_types["past_key_values.key"], shape=self.input_shapes["past_key_values.key"]))
            value_name = f"past_key_values.{i}.value"
            inputs.append(helper.make_tensor_value_info(value_name, self.input_types["past_key_values.value"], shape=self.input_shapes["past_key_values.value"]))

            # Add KV cache to outputs
            key_name = f"present.{i}.key"
            outputs.append(helper.make_tensor_value_info(key_name, self.output_types["present.key"], shape=self.output_shapes["present.key"]))
            value_name = f"present.{i}.value"
            outputs.append(helper.make_tensor_value_info(value_name, self.output_types["present.value"], shape=self.output_shapes["present.value"]))

        self.inputs = inputs
        self.outputs = outputs

    def make_constant(self, name):
        # Make constant ops for 0, 1, 2, 3, etc.
        # Format of name is "/model/constants/{dtype}/{shape}/{num}"
        path = name.split("/")
        onnx_dtype, dims, num = eval(path[-3]), path[-2], eval(path[-1])
        np_dtype = self.to_numpy_dtype[onnx_dtype]
        value = numpy_helper.from_array(np.array(num if dims == "0D" else list(num) if type(num) == tuple else [num], dtype=np_dtype), name=name.replace("constants", "numpy_helper"))

        node_name = name.replace("constants", "constant_nodes")
        self.make_node("Constant", inputs=[], outputs=[name], name=node_name, value=value)
        self.make_value_info(name, onnx_dtype, shape=[])
        self.node_names.add(name)

    def make_gather(self, name, inputs, axis):
        output = f"{name}/output_0"
        self.make_node("Gather", inputs=inputs, outputs=[output], name=name, axis=axis)
        self.make_value_info(output, TensorProto.INT64, shape=[])

    def make_reshape(self, name, inputs, dtype, shape):
        output = f"{name}/output_0"
        self.make_node("Reshape", inputs=inputs, outputs=[output], name=name)
        self.make_value_info(output, dtype, shape=shape)

    def make_shape(self, name, root_input, shape):
        output = f"{name}/output_0"
        self.make_node("Shape", inputs=[root_input], outputs=[output], name=name)
        self.make_value_info(output, TensorProto.INT64, shape=shape)

    def make_constant_of_shape(self, name, root_input, value, dtype, shape):
        output = f"{name}/output_0"
        self.make_node("ConstantOfShape", inputs=[root_input], outputs=[output], name=name, value=value)
        self.make_value_info(output, dtype, shape=shape)

    def make_unsqueeze(self, name, inputs, dtype, shape):
        output = f"{name}/output_0"
        self.make_node("Unsqueeze", inputs=inputs, outputs=[output], name=name)
        self.make_value_info(output, dtype, shape=shape)

    def make_squeeze(self, name, inputs):
        output = f"{name}/output_0"
        self.make_node("Squeeze", inputs=inputs, outputs=[output], name=name)
        self.make_value_info(output, TensorProto.INT64, shape=[])

    def make_concat(self, name, inputs, dtype, shape, axis=0):
        output = f"{name}/output_0"
        self.make_node("Concat", inputs=inputs, outputs=[output], name=name, axis=axis)
        self.make_value_info(output, dtype, shape=shape)

    def make_tile(self, name, inputs, dtype, shape):
        output = f"{name}/output_0"
        self.make_node("Tile", inputs=inputs, outputs=[output], name=name)
        self.make_value_info(output, dtype, shape=shape)

    def make_equal(self, name, inputs, shape):
        output = f"{name}/output_0"
        self.make_node("Equal", inputs=inputs, outputs=[output], name=name)
        self.make_value_info(output, TensorProto.BOOL, shape=shape)

    def make_greater(self, name, inputs, shape):
        output = f"{name}/output_0"
        self.make_node("Greater", inputs=inputs, outputs=[output], name=name)
        self.make_value_info(output, TensorProto.BOOL, shape=shape)
    
    def make_greater_or_equal(self, name, inputs, shape):
        output = f"{name}/output_0"
        self.make_node("GreaterOrEqual", inputs=inputs, outputs=[output], name=name)
        self.make_value_info(output, TensorProto.BOOL, shape=shape)

    def make_isinf(self, name, root_input, shape):
        output = f"{name}/output_0"
        self.make_node("IsInf", inputs=[root_input], outputs=[output], name=name)
        self.make_value_info(output, TensorProto.BOOL, shape=shape)

    def make_clip(self, name, inputs, dtype, shape):
        output = f"{name}/output_0"
        self.make_node("Clip", inputs=inputs, outputs=[output], name=name)
        self.make_value_info(output, dtype, shape=shape)

    def make_where(self, name, inputs, dtype, shape):
        output = f"{name}/output_0"
        self.make_node("Where", inputs=inputs, outputs=[output], name=name)
        self.make_value_info(output, dtype, shape=shape)

    def make_expand(self, name, inputs, dtype, shape):
        output = f"{name}/output_0"
        self.make_node("Expand", inputs=inputs, outputs=[output], name=name)
        self.make_value_info(output, dtype, shape=shape)

    def make_reduce_sum(self, name, inputs, dtype, shape):
        output = f"{name}/output_0"
        self.make_node("ReduceSum", inputs=inputs, outputs=[output], name=name)
        self.make_value_info(output, dtype, shape=shape)

    def make_reduce_max(self, name, inputs, dtype, shape):
        output = f"{name}/output_0"
        self.make_node("ReduceMax", inputs=inputs, outputs=[output], name=name, keepdims=False)
        self.make_value_info(output, dtype, shape=shape)

    def make_cast(self, name, root_input, dtype, shape):
        output = f"{name}/output_0"
        self.make_node("Cast", inputs=[root_input], outputs=[output], name=name, to=dtype)
        self.make_value_info(output, dtype, shape=shape)

    def make_add(self, name, inputs, dtype, shape):
        output = f"{name}/output_0"
        self.make_node("Add", inputs=inputs, outputs=[output], name=name)
        self.make_value_info(output, dtype, shape=shape)

    def make_sub(self, name, inputs, dtype, shape):
        output = f"{name}/output_0"
        self.make_node("Sub", inputs=inputs, outputs=[output], name=name)
        self.make_value_info(output, dtype, shape=shape)

    def make_less(self, name, inputs):
        output = f"{name}/output_0"
        self.make_node("Less", inputs=inputs, outputs=[output], name=name)
        self.make_value_info(output, TensorProto.BOOL, shape=None)

    def make_range(self, name, inputs):
        output = f"{name}/output_0"
        self.make_node("Range", inputs=inputs, outputs=[output], name=name)
        self.make_value_info(output, TensorProto.INT64, shape=["unk"])

    def make_slice(self, name, inputs, dtype, shape):
        output = f"{name}/output_0"
        self.make_node("Slice", inputs=inputs, outputs=[output], name=name)
        self.make_value_info(output, dtype, shape=shape)

    def make_mul(self, name, inputs, dtype, shape):
        output = f"{name}/output_0"
        self.make_node("Mul", inputs=inputs, outputs=[output], name=name)
        self.make_value_info(output, dtype, shape=shape)

    def make_transpose(self, name, root_input, dtype, shape, perm):
        output = f"{name}/output_0"
        self.make_node("Transpose", inputs=[root_input], outputs=[output], name=name, perm=perm)
        self.make_value_info(output, dtype, shape=shape)

    def make_div(self, name, inputs, dtype, shape):
        output = f"{name}/output_0"
        self.make_node("Div", inputs=inputs, outputs=[output], name=name)
        self.make_value_info(output, dtype, shape=shape)

    def make_tanh(self, name, root_input, dtype, shape):
        output = f"{name}/output_0"
        self.make_node("Tanh", inputs=[root_input], outputs=[output], name=name)
        self.make_value_info(output, dtype, shape=shape)

    def make_matmul(self, matmul, basename, root_input, **kwargs):
        if hasattr(matmul, "base_layer"):
            # For LoRA `MatMul`
            return self.make_matmul_lora(matmul, basename, root_input, **kwargs)
        else:
            # For regular `MatMul`
            return self.make_matmul_op(matmul, basename, root_input, **kwargs)
    
    def make_matmul_op(self, matmul, basename, root_input, **kwargs):
        if self.onnx_dtype in {"fp16", "fp32"}:
            return self.make_matmul_fp16_or_fp32(matmul, basename, root_input, **kwargs)
        elif self.onnx_dtype == "int4":
            if self.quant_attrs["use_qdq"]:
                return self.make_matmul_int4_qdq(matmul, basename, root_input, **kwargs)
            else:
                return self.make_matmul_int4(matmul, basename, root_input, **kwargs)
        else:
            raise NotImplementedError(f"The {self.onnx_dtype} precision is not currently supported.")

    def make_matmul_fp16_or_fp32(self, matmul, name, root_input, **kwargs):
        weight = name[1:].replace("/", ".") + ".weight"
        self.make_external_tensor(matmul.weight.detach().numpy().transpose().astype(self.to_numpy_dtype[self.io_dtype]), weight)

        last_dim = matmul.weight.shape[0]
        output = "logits" if kwargs.get("logits", False) else f"{name}/output_0"
        self.make_node("MatMul", inputs=[root_input, weight], outputs=[output], name=name)
        self.make_value_info(output, self.io_dtype, shape=['batch_size', 'sequence_length', last_dim])

        return name

    def make_matmul_int4(self, matmul, basename, root_input, **kwargs):
        if not hasattr(matmul, "qweight"):
            # TODO: quantize weights, then save new MatMul numpy weights for onnx model
            # print(f"Quantizing to {self.onnx_dtype} on-the-fly is not currently supported.")
            # print(f"Saving as {self.io_dtype} on-the-fly and quantizing to {self.onnx_dtype} at the end.")
            return self.make_matmul_fp16_or_fp32(matmul, basename, root_input, **kwargs)

        name = f"{basename}NBits"

        # Input weights are quantized, save quantized MatMul numpy weights for onnx model
        weight = name[1:].replace("/", ".") + ".qweight"
        self.make_external_tensor(matmul.qweight.detach().numpy(), weight)
        scales = name[1:].replace("/", ".") + ".scales"
        self.make_external_tensor(matmul.scales.detach().numpy().astype(self.to_numpy_dtype[self.io_dtype]), scales)

        inputs = [root_input, weight, scales]

        if hasattr(matmul, "qzeros") and matmul.qzeros is not None:
            zeros = name[1:].replace("/", ".") + ".qzeros"
            self.make_external_tensor(matmul.qzeros.detach().numpy(), zeros)
            inputs.append(zeros)

        if hasattr(matmul, "g_idx") and matmul.g_idx is not None:
            g_idx = name[1:].replace("/", ".") + ".g_idx"
            self.make_external_tensor(matmul.g_idx.detach().numpy().astype(np.int32), g_idx)
            inputs.append(g_idx)

        output = "logits" if kwargs.get("logits", False) else f"{name}/output_0"
        self.make_node(
            "MatMulNBits", inputs=inputs, outputs=[output], name=name, domain="com.microsoft",
            accuracy_level=self.quant_attrs["int4"]["accuracy_level"],
            bits=matmul.bits, block_size=matmul.group_size, K=matmul.in_features, N=matmul.out_features,
        )
        self.make_value_info(output, self.io_dtype, shape=['batch_size', 'sequence_length', matmul.out_features])

        return name

    def make_dequantize_linear(self, dequantize_name, quantized_op):
        # Input weights are quantized, save quantized MatMul numpy weights for onnx model
        qweight = dequantize_name[1:].replace("/", ".") + ".qweight"
        qweight_npy = quantized_op.qweight.detach().numpy()
        qweight_npy = qweight_npy.reshape(*qweight_npy.shape[:-2], qweight_npy.shape[-2] * qweight_npy.shape[-1])
        self.make_external_tensor(qweight_npy, qweight, True)

        scales = dequantize_name[1:].replace("/", ".") + ".scales"
        scales_npy = quantized_op.scales.detach().numpy().astype(self.to_numpy_dtype[self.io_dtype])
        scales_npy = scales_npy.reshape(*qweight_npy.shape[:-1], qweight_npy.shape[-1] * 2 // quantized_op.group_size)
        self.make_external_tensor(scales_npy, scales)

        dequantize_inputs = [qweight, scales]

        if hasattr(quantized_op, "qzeros") and quantized_op.qzeros is not None:
            zeros = dequantize_name[1:].replace("/", ".") + ".qzeros"
            zeros_npy = quantized_op.qzeros.detach().numpy()
            zeros_npy = zeros_npy.reshape(*qweight_npy.shape[:-1], qweight_npy.shape[-1] // quantized_op.group_size)
            self.make_external_tensor(zeros_npy, zeros, True)
            dequantize_inputs.append(zeros)

        dequantize_output = f"{dequantize_name}/output_0"
        self.make_node("DequantizeLinear", inputs=dequantize_inputs, outputs=[dequantize_output], name=dequantize_name, block_size=quantized_op.group_size, axis=-1)
        self.make_value_info(dequantize_output, self.io_dtype, shape=[*scales_npy.shape[:-1], scales_npy.shape[-1] * quantized_op.group_size])

        return dequantize_output

    def make_matmul_int4_qdq(self, matmul, matmul_name, root_input, **kwargs):
        if not hasattr(matmul, "qweight"):
            # TODO: quantize weights, then save new MatMul numpy weights for onnx model
            # print(f"Quantizing to {self.onnx_dtype} on-the-fly is not currently supported.")
            # print(f"Saving as {self.io_dtype} on-the-fly and quantizing to {self.onnx_dtype} at the end.")
            return self.make_matmul_fp16_or_fp32(matmul, matmul_name, root_input, **kwargs)

        dequantize_output = self.make_dequantize_linear(f"{matmul_name}/DequantizeLinear", matmul)

        # Add a transpose instead of transposing the weights offline. The reason for this is that it is more natural and usually more performant to
        # compute quantized matmul when the weights are transposed. In most implementations, the transpose should usually be converted to a "transposeB"
        # attribute on the MatMul itself. A more natural way to represent this would have been to use Gemm since it already supports a transB attribute,
        # but unfortunately Gemm doesn't support batches.
        qweight_shape = matmul.qweight.detach().numpy().shape
        transposed_shape = [qweight_shape[1] * qweight_shape[2] * 2, qweight_shape[0]]
        transpose_name = f"{matmul_name}/Transpose"
        self.make_transpose(transpose_name, dequantize_output, self.io_dtype, transposed_shape, [1, 0])

        matmul_output = "logits" if kwargs.get("logits", False) else f"{matmul_name}/output_0"
        self.make_node("MatMul", inputs=[root_input, f"{transpose_name}/output_0"], outputs=[matmul_output], name=matmul_name)
        self.make_value_info(matmul_output, self.io_dtype, shape=['batch_size', 'sequence_length', matmul.out_features])

        return matmul_name

    def make_matmul_lora(self, matmul, basename, root_input, **kwargs):
        # Make nodes for the MatMul-LoRA subgraph
        #
        #            root_input
        #                |
        #         +------+------+
        #         |             |
        #   MatMul_LoRA_A     MatMul
        #         |             |
        #   MatMul_LoRA_B       |
        #         |             |
        #         +------+------+
        #                |
        #           Add_LoRA_Add

        basename_parts = basename.split("/")

        # Make LoRA MatMul path
        matmul_A_basename = "/".join(basename_parts[:-1] + ["lora_A"] + basename_parts[-1:])
        matmul_A_name = self.make_matmul_op(matmul.lora_A.default, matmul_A_basename, root_input=root_input)
        lora_A = f"{matmul_A_name}/output_0"

        matmul.lora_B.default.weight *= matmul.scaling["default"]
        matmul_B_basename = "/".join(basename_parts[:-1] + ["lora_B"] + basename_parts[-1:])
        matmul_B_name = self.make_matmul_op(matmul.lora_B.default, matmul_B_basename, root_input=lora_A)
        lora_B = f"{matmul_B_name}/output_0"

        # Make regular MatMul path
        last_dim = matmul.base_layer.weight.shape[0]
        matmul_name = self.make_matmul_op(matmul.base_layer, basename, root_input, **kwargs)

        # Make LoRA Add node
        add_name = "/".join(basename_parts[:-1] + ["lora", "Add"])
        add_inputs = [f"{matmul_name}/output_0", lora_B]
        add_shape = ["batch_size", "sequence_length", last_dim]
        self.make_add(add_name, add_inputs, dtype=self.io_dtype, shape=add_shape)

        return add_name

    def make_packed_matmul(self, q_matmul, k_matmul, v_matmul, basename, root_input, **kwargs):
        if self.onnx_dtype in {"fp16", "fp32"}:
            return self.make_packed_matmul_fp16_or_fp32(q_matmul, k_matmul, v_matmul, basename, root_input, **kwargs)
        elif self.onnx_dtype == "int4":
            return self.make_packed_matmul_int4(q_matmul, k_matmul, v_matmul, basename, root_input, **kwargs)
        else:
            raise NotImplementedError(f"The {self.onnx_dtype} precision is not currently supported.")

    def make_packed_matmul_fp16_or_fp32(self, q_matmul, k_matmul, v_matmul, name, root_input, **kwargs):
        # N_q = num_attention_heads * head_size, N_kv = num_key_value_heads * head_size, H = hidden_size
        # Combine 3 MatMuls of shape N_q x H, N_kv x H, N_kv x H into 1 packed MatMul of shape (N_q+N_kv+N_kv)xH
        # Note: Packed MatMul is of shape (N_q+N_kv+N_kv)xH instead of Hx(N_q+N_kv+N_kv) because `make_matmul` will
        # apply a transpose before saving
        N_q, H = q_matmul.weight.shape
        N_kv, _ = k_matmul.weight.shape

        # Create dummy PackedMatMul class
        class PackedMatMul:
            def __init__(self):
                self.weight = torch.concatenate([q_matmul.weight.detach().cpu(), k_matmul.weight.detach().cpu(), v_matmul.weight.detach().cpu()], dim=0).reshape(N_q + N_kv + N_kv, H)
        matmul = PackedMatMul()
        new_name = self.make_matmul(matmul, name, root_input, **kwargs)

        return new_name

    def make_packed_matmul_int4(self, q_matmul, k_matmul, v_matmul, basename, root_input, **kwargs):
        if not hasattr(q_matmul, "qweight"):
            # TODO: quantize weights, then save new MatMul numpy weights for onnx model
            # print(f"Quantizing to {self.onnx_dtype} on-the-fly is not currently supported.")
            # print(f"Saving as {self.io_dtype} on-the-fly and quantizing to {self.onnx_dtype} at the end.")
            return self.make_packed_matmul_fp16_or_fp32(q_matmul, k_matmul, v_matmul, basename, root_input, **kwargs)

        name = f"{basename}NBits"

        # Create dummy PackedMatMul class
        class PackedMatMul:
            def __init__(self):
                self.qweight = torch.concatenate([q_matmul.qweight.detach().cpu(), k_matmul.qweight.detach().cpu(), v_matmul.qweight.detach().cpu()], dim=0)
                self.scales = torch.concatenate([q_matmul.scales.detach().cpu(), k_matmul.scales.detach().cpu(), v_matmul.scales.detach().cpu()], dim=0)
                self.qzeros = torch.concatenate([q_matmul.qzeros.detach().cpu(), k_matmul.qzeros.detach().cpu(), v_matmul.qzeros.detach().cpu()], dim=0)
                self.g_idx = q_matmul.g_idx

                self.in_features = q_matmul.in_features
                self.out_features = q_matmul.out_features + k_matmul.out_features + v_matmul.out_features
                self.bits = q_matmul.bits
                self.group_size = q_matmul.group_size
        matmul = PackedMatMul()

        # Input weights are quantized, save quantized MatMul numpy weights for onnx model
        weight = name[1:].replace("/", ".") + ".qweight"
        self.make_external_tensor(matmul.qweight.detach().numpy(), weight)
        scales = name[1:].replace("/", ".") + ".scales"
        self.make_external_tensor(matmul.scales.detach().numpy().astype(self.to_numpy_dtype[self.io_dtype]), scales)

        inputs = [root_input, weight, scales]

        if hasattr(matmul, "qzeros") and matmul.qzeros is not None:
            zeros = name[1:].replace("/", ".") + ".qzeros"
            self.make_external_tensor(matmul.qzeros.detach().numpy(), zeros)
            inputs.append(zeros)

        if hasattr(matmul, "g_idx") and matmul.g_idx is not None:
            g_idx = name[1:].replace("/", ".") + ".g_idx"
            self.make_external_tensor(matmul.g_idx.detach().numpy().astype(np.int32), g_idx)
            inputs.append(g_idx)

        output = "logits" if kwargs.get("logits", False) else f"{name}/output_0"
        self.make_node(
            "MatMulNBits", inputs=inputs, outputs=[output], name=name, domain="com.microsoft",
            accuracy_level=self.quant_attrs["int4"]["accuracy_level"],
            bits=matmul.bits, block_size=matmul.group_size, K=matmul.in_features, N=matmul.out_features,
        )
        self.make_value_info(output, self.io_dtype, shape=['batch_size', 'sequence_length', matmul.out_features])

        return name

    def make_add_bias(self, add, name, root_input, **kwargs):
        bias = name[1:].replace("/", ".") + ".bias"
        self.make_external_tensor(add.astype(self.to_numpy_dtype[self.io_dtype]), bias)

        add_bias_inputs = [root_input, bias]
        shape = ['batch_size', 'sequence_length', add.shape[0]]

        if "logits" in kwargs:
            output = "logits"
            self.make_node("Add", inputs=add_bias_inputs, outputs=[output], name=name)
            self.make_value_info(output, dtype=self.io_dtype, shape=shape)
        else:
            self.make_add(name, add_bias_inputs, dtype=self.io_dtype, shape=shape)

    def make_packed_add(self, q_add, k_add, v_add, name, root_input, **kwargs):
        # Combine 3 Adds of shape N_q, N_kv, and N_kv into 1 packed Add of shape N_q + N_kv + N_kv
        add = np.concatenate([q_add, k_add, v_add], axis=0).flatten()
        self.make_add_bias(add, name, root_input, **kwargs)

    def make_embedding(self, embedding):
        weight = "model.embed_tokens.weight"
        self.make_external_tensor(embedding.astype(self.to_numpy_dtype[self.io_dtype]), weight)

        basename = "/model/embed_tokens"
        gather_name = f"{basename}/Gather"
        gather_output = f"{gather_name}/output_0"
        self.make_node('Gather', inputs=[weight, 'input_ids'], outputs=[gather_output], name=gather_name)
        self.make_value_info(gather_output, self.io_dtype, shape=['batch_size', 'sequence_length', self.hidden_size])

        if self.embed_attrs["scale"] != 1:
            # Scale the embeddings
            mul_name = f"{basename}/Mul"
            mul_inputs = [gather_output, f"/model/constants/{self.to_str_dtype[self.io_dtype]}/0D/{self.embed_attrs['scale']}"]
            mul_output = f"{mul_name}/output_0"
            self.make_node('Mul', inputs=mul_inputs, outputs=[mul_output], name=mul_name)
            self.make_value_info(mul_output, self.io_dtype, shape=['batch_size', 'sequence_length', self.hidden_size])

            layernorm_attrs_value = mul_output
        else:
            layernorm_attrs_value = gather_output

        self.layernorm_attrs["root_input"] = layernorm_attrs_value
        self.layernorm_attrs["skip_input"] = layernorm_attrs_value

    def make_layernorm(self, layer_id, layernorm, skip, simple, location):
        root_input = self.layernorm_attrs["root_input"]
        skip_input = self.layernorm_attrs["skip_input"]

        weight = f"model.layers.{layer_id}.{location}_layernorm.weight"
        self.make_external_tensor(layernorm.weight.detach().numpy().astype(self.to_numpy_dtype[self.io_dtype]) + self.layernorm_attrs["add_offset"], weight)
        bias = f"model.layers.{layer_id}.{location}_layernorm.bias"
        if not simple:
            self.make_external_tensor(layernorm.bias.detach().numpy().astype(self.to_numpy_dtype[self.io_dtype]), bias)

        inputs = [root_input, skip_input, weight] if skip else [root_input, weight]
        if not simple:
            inputs.append(bias)

        name = f"/model/layers.{layer_id}/{location}_layernorm/{'Skip' if skip else ''}LayerNorm"
        op_type = f"{'Skip' if skip else ''}{'Simplified' if simple else ''}LayerNormalization"
        kwargs = {"epsilon": 9.999999747378752e-06}
        if not skip:
            kwargs.update({"axis": -1, "stash_type": 1})

        output_0 = f"/model/layers.{layer_id}/{location}_layernorm/output_0"
        output_3 = f"/model/layers.{layer_id}/{location}_layernorm/output_3"
        if self.layernorm_attrs["last_layernorm"] and self.exclude_lm_head:
            output_0 = "hidden_states"
        outputs = [output_0, "", "", output_3] if skip and not self.layernorm_attrs["last_layernorm"] else [output_0]

        self.make_node(op_type, inputs=inputs, outputs=outputs, name=name, domain=("com.microsoft" if skip else None), **kwargs)
        self.make_value_info(output_0, self.io_dtype, shape=['batch_size', 'sequence_length', self.hidden_size])
        if skip and not self.layernorm_attrs["last_layernorm"]:
            self.make_value_info(output_3, self.io_dtype, shape=['batch_size', 'sequence_length', self.hidden_size])

        # Update LayerNorm attributes
        self.layernorm_attrs["output_0"] = output_0
        if skip and not self.layernorm_attrs["last_layernorm"]:
            self.layernorm_attrs["output_3"] = output_3

            # Assign output 3 of current SkipLayerNorm as root input to next SkipLayerNorm
            self.layernorm_attrs["root_input"] = output_3

        return output_0

    def make_mscale_su(self, mscale):
        if mscale <= 1.0:
            return 1.0
        return np.sqrt(1 + np.log(mscale) / np.log(self.original_context_length))

    def make_mscale_yarn(self, mscale):
        if mscale <= 1.0:
            return 1.0
        return 0.1 * np.log(mscale) + 1.0

    def make_mscale(self, mscale):
        if self.rotemb_attrs["mscale_policy"] in {"su", "longrope"}:
            return self.make_mscale_su(mscale)
        elif self.rotemb_attrs["mscale_policy"] == "yarn":
            return self.make_mscale_yarn(mscale)
        else:
            return float(mscale)

    def make_inv_freq_rescaled(self, inv_freq):
        scale_factor = self.rotemb_attrs["rescale_inv_freq"]["factor"]
        low_freq_factor = self.rotemb_attrs["rescale_inv_freq"]["low_freq_factor"]
        high_freq_factor = self.rotemb_attrs["rescale_inv_freq"]["high_freq_factor"]
        old_context_len = self.original_context_length

        low_freq_wavelen = old_context_len / low_freq_factor
        high_freq_wavelen = old_context_len / high_freq_factor
        new_freqs = []
        for freq in inv_freq:
            wavelen = 2 * torch.pi / freq
            if wavelen < high_freq_wavelen:
                new_freqs.append(freq)
            elif wavelen > low_freq_wavelen:
                new_freqs.append(freq / scale_factor)
            else:
                smooth = (old_context_len / wavelen - low_freq_factor) / (high_freq_factor - low_freq_factor)
                new_freqs.append((1 - smooth) * freq / scale_factor + smooth * freq)

        return torch.tensor(new_freqs, dtype=inv_freq.dtype)

    def make_rotary_embedding_caches_from_scratch(self):
        dim = int(self.rotemb_attrs["partial_rotary_factor"] * self.head_size)
        inv_freq = 1.0 / (self.rotemb_attrs["rescale_factors"] * (self.rotemb_attrs["theta"] ** (torch.arange(0, dim, 2, dtype=torch.int64).float() / dim)))
        if "rescale_inv_freq" in self.rotemb_attrs:
            inv_freq = self.make_inv_freq_rescaled(inv_freq)

        position_scale = self.rotemb_attrs["position_scale"] if self.context_length == self.original_context_length else 1
        t = (torch.arange(self.rotemb_attrs["cache_length"], dtype=self.rotemb_attrs["t_dtype"]) * position_scale).type_as(inv_freq)

        freqs = torch.outer(t, inv_freq)
        emb = torch.cat((freqs, freqs), dim=-1)
        cos_cache, sin_cache = emb.cos() * self.rotemb_attrs["mscale"], emb.sin() * self.rotemb_attrs["mscale"]
        return cos_cache, sin_cache

    def make_rotary_embedding_caches(self, rotemb, **kwargs):
        cos_cache_name = kwargs.get("cos_cache_name", "cos_cache")
        sin_cache_name = kwargs.get("sin_cache_name", "sin_cache")

        if self.rotemb_attrs["create_rotary_embedding_caches"]:
            if not hasattr(rotemb, "cos_cached"):
                # Create cos/sin caches if not already created
                cos_cache, sin_cache = self.make_rotary_embedding_caches_from_scratch()
            else:
                cos_cache, sin_cache = rotemb.cos_cached, rotemb.sin_cached

            # Reshape cos/sin cache from (M, H) to (M, H/2)
            hidden_dim = cos_cache.shape[-1]
            cos_cache = cos_cache.squeeze()[:, : (hidden_dim // 2)].detach().numpy()
            cos_cache = cos_cache.astype(self.to_numpy_dtype[self.io_dtype])
            sin_cache = sin_cache.squeeze()[:, : (hidden_dim // 2)].detach().numpy()
            sin_cache = sin_cache.astype(self.to_numpy_dtype[self.io_dtype])

            if "cos_cache_name" not in kwargs and "sin_cache_name" not in kwargs:
                # Save cos/sin caches to disk
                self.make_external_tensor(cos_cache, cos_cache_name)
                self.make_external_tensor(sin_cache, sin_cache_name)
            else:
                # Return cos/sin caches since they will be custom-saved
                return cos_cache, sin_cache

            self.rotemb_attrs["create_rotary_embedding_caches"] = False

        return cos_cache_name, sin_cache_name

    def make_rotary_embedding(self, rotemb, name, root_input, **kwargs):
        cos_cache_name, sin_cache_name = self.make_rotary_embedding_caches(rotemb)

        inputs = [root_input, kwargs.pop("position_ids"), cos_cache_name, sin_cache_name]
        output = f"{name}/output_0"
        self.make_node("RotaryEmbedding", inputs=inputs, outputs=[output], name=name, domain="com.microsoft", interleaved=self.rotemb_attrs["interleaved"], **kwargs)
        self.make_value_info(output, self.io_dtype, shape=['batch_size', 'sequence_length', self.head_size * (self.num_kv_heads if "k_rotary" in name else self.num_attn_heads)])

    def make_rotary_embedding_multi_cache(self):
        # Create dummy rotary embedding class
        rotemb = type("RotaryEmbedding", (object,), {'content':{}})()
        if_cos_cache_output, if_sin_cache_output = "cos_cache", "sin_cache"

        # Create caches for when sequence_length > self.original_context_length
        self.rotemb_attrs["rescale_factors"] = self.rotemb_attrs["multi_cache"]["long_factor"]
        self.rotemb_attrs["cache_length"] = self.context_length
        self.rotemb_attrs["mscale"] = self.rotemb_attrs["multi_cache"]["long_mscale"]

        # DML doesn't support dynamic selection of the cos/sin cache, so we always use the biggest one
        if self.ep == "dml":
            self.make_rotary_embedding_caches(rotemb)
            self.make_value_info(if_cos_cache_output, self.io_dtype, shape=["max_sequence_length", "head_dim / 2"])
            self.make_value_info(if_sin_cache_output, self.io_dtype, shape=["max_sequence_length", "head_dim / 2"])
            return

        cos_cache_large_name, sin_cache_large_name = "cos_cache_large", "sin_cache_large"
        cos_cache_large, sin_cache_large = self.make_rotary_embedding_caches(rotemb, cos_cache_name=cos_cache_large_name, sin_cache_name=sin_cache_large_name)

        # Create caches for when sequence_length <= self.original_context_length
        self.rotemb_attrs["rescale_factors"] = self.rotemb_attrs["multi_cache"]["short_factor"]
        self.rotemb_attrs["cache_length"] = self.original_context_length
        self.rotemb_attrs["mscale"] = self.rotemb_attrs["multi_cache"]["short_mscale"]
        cos_cache_small_name, sin_cache_small_name = "cos_cache_small", "sin_cache_small"
        cos_cache_small, sin_cache_small = self.make_rotary_embedding_caches(rotemb, cos_cache_name=cos_cache_small_name, sin_cache_name=sin_cache_small_name)

        self.rotemb_attrs["create_rotary_embedding_caches"] = False

        # Make the following subgraph to decide which cos/sin caches to use in the rotary embeddings
        #
        # attention_mask --> Shape --> Gather --> Greater --> If --> (cos_cache, sin_cache)
        #                             (idx=1)
        #

        basename = "/model/rotemb_caches_subgraph"
        gather_name = ""
        if self.attention_attrs["op_type"] == "GroupQueryAttention":
            gather_name = "/model/attn_mask_reformat/attn_mask_subgraph/Gather"
        else:
            gather_name = "/model/attn_mask_reformat/attn_mask_subgraph/Gather_2"

        greater_name = f"{basename}/Greater"
        greater_inputs = [f"{gather_name}/output_0", f"/model/constants/TensorProto.INT64/0D/{self.original_context_length}"]
        self.make_greater(greater_name, greater_inputs, shape=[])
        if_name = f"{basename}/If"
        self.make_node(
            "If", inputs=[f"{greater_name}/output_0"], outputs=[if_cos_cache_output, if_sin_cache_output], name=if_name,
            then_branch=self.make_graph(
                name="large_rotemb_caches_graph",
                inputs=[],
                outputs=[
                    helper.make_tensor_value_info(cos_cache_large_name, self.io_dtype, shape=cos_cache_large.shape),
                    helper.make_tensor_value_info(sin_cache_large_name, self.io_dtype, shape=sin_cache_large.shape),
                ],
                initializer=[],
                value_info=[],
                nodes=[
                    helper.make_node("Constant", inputs=[], outputs=[cos_cache_large_name], name="/large/cos_cache/Constant", value=numpy_helper.from_array(cos_cache_large)),
                    helper.make_node("Constant", inputs=[], outputs=[sin_cache_large_name], name="/large/sin_cache/Constant", value=numpy_helper.from_array(sin_cache_large)),
                ],
            ),
            else_branch=self.make_graph(
                name="small_rotemb_caches_graph",
                inputs=[],
                outputs=[
                    helper.make_tensor_value_info(cos_cache_small_name, self.io_dtype, shape=cos_cache_small.shape),
                    helper.make_tensor_value_info(sin_cache_small_name, self.io_dtype, shape=sin_cache_small.shape),
                ],
                initializer=[],
                value_info=[],
                nodes=[
                    helper.make_node("Constant", inputs=[], outputs=[cos_cache_small_name], name="/small/cos_cache/Constant", value=numpy_helper.from_array(cos_cache_small)),
                    helper.make_node("Constant", inputs=[], outputs=[sin_cache_small_name], name="/small/sin_cache/Constant", value=numpy_helper.from_array(sin_cache_small)),
                ],
            ),
        )
        self.make_value_info(if_cos_cache_output, self.io_dtype, shape=["max_sequence_length", "head_dim / 2"])
        self.make_value_info(if_sin_cache_output, self.io_dtype, shape=["max_sequence_length", "head_dim / 2"])

    def make_repeat_kv(self, layer_id, root_input, past_kv, present_kv, **kwargs):
        # Make subgraph that repeats tensor of shape (batch_size, sequence_length, num_kv_heads, head_size)
        # to shape (batch_size, sequence_length, num_attn_heads, head_size) in an interleaved pattern
        # and updates the KV caches
        #
        #           root_input
        #                |
        #             Reshape
        #                |
        #            Transpose
        #                |
        #                |   past_kv
        #                |  /
        #             Concat
        #                |  \
        #                |   present_kv
        #                |
        #        +-------+---------+
        #        |                 |
        #        |               Shape
        #        |                 |
        #        |     +-----------+-----------+-----------+
        #        |     |           |           |           |
        #        |   Gather     Gather      Gather      Gather
        #        |   (idx=0)    (idx=1)     (idx=2)     (idx=3)
        #        |     |           |           |           |
        #        | Unsqueeze   Unsqueeze   Unsqueeze   Unsqueeze
        #        |     |           |           |           |
        #        |     +-----------+-----------+-----------+
        #        |                 |
        #        |                 +-----------------------+
        #        |                 |                       |
        #        |                 |                      Mul
        #        |                 |                       |
        #        |              Concat                   Concat
        #        |               (5D)                     (4D)
        #        |                 |                       |
        #        |              Reshape                    |
        #        |             /   |   \                   |
        #        |            /    |    \                  |
        #        |           /     |     \                /
        #        |          /      |      \              /
        #        |         /       |       \            /
        #        |        /      Shape      \          /
        #        |       /         |         \        /
        #        |      |   ConstantOfShape   \      /
        #        |       \         |       \   \    /
        #        |        \        |       Mul  |  /
        #        |         \       |        |  /  /
        #        |          \      |      Equal  /
        #        |           \     |       /    /
        #         \           \    |      /    /
        #          \           \   |     /    /
        #           \           \  |    /    /
        #            \           \ |   /    /
        #         Unsqueeze       Where    /
        #             \           /       /
        #              \         /       /
        #               \       /       /
        #                \     /       /
        #                 Expand      /
        #                    |       /
        #                    |      /
        #                    |     /
        #                    |    /
        #                    |   /
        #                 Reshape
        #                    |
        #                Transpose
        #                    |
        #                 Reshape
        basename = f"/model/layers.{layer_id}/attn/{'k_proj' if past_kv.endswith('key') else 'v_proj'}/repeat_kv"

        # Make the initial subgraph
        #
        #                                                       +------> Gather --> Unsqueeze -----+
        #                                                       |                                  |
        #                                         past_kv       +------> Gather --> Unsqueeze -----+---> Mul --> Concat (4D)
        #                                            |          |                                  |
        # root_input --> Reshape --> Transpose --> Concat --> Shape ---> Gather --> Unsqueeze -----+---> Concat (5D)
        #                                            |          |                                  |
        #                                        present_kv     +------> Gather --> Unsqueeze -----+
        reshape_1_name = f"{basename}/Reshape_1"
        reshape_1_inputs = [root_input, f"/model/constants/TensorProto.INT64/1D/0, 0, {self.num_kv_heads}, -1"]
        self.make_reshape(reshape_1_name, reshape_1_inputs, dtype=self.io_dtype, shape=['batch_size', 'sequence_length', self.num_kv_heads, self.head_size])
        transpose_1_name = f"{basename}/Transpose_1"
        transpose_1_input = f"{reshape_1_name}/output_0"
        self.make_transpose(transpose_1_name, transpose_1_input, dtype=self.io_dtype, shape=['batch_size', self.num_kv_heads, 'sequence_length', self.head_size], perm=[0,2,1,3])
        concat_1_name = f"{basename}/Concat_1"
        concat_1_inputs = [past_kv, f"{transpose_1_name}/output_0"]
        self.make_node("Concat", inputs=concat_1_inputs, outputs=[present_kv], name=concat_1_name, axis=2)

        shape_1_name = f"{basename}/Shape_1"
        self.make_shape(shape_1_name, present_kv, shape=[4])
        gather_1_name = f"{basename}/Gather_1"
        gather_1_inputs = [f"{shape_1_name}/output_0", "/model/constants/TensorProto.INT64/0D/0"]
        self.make_gather(gather_1_name, gather_1_inputs, axis=0)
        unsqueeze_1_name = f"{basename}/Unsqueeze_1"
        unsqueeze_1_inputs = [f"{gather_1_name}/output_0", "/model/constants/TensorProto.INT64/1D/0"]
        self.make_unsqueeze(unsqueeze_1_name, unsqueeze_1_inputs, dtype=TensorProto.INT64, shape=[1])
        gather_2_name = f"{basename}/Gather_2"
        gather_2_inputs = [f"{shape_1_name}/output_0", "/model/constants/TensorProto.INT64/0D/1"]
        self.make_gather(gather_2_name, gather_2_inputs, axis=0)
        unsqueeze_2_name = f"{basename}/Unsqueeze_2"
        unsqueeze_2_inputs = [f"{gather_2_name}/output_0", "/model/constants/TensorProto.INT64/1D/0"]
        self.make_unsqueeze(unsqueeze_2_name, unsqueeze_2_inputs, dtype=TensorProto.INT64, shape=[1])
        gather_3_name = f"{basename}/Gather_3"
        gather_3_inputs = [f"{shape_1_name}/output_0", "/model/constants/TensorProto.INT64/0D/2"]
        self.make_gather(gather_3_name, gather_3_inputs, axis=0)
        unsqueeze_3_name = f"{basename}/Unsqueeze_3"
        unsqueeze_3_inputs = [f"{gather_3_name}/output_0", "/model/constants/TensorProto.INT64/1D/0"]
        self.make_unsqueeze(unsqueeze_3_name, unsqueeze_3_inputs, dtype=TensorProto.INT64, shape=[1])
        gather_4_name = f"{basename}/Gather_4"
        gather_4_inputs = [f"{shape_1_name}/output_0", "/model/constants/TensorProto.INT64/0D/3"]
        self.make_gather(gather_4_name, gather_4_inputs, axis=0)
        unsqueeze_4_name = f"{basename}/Unsqueeze_4"
        unsqueeze_4_inputs = [f"{gather_4_name}/output_0", "/model/constants/TensorProto.INT64/1D/0"]
        self.make_unsqueeze(unsqueeze_4_name, unsqueeze_4_inputs, dtype=TensorProto.INT64, shape=[1])
        concat_2_name = f"{basename}/Concat_2"
        concat_2_inputs = [f"{unsqueeze_1_name}/output_0", f"{unsqueeze_2_name}/output_0", f"/model/constants/TensorProto.INT64/1D/{self.num_attn_heads // self.num_kv_heads}", f"{unsqueeze_3_name}/output_0", f"{unsqueeze_4_name}/output_0"]
        self.make_concat(concat_2_name, concat_2_inputs, dtype=TensorProto.INT64, shape=[5], axis=0)

        mul_1_name = f"{basename}/Mul_1"
        mul_1_inputs = [f"{unsqueeze_2_name}/output_0", f"/model/constants/TensorProto.INT64/0D/{self.num_attn_heads // self.num_kv_heads}"]
        self.make_mul(mul_1_name, mul_1_inputs, dtype=TensorProto.INT64, shape=None)
        concat_3_name = f"{basename}/Concat_3"
        concat_3_inputs = [f"{unsqueeze_1_name}/output_0", f"{mul_1_name}/output_0", f"{unsqueeze_3_name}/output_0", f"{unsqueeze_4_name}/output_0"]
        self.make_concat(concat_3_name, concat_3_inputs, dtype=TensorProto.INT64, shape=[4], axis=0)

        # Make the subgraph that follows the initial subgraph
        #
        #                               Mul ---> Equal
        #                              /              \
        # Reshape --> Shape --> ConstantOfShape --> Where
        #    |                                        |
        #    +----------------------------------------+
        reshape_2_name = f"{basename}/Reshape_2"
        reshape_2_inputs = [f"{concat_2_name}/output_0", "/model/constants/TensorProto.INT64/1D/-1"]
        self.make_reshape(reshape_2_name, reshape_2_inputs, dtype=TensorProto.INT64, shape=None)
        shape_2_name = f"{basename}/Shape_2"
        self.make_shape(shape_2_name, f"{reshape_2_name}/output_0", shape=[1])
        constant_shape_name = f"{basename}/ConstantOfShape"
        constant_shape_value = numpy_helper.from_array(np.array([1], dtype="int64"))
        self.make_constant_of_shape(constant_shape_name, f"{shape_2_name}/output_0", value=constant_shape_value, dtype=TensorProto.INT64, shape=[5])
        mul_2_name = f"{basename}/Mul"
        mul_2_inputs = [f"{constant_shape_name}/output_0", "/model/constants/TensorProto.INT64/0D/-1"]
        self.make_mul(mul_2_name, mul_2_inputs, dtype=TensorProto.INT64, shape=[5])
        equal_name = f"{basename}/Equal"
        equal_inputs = [f"{reshape_2_name}/output_0", f"{mul_2_name}/output_0"]
        self.make_equal(equal_name, equal_inputs, shape=[5])
        where_name = f"{basename}/Where"
        where_inputs = [f"{equal_name}/output_0", f"{constant_shape_name}/output_0", f"{reshape_2_name}/output_0"]
        self.make_where(where_name, where_inputs, dtype=TensorProto.INT64, shape=[5])

        # Make the final nodes
        #
        # Where (from above)  Concat (from above)
        #                   \           \
        # Unsqueeze --> Expand --> Reshape --> Transpose --> Reshape
        unsqueeze_5_name = f"{basename}/Unsqueeze_5"
        unsqueeze_5_inputs = [present_kv, "/model/constants/TensorProto.INT64/1D/2"]
        self.make_unsqueeze(unsqueeze_5_name, unsqueeze_5_inputs, dtype=self.io_dtype, shape=['batch_size', self.num_kv_heads, 1, 'sequence_length', self.head_size])
        expand_name = f"{basename}/Expand"
        expand_inputs = [f"{unsqueeze_5_name}/output_0", f"{where_name}/output_0"]
        self.make_expand(expand_name, expand_inputs, dtype=self.io_dtype, shape=['batch_size', self.num_kv_heads, self.num_attn_heads // self.num_kv_heads, 'sequence_length', self.head_size])
        reshape_3_name = f"{basename}/Reshape_3"
        reshape_3_inputs = [f"{expand_name}/output_0", f"{concat_3_name}/output_0"]
        self.make_reshape(reshape_3_name, reshape_3_inputs, dtype=self.io_dtype, shape=['batch_size', self.num_attn_heads, 'sequence_length', self.head_size])
        transpose_2_name = f"{basename}/Transpose_2"
        transpose_2_input = f"{reshape_3_name}/output_0"
        self.make_transpose(transpose_2_name, transpose_2_input, dtype=self.io_dtype, shape=['batch_size', 'sequence_length', self.num_attn_heads, self.head_size], perm=[0,2,1,3])
        reshape_4_name = f"{basename}/Reshape_4"
        reshape_4_inputs = [f"{transpose_2_name}/output_0", f"/model/constants/TensorProto.INT64/1D/0, 0, {self.num_attn_heads * self.head_size}"]
        self.make_reshape(reshape_4_name, reshape_4_inputs, dtype=self.io_dtype, shape=['batch_size', 'sequence_length', self.num_attn_heads * self.head_size])

        input_to_attention = f"{reshape_4_name}/output_0"
        return input_to_attention

    def make_attention_op(self, name, **kwargs):
        op_type = self.attention_attrs["op_type"]

        if op_type == "MultiHeadAttention":
            self.make_multi_head_attention(name, add_qk=f"{self.mask_attrs['mask_name']}/output_0", **kwargs)
        elif op_type == "GroupQueryAttention":
            self.make_group_query_attention(name, seqlens_k=f"{self.mask_attrs['seqlens_k']}/output_0", total_seq_len=f"{self.mask_attrs['total_seq_len']}/output_0", **kwargs)
        elif op_type == "SparseAttention":
            self.make_sparse_attention(name, block_row_indices=self.mask_attrs['block_row_indices'], block_col_indices=self.mask_attrs['block_col_indices'], key_total_seq_lens=f"{self.mask_attrs['key_total_seq_lens']}/output_0", total_seq_len=f"{self.mask_attrs['total_seq_len']}/output_0", **kwargs)
        else:
            raise NotImplementedError(f"The {op_type} op is not currently supported.")

    def make_multi_head_attention(self, name, **kwargs):
        inputs = [
            kwargs["q_path"], kwargs["k_path"], kwargs["v_path"], kwargs.get("bias", ""),
            kwargs.get("attn_mask", ""), kwargs.get("add_qk", ""),
            kwargs.get("past_k", ""), kwargs.get("past_v", ""),
        ]
        output = f"{name}/output_0"
        outputs = [output, kwargs.get("present_k", ""), kwargs.get("present_v", "")]
        self.make_node(
            "MultiHeadAttention", inputs=inputs, outputs=outputs, name=name, domain="com.microsoft",
            num_heads=self.num_attn_heads, scale=self.attention_attrs["scale"],
        )
        self.make_value_info(output, self.io_dtype, shape=['batch_size', 'sequence_length', self.head_size * self.num_attn_heads])

    def make_group_query_attention(self, name, **kwargs):
        inputs = [
            kwargs["q_path"], kwargs["k_path"], kwargs["v_path"],
            kwargs.get("past_k", ""), kwargs.get("past_v", ""),
            kwargs.get("seqlens_k", ""), kwargs.get("total_seq_len", ""),
            kwargs.get("cos_cache", ""), kwargs.get("sin_cache", ""),
        ]
        output = f"{name}/output_0"
        outputs = [output, kwargs.get("present_k", ""), kwargs.get("present_v", "")]
        self.make_node(
            "GroupQueryAttention", inputs=inputs, outputs=outputs, name=name, domain="com.microsoft",
            num_heads=self.num_attn_heads, kv_num_heads=self.num_kv_heads, scale=self.attention_attrs["scale"], # local_window_size=self.window_size,  # Disable sliding window attribute temporarily
            do_rotary=self.attention_attrs["use_rotemb_in_attn"], rotary_interleaved=self.rotemb_attrs["interleaved"],
        )
        self.make_value_info(output, self.io_dtype, shape=['batch_size', 'sequence_length', self.head_size * self.num_attn_heads])

    def make_sparse_attention(self, name, **kwargs):
        inputs = [
            kwargs["q_path"], kwargs["k_path"], kwargs["v_path"],
            kwargs.get("past_k"), kwargs.get("past_v"),
            kwargs.get("block_row_indices"), kwargs.get("block_col_indices"),
            kwargs.get("total_seq_len"), kwargs.get("key_total_seq_lens"),
            kwargs.get("cos_cache", ""), kwargs.get("sin_cache", ""),
        ]
        output = f"{name}/output_0"
        outputs = [output, kwargs.get("present_k", ""), kwargs.get("present_v", "")]
        self.make_node(
            "SparseAttention", inputs=inputs, outputs=outputs, name=name, domain="com.microsoft",
            num_heads=self.num_attn_heads, kv_num_heads=self.num_kv_heads, scale=self.attention_attrs["scale"], sparse_block_size=self.attention_attrs["block_sparse"]["sparse_block_size"],
            do_rotary=self.attention_attrs["use_rotemb_in_attn"], rotary_interleaved=self.rotemb_attrs["interleaved"],
        )

    def make_attention(self, layer_id, attention, root_input, **kwargs):
        # Make nodes for the Attention subgraph
        #
        # MultiHeadAttention example:
        #
        #               root_input
        #              /     |     \
        #       Q_MatMul  K_MatMul  V_MatMul  4D causal mask  past_key  past_value
        #           |        |         |            |            |           |
        #         Q_Add    K_Add     V_Add          +------------+-----------+
        #           |        |         |                         |
        #       Q_Rotary  K_Rotary     |                         |
        #           \        |        /                          |
        #            MultiHeadAttention--------------------------+
        #                    |
        #                O_MatMul
        #                    |
        #                  O_Add
        #
        # GroupQueryAttention example:
        #
        #               root_input
        #              /     |     \
        #       Q_MatMul  K_MatMul  V_MatMul  seqlens_k  total_seq_len  past_key  past_value
        #           |        |         |          |            |           |          |
        #         Q_Add    K_Add     V_Add        +------------+-----------+----------+
        #           |        |         |                       |
        #       Q_Rotary  K_Rotary     |                       |
        #           \        |        /                        |
        #            GroupQueryAttention-----------------------+
        #                    |
        #                O_MatMul
        #                    |
        #                  O_Add

        # Make MatMul nodes
        if self.attention_attrs["use_packed_matmul"]:
            # Combine 3 MatMuls into 1 packed MatMul
            qkv_matmul_basename = f"/model/layers.{layer_id}/attn/qkv_proj/MatMul"
            qkv_matmul_name = self.make_packed_matmul(attention.q_proj, attention.k_proj, attention.v_proj, qkv_matmul_basename, root_input)
            self.attention_attrs["q_path"] = f"{qkv_matmul_name}/output_0"
        else:
            q_matmul_basename = f"/model/layers.{layer_id}/attn/q_proj/MatMul"
            q_matmul_name = self.make_matmul(attention.q_proj, q_matmul_basename, root_input)
            self.attention_attrs["q_path"] = f"{q_matmul_name}/output_0"
            k_matmul_basename = f"/model/layers.{layer_id}/attn/k_proj/MatMul"
            k_matmul_name = self.make_matmul(attention.k_proj, k_matmul_basename, root_input)
            self.attention_attrs["k_path"] = f"{k_matmul_name}/output_0"
            v_matmul_basename = f"/model/layers.{layer_id}/attn/v_proj/MatMul"
            v_matmul_name = self.make_matmul(attention.v_proj, v_matmul_basename, root_input)
            self.attention_attrs["v_path"] = f"{v_matmul_name}/output_0"

        # Make Add nodes (if bias exists)
        q_bias_exists = attention.q_proj.bias is not None and torch.count_nonzero(attention.q_proj.bias) > 0
        k_bias_exists = attention.k_proj.bias is not None and torch.count_nonzero(attention.k_proj.bias) > 0
        v_bias_exists = attention.v_proj.bias is not None and torch.count_nonzero(attention.v_proj.bias) > 0
        all_bias_exists = q_bias_exists and k_bias_exists and v_bias_exists

        if all_bias_exists and self.attention_attrs["use_packed_matmul"]:
            # Combine 3 Adds into 1 packed Add
            qkv_add_name = f"/model/layers.{layer_id}/attn/qkv_proj/Add"
            self.make_packed_add(attention.q_proj.bias.detach().numpy(), attention.k_proj.bias.detach().numpy(), attention.v_proj.bias.detach().numpy(), qkv_add_name, root_input=self.attention_attrs["q_path"])
            self.attention_attrs["q_path"] = f"{qkv_add_name}/output_0"
        else:
            if q_bias_exists:
                q_add_name = f"/model/layers.{layer_id}/attn/q_proj/Add"
                self.make_add_bias(attention.q_proj.bias.detach().numpy(), q_add_name, root_input=self.attention_attrs["q_path"])
                self.attention_attrs["q_path"] = f"{q_add_name}/output_0"
            if k_bias_exists:
                k_add_name = f"/model/layers.{layer_id}/attn/k_proj/Add"
                self.make_add_bias(attention.k_proj.bias.detach().numpy(), k_add_name, root_input=self.attention_attrs["k_path"])
                self.attention_attrs["k_path"] = f"{k_add_name}/output_0"
            if v_bias_exists:
                v_add_name = f"/model/layers.{layer_id}/attn/v_proj/Add"
                self.make_add_bias(attention.v_proj.bias.detach().numpy(), v_add_name, root_input=self.attention_attrs["v_path"])
                self.attention_attrs["v_path"] = f"{v_add_name}/output_0"

        # Make RotaryEmbedding nodes
        cos_cache_name, sin_cache_name = "", ""
        if self.attention_attrs["use_rotemb_in_attn"]:
            cos_cache_name, sin_cache_name = self.make_rotary_embedding_caches(attention.rotary_emb)
        else:
            q_rotary_name = f"/model/layers.{layer_id}/attn/q_rotary/RotaryEmbedding"
            self.make_rotary_embedding(attention.rotary_emb, q_rotary_name, root_input=self.attention_attrs["q_path"], position_ids=kwargs.get("position_ids", "position_ids"))
            self.attention_attrs["q_path"] = f"{q_rotary_name}/output_0"
            k_rotary_name = f"/model/layers.{layer_id}/attn/k_rotary/RotaryEmbedding"
            self.make_rotary_embedding(attention.rotary_emb, k_rotary_name, root_input=self.attention_attrs["k_path"], position_ids=kwargs.get("position_ids", "position_ids"))
            self.attention_attrs["k_path"] = f"{k_rotary_name}/output_0"

        # Make repeat KV nodes (Note: `repeat_kv` needs to be kept since GroupQueryAttention isn't supported for FP32 CUDA)
        past_k = f"past_key_values.{layer_id}.key"
        past_v = f"past_key_values.{layer_id}.value"
        present_k = f"present.{layer_id}.key"
        present_v = f"present.{layer_id}.value"
        if self.num_attn_heads != self.num_kv_heads and self.attention_attrs["op_type"] == "MultiHeadAttention":
            self.attention_attrs["k_path"] = self.make_repeat_kv(layer_id, root_input=self.attention_attrs["k_path"], past_kv=past_k, present_kv=present_k)
            self.attention_attrs["v_path"] = self.make_repeat_kv(layer_id, root_input=self.attention_attrs["v_path"], past_kv=past_v, present_kv=present_v)
            past_k, past_v, present_k, present_v = "", "", "", ""

        # Make attention node (e.g. MultiHeadAttention, GroupQueryAttention, etc.)
        attn_name = f"/model/layers.{layer_id}/attn/{self.attention_attrs['op_type']}"
        self.make_attention_op(
            attn_name, q_path=self.attention_attrs["q_path"], k_path=self.attention_attrs["k_path"], v_path=self.attention_attrs["v_path"],
            past_k=past_k, past_v=past_v, present_k=present_k, present_v=present_v,
            cos_cache=cos_cache_name, sin_cache=sin_cache_name, **kwargs,
        )

        # Make MatMul node (output projection weight node)
        o_proj = 'o_proj' if hasattr(attention, 'o_proj') else 'dense'
        o_matmul_basename = f"/model/layers.{layer_id}/attn/o_proj/MatMul"
        o_weight = eval(f"attention.{o_proj}")
        o_matmul_name = self.make_matmul(o_weight, o_matmul_basename, f"{attn_name}/output_0")

        # Make Add node (output projection bias node if bias exists)
        o_bias_exists = eval(f"attention.{o_proj}.bias") is not None
        if o_bias_exists:
            o_add_name = f"/model/layers.{layer_id}/attn/o_proj/Add"
            o_bias = eval(f"attention.{o_proj}.bias.detach().numpy()")
            self.make_add_bias(o_bias, o_add_name, root_input=f"{o_matmul_name}/output_0")

        # Assign output 0 of previous output node as skip input to next SkipLayerNorm
        self.layernorm_attrs["skip_input"] = f"{o_matmul_name if not o_bias_exists else o_add_name}/output_0"

    def make_attention_unpacked(self, layer_id, attention, root_input, **kwargs):

        qkv_proj = 'qkv_proj' if hasattr(attention, 'qkv_proj') else 'query_key_value'
        qkv_linear = eval(f"attention.{qkv_proj}")

        if hasattr(qkv_linear, "base_layer"):
            # For LoRA packed `MatMul`
            return self.make_attention_unpacked_lora(layer_id, attention, qkv_linear, root_input, **kwargs)
        else:
            # For regular packed `MatMul`
            return self.make_attention_unpacked_regular(layer_id, attention, qkv_linear, root_input, **kwargs)

        # Delete original packed weights and any references to them (e.g. `del qkv_linear` isn't sufficient)
        del qkv_linear
        if hasattr(attention, 'qkv_proj'):
            del attention.qkv_proj
        else:
            del attention.query_key_value

    def make_attention_unpacked_lora(self, layer_id, attention, qkv_linear, root_input, **kwargs):
        from peft.tuners.lora.layer import LoraLayer

        q_size = self.num_attn_heads * self.head_size
        kv_size = self.num_kv_heads * self.head_size

        # Create Q/K/V base layers
        q_proj = torch.nn.Linear(in_features=q_size, out_features=q_size)
        q_proj.weight = torch.nn.Parameter(qkv_linear.weight[: q_size, :], requires_grad=False)
        q_proj.bias = None if qkv_linear.bias is None else torch.nn.Parameter(qkv_linear.bias[: q_size], requires_grad=False)

        k_proj = torch.nn.Linear(in_features=q_size, out_features=kv_size)
        k_proj.weight = torch.nn.Parameter(qkv_linear.weight[q_size : q_size + kv_size, :], requires_grad=False)
        k_proj.bias = None if qkv_linear.bias is None else torch.nn.Parameter(qkv_linear.bias[q_size : q_size + kv_size], requires_grad=False)

        v_proj = torch.nn.Linear(in_features=q_size, out_features=kv_size)
        v_proj.weight = torch.nn.Parameter(qkv_linear.weight[q_size + kv_size :, :], requires_grad=False)
        v_proj.bias = None if qkv_linear.bias is None else torch.nn.Parameter(qkv_linear.bias[q_size + kv_size :], requires_grad=False)

        # Create Q/K/V lora_B layers
        lora_B = qkv_linear.lora_B.default

        q_lora_B = torch.nn.Linear(in_features=q_size, out_features=q_size)
        q_lora_B.weight = torch.nn.Parameter(lora_B.weight[: q_size, :], requires_grad=False)
        q_lora_B.bias = None if lora_B.bias is None else torch.nn.Parameter(lora_B.bias[: q_size], requires_grad=False)

        k_lora_B = torch.nn.Linear(in_features=q_size, out_features=kv_size)
        k_lora_B.weight = torch.nn.Parameter(lora_B.weight[q_size : q_size + kv_size, :], requires_grad=False)
        k_lora_B.bias = None if lora_B.bias is None else torch.nn.Parameter(lora_B.bias[q_size : q_size + kv_size], requires_grad=False)

        v_lora_B = torch.nn.Linear(in_features=q_size, out_features=kv_size)
        v_lora_B.weight = torch.nn.Parameter(lora_B.weight[q_size + kv_size :, :], requires_grad=False)
        v_lora_B.bias = None if lora_B.bias is None else torch.nn.Parameter(lora_B.bias[q_size + kv_size :], requires_grad=False)

        # Create Q/K/V LoRA layers
        attention.q_proj = LoraLayer(q_proj)
        attention.q_proj.lora_A = qkv_linear.lora_A
        attention.q_proj.lora_B.default = q_lora_B
        attention.q_proj.scaling = qkv_linear.scaling

        attention.k_proj = LoraLayer(k_proj)
        attention.k_proj.lora_A = qkv_linear.lora_A
        attention.k_proj.lora_B.default = k_lora_B
        attention.k_proj.scaling = qkv_linear.scaling

        attention.v_proj = LoraLayer(v_proj)
        attention.v_proj.lora_A = qkv_linear.lora_A
        attention.v_proj.lora_B.default = v_lora_B
        attention.v_proj.scaling = qkv_linear.scaling

    def make_attention_unpacked_regular(self, layer_id, attention, qkv_linear, root_input, **kwargs):
        q_size = self.num_attn_heads * self.head_size
        kv_size = self.num_kv_heads * self.head_size

        attention.q_proj = torch.nn.Linear(in_features=q_size, out_features=q_size)
        attention.q_proj.weight = torch.nn.Parameter(qkv_linear.weight[: q_size, :], requires_grad=False)
        attention.q_proj.bias = None if qkv_linear.bias is None else torch.nn.Parameter(qkv_linear.bias[: q_size], requires_grad=False)

        attention.k_proj = torch.nn.Linear(in_features=q_size, out_features=kv_size)
        attention.k_proj.weight = torch.nn.Parameter(qkv_linear.weight[q_size : q_size + kv_size, :], requires_grad=False)
        attention.k_proj.bias = None if qkv_linear.bias is None else torch.nn.Parameter(qkv_linear.bias[q_size : q_size + kv_size], requires_grad=False)

        attention.v_proj = torch.nn.Linear(in_features=q_size, out_features=kv_size)
        attention.v_proj.weight = torch.nn.Parameter(qkv_linear.weight[q_size + kv_size :, :], requires_grad=False)
        attention.v_proj.bias = None if qkv_linear.bias is None else torch.nn.Parameter(qkv_linear.bias[q_size + kv_size :], requires_grad=False)

    def make_mlp(self, layer_id, mlp, root_input):
        if self.mlp_attrs["use_proj"]:
            self.make_mlp_proj(layer_id, mlp, root_input)
        elif self.mlp_attrs["use_fc"]:
            self.make_mlp_fc(layer_id, mlp, root_input)
        else:
            raise NotImplementedError(f"The MLP layer type is not set.")

    def make_mlp_unpacked(self, layer_id, mlp, root_input):
        if hasattr(mlp, "base_layer"):
            # For LoRA packed `MatMul`
            return self.make_mlp_unpacked_lora(layer_id, mlp, root_input)
        else:
            # For regular packed `MatMul`
            return self.make_mlp_unpacked_regular(layer_id, mlp, root_input)

    def make_mlp_unpacked_lora(self, layer_id, mlp, root_input):
        from peft.tuners.lora.layer import LoraLayer

        # Create GateProj/UpProj base layers
        gate_proj = torch.nn.Linear(in_features=self.hidden_size, out_features=self.intermediate_size)
        gate_proj.weight = torch.nn.Parameter(mlp.gate_up_proj.weight[ : self.intermediate_size, :], requires_grad=False)

        up_proj = torch.nn.Linear(in_features=self.hidden_size, out_features=self.intermediate_size)
        up_proj.weight = torch.nn.Parameter(mlp.gate_up_proj.weight[self.intermediate_size :, :], requires_grad=False)

        # Create GateProj/UpProj lora_B layers
        lora_B = mlp.lora_B.default

        gate_proj_lora_B = torch.nn.Linear(in_features=self.hidden_size, out_features=self.intermediate_size)
        gate_proj_lora_B.weight = torch.nn.Parameter(lora_B.weight[ : self.intermediate_size, :], requires_grad=False)

        up_proj_lora_B = torch.nn.Linear(in_features=self.hidden_size, out_features=self.intermediate_size)
        up_proj_lora_B.weight = torch.nn.Parameter(lora_B.weight[self.intermediate_size :, :], requires_grad=False)

        # Create GateProj/UpProj LoRA layers
        mlp.gate_proj = LoraLayer(q_proj)
        mlp.gate_proj.lora_A = mlp.gate_up_proj.lora_A
        mlp.gate_proj.lora_B.default = gate_proj_lora_B
        mlp.gate_proj.scaling = mlp.gate_up_proj.scaling

        mlp.up_proj = LoraLayer(k_proj)
        mlp.up_proj.lora_A = mlp.gate_up_proj.lora_A
        mlp.up_proj.lora_B.default = up_proj_lora_B
        mlp.up_proj.scaling = mlp.gate_up_proj.scaling

    def make_mlp_unpacked_regular(self, layer_id, mlp, root_input):
        packed_proj = getattr(mlp, "gate_up_proj", None) or getattr(mlp, "dense_h_to_4h", None)
        mlp.gate_proj = torch.nn.Linear(in_features=self.hidden_size, out_features=self.intermediate_size)
        mlp.gate_proj.weight = torch.nn.Parameter(packed_proj.weight[: self.intermediate_size, :])

        mlp.up_proj = torch.nn.Linear(in_features=self.hidden_size, out_features=self.intermediate_size)
        mlp.up_proj.weight = torch.nn.Parameter(packed_proj.weight[self.intermediate_size :, :])
        # Delete original packed weights
        del packed_proj

    def make_mlp_proj(self, layer_id, mlp, root_input):
        # Make nodes for the MLP subgraph
        #
        #           root_input
        #          /          \
        #   UpProjMatMul    GateProjMatMul
        #          \          |
        #           \     ActFunc
        #            \   /
        #             Mul
        #              |
        #        DownProjMatMul

        # Make MatMul nodes
        gate_basename = f"/model/layers.{layer_id}/mlp/gate_proj/MatMul"
        gate_name = self.make_matmul(mlp.gate_proj, gate_basename, root_input)
        up_basename = f"/model/layers.{layer_id}/mlp/up_proj/MatMul"
        up_name = self.make_matmul(mlp.up_proj, up_basename, root_input)

        # Make activation node(s)
        act_fn_name = self.make_activation(layer_id, root_input=f"{gate_name}/output_0")

        # Make Mul node after activation
        mul_name = f"/model/layers.{layer_id}/mlp/Mul"
        mul_inputs = [f"{act_fn_name}/output_0", f"{up_name}/output_0"]
        self.make_mul(mul_name, mul_inputs, dtype=self.io_dtype, shape=["batch_size", "sequence_length", self.intermediate_size])

        # Make output MatMul node
        down_proj = getattr(mlp, "down_proj", None) or getattr(mlp, "dense_4h_to_h", None)
        down_basename = f"/model/layers.{layer_id}/mlp/down_proj/MatMul"
        down_name = self.make_matmul(down_proj, down_basename, f"{mul_name}/output_0")

        # Assign output 0 of previous MatMul as skip input to next SkipLayerNorm
        self.layernorm_attrs["skip_input"] = f"{down_name}/output_0"

    def make_mlp_fc(self, layer_id, mlp, root_input):
        # Make nodes for the MLP subgraph
        #
        #          root_input
        #              |
        #          FC1_MatMul
        #              |
        #           FC1_Add
        #              |
        #           ActFunc
        #              |
        #          FC2_MatMul
        #              |
        #           FC2_Add

        # Make first layer of fully connected nodes (FC1)
        fc1_matmul_basename = f"/model/layers.{layer_id}/mlp/fc1/MatMul"
        fc1_matmul_name = self.make_matmul(mlp.fc1, fc1_matmul_basename, root_input)
        fc1_add_name = f"/model/layers.{layer_id}/mlp/fc1/Add"
        self.make_add_bias(mlp.fc1.bias.detach().numpy(), fc1_add_name, root_input=f"{fc1_matmul_name}/output_0")

        # Make activation function
        act_fn_name = self.make_activation(layer_id, root_input=f"{fc1_add_name}/output_0")

        # Make second layer of fully connected nodes (FC2)
        fc2_matmul_basename = f"/model/layers.{layer_id}/mlp/fc2/MatMul"
        fc2_matmul_name = self.make_matmul(mlp.fc2, fc2_matmul_basename, root_input=f"{act_fn_name}/output_0")
        fc2_add_name = f"/model/layers.{layer_id}/mlp/fc2/Add"
        self.make_add_bias(mlp.fc2.bias.detach().numpy(), fc2_add_name, root_input=f"{fc2_matmul_name}/output_0")

        # Assign output 0 of MLP layer as output of last layer
        self.mlp_attrs["output_0"] = f"{fc2_add_name}/output_0"

    def make_block_sparse_moe(self, layer_id, bsm, root_input):
        # Make nodes for the QMoE subgraph
        #
        #                  root_input
        #                 /       \
        #         router_MatMul    |
        #             /     \      |
        #         Shape      |     |
        #           |        |     |
        #         Gather     |     |
        #           |        |     |
        #       Unsqueeze    |     |
        #           |        |    /
        #        Concat     /    /
        #             \    /    /
        #             Reshape  /
        #                 \   /
        #                  QMoE
        #                   |
        #                 output
        num_experts = self.moe_attrs["num_experts"]
        top_k = self.moe_attrs["top_k"]
        activation_type = self.moe_attrs["activation_type"]
        normalize_routing_weights = self.moe_attrs["normalize_routing_weights"]
        use_sparse_mixer = self.moe_attrs["use_sparse_mixer"]
        use_int4 = self.moe_attrs["use_int4"]

        moe_name = f"/model/layers.{layer_id}/moe"
        gate_ops_base = f"{moe_name}/gate"

        # Make MoE nodes
        gate_name = f"{gate_ops_base}/MatMul"
        self.make_matmul(bsm.gate, gate_name, root_input)

        shape_name = f"{gate_ops_base}/Shape"
        self.make_shape(shape_name, f"{gate_name}/output_0", shape=[3])

        gather_name = f"{gate_ops_base}/Gather"
        self.make_gather(gather_name, [f"{shape_name}/output_0", "/model/constants/TensorProto.INT64/0D/2"], axis=0)

        unsqueeze_name = f"{gate_ops_base}/Unsqueeze"
        self.make_unsqueeze(unsqueeze_name, [f"{gather_name}/output_0", "/model/constants/TensorProto.INT64/1D/0"], dtype=TensorProto.INT64, shape=[1])

        concat_name = f"{gate_ops_base}/Concat"
        self.make_concat(concat_name, ["/model/constants/TensorProto.INT64/1D/-1", f"{unsqueeze_name}/output_0"], dtype=TensorProto.INT64, shape=[2], axis=0)

        gate_reshape_name = f"{gate_ops_base}/Reshape"
        self.make_reshape(gate_reshape_name, [f"{gate_name}/output_0", f"{concat_name}/output_0"], dtype=self.io_dtype, shape=['num_rows', num_experts])

        def quant_dequant(weights, quant_mode: bool = True):
            type = torch.quint4x2 if quant_mode else torch.int8
            processed_q_weight = None
            torch_weight_scales = None
            try:
                import tensorrt_llm

                _, processed_q_weight, torch_weight_scales = (
                    torch.ops.trtllm._symmetric_quantize_last_axis_of_batched_matrix(weights.T.cpu().contiguous(), type)
                )
            except:
                raise RuntimeError("tensorrt_llm is needed to use torch.ops.trtllm._symmetric_quantize_last_axis_of_batched_matrix()")

            return torch_weight_scales.to(torch.float16), processed_q_weight

        w1_list = []
        w2_list = []
        w3_list = []
        w1_scale_list = []
        w2_scale_list = []
        w3_scale_list = []

        for i in range(num_experts):
            # Quantize the weights with uint8
            w1_scale, pre_qweight1= quant_dequant(bsm.experts[i].w1.weight, use_int4)
            w2_scale, pre_qweight2= quant_dequant(bsm.experts[i].w2.weight, use_int4)
            w3_scale, pre_qweight3= quant_dequant(bsm.experts[i].w3.weight, use_int4)

            w1_list.append(pre_qweight1)
            w2_list.append(pre_qweight2)
            w3_list.append(pre_qweight3)

            w1_scale_list.append(w1_scale)
            w2_scale_list.append(w2_scale)
            w3_scale_list.append(w3_scale)

        moe_expert_weight_1_name = f"model.layers.{layer_id}.moe.weight_1"
        moe_expert_weight_2_name = f"model.layers.{layer_id}.moe.weight_2"
        moe_expert_weight_3_name = f"model.layers.{layer_id}.moe.weight_3"

        moe_expert_scales_1_name = f"model.layers.{layer_id}.moe.scales_1"
        moe_expert_scales_2_name = f"model.layers.{layer_id}.moe.scales_2"
        moe_expert_scales_3_name = f"model.layers.{layer_id}.moe.scales_3"

        def make_moe_external_tensor(w_list, moe_expert_name, numpy_type):
            moe_experts_weight = torch.stack(w_list, dim=0).detach().numpy()
            self.make_external_tensor(moe_experts_weight.astype(numpy_type), moe_expert_name)

        make_moe_external_tensor(w1_list, moe_expert_weight_1_name, np.uint8)
        make_moe_external_tensor(w2_list, moe_expert_weight_2_name, np.uint8)
        make_moe_external_tensor(w3_list, moe_expert_weight_3_name, np.uint8)

        # Currently we don't expect QMoE to be used with distributed inference
        make_moe_external_tensor(w1_scale_list, moe_expert_scales_1_name, self.to_numpy_dtype[self.io_dtype])
        make_moe_external_tensor(w2_scale_list, moe_expert_scales_2_name, self.to_numpy_dtype[self.io_dtype])
        make_moe_external_tensor(w3_scale_list, moe_expert_scales_3_name, self.to_numpy_dtype[self.io_dtype])

        bias_ph = "" # Placeholder for bias
        inputs = [root_input, f"{gate_reshape_name}/output_0", \
                  moe_expert_weight_1_name, moe_expert_scales_1_name, bias_ph, \
                  moe_expert_weight_2_name, moe_expert_scales_2_name, bias_ph, \
                  moe_expert_weight_3_name, moe_expert_scales_3_name]
        output = f"{moe_name}/output_0"

        op_type = "QMoE"
        self.make_node(op_type, inputs=inputs, outputs=[output], name=moe_name, domain="com.microsoft",
                       k=top_k, activation_type=activation_type, normalize_routing_weights=normalize_routing_weights,
                       use_sparse_mixer=use_sparse_mixer, expert_weight_bits=(4 if use_int4 else 8))

        self.make_value_info(output, self.io_dtype, shape=['batch_size', 'sequence_length', self.hidden_size])

        # Assign output 0 of previous MoE as root input to next SkipLayerNorm
        self.layernorm_attrs["skip_input"] = output

    def make_activation_with_mul(self, layer_id, root_input, activation, domain):
        # Make nodes for this activation subgraph
        #
        #       root_input (GateProjMatMul)
        #         /  |
        #   ActFunc  |
        #          \ |
        #           Mul
        act_name = f"/model/layers.{layer_id}/mlp/act_fn/{activation}"
        act_output = f"{act_name}/output_0"
        self.make_node(activation, inputs=[root_input], outputs=[act_output], name=act_name, domain=domain)
        self.make_value_info(act_output, dtype=self.io_dtype, shape=["batch_size", "sequence_length", self.intermediate_size])

        mul_act_name = f"/model/layers.{layer_id}/mlp/act_fn/Mul"
        mul_act_inputs = [root_input, act_output]
        self.make_mul(mul_act_name, mul_act_inputs, dtype=self.io_dtype, shape=["batch_size", "sequence_length", self.intermediate_size])

        return mul_act_name

    def make_gelu(self, layer_id, root_input, activation):
        # Make nodes for this activation subgraph
        #
        #       root_input (Add)
        #           |
        #        GeluAct
        gelu_name = f"/model/layers.{layer_id}/mlp/act_fn/{activation}"
        output = f"{gelu_name}/output_0"
        self.make_node(activation, inputs=[root_input], outputs=[output], name=gelu_name, domain="com.microsoft")
        self.make_value_info(output, self.io_dtype, shape=['batch_size', 'sequence_length', self.intermediate_size])

        return gelu_name

    def make_relu(self, layer_id, root_input, activation):
        relu_name = f"/model/layers.{layer_id}/mlp/act_fn/{activation}"
        output = f"{relu_name}/output_0"
        self.make_node(activation, inputs=[root_input], outputs=[output], name=relu_name, domain="")
        self.make_value_info(output, self.io_dtype, shape=['batch_size', 'sequence_length', self.intermediate_size])
        return relu_name

    def make_relu_squared(self, layer_id, root_input, activation):
        relu_name = self.make_relu(layer_id, root_input, "Relu")
        basename = f"/model/layers.{layer_id}/mlp/square/{activation}"
        pow_name = f"{basename}/pow"
        pow_inputs = [f"{relu_name}/output_0", "/model/constants/TensorProto.INT32/1D/2"]
        self.make_node("Pow", inputs=pow_inputs, outputs=[f"{pow_name}/output_0"], name=pow_name, domain="")
        self.make_value_info(f"{pow_name}/output_0", self.io_dtype, shape=['batch_size', 'sequence_length', self.intermediate_size])
        return pow_name

    def make_activation(self, layer_id, root_input):
        if self.activation in {"silu", "swish", "swiglu"}:
            output_name = self.make_activation_with_mul(layer_id, root_input, activation="Sigmoid", domain=None)
        elif self.activation in {"gelu_new", "gelu_fast", "gelu_pytorch_tanh"}:
            output_name = self.make_gelu(layer_id, root_input, activation="FastGelu")
        elif self.activation in {"gelu"}:
            output_name = self.make_gelu(layer_id, root_input, activation="Gelu")
        elif self.activation in {"gegelu", "geglu"}:
            output_name = self.make_gelu(layer_id, root_input, activation="QuickGelu")
        elif self.activation in {"relu"}:
            output_name = self.make_relu(layer_id, root_input, activation="Relu")
        elif self.activation in {"relu2"}:
            output_name = self.make_relu_squared(layer_id, root_input, activation="Relu2")
        else:
            raise NotImplementedError(f"The {self.activation} activation function is not currently supported.")
        return output_name

    def make_lm_head(self, lm_head):
        bias_exists = lm_head.bias is not None
        scale_exists = self.lm_head_attrs["scale"] != 1
        mask_exists = self.lm_head_attrs["mask"] is not None

        matmul_basename = "/lm_head/MatMul"
        root_input = self.layernorm_attrs["output_0"]
        matmul_name = self.make_matmul(lm_head, matmul_basename, root_input, logits=not bias_exists and not scale_exists)

        if bias_exists:
            add_name = "/lm_head/Add"
            self.make_add_bias(lm_head.bias.detach().numpy(), add_name, root_input=f"{matmul_name}/output_0", logits=not scale_exists)

        if scale_exists:
            mul_name = "/lm_head/Mul"
            mul_inputs = [f"{matmul_name if not bias_exists else add_name}/output_0", f"/model/constants/{self.to_str_dtype[self.io_dtype]}/0D/{self.lm_head_attrs['scale']}"]
            mul_output = "logits" if not mask_exists else f"{mul_name}/output_0"
            self.make_node('Mul', inputs=mul_inputs, outputs=[mul_output], name=mul_name)
            self.make_value_info(mul_output, self.io_dtype, shape=['batch_size', 'sequence_length', self.vocab_size])

        if mask_exists:
            # Save logits mask as initializer
            logits_mask_name = "logits_mask"
            self.make_external_tensor(self.lm_head_attrs["mask"].detach().numpy(), logits_mask_name)

            where_name = "/lm_head/Where"
            where_inputs = [logits_mask_name, f"/model/constants/{self.to_str_dtype[self.io_dtype]}/0D/{np.finfo(self.to_numpy_dtype[self.io_dtype]).min}", f"{mul_name}/output_0"]
            where_output = "logits"
            self.make_node('Where', inputs=where_inputs, outputs=[where_output], name=where_name)
            self.make_value_info(where_output, self.io_dtype, shape=['batch_size', 'sequence_length', self.vocab_size])

    def make_layer(self, layer_id, layer):
        # Each LLM decoder layer is typically defined as:
        # input_layernorm --> attention --> MLP --> output_layernorm
        self.make_layernorm(layer_id, layer.input_layernorm, skip=not self.layernorm_attrs["first_layernorm"], simple=self.layernorm_attrs["simple"], location="input")
        self.make_attention(layer_id, layer.self_attn, root_input=self.layernorm_attrs["output_0"])
        self.make_layernorm(layer_id, layer.post_attention_layernorm, skip=True, simple=self.layernorm_attrs["simple"], location="post_attention")
        self.make_mlp(layer_id, layer.mlp, root_input=self.layernorm_attrs["output_0"])

        self.layernorm_attrs["first_layernorm"] = False
        if layer_id == self.num_layers - 1:
            # Norm after last decoder layer of model (last layer --> norm)
            self.layernorm_attrs["last_layernorm"] = True

    def make_model(self, input_path):
        # Make inputs and outputs to ONNX model
        self.make_inputs_and_outputs()

        # Make pre-processing nodes
        self.make_preprocessing_nodes()

        # Load weights of original model
        if input_path.endswith(".gguf"):
            # Load GGUF model
            try:
                from gguf_model import GGUFModel
            except:
                from onnxruntime_genai.models.gguf_model import GGUFModel
            model = GGUFModel.from_pretrained(self.model_type, input_path, self.head_size, self.hidden_size, self.intermediate_size, self.num_attn_heads, self.num_kv_heads, self.vocab_size)
            self.layernorm_attrs["add_offset"] = 0  # add offset already done for GGUF models
        elif self.quant_type is not None:
            # Load quantized PyTorch model
            try:
                from quantized_model import QuantModel
            except:
                from onnxruntime_genai.models.quantized_model import QuantModel
            q_size = self.num_attn_heads * self.head_size
            kv_size = self.num_kv_heads * self.head_size
            model = QuantModel.from_pretrained(
                self.quant_type,
                input_path,
                self.quant_attrs["bits"],
                self.quant_attrs["group_size"],
                self.quant_attrs["use_g_idx"],
                q_size,
                kv_size,
                self.intermediate_size,
                self.num_layers,
            )
        else:
            # Load PyTorch model
            extra_kwargs = {"num_hidden_layers": self.num_layers} if "num_hidden_layers" in self.extra_options else {}
            model = AutoModelForCausalLM.from_pretrained(self.model_name_or_path, cache_dir=self.cache_dir, token=self.hf_token, trust_remote_code=True, **extra_kwargs)

        if "adapter_path" in self.extra_options:
            from peft import PeftModel
            model = PeftModel.from_pretrained(model, self.extra_options["adapter_path"], cache_dir=self.cache_dir, token=self.hf_token)

        # Loop through model and map each module to ONNX/ORT ops
        self.layer_id = 0
        for module in model.modules():

            if isinstance(module, torch.nn.Embedding) or (hasattr(model, "embedding") and module == model.embedding):
                # Checks (Hugging Face logic) or (GGUF logic)
                if not self.exclude_embeds:
                    # Embedding layer
                    print("Reading embedding layer")
                    self.make_embedding(module.weight.detach().numpy())
                else:
                    # Exclude embedding layer from model
                    self.layernorm_attrs["root_input"] = "inputs_embeds"
                    self.layernorm_attrs["skip_input"] = "inputs_embeds"

            elif (module.__class__.__name__.endswith("DecoderLayer") or module.__class__.__name__.endswith("GLMBlock")) and self.layer_id < self.num_layers:
                # Each decoder layer of model
                print(f"Reading decoder layer {self.layer_id}")
                self.make_layer(self.layer_id, module)
                self.layer_id += 1

            elif self.layer_id == self.num_layers and self.has_final_norm(module, model):
                # SkipLayerNorm after last decoder layer (MatMul --> SkipLayerNorm)
                print("Reading final norm")
                self.make_layernorm(self.layer_id, module, skip=True, simple=self.layernorm_attrs["simple"], location="final_norm")
            
            elif (isinstance(module, torch.nn.Linear) and module.out_features == self.vocab_size) or (hasattr(model, "lm_head") and module == model.lm_head):
                # Checks (Hugging Face logic) or (GGUF logic)
                if not self.exclude_lm_head:
                    # Language modeling head (SkipLayerNorm --> logits)
                    print("Reading LM head")
                    self.make_lm_head(module)

        del model

    def has_final_norm(self, module, model):
       # Hugging Face names
       hf_norm = hasattr(model, "model") and hasattr(model.model, "norm") and module == model.model.norm
       hf_final_layernorm = hasattr(model, "model") and hasattr(model.model, "final_layernorm") and module == model.model.final_layernorm
       hf_transformer_final_layernorm = hasattr(model, "transformer") and hasattr(model.transformer, "encoder") and hasattr(model.transformer.encoder, "final_layernorm") and module == model.transformer.encoder.final_layernorm
       # GGUF names
       gguf_final_norm = hasattr(model, "final_norm") and module == model.final_norm
       return hf_norm or hf_final_layernorm or hf_transformer_final_layernorm or gguf_final_norm

    def make_preprocessing_nodes(self):
        self.make_attention_mask_reformatting()
        # TODO: add make_position_ids_reformatting() here

    def make_attention_mask_reformatting(self):
        if self.ep_attrs["cuda"]["enable_cuda_graph"] == "1" or self.ep == "dml":
            # ORT does not allow nodes to be placed on mulitple execution providers
            # with cuda graph enabled. We've only verified it works with GQA and with
            # past_present_share_buffer enabled(so the total_seq_len in GQA is hardcoded
            # to a fixed value by logic).
            # For other models, we need to check if it works and update the logic here.
            # This assertion is temporary.
            assert self.past_present_share_buffer

        if self.attention_attrs["op_type"] == "GroupQueryAttention":
            self.make_attention_mask_reformatting_for_gqa()
        elif self.attention_attrs["op_type"] == "MultiHeadAttention":
            # Make attention mask reformatting nodes
            #
            #           2D attention mask
            #                   |
            #    attention mask reformatting subgraph
            #                   |
            #         4D causal attention mask
            self.make_attention_mask_reformatting_for_mha()

        if self.attention_attrs["block_sparse"]["sparse_block_size"] != 0:
            self.make_attention_mask_reformatting_for_sparse_attn()

    def make_attention_mask_reformatting_for_mha(self):
        # Make nodes for the attention mask subgraphs that reformat the
        # 2D attention mask (B, S) to 4D causal attention mask (B, N, S, T)
        #
        #             input_ids       past_key_values.0.key
        #            /         \               |
        #         Shape       Shape          Shape
        #          |            |              |
        #        Gather       Gather         Gather
        #       (idx=0)       (idx=1)        (idx=2)
        #          |            |    |\      /
        #          |            |    | \    /
        #          |            |    |   Add                                      attention_mask--------+
        #          |            |    |    |                                       /           \         |
        #      Unsqueeze   Unsqueeze | Unsqueeze                                Shape       Shape       |
        #              \        |    |  /                                         |           |         |
        #               \       |    +-/--------+----------+----------+         Gather      Gather    Unsqueeze
        #                \      |     /         |          |          |        (idx=0)     (idx=1)      |
        #                 \     |    /          |          |          |           |           |         |
        #                  \    |   /       Unsqueeze  Unsqueeze  Unsqueeze   Unsqueeze   Unsqueeze   Unsqueeze
        #                   \   |  /                \ /                    \      |      /              |
        #                    Concat               Concat                    \     |     /               |
        #                   /   |   \                |                       \    |    /                |
        #                  /    |    \               |                        \   |   /                 |
        #                 /     |     \        ConstantOfShape                  Concat                  |
        #                /      |      \           /   \      \                /  |   \                 |
        #               /     Shape     \      Shape   Shape   |              /   |    \                |
        #              /        |        \       |       |     |             /    |     \               |
        #             /         |         \    Slice   Slice   |            /     |      \              |
        #             \   ConstantOfShape  |     |       |     |           /    Shape     \             |
        #              \        |     |    |  Squeeze  Squeeze |          /       |        \            |
        #               \      Mul    |    |     |       |     |         /        |         \           |
        #                \      |     |    | Unsqueeze  Range  |         \  ConstantOfShape  \         /
        #                 \     |     |    |     |       |  |  |          \       |      |    |       /
        #                  \    |     |    |   Concat  Add  |  |           \     Mul     |    |      /
        #                   \   |     |    |     |    /     |  |            \     |      |    |     /
        #                     Equal   |   /    Reshape      |  |             \    |      |    |    /
        #                          \  |  /       |          |  |              \   |      |    |   /
        #                           Where      Less---------+  |               \  |      |    |  /
        #                             |          |             |                 Equal   |   /  /
        #                             |        Where-----------+                      \  |  /  /
        #                             |          |                                     Where  /
        #                             |      Unsqueeze                                   |   /
        #                             |          |                                    Expand
        #                             |      Unsqueeze                                   |
        #                              \    /                                          Cast
        #                              Expand                                            |
        #                                 |                                             Sub
        #                                 |                                            / |
        #                                 |                                           / Cast
        #                                 |                                           |  |
        #                                 |                                           Where
        #                                 |                                             |
        #                                 +----------------------+----------------------+
        #                                                        |
        #                                                       Add
        #                                                        |
        #                                                      Concat

        basename = "/model/attn_mask_reformat"
        input_ids_basename = f"{basename}/input_ids_subgraph"
        past_key_basename = f"{basename}/past_key_subgraph"
        attn_mask_basename = f"{basename}/attn_mask_subgraph"

        # Make past_key_values.0.key subgraph
        past_key_gather_name = self.make_past_key_subgraph(past_key_basename)

        # Make common attention mask subgraphs, one each for input_ids and attention_mask
        shared_unsqueeze_name, end_expand_name = self.make_input_ids_subgraph(input_ids_basename, past_key_gather_name)
        end_where_name = self.make_attention_mask_subgraph(attn_mask_basename, shared_unsqueeze_name)

        end_add_name = f"{basename}/Add"
        end_add_inputs = [f"{end_where_name}/output_0", f"{end_expand_name}/output_0"]
        end_add_shape = ["batch_size", 1, "source_sequence_length", "target_sequence_length"]
        self.make_add(end_add_name, end_add_inputs, dtype=self.io_dtype, shape=end_add_shape) # Shape of mask is now (B, 1, S, T)

        tile_name = f"{basename}/Tile"
        tile_inputs = [f"{end_add_name}/output_0", f"/model/constants/TensorProto.INT64/1D/1, {self.num_attn_heads}, 1, 1"]
        tile_shape = ["batch_size", self.num_attn_heads, "source_sequence_length", "target_sequence_length"]
        self.make_tile(tile_name, tile_inputs, dtype=self.io_dtype, shape=tile_shape) # Shape of mask is now (B, N, S, T)

        self.mask_attrs["mask_name"] = tile_name

    def make_past_key_subgraph(self, basename):
        shape_name = f"{basename}/Shape"
        self.make_shape(shape_name, "past_key_values.0.key", shape=[4])
        gather_name = f"{basename}/Gather"
        gather_inputs = [f"{shape_name}/output_0", "/model/constants/TensorProto.INT64/0D/2"]
        self.make_gather(gather_name, gather_inputs, axis=0)
        return gather_name

    def make_input_ids_subgraph(self, basename, past_key_gather_name):
        # Make shared nodes between past_key_values.0.key (Gather with idx=2) and input_ids (Gather with idx=1) subgraphs
        #
        #       Gather          Gather
        #       (idx=1)         (idx=2)
        #              \       /
        #               \     /
        #                \   /
        #                 Add
        #                  |
        #              Unsqueeze
        shared_add_name = f"{basename}/Add_1"
        shared_add_inputs = [f"{basename}/Gather_2/output_0", f"{past_key_gather_name}/output_0"]
        self.make_add(shared_add_name, shared_add_inputs, dtype=TensorProto.INT64, shape=[])
        unsqueeze_3_name = f"{basename}/Unsqueeze_3"  # shared unsqueeze for input_ids and past_key_values.0.key
        unsqueeze_3_inputs = [f"{shared_add_name}/output_0", "/model/constants/TensorProto.INT64/1D/0"]
        self.make_unsqueeze(unsqueeze_3_name, unsqueeze_3_inputs, dtype=TensorProto.INT64, shape=[1])

        # Make the additional subgraph for input_ids
        #
        #       Unsqueeze (unsqueeze_4)                   Shape --> Slice --> Squeeze --> Unsqueeze --> Concat
        #      /          \                              /                                                    \
        # Gather (idx=1)   --> Concat --> ConstantOfShape                                                      Reshape --> Less --> Where --> Unsqueeze --> Unsqueeze --> Expand
        #      \          /                              \                                                     |
        #       Unsqueeze (unsqueeze_5)                   Shape --> Slice --> Squeeze --> Range --> Add -------+
        unsqueeze_inputs = [f"{basename}/Gather_2/output_0", "/model/constants/TensorProto.INT64/1D/0"]
        unsqueeze_4_name = f"{basename}/Unsqueeze_4"
        self.make_unsqueeze(unsqueeze_4_name, unsqueeze_inputs, dtype=TensorProto.INT64, shape=[1])
        unsqueeze_5_name = f"{basename}/Unsqueeze_5"
        self.make_unsqueeze(unsqueeze_5_name, unsqueeze_inputs, dtype=TensorProto.INT64, shape=[1])
        unsqueeze_6_name = f"{basename}/Unsqueeze_6"  # shared unsqueeze for input_ids and attention_mask
        self.make_unsqueeze(unsqueeze_6_name, unsqueeze_inputs, dtype=TensorProto.INT64, shape=[1])
        concat_2_name = f"{basename}/Concat_2"
        concat_inputs = [f"{unsqueeze_4_name}/output_0", f"{unsqueeze_5_name}/output_0"]
        self.make_concat(concat_2_name, concat_inputs, dtype=TensorProto.INT64, shape=[2], axis=0)
        constant_shape_name = f"{basename}/ConstantOfShape_2"
        constant_shape_numpy_dtype = self.to_numpy_dtype[self.io_dtype]
        constant_shape_value = numpy_helper.from_array(np.array([np.finfo(constant_shape_numpy_dtype).min], dtype=constant_shape_numpy_dtype))
        self.make_constant_of_shape(constant_shape_name, f"{concat_2_name}/output_0", value=constant_shape_value, dtype=self.io_dtype, shape=['unk', 'unk'])

        # Top path
        shape_4_name = f"{basename}/Shape_4"
        self.make_shape(shape_4_name, f"{constant_shape_name}/output_0", shape=[2])
        slice_1_name = f"{basename}/Slice_1"
        slice_1_inputs = [f"{shape_4_name}/output_0", "/model/constants/TensorProto.INT64/1D/-1", f"/model/constants/TensorProto.INT64/1D/{np.iinfo(np.int64).max}", "/model/constants/TensorProto.INT64/1D/0"]
        self.make_slice(slice_1_name, slice_1_inputs, dtype=TensorProto.INT64, shape=[1])
        squeeze_1_name = f"{basename}/Squeeze_1"
        squeeze_1_inputs = [f"{slice_1_name}/output_0", "/model/constants/TensorProto.INT64/1D/0"]
        self.make_squeeze(squeeze_1_name, squeeze_1_inputs)
        unsqueeze_7_name = f"{basename}/output_0"
        unsqueeze_7_inputs = [f"{squeeze_1_name}/output_0", "/model/constants/TensorProto.INT64/1D/0"]
        self.make_unsqueeze(unsqueeze_7_name, unsqueeze_7_inputs, dtype=TensorProto.INT64, shape=[1])
        concat_3_name = f"{basename}/Concat_3"
        concat_3_inputs = [f"{unsqueeze_7_name}/output_0", "/model/constants/TensorProto.INT64/1D/1"]
        self.make_concat(concat_3_name, concat_3_inputs, dtype=TensorProto.INT64, shape=[2], axis=0)

        # Bottom path
        shape_5_name = f"{basename}/Shape_5"
        self.make_shape(shape_5_name, f"{constant_shape_name}/output_0", shape=[2])
        slice_2_name = f"{basename}/Slice_2"
        slice_2_inputs = [f"{shape_5_name}/output_0", "/model/constants/TensorProto.INT64/1D/-1", f"/model/constants/TensorProto.INT64/1D/{np.iinfo(np.int64).max}", "/model/constants/TensorProto.INT64/1D/0"]
        self.make_slice(slice_2_name, slice_2_inputs, dtype=TensorProto.INT64, shape=[1])
        squeeze_2_name = f"{basename}/Squeeze_2"
        squeeze_2_inputs = [f"{slice_2_name}/output_0", "/model/constants/TensorProto.INT64/1D/0"]
        self.make_squeeze(squeeze_2_name, squeeze_2_inputs)
        range_name = f"{basename}/Range"
        range_inputs = ["/model/constants/TensorProto.INT64/0D/0", f"{squeeze_2_name}/output_0", "/model/constants/TensorProto.INT64/0D/1"]
        self.make_range(range_name, range_inputs)
        add_2_name = f"{basename}/Add_2"
        add_inputs = [f"{range_name}/output_0", "/model/constants/TensorProto.INT64/0D/1"]
        self.make_add(add_2_name, add_inputs, dtype=TensorProto.INT64, shape=["unk"])

        # Merged path
        reshape_name = f"{basename}/Reshape"
        reshape_inputs = [f"{add_2_name}/output_0", f"{concat_3_name}/output_0"]
        self.make_reshape(reshape_name, reshape_inputs, dtype=TensorProto.INT64, shape=None)
        less_name = f"{basename}/Less"
        less_inputs = [f"{range_name}/output_0", f"{reshape_name}/output_0"]
        self.make_less(less_name, less_inputs)
        where_2_name = f"{basename}/Where_2"
        where_2_inputs = [f"{less_name}/output_0", f"/model/constants/{self.to_str_dtype[self.io_dtype]}/0D/0", f"{constant_shape_name}/output_0"]
        self.make_where(where_2_name, where_2_inputs, dtype=self.io_dtype, shape=None)
        unsqueeze_8_name = f"{basename}/Unsqueeze_8"
        unsqueeze_8_inputs = [f"{where_2_name}/output_0", "/model/constants/TensorProto.INT64/1D/0"]
        self.make_unsqueeze(unsqueeze_8_name, unsqueeze_8_inputs, dtype=self.io_dtype, shape=None)
        unsqueeze_9_name = f"{basename}/Unsqueeze_9"
        unsqueeze_9_inputs = [f"{unsqueeze_8_name}/output_0", "/model/constants/TensorProto.INT64/1D/1"]
        self.make_unsqueeze(unsqueeze_9_name, unsqueeze_9_inputs, dtype=self.io_dtype, shape=None)

        expand_name = self.make_common_mask_reformat_subgraph(basename, root_input="input_ids" if not self.exclude_embeds else "inputs_embeds", unsqueeze_for_concat=unsqueeze_3_name, unsqueeze_for_expand=unsqueeze_9_name, input_ids_subgraph=True)
        return unsqueeze_6_name, expand_name

    def make_attention_mask_subgraph(self, basename, unsqueeze_for_concat):
        # Make the additional subgraph to join Expand:
        # attention_mask --> Unsqueeze --> Unsqueeze --> Expand
        attention_mask_shape = self.input_shapes["attention_mask"]

        unsqueeze_3_name = f"{basename}/Unsqueeze_3"
        unsqueeze_3_inputs = ["attention_mask", "/model/constants/TensorProto.INT64/1D/1"]
        attention_mask_shape.insert(1, 1) # ['batch_size', 'total_sequence_length'] --> ['batch_size', 1, 'total_sequence_length']
        self.make_unsqueeze(unsqueeze_3_name, unsqueeze_3_inputs, dtype=TensorProto.INT64, shape=attention_mask_shape)
        unsqueeze_4_name = f"{basename}/Unsqueeze_4"
        unsqueeze_4_inputs = [f"{unsqueeze_3_name}/output_0", "/model/constants/TensorProto.INT64/1D/2"]
        attention_mask_shape.insert(1, 1) # ['batch_size', 1, 'total_sequence_length'] --> ['batch_size', 1, 1, 'total_sequence_length']
        self.make_unsqueeze(unsqueeze_4_name, unsqueeze_4_inputs, dtype=TensorProto.INT64, shape=attention_mask_shape)

        # Make the main subgraph
        expand_name = self.make_common_mask_reformat_subgraph(basename, root_input="attention_mask", unsqueeze_for_concat=unsqueeze_for_concat, unsqueeze_for_expand=unsqueeze_4_name)

        # Make the additional subgraph after Expand:
        #                      +-----------------+
        #                      |                 |
        # Expand --> Cast --> Sub --> Cast --> Where
        cast_1_name = f"{basename}/Cast_1"
        self.make_cast(cast_1_name, f"{expand_name}/output_0", dtype=self.io_dtype, shape=["unk", "unk", "unk", "unk"])
        sub_name = f"{basename}/Sub"
        sub_inputs = [f"/model/constants/{self.to_str_dtype[self.io_dtype]}/0D/1", f"{cast_1_name}/output_0"]
        self.make_sub(sub_name, sub_inputs, dtype=self.io_dtype, shape=["unk", "unk", "unk", "unk"])
        cast_2_name = f"{basename}/Cast_2"
        self.make_cast(cast_2_name, f"{sub_name}/output_0", dtype=TensorProto.BOOL, shape=["unk", "unk", "unk", "unk"])
        where_2_name = f"{basename}/Where_2"
        where_2_inputs = [f"{cast_2_name}/output_0", f"/model/constants/{self.to_str_dtype[self.io_dtype]}/0D/{np.finfo(self.to_numpy_dtype[self.io_dtype]).min}", f"{sub_name}/output_0"]
        self.make_where(where_2_name, where_2_inputs, dtype=self.io_dtype, shape=["unk", "unk", "unk", "unk"])

        return where_2_name

    def make_common_mask_reformat_subgraph(self, basename, root_input, unsqueeze_for_concat, unsqueeze_for_expand, input_ids_subgraph=False):
        #             root_input
        #            /         \
        #         Shape       Shape
        #          |            |
        #        Gather       Gather
        #       (idx=0)       (idx=1)
        #          |            |
        #      Unsqueeze   Unsqueeze   Unsqueeze (unsqueeze_for_concat)
        #              \        |       /
        #               \       |      /
        #                \      |     /
        #                 \     |    /
        #                  \    |   /
        #                   \   |  /
        #                    Concat
        #                   /   |   \
        #                  /    |    \
        #                 /     |     \
        #                /      |      \
        #               /     Shape     \
        #              /        |        \
        #             /         |         \
        #             \   ConstantOfShape  |
        #              \        |     |    |
        #               \      Mul    |    |
        #                \      |     |    |
        #                 \     |     |    |
        #                  \    |     |    |
        #                   \   |     |    |
        #                     Equal   |   /
        #                          \  |  /
        #                           Where
        #                             |   Unsqueeze (unsqueeze_for_expand)
        #                              \    /
        #                              Expand

        shape_1_name = f"{basename}/Shape_1"
        self.make_shape(shape_1_name, root_input, shape=[3] if self.exclude_embeds and input_ids_subgraph else [2])
        shape_2_name = f"{basename}/Shape_2"
        self.make_shape(shape_2_name, root_input, shape=[3] if self.exclude_embeds and input_ids_subgraph else [2])
        gather_1_name = f"{basename}/Gather_1"
        gather_1_inputs = [f"{shape_1_name}/output_0", "/model/constants/TensorProto.INT64/0D/0"]
        self.make_gather(gather_1_name, gather_1_inputs, axis=0)
        gather_2_name = f"{basename}/Gather_2"
        gather_2_inputs = [f"{shape_2_name}/output_0", "/model/constants/TensorProto.INT64/0D/1"]
        self.make_gather(gather_2_name, gather_2_inputs, axis=0)
        unsqueeze_1_name = f"{basename}/Unsqueeze_1"
        unsqueeze_1_inputs = [f"{gather_1_name}/output_0", "/model/constants/TensorProto.INT64/1D/0"]
        self.make_unsqueeze(unsqueeze_1_name, unsqueeze_1_inputs, dtype=TensorProto.INT64, shape=[1])
        unsqueeze_2_name = f"{basename}/Unsqueeze_2"
        unsqueeze_2_inputs = [f"{gather_2_name}/output_0", "/model/constants/TensorProto.INT64/1D/0"]
        self.make_unsqueeze(unsqueeze_2_name, unsqueeze_2_inputs, dtype=TensorProto.INT64, shape=[1])

        concat_name = f"{basename}/Concat" if not input_ids_subgraph else f"{basename}/Concat_1"
        concat_first_two_inputs = [f"{unsqueeze_1_name}/output_0", "/model/constants/TensorProto.INT64/1D/1"]
        concat_last_two_inputs = [f"{unsqueeze_for_concat}/output_0", f"{unsqueeze_2_name}/output_0"] if not input_ids_subgraph else [f"{unsqueeze_2_name}/output_0", f"{unsqueeze_for_concat}/output_0"]
        concat_inputs = concat_first_two_inputs + concat_last_two_inputs
        self.make_concat(concat_name, concat_inputs, dtype=TensorProto.INT64, shape=[4], axis=0)
        shape_3_name = f"{basename}/Shape_3"
        self.make_shape(shape_3_name, f"{concat_name}/output_0", shape=[1])
        constant_shape_name = f"{basename}/ConstantOfShape" if not input_ids_subgraph else f"{basename}/ConstantOfShape_1"
        constant_shape_value = numpy_helper.from_array(np.array([1], dtype="int64"))
        self.make_constant_of_shape(constant_shape_name, f"{shape_3_name}/output_0", value=constant_shape_value, dtype=TensorProto.INT64, shape=["unk"])
        mul_name = f"{basename}/Mul"
        mul_inputs = [f"{constant_shape_name}/output_0", "/model/constants/TensorProto.INT64/0D/-1"]
        self.make_mul(mul_name, mul_inputs, dtype=TensorProto.INT64, shape=["unk"])
        equal_name = f"{basename}/Equal"
        equal_inputs = [f"{concat_name}/output_0", f"{mul_name}/output_0"]
        self.make_equal(equal_name, equal_inputs, shape=[4])

        where_name = f"{basename}/Where_1"
        where_inputs = [f"{equal_name}/output_0", f"{constant_shape_name}/output_0", f"{concat_name}/output_0"]
        self.make_where(where_name, where_inputs, dtype=TensorProto.INT64, shape=[4])
        expand_name = f"{basename}/Expand"
        expand_inputs = [f"{unsqueeze_for_expand}/output_0", f"{where_name}/output_0"]
        expand_dtype = self.io_dtype if input_ids_subgraph else TensorProto.INT64
        expand_shape = None if input_ids_subgraph else ["unk", "unk", "unk", "unk"]
        self.make_expand(expand_name, expand_inputs, dtype=expand_dtype, shape=expand_shape)

        return expand_name

    def make_attention_mask_reformatting_for_gqa(self):
        # Make nodes for the attention mask subgraph that calculates
        # attributes about the 2D attention mask to use in GroupQueryAttention
        #
        #                attention_mask
        #               /              \
        #          ReduceSum          Shape
        #              |                |
        #             Sub             Gather
        #              |                |
        #        Cast to int32    Cast to int32
        #              |                |
        #          seqlens_k      total_seq_len
        #            (1D)             (int)
        basename = "/model/attn_mask_reformat"
        attn_mask_basename = f"{basename}/attn_mask_subgraph"

        # Left path
        reduce_sum_name = f"{attn_mask_basename}/ReduceSum"
        reduce_sum_inputs = ["attention_mask", "/model/constants/TensorProto.INT64/1D/1"]
        self.make_reduce_sum(reduce_sum_name, reduce_sum_inputs, dtype=TensorProto.INT64, shape=["batch_size", 1])
        sub_name = f"{attn_mask_basename}/Sub"
        sub_inputs = [f"{reduce_sum_name}/output_0", "/model/constants/TensorProto.INT64/1D/1"]
        self.make_sub(sub_name, sub_inputs, dtype=TensorProto.INT64, shape=["batch_size", 1])
        cast_1_name = f"{attn_mask_basename}/Sub/Cast"
        self.make_cast(cast_1_name, f"{sub_name}/output_0", dtype=TensorProto.INT32, shape=["batch_size", 1])

        # Right path
        shape_name = f"{attn_mask_basename}/Shape"
        self.make_shape(shape_name, "attention_mask", shape=[2])
        gather_name = f"{attn_mask_basename}/Gather"
        gather_inputs = [f"{shape_name}/output_0", "/model/constants/TensorProto.INT64/0D/1"]
        self.make_gather(gather_name, gather_inputs, axis=0)
        cast_2_name = f"{attn_mask_basename}/Gather/Cast"
        self.make_cast(cast_2_name, f"{gather_name}/output_0", dtype=TensorProto.INT32, shape=None)

        self.mask_attrs["seqlens_k"] = cast_1_name
        self.mask_attrs["total_seq_len"] = cast_2_name

    def make_attention_mask_reformatting_for_sparse_attn(self):
        # Make nodes for the attention mask subgraph that calculates
        # attributes about the 2D attention mask to use in SparseAttention
        #
        #                attention_mask
        #               /              \
        #          ReduceSum          Shape
        #              |                |
        #        Cast to int32        Gather
        #              |                |
        #      key_total_seq_lens  Cast to int32
        #            (1D)               |
        #                          total_seq_len
        #                             (int)

        basename = "/model/attn_mask_reformat"
        attn_mask_basename = f"{basename}/attn_mask_subgraph"

        # Left path
        reduce_sum_name = f"{attn_mask_basename}/ReduceSum"
        reduce_sum_inputs = ["attention_mask", "/model/constants/TensorProto.INT64/1D/1"]
        self.make_reduce_sum(reduce_sum_name, reduce_sum_inputs, dtype=TensorProto.INT64, shape=["batch_size", 1])
        cast_1_name = f"{attn_mask_basename}/ReduceSum/Cast"
        self.make_cast(cast_1_name, f"{reduce_sum_name}/output_0", dtype=TensorProto.INT32, shape=["batch_size", 1])

        # Right path
        shape_name = f"{attn_mask_basename}/Shape"
        self.make_shape(shape_name, "attention_mask", shape=[2])
        gather_name = f"{attn_mask_basename}/Gather"
        gather_inputs = [f"{shape_name}/output_0", "/model/constants/TensorProto.INT64/0D/1"]
        self.make_gather(gather_name, gather_inputs, axis=0)
        cast_2_name = f"{attn_mask_basename}/Gather/Cast"
        self.make_cast(cast_2_name, f"{gather_name}/output_0", dtype=TensorProto.INT32, shape=None)

        self.mask_attrs["key_total_seq_lens"] = cast_1_name
        self.mask_attrs["total_seq_len"] = cast_2_name

    def make_position_ids_reformatting(self):
        # Make nodes for the position ids reformatting subgraph
        #
        #          input_ids   position_ids
        #              |            |
        #            Shape          |
        #              |            |
        #            Gather         |
        #              |            |
        #          Unsqueeze        |
        #              |            |
        #            Concat         |
        #                  \       /
        #                   Reshape
        #                      |
        #      position_ids input for RotaryEmbedding

        basename = "/model/pos_ids_reformat"

        shape_name = f"{basename}/Shape"
        self.make_shape(shape_name, root_input="input_ids" if not self.exclude_embeds else "inputs_embeds", shape=[2] if not self.exclude_embeds else [3])
        gather_name = f"{basename}/Gather"
        gather_inputs = [f"{shape_name}/output_0", "/model/constants/TensorProto.INT64/0D/1"]
        self.make_gather(gather_name, gather_inputs, axis=0)
        unsqueeze_name = f"{basename}/Unsqueeze"
        unsqueeze_inputs = [f"{gather_name}/output_0", "/model/constants/TensorProto.INT64/1D/0"]
        self.make_unsqueeze(unsqueeze_name, unsqueeze_inputs, dtype=TensorProto.INT64, shape=[1])
        concat_name = f"{basename}/Concat"
        concat_inputs = ["/model/constants/TensorProto.INT64/1D/-1", f"{unsqueeze_name}/output_0"]
        self.make_concat(concat_name, concat_inputs, dtype=TensorProto.INT64, shape=[2], axis=0)
        reshape_name = f"{basename}/Reshape"
        reshape_inputs = ["position_ids", f"{concat_name}/output_0"]
        self.make_reshape(reshape_name, reshape_inputs, dtype=TensorProto.INT64, shape=None)

        return reshape_name


class LlamaModel(Model):
    def __init__(self, config, io_dtype, onnx_dtype, ep, cache_dir, extra_options):
        super().__init__(config, io_dtype, onnx_dtype, ep, cache_dir, extra_options)


class MistralModel(Model):
    def __init__(self, config, io_dtype, onnx_dtype, ep, cache_dir, extra_options):
        super().__init__(config, io_dtype, onnx_dtype, ep, cache_dir, extra_options)
        self.position_ids_name = f"{self.make_position_ids_reformatting()}/output_0" if not self.attention_attrs["use_rotemb_in_attn"] else "position_ids"

    def make_attention(self, layer_id, attention, root_input, **kwargs):
        super().make_attention(layer_id, attention, root_input, position_ids=self.position_ids_name, **kwargs)


class QwenModel(MistralModel):
    def __init__(self, config, io_dtype, onnx_dtype, ep, cache_dir, extra_options):
        super().__init__(config, io_dtype, onnx_dtype, ep, cache_dir, extra_options)


class PhiModel(Model):
    def __init__(self, config, io_dtype, onnx_dtype, ep, cache_dir, extra_options):
        super().__init__(config, io_dtype, onnx_dtype, ep, cache_dir, extra_options)
        # self.input_shapes["position_ids"] = [1]  # Note: This is optional and only needed if you want position_ids to be an int instead of a 2D tensor
        self.layernorm_attrs["simple"] = False
        self.rotemb_attrs["num_heads"] = self.num_attn_heads
        self.rotemb_attrs["rotary_embedding_dim"] = int(self.head_size * self.rotemb_attrs["partial_rotary_factor"])
        self.mlp_attrs["use_proj"], self.mlp_attrs["use_fc"] = False, True

    def make_rotary_embedding(self, rotemb, name, root_input, **kwargs):
        super().make_rotary_embedding(rotemb, name, root_input, num_heads=self.rotemb_attrs["num_heads"], rotary_embedding_dim=self.rotemb_attrs["rotary_embedding_dim"], **kwargs)

    def make_layer(self, layer_id, layer):
        # Each Phi decoder layer is defined as:
        # input_layernorm --> attention --> MLP --> residual_add
        self.make_layernorm(layer_id, layer.input_layernorm, skip=not self.layernorm_attrs["first_layernorm"], simple=self.layernorm_attrs["simple"], location="input")
        self.make_attention(layer_id, layer.self_attn, root_input=self.layernorm_attrs["output_0"])
        self.make_mlp(layer_id, layer.mlp, root_input=self.layernorm_attrs["output_0"])

        residual_add_name = f"/model/layers.{layer_id}/residual_add/Add"
        residual_add_inputs = [self.layernorm_attrs['skip_input'], self.mlp_attrs["output_0"]]
        self.make_add(residual_add_name, residual_add_inputs, dtype=self.io_dtype, shape=['batch_size', 'sequence_length', self.hidden_size])

        self.layernorm_attrs["first_layernorm"] = False
        if layer_id == self.num_layers - 1:
            # Norm after last decoder layer of model (last layer --> norm)
            self.layernorm_attrs["last_layernorm"] = True

        # Assign output 0 of residual Add as skip input to next SkipLayerNorm
        self.layernorm_attrs["skip_input"] = f"{residual_add_name}/output_0"


class GemmaModel(MistralModel):
    def __init__(self, config, io_dtype, onnx_dtype, ep, cache_dir, extra_options):
        super().__init__(config, io_dtype, onnx_dtype, ep, cache_dir, extra_options)
        self.embed_attrs["scale"] = np.round(np.sqrt(self.hidden_size), decimals=2)
        self.layernorm_attrs["add_offset"] = 1


class Gemma2Model(GemmaModel):
    def __init__(self, config, io_dtype, onnx_dtype, ep, cache_dir, extra_options):
        super().__init__(config, io_dtype, onnx_dtype, ep, cache_dir, extra_options)
        self.attention_attrs["scale"] = config.query_pre_attn_scalar ** -0.5
        self.lm_head_attrs["scale"] = config.final_logit_softcapping

    def make_layer(self, layer_id, layer):
        # Gemma2 decoder layer is typically defined as:
        # input_layernorm --> attention --> post_attention_layernorm --> pre_ffn_layernorm --> MLP --> post_ffn_layernorm
        self.make_layernorm(layer_id, layer.input_layernorm, skip=not self.layernorm_attrs["first_layernorm"], simple=self.layernorm_attrs["simple"], location="input")
        self.make_attention(layer_id, layer.self_attn, root_input=self.layernorm_attrs["output_0"])

        # Temporarily set root_input for LayerNorm to skip_input for post_attention_layernorm
        # Set skip_input to output of post_attention_layernorm
        original_root_input = self.layernorm_attrs["root_input"]
        self.layernorm_attrs["root_input"] = self.layernorm_attrs["skip_input"]
        self.make_layernorm(layer_id, layer.post_attention_layernorm, skip=False, simple=self.layernorm_attrs["simple"], location="post_attention")
        self.layernorm_attrs["root_input"] = original_root_input
        self.layernorm_attrs["skip_input"] = self.layernorm_attrs["output_0"]

        self.make_layernorm(layer_id, layer.pre_feedforward_layernorm, skip=True, simple=self.layernorm_attrs["simple"], location="pre_feedforward")
        self.make_mlp(layer_id, layer.mlp, root_input=self.layernorm_attrs["output_0"])

        # Temporarily set root_input for LayerNorm to skip_input for post_feedforward_layernorm
        # Set skip_input to output of post_ffn_layernorm
        original_root_input = self.layernorm_attrs["root_input"]
        self.layernorm_attrs["root_input"] = self.layernorm_attrs["skip_input"]
        self.make_layernorm(layer_id, layer.post_feedforward_layernorm, skip=False, simple=self.layernorm_attrs["simple"], location="post_feedforward")
        self.layernorm_attrs["root_input"] = original_root_input
        self.layernorm_attrs["skip_input"] = self.layernorm_attrs["output_0"]

        self.layernorm_attrs["first_layernorm"] = False
        if layer_id == self.num_layers - 1:
            # Norm after last decoder layer of model (last layer --> norm)
            self.layernorm_attrs["last_layernorm"] = True

    def make_attention(self, layer_id, attention, root_input, **kwargs):
        original_window_size = self.window_size
        self.window_size = original_window_size if layer_id % 2 == 1 else -1  # default is -1 in GroupQueryAttention kernel
        super().make_attention(layer_id, attention, root_input, **kwargs)
        self.window_size = original_window_size

    def make_lm_head(self, lm_head):
        matmul_basename = "/lm_head/MatMul"
        root_input = self.layernorm_attrs["output_0"]
        matmul_name = self.make_matmul(lm_head, matmul_basename, root_input, logits=False)

        # Add final logit softcapping (Div --> Tanh --> Mul)
        div_name = "/lm_head/Div"
        div_inputs = [f"{matmul_name}/output_0", f"/model/constants/{self.to_str_dtype[self.io_dtype]}/0D/{self.lm_head_attrs['scale']}"]
        self.make_div(div_name, div_inputs, dtype=self.io_dtype, shape=["batch_size", "sequence_length", self.vocab_size])

        tanh_name = "/lm_head/Tanh"
        self.make_tanh(tanh_name, f"{div_name}/output_0", dtype=self.io_dtype, shape=["batch_size", "sequence_length", self.vocab_size])

        mul_name = "/lm_head/Mul"
        mul_inputs = [f"{tanh_name}/output_0", f"/model/constants/{self.to_str_dtype[self.io_dtype]}/0D/{self.lm_head_attrs['scale']}"]
        mul_output = "logits"
        self.make_node('Mul', inputs=mul_inputs, outputs=[mul_output], name=mul_name)
        self.make_value_info(mul_output, self.io_dtype, shape=['batch_size', 'sequence_length', self.vocab_size])


class Phi3Mini4KModel(MistralModel):
    def __init__(self, config, io_dtype, onnx_dtype, ep, cache_dir, extra_options):
        super().__init__(config, io_dtype, onnx_dtype, ep, cache_dir, extra_options)

    def make_attention(self, layer_id, attention, root_input, **kwargs):
        if self.quant_type is None:
            super().make_attention_unpacked(layer_id, attention, root_input, **kwargs)
        super().make_attention(layer_id, attention, root_input, **kwargs)

    def make_mlp_proj(self, layer_id, mlp, root_input):
        if self.quant_type is None:
            super().make_mlp_unpacked(layer_id, mlp, root_input)
        super().make_mlp_proj(layer_id, mlp, root_input)

class NemotronModel(LlamaModel):
    def __init__(self, config, io_dtype, onnx_dtype, ep, cache_dir, extra_options):
        super().__init__(config, io_dtype, onnx_dtype, ep, cache_dir, extra_options)
        self.layernorm_attrs["simple"] = False
        self.layernorm_attrs["add_offset"] = 1
        self.rotemb_attrs["rotary_embedding_dim"] = int(self.head_size * self.rotemb_attrs["partial_rotary_factor"])

    def make_mlp_proj(self, layer_id, mlp, root_input):
        # Make nodes for the MLP subgraph
        #
        #          root_input
        #              |
        #         UpProjMatMul
        #              |
        #           ActFunc
        #              |
        #         DownProjMatMul

        up_basename = f"/model/layers.{layer_id}/mlp/up_proj/MatMul"
        up_name = self.make_matmul(mlp.up_proj, up_basename, root_input)

        act_fn_name = self.make_activation(layer_id, root_input=f"{up_name}/output_0")

        # Make output MatMul node
        down_basename = f"/model/layers.{layer_id}/mlp/down_proj/MatMul"
        down_name = self.make_matmul(mlp.down_proj, down_basename, f"{act_fn_name}/output_0")

        # Assign output 0 of previous MatMul as skip input to next SkipLayerNorm
        self.layernorm_attrs["skip_input"] = f"{down_name}/output_0"

    def make_attention(self, layer_id, attention, root_input, **kwargs):
        attention.rotary_emb = type("RotaryEmbedding", (object,), {'content':{}})()
        return super().make_attention(layer_id, attention, root_input, **kwargs)

    def make_rotary_embedding(self, rotemb, name, root_input, **kwargs):
        num_heads = self.num_kv_heads if "k_rotary" in name else self.num_attn_heads
        super().make_rotary_embedding(rotemb, name, root_input, num_heads=num_heads, rotary_embedding_dim=self.rotemb_attrs["rotary_embedding_dim"], **kwargs)

class Phi3Mini128KModel(Phi3Mini4KModel):
    def __init__(self, config, io_dtype, onnx_dtype, ep, cache_dir, extra_options):
        super().__init__(config, io_dtype, onnx_dtype, ep, cache_dir, extra_options)
        self.make_rotary_embedding_multi_cache()
   
    def make_position_ids_reformatting(self):
        if self.ep != "dml":
            position_ids_input_to_rotemb = super().make_position_ids_reformatting()
            return position_ids_input_to_rotemb

        basename = "/model/pos_ids_reformat"
        reduce_max_name = f"{basename}/ReduceMax"
        reduce_max_inputs = ["position_ids"]
        self.make_reduce_max(reduce_max_name, reduce_max_inputs, dtype=TensorProto.INT64, shape=[1])
        greater_or_equal_name = f"{basename}/GreaterOrEqual"
        greater_or_equal_inputs = [f"{reduce_max_name}/output_0", f"/model/constants/TensorProto.INT64/0D/{self.original_context_length}"]
        self.make_greater_or_equal(greater_or_equal_name, greater_or_equal_inputs, shape=[])
        cast_name = f"{basename}/Cast"
        self.make_cast(cast_name, f"{greater_or_equal_name}/output_0", dtype=TensorProto.INT64, shape=None)
        mul_name = f"{basename}/Mul"
        mul_inputs = [f"{cast_name}/output_0", f"/model/constants/TensorProto.INT64/0D/{self.original_context_length}"]
        self.make_mul(mul_name, mul_inputs, dtype=TensorProto.INT64, shape=None)
        add_1_name = f"{basename}/Add_1"
        add_1_inputs = [f"{mul_name}/output_0", "position_ids"]
        self.make_add(add_1_name, add_1_inputs, dtype=TensorProto.INT64, shape=["batch_size", "sequence_length"])

        return add_1_name
        
    def make_rotary_embedding_caches(self, rotemb, **kwargs):
        if self.ep != "dml":
            cos_cache_name, sin_cache_name = super().make_rotary_embedding_caches(rotemb, **kwargs)
            return cos_cache_name, sin_cache_name

        cos_cache_name = kwargs.get("cos_cache_name", "cos_cache")
        sin_cache_name = kwargs.get("sin_cache_name", "sin_cache")

        if self.rotemb_attrs["create_rotary_embedding_caches"]:
            if not hasattr(rotemb, "cos_cached"):
                # Create cos/sin caches if not already created
                # concate 4k and 128k cos/sin caches for phi3/phi3.5 and dml EP only
                cos_cache_large, sin_cache_large = self.make_rotary_embedding_caches_from_scratch()
                self.rotemb_attrs["rescale_factors"] = self.rotemb_attrs["multi_cache"]["short_factor"]
                self.rotemb_attrs["cache_length"] = self.original_context_length
                self.rotemb_attrs["mscale"] = self.rotemb_attrs["multi_cache"]["short_mscale"]
                cos_cache_small, sin_cache_small = self.make_rotary_embedding_caches_from_scratch()
                cos_cache = torch.cat((cos_cache_small, cos_cache_large), dim=0)
                sin_cache = torch.cat((sin_cache_small, sin_cache_large), dim=0)
            else:
                cos_cache, sin_cache = rotemb.cos_cached, rotemb.sin_cached

            # Reshape cos/sin cache from (M, H) to (M, H/2)
            hidden_dim = cos_cache.shape[-1]
            cos_cache = cos_cache.squeeze()[:, : (hidden_dim // 2)].detach().numpy()
            cos_cache = cos_cache.astype(self.to_numpy_dtype[self.io_dtype])
            sin_cache = sin_cache.squeeze()[:, : (hidden_dim // 2)].detach().numpy()
            sin_cache = sin_cache.astype(self.to_numpy_dtype[self.io_dtype])

            if "cos_cache_name" not in kwargs and "sin_cache_name" not in kwargs:
                # Save cos/sin caches to disk
                self.make_external_tensor(cos_cache, cos_cache_name)
                self.make_external_tensor(sin_cache, sin_cache_name)
            else:
                # Return cos/sin caches since they will be custom-saved
                return cos_cache, sin_cache

            self.rotemb_attrs["create_rotary_embedding_caches"] = False

        return cos_cache_name, sin_cache_name

class Phi3Small8KModel(Model):
    def __init__(self, config, io_dtype, onnx_dtype, ep, cache_dir, extra_options):
        super().__init__(config, io_dtype, onnx_dtype, ep, cache_dir, extra_options)
        self.layernorm_attrs["simple"] = False
        self.embed_attrs["scale"] = config.mup_embedding_multiplier
        self.rotemb_attrs["t_dtype"] = torch.float32
        self.lm_head_attrs["scale"] = 1 / config.mup_width_multiplier

        self.calculate_block_mask()
        self.dense_attention_every_n_layers = config.dense_attention_every_n_layers
        if config.mup_use_scaling:
            self.attention_attrs["scale"] = config.mup_attn_multiplier / self.head_size

        self.clamp_limit = config.gegelu_limit

    def calculate_cdiv(self, a, b):
        return -(a // -b)

    def calculate_block_mask(self):
        # Initialize parameters for calculating block dense mask
        n_heads = self.num_attn_heads
        q_len = self.context_length
        N_CTX = self.context_length
        BLOCK = self.attention_attrs["block_sparse"]["sparse_block_size"]
        local_blocks = self.attention_attrs["block_sparse"]["local_blocks"]
        vert_stride = self.attention_attrs["block_sparse"]["vert_stride"]
        homo_head = self.attention_attrs["block_sparse"]["homo_head"]

        N_BLOCK = self.calculate_cdiv(N_CTX, BLOCK)
        if homo_head:
            q_pos = torch.arange(N_BLOCK)[:, None]
            k_pos = torch.arange(N_BLOCK)[None]
            mask_vert_strided = (torch.arange(N_BLOCK) + 1) % vert_stride == 0
            block_mask_dense = ((q_pos >= k_pos) & ((q_pos - k_pos < local_blocks) | mask_vert_strided))
            N_BLOCK_Q = self.calculate_cdiv(q_len, BLOCK)
            block_mask_dense_output = block_mask_dense[-N_BLOCK_Q:].contiguous().to_sparse_csr()

            crows = block_mask_dense_output.crow_indices()
            cols = block_mask_dense_output.col_indices()

            crows = crows[None].expand(n_heads, crows.shape[0])
            cols = cols[None].expand(n_heads, cols.shape[0])
        else:
            q_pos = torch.arange(N_BLOCK)[None, :, None]
            k_pos = torch.arange(N_BLOCK)[None, None]
            head_sliding_step = max(1, int(vert_stride / n_heads))  # if vert_stride <= n_heads, rotating the heads
            mask_vert_strided = [(torch.arange(N_BLOCK) + h * head_sliding_step + 1) % vert_stride == 0 for h in range(n_heads)]
            mask_vert_strided = torch.vstack(mask_vert_strided).unsqueeze(1)
            block_mask_dense = ((q_pos >= k_pos) & ((q_pos - k_pos < local_blocks) | mask_vert_strided))
            N_BLOCK_Q = self.calculate_cdiv(q_len, BLOCK)
            block_mask_dense_output = block_mask_dense[:, -N_BLOCK_Q:]

            # Dense to crow_col
            pad = -1
            dim = block_mask_dense_output.dim()
            assert dim in (2, 3)
            if dim == 2:
                block_mask_dense_output = block_mask_dense_output[None]
            block_mask_dense_output = [xi.to_sparse_csr() for xi in block_mask_dense_output]
            crows = torch.vstack([xi.crow_indices() for xi in block_mask_dense_output])
            cols = [xi.col_indices() for xi in block_mask_dense_output]
            max_cols = max(len(xi) for xi in cols)
            cols = [torch.cat([xi, pad + xi.new_zeros(max_cols - xi.shape[0])]) for xi in cols]
            cols = torch.vstack(cols)
            if dim == 2:
                crows = crows[0]
                cols = cols[0]

        # Create tensors for row indices and col indices
        crows_name = "block_row_indices"
        self.make_external_tensor(crows.detach().numpy().astype(np.int32), crows_name)
        self.mask_attrs["block_row_indices"] = crows_name

        cols_name = "block_col_indices"
        self.make_external_tensor(cols.detach().numpy().astype(np.int32), cols_name)
        self.mask_attrs["block_col_indices"] = cols_name

    def make_attention(self, layer_id, attention, root_input, **kwargs):
        dense_attention_op = self.attention_attrs["op_type"]
        sparse_attention_op = "SparseAttention"

        # Use dense attention every n layers and use sparse attention otherwise
        if (self.layer_id + 1) % self.dense_attention_every_n_layers != 0:
            # Use sparse attention
            self.attention_attrs["op_type"] = sparse_attention_op

        q_size = self.num_attn_heads * self.head_size
        kv_size = self.num_kv_heads * self.head_size

        qkv_weight = attention.query_key_value.weight.T.view(self.hidden_size, self.num_kv_heads, (self.num_attn_heads // self.num_kv_heads) + 2, self.head_size)
        qkv_bias = attention.query_key_value.bias.view(self.num_kv_heads, (self.num_attn_heads // self.num_kv_heads) + 2, self.head_size)

        attention.q_proj = torch.nn.Linear(in_features=q_size, out_features=q_size)
        attention.q_proj.weight = torch.nn.Parameter(qkv_weight[:, :, :-2].reshape(q_size, q_size).T, requires_grad=False)
        attention.q_proj.bias = None if attention.query_key_value.bias is None else torch.nn.Parameter(qkv_bias[:, :-2].flatten(), requires_grad=False)

        attention.k_proj = torch.nn.Linear(in_features=q_size, out_features=kv_size)
        attention.k_proj.weight = torch.nn.Parameter(qkv_weight[:, :, [-2]].reshape(q_size, kv_size).T, requires_grad=False)
        attention.k_proj.bias = None if attention.query_key_value.bias is None else torch.nn.Parameter(qkv_bias[:, [-2]].flatten(), requires_grad=False)

        attention.v_proj = torch.nn.Linear(in_features=q_size, out_features=kv_size)
        attention.v_proj.weight = torch.nn.Parameter(qkv_weight[:, :, [-1]].reshape(q_size, kv_size).T, requires_grad=False)
        attention.v_proj.bias = None if attention.query_key_value.bias is None else torch.nn.Parameter(qkv_bias[:, [-1]].flatten(), requires_grad=False)

        del qkv_weight
        del qkv_bias
        del attention.query_key_value

        super().make_attention(layer_id, attention, root_input, **kwargs)
        self.attention_attrs["op_type"] = dense_attention_op

    def make_mlp_proj(self, layer_id, mlp, root_input):
        # Make nodes for the MLP subgraph
        #
        #           root_input
        #               |
        #          UpProjMatMul
        #               |
        #           UpProjAdd
        #          /          \
        #         /            \
        #        /              \
        #      Slice             Slice
        #    (even idx)        (odd idx)
        #    /   |   \         /   |   \
        #  Cast  |    |      Cast  |    |
        #   |    |    |       |    |    |
        # IsInf  |   Clip   IsInf  |   Clip
        #   |    |    |       |    |    |
        #    \   |   /         \   |   /
        #     \  |  /           \  |  /
        #      Where             Where
        #        |                 |
        #    QuickGelu            Add
        #        |                 |
        #        +--------+--------+
        #                 |
        #                Mul
        #                 |
        #           DownProjMatMul
        #                 |
        #            DownProjAdd

        # Make input MatMul and Add nodes
        up_matmul_name = f"/model/layers.{layer_id}/mlp/up_proj/MatMul"
        self.make_matmul(mlp.up_proj, up_matmul_name, root_input)
        up_add_name = f"/model/layers.{layer_id}/mlp/up_proj/Add"
        self.make_add_bias(mlp.up_proj.bias.detach().numpy(), up_add_name, f"{up_matmul_name}/output_0")

        # Left path
        slice_1_name = f"/model/layers.{layer_id}/mlp/gelu/Slice"
        slice_1_inputs = [f"{up_add_name}/output_0", "/model/constants/TensorProto.INT64/1D/0", f"/model/constants/TensorProto.INT64/1D/{np.iinfo(np.int64).max}", "/model/constants/TensorProto.INT64/1D/-1", "/model/constants/TensorProto.INT64/1D/2"]
        self.make_slice(slice_1_name, slice_1_inputs, dtype=self.io_dtype, shape=["batch_size", "sequence_length", self.intermediate_size])
        cast_1_name = f"/model/layers.{layer_id}/mlp/gelu/Cast"
        self.make_cast(cast_1_name, f"{slice_1_name}/output_0", dtype=TensorProto.FLOAT, shape=["batch_size", "sequence_length", self.intermediate_size])
        isinf_1_name = f"/model/layers.{layer_id}/mlp/gelu/IsInf"
        self.make_isinf(isinf_1_name, f"{cast_1_name}/output_0", shape=["batch_size", "sequence_length", self.intermediate_size])
        clip_1_name = f"/model/layers.{layer_id}/mlp/gelu/Clip"
        clip_1_inputs = [f"{slice_1_name}/output_0", "", f"/model/constants/{self.to_str_dtype[self.io_dtype]}/0D/{self.clamp_limit}"]
        self.make_clip(clip_1_name, clip_1_inputs, self.io_dtype, shape=["batch_size", "sequence_length", self.intermediate_size])
        where_1_name = f"/model/layers.{layer_id}/mlp/gelu/Where"
        where_1_inputs = [f"{isinf_1_name}/output_0", f"{slice_1_name}/output_0", f"{clip_1_name}/output_0"]
        self.make_where(where_1_name, where_1_inputs, dtype=self.io_dtype, shape=["batch_size", "sequence_length", self.intermediate_size])
        # Make activation
        act_fn_name = self.make_activation(layer_id, root_input=f"{where_1_name}/output_0")

        # Right path
        slice_2_name = f"/model/layers.{layer_id}/mlp/linear/Slice"
        slice_2_inputs = [f"{up_add_name}/output_0", "/model/constants/TensorProto.INT64/1D/1", f"/model/constants/TensorProto.INT64/1D/{np.iinfo(np.int64).max}", "/model/constants/TensorProto.INT64/1D/-1", "/model/constants/TensorProto.INT64/1D/2"]
        self.make_slice(slice_2_name, slice_2_inputs, dtype=self.io_dtype, shape=["batch_size", "sequence_length", self.intermediate_size])
        cast_2_name = f"/model/layers.{layer_id}/mlp/linear/Cast"
        self.make_cast(cast_2_name, f"{slice_2_name}/output_0", dtype=TensorProto.FLOAT, shape=["batch_size", "sequence_length", self.intermediate_size])
        isinf_2_name = f"/model/layers.{layer_id}/mlp/linear/IsInf"
        self.make_isinf(isinf_2_name, f"{cast_2_name}/output_0", shape=["batch_size", "sequence_length", self.intermediate_size])
        clip_2_name = f"/model/layers.{layer_id}/mlp/linear/Clip"
        clip_2_inputs = [f"{slice_2_name}/output_0", f"/model/constants/{self.to_str_dtype[self.io_dtype]}/0D/-{self.clamp_limit}", f"/model/constants/{self.to_str_dtype[self.io_dtype]}/0D/{self.clamp_limit}"]
        self.make_clip(clip_2_name, clip_2_inputs, self.io_dtype, shape=["batch_size", "sequence_length", self.intermediate_size])
        where_2_name = f"/model/layers.{layer_id}/mlp/linear/Where"
        where_2_inputs = [f"{isinf_2_name}/output_0", f"{slice_2_name}/output_0", f"{clip_2_name}/output_0"]
        self.make_where(where_2_name, where_2_inputs, dtype=self.io_dtype, shape=["batch_size", "sequence_length", self.intermediate_size])
        add_name = f"/model/layers.{layer_id}/mlp/linear/Add"
        add_inputs = [f"{where_2_name}/output_0", f"/model/constants/{self.to_str_dtype[self.io_dtype]}/0D/1"]
        self.make_add(add_name, add_inputs, dtype=self.io_dtype, shape=["batch_size", "sequence_length", self.intermediate_size])

        # Make Mul node after activation
        mul_name = f"/model/layers.{layer_id}/mlp/Mul"
        mul_inputs = [f"{act_fn_name}/output_0", f"{add_name}/output_0"]
        self.make_mul(mul_name, mul_inputs, dtype=self.io_dtype, shape=["batch_size", "sequence_length", self.intermediate_size])

        # Make output MatMul and Add nodes
        down_matmul_name = f"/model/layers.{layer_id}/mlp/down_proj/MatMul"
        self.make_matmul(mlp.down_proj, down_matmul_name, f"{mul_name}/output_0")
        down_add_name = f"/model/layers.{layer_id}/mlp/down_proj/Add"
        self.make_add_bias(mlp.down_proj.bias.detach().numpy(), down_add_name, f"{down_matmul_name}/output_0")

        # Assign output 0 of previous MatMul as skip input to next SkipLayerNorm
        self.layernorm_attrs["skip_input"] = f"{down_add_name}/output_0"


class Phi3Small128KModel(Phi3Small8KModel):
    def __init__(self, config, io_dtype, onnx_dtype, ep, cache_dir, extra_options):
        super().__init__(config, io_dtype, onnx_dtype, ep, cache_dir, extra_options)
        self.make_rotary_embedding_multi_cache()


class Phi3VModel(Phi3Mini128KModel):
    def __init__(self, config, io_dtype, onnx_dtype, ep, cache_dir, extra_options):
        super().__init__(config, io_dtype, onnx_dtype, ep, cache_dir, extra_options)


class Phi3MoE128KModel(MistralModel):
    def __init__(self, config, io_dtype, onnx_dtype, ep, cache_dir, extra_options):
        super().__init__(config, io_dtype, onnx_dtype, ep, cache_dir, extra_options)
        assert io_dtype == TensorProto.FLOAT16, "This model only supports float16 io type."

        self.layernorm_attrs["simple"] = False

        self.moe_attrs["num_experts"] = 16
        self.moe_attrs["top_k"] = 2
        self.moe_attrs["activation_type"] = "silu"
        self.moe_attrs["normalize_routing_weights"] = 0
        self.moe_attrs["use_sparse_mixer"] = 1
        self.moe_attrs["use_int4"] = 0 if "use_8bits_moe" in extra_options and extra_options["use_8bits_moe"] == "1" else 1

        self.make_rotary_embedding_multi_cache()

    def make_layer(self, layer_id, layer):
        # Each LLM decoder layer is typically defined as:
        # input_layernorm --> attention --> MLP --> output_layernorm
        self.make_layernorm(layer_id, layer.input_layernorm, skip=not self.layernorm_attrs["first_layernorm"], simple=self.layernorm_attrs["simple"], location="input")
        self.make_attention(layer_id, layer.self_attn, root_input=self.layernorm_attrs["output_0"])
        self.make_layernorm(layer_id, layer.post_attention_layernorm, skip=True, simple=self.layernorm_attrs["simple"], location="post_attention")
        self.make_block_sparse_moe(layer_id, layer.block_sparse_moe, root_input=self.layernorm_attrs["output_0"])

        self.layernorm_attrs["first_layernorm"] = False
        if layer_id == self.num_layers - 1:
            # Norm after last decoder layer of model (last layer --> norm)
            self.layernorm_attrs["last_layernorm"] = True


class ChatGLMModel(Model):
    def __init__(self, config, io_dtype, onnx_dtype, ep, cache_dir, extra_options):
        super().__init__(config, io_dtype, onnx_dtype, ep, cache_dir, extra_options)
        self.rotemb_attrs["num_heads"] = self.num_attn_heads
        self.rotemb_attrs["partial_rotary_factor"] = 0.5 # Line 755 of modeling_chatglm.py check self.rotary_pos_emb declaration
        self.rotemb_attrs["rotary_embedding_dim"] = int(self.head_size * self.rotemb_attrs["partial_rotary_factor"])
        self.rotemb_attrs["interleaved"] = 1

    def make_rotary_embedding(self, rotemb, name, root_input, **kwargs):
        super().make_rotary_embedding(rotemb, name, root_input, num_heads=self.rotemb_attrs["num_heads"], rotary_embedding_dim=self.rotemb_attrs["rotary_embedding_dim"], **kwargs)

    def make_attention(self, layer_id, attention, root_input, **kwargs):
        if self.quant_type is None:
            super().make_attention_unpacked(layer_id, attention, root_input, **kwargs)
            # Add dummy rotary_emb attribute
            attention.rotary_emb = type("RotaryEmbedding", (object,), {'content':{}})()
        return super().make_attention(layer_id, attention, root_input, **kwargs)


    def make_mlp_proj(self, layer_id, mlp, root_input):
        if self.quant_type is None:
            super().make_mlp_unpacked(layer_id, mlp, root_input)
        super().make_mlp_proj(layer_id, mlp, root_input)

    def make_layer(self, layer_id, layer):
        layer.self_attn = layer.self_attn if hasattr(layer, 'self_attn') else layer.self_attention
        super().make_layer(layer_id, layer)

def check_extra_options(kv_pairs):
    if "use_8bits_moe" in kv_pairs:
        assert(kv_pairs["use_8bits_moe"] == "1" or kv_pairs["use_8bits_moe"] == "0"), "use_8bits_moe must be 0 or 1."

    if "enable_cuda_graph" in kv_pairs:
        assert(kv_pairs["enable_cuda_graph"] == "1" or kv_pairs["enable_cuda_graph"] == "0"), "enable_cuda_graph must be 0 or 1."


def parse_extra_options(kv_items):
    """
    Parse key value pairs that are separated by '='
    """
    kv_pairs = {}

    if kv_items:
        for kv_str in kv_items:
            kv = kv_str.split('=')
            kv_pairs[kv[0].strip()] = kv[1].strip()

    print(f"Extra options: {kv_pairs}")
    check_extra_options(kv_pairs)
    return kv_pairs


def parse_hf_token(hf_token):
    """
    Returns the authentication token needed for Hugging Face.
    Token is obtained either from the user or the environment.
    """
    if hf_token.lower() in {"false", "0"}:
        # Default is `None` for disabling authentication
        return None

    if hf_token.lower() in {"true", "1"}:
        # Return token in environment
        return True

    # Return user-provided token as string
    return hf_token


def create_model(model_name, input_path, output_dir, precision, execution_provider, cache_dir, **extra_options):
    # Create cache and output directories
    os.makedirs(output_dir, exist_ok=True)
    os.makedirs(cache_dir, exist_ok=True)

    # Load model config
    extra_kwargs = {} if os.path.isdir(input_path) else {"cache_dir": cache_dir}
    hf_name = input_path if os.path.isdir(input_path) else model_name
    hf_token = parse_hf_token(extra_options.get("hf_token", "true"))

    config = AutoConfig.from_pretrained(hf_name, token=hf_token, trust_remote_code=True, **extra_kwargs)
    if "adapter_path" in extra_options:
        from peft import PeftConfig
        peft_config = PeftConfig.from_pretrained(extra_options["adapter_path"], token=hf_token, trust_remote_code=True, **extra_kwargs)
        config.update(peft_config.__dict__)

    # Set input/output precision of ONNX model
    io_dtype = TensorProto.FLOAT if precision in {"int8", "fp32"} or (precision == "int4" and execution_provider == "cpu") else TensorProto.FLOAT16

    if "config_only" not in extra_options:
        # List architecture options in alphabetical order
        if config.architectures[0] == "GemmaForCausalLM":
            onnx_model = GemmaModel(config, io_dtype, precision, execution_provider, cache_dir, extra_options)
        elif config.architectures[0] == "Gemma2ForCausalLM":
            onnx_model = Gemma2Model(config, io_dtype, precision, execution_provider, cache_dir, extra_options)
        elif config.architectures[0] == "LlamaForCausalLM":
            onnx_model = LlamaModel(config, io_dtype, precision, execution_provider, cache_dir, extra_options)
        elif config.architectures[0] == "MistralForCausalLM":
            onnx_model = MistralModel(config, io_dtype, precision, execution_provider, cache_dir, extra_options)
        elif config.architectures[0] == "PhiForCausalLM":
            onnx_model = PhiModel(config, io_dtype, precision, execution_provider, cache_dir, extra_options)
        elif config.architectures[0] == "Phi3ForCausalLM" and config.max_position_embeddings == 4096:
            onnx_model = Phi3Mini4KModel(config, io_dtype, precision, execution_provider, cache_dir, extra_options)
        elif config.architectures[0] == "Phi3ForCausalLM" and config.max_position_embeddings == 131072:
            onnx_model = Phi3Mini128KModel(config, io_dtype, precision, execution_provider, cache_dir, extra_options)
        elif config.architectures[0] == "PhiMoEForCausalLM" and config.max_position_embeddings == 131072:
            print("WARNING: This model only works for CUDA currently because `MoE` is only supported for CUDA in ONNX Runtime. Setting `--execution_provider cuda` by default.")
            print("WARNING: This model currently only supports quantized version. Setting `--precision int4` by default.")
            execution_provider = "cuda"
            precision = "int4"
            onnx_model = Phi3MoE128KModel(config, io_dtype, precision, execution_provider, cache_dir, extra_options)
        elif config.architectures[0] == "Phi3SmallForCausalLM" and config.max_position_embeddings == 8192:
            onnx_model = Phi3Small8KModel(config, io_dtype, precision, execution_provider, cache_dir, extra_options)
        elif config.architectures[0] == "Phi3SmallForCausalLM" and config.max_position_embeddings == 131072:
            onnx_model = Phi3Small128KModel(config, io_dtype, precision, execution_provider, cache_dir, extra_options)
        elif config.architectures[0] == "Phi3VForCausalLM":
            print("WARNING: This is only generating the text component of the model. Setting `--extra_options exclude_embeds=true` by default.")
            extra_options["exclude_embeds"] = True
            onnx_model = Phi3VModel(config, io_dtype, precision, execution_provider, cache_dir, extra_options)
        elif config.architectures[0] == "Qwen2ForCausalLM":
            onnx_model = QwenModel(config, io_dtype, precision, execution_provider, cache_dir, extra_options)
        elif config.architectures[0] == "NemotronForCausalLM":
            onnx_model = NemotronModel(config, io_dtype, precision, execution_provider, cache_dir, extra_options)
        elif config.architectures[0] == "ChatGLMForConditionalGeneration" or config.architectures[0] == "ChatGLMModel":
            # Quantized ChatGLM model has ChatGLMForConditionalGeneration as architecture whereas HF model as the latter
            config.hidden_act = "swiglu"
            onnx_model = ChatGLMModel(config, io_dtype, precision, execution_provider, cache_dir, extra_options)
        else:
            raise NotImplementedError(f"The {hf_name} model is not currently supported.")

        # Make ONNX model
        onnx_model.make_model(input_path)

        # Save ONNX model
        onnx_model.save_model(output_dir)
    else:
        onnx_model = Model(config, io_dtype, precision, execution_provider, cache_dir, extra_options)

    # Make GenAI config
    onnx_model.make_genai_config(hf_name, extra_kwargs, output_dir)

    # Copy Hugging Face processing files to output folder
    onnx_model.save_processing(hf_name, extra_kwargs, output_dir)


def get_args():
    parser = argparse.ArgumentParser(formatter_class=argparse.RawTextHelpFormatter)

    parser.add_argument(
        "-m",
        "--model_name",
        required=False,
        default=None,
        help="Model name in Hugging Face. Do not use if providing an input path to a Hugging Face directory in -i/--input.",
    )

    parser.add_argument(
        "-i",
        "--input",
        required=False,
        default="",
        help=textwrap.dedent("""\
            Input model source. Currently supported options are:
                hf_path: Path to folder on disk containing the Hugging Face config, model, tokenizer, etc.
                gguf_path: Path to float16/float32 GGUF file on disk containing the GGUF model
            """),
    )

    parser.add_argument(
        "-o",
        "--output",
        required=True,
        help="Path to folder to store ONNX model and additional files (e.g. GenAI config, external data files, etc.)",
    )

    parser.add_argument(
        "-p",
        "--precision",
        required=True,
        choices=["int4", "fp16", "fp32"],
        help="Precision of model",
    )

    parser.add_argument(
        "-e",
        "--execution_provider",
        required=True,
        choices=["cpu", "cuda", "rocm", "dml", "web"],
        help="Execution provider to target with precision of model (e.g. FP16 CUDA, INT4 CPU, INT4 WEB)",
    )

    parser.add_argument(
        "-c",
        "--cache_dir",
        required=False,
        type=str,
        default=os.path.join('.', 'cache_dir'),
        help="Cache directory for Hugging Face files and temporary ONNX external data files",
    )

    parser.add_argument(
        "--extra_options",
        required=False,
        metavar="KEY=VALUE",
        nargs='+',
        help=textwrap.dedent("""\
            Key value pairs for various options. Currently supports:
                int4_block_size = 16/32/64/128/256: Specify the block_size for int4 quantization.
                int4_accuracy_level = 1/2/3/4: Specify the minimum accuracy level for activation of MatMul in int4 quantization.
                    4 is int8, which means input A of int4 quantized MatMul is quantized to int8 and input B is upcasted to int8 for computation.
                    3 is bf16.
                    2 is fp16.
                    1 is fp32.
                num_hidden_layers = Manually specify the number of layers in your ONNX model (for unit testing purposes).
                filename = Filename for ONNX model (default is 'model.onnx').
                    For models with multiple components, each component is exported to its own ONNX model.
                    The filename for each component will be '<filename>_<component-name>.onnx' (ex: '<filename>_encoder.onnx', '<filename>_decoder.onnx').
                config_only = Generate config and pre/post processing files only.
                    Use this option when you already have your optimized and/or quantized ONNX model.
                exclude_embeds = Remove embedding layer from your ONNX model.
                    Use this option when you want to remove the embedding layer from within your ONNX model.
                    Instead of `input_ids`, you will have `inputs_embeds` as the input to your ONNX model.
                exclude_lm_head = Remove language modeling head from your ONNX model.
                    Use this option when you want to remove the language modeling head from within your ONNX model.
                    Instead of `logits`, you will have `hidden_states` as the output to your ONNX model.
                enable_cuda_graph = 1 : The model can use CUDA graph capture for CUDA execution provider. If enabled, all nodes being placed on the CUDA EP
                    is the prerequisite for the CUDA graph to be used correctly. It is not guaranteed that cuda graph be enabled as it depends on the model
                    and the graph structure.
                use_8bits_moe = 1 : Use 8-bit quantization for MoE layers. Default is using 4-bit quantization.
                hf_token = false/token: Use this to disable authentication with Hugging Face or provide a custom authentication token that differs from the one stored in your environment. Default behavior is to use the authentication token stored by `huggingface-cli login`.
                    If you have already authenticated via `huggingface-cli login`, you do not need to use this flag because Hugging Face has already stored your authentication token for you.
                use_qdq = 1 : Use the QDQ decomposition for quantized MatMul instead of the MatMulNBits operator.
                adapter_path = Path to folder on disk containing the adapter files (adapter_config.json and adapter model weights).
            """),
    )

    args = parser.parse_args()
    print("Valid precision + execution provider combinations are: FP32 CPU, FP32 CUDA, FP16 CUDA, FP16 DML, INT4 CPU, INT4 CUDA, INT4 DML")
    return args

if __name__ == '__main__':
    args = get_args()
    extra_options = parse_extra_options(args.extra_options)
    create_model(args.model_name, args.input, args.output, args.precision, args.execution_provider, args.cache_dir, **extra_options)