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DC25_PAPER_Track14_FoundationalModelApproachForSIPI_Kashyap_V2.pdf

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1、 Information Classification:General Foundational Model Approach for SI/PI Analysis Using Large Language Model Techniques Priyank Kashyap,Hewlett Packard Enterprise()Yeujiang Wen,Hewlett Packard Enterprise()Yongjin Choi,Hewlett Packard Enterprise()Chris Cheng,Hewlett Packard Enterprise()Information C

2、lassification:General Abstract AI/ML techniques have been widely developed for SI/PI applications;however,a few challenges limit their wide adoption for SI/PI analysis.Training a good model requires collecting a large dataset and training hardware resources.However,an increased feature space or a mo

3、dified performance target requires new data collection and a complete retraining of the deep learning(DL)model.Further,modeling approaches utilizing neural networks do not offer insight into the physical aspects of the underlying model.This paper uses a transformer model to predict a channels impuls

4、e response given its input and output waveform.It then shows that the model contains a feature-rich latent space within the transformer stack.We explore this space and demonstrate that we can extract physical channel parameters to help us identify channel characteristics.The paper then establishes a

5、 framework for fine-tuning by extending the underlying datas range,specifically including new via topologies and increasing the operational bitrate.Then,the paper explores extending the base model to a different domain,modeling the impact of equalization with the channel,and demonstrating the abilit

6、y of transfer learning with the base model.This approach demonstrates the ability to future-proof our existing models and training efforts through computationally efficient fine-tuning and transfer learning techniques.Information Classification:General Author(s)Biography Priyank Kashyap is an AI/ML

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1. **基础模型架构**:提出基于Transformer的单次预测模型,通过输入/输出波形生成信道冲激响应,RMSE仅2.10(误差0.82%),MAPE为2.21%。 2. **隐空间物理特性**:模型隐空间编码了物理参数(如via拓扑),随机森林分类器在15 mil间隔下准确率达99.84%。 3. **微调与迁移学习**: - 新via拓扑微调生成头后,RMSE从5.22降至2.71,MAPE从20.07%降至3.12%。 - 迁移学习至CTLE均衡任务,仅需8个信道/配置即可实现低MAPE(0.52%)。 4. **高效扩展**:微调避免全模型重训练,迁移学习利用基础模型作为特征提取器,显著减少数据需求。
**Transformer如何提升SI/PI分析?** **模型如何识别通道特性?** **微调如何扩展模型应用?**
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