Xingqi Wang

Ms. Xingqi Wang

Biomedical Engineering, Johns Hopkins University, Baltimore, Maryland, USA
orcid

Research Focus & Metrics

Academic Career Length

3Years (2024-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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14 August 2024 in Preprints.org
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BGBo Guan
Bo Guan
JCJin Cao
Jin Cao
XWXingqi Wang
Xingqi Wang
ZWZhuoyue Wang
Zhuoyue Wang
MSMingxiu Sui
Mingxiu Sui
ZWZixiang Wang
Zixiang Wang
This research aims to explore the integration method of deep learning and large language models in speech recognition to improve the system’s recognition accuracy and ability to handle complex contexts. Deep neural network (DNN), convolutional neural network (CNN), long short-term memory network (LSTM) and Transformer-based large language model are used to build an integrated acoustic and language model framework. Experiments on TIMIT, LibriSpeech and Common Voice datasets show that the ensemble model shows significant improvements in both word error rate (WER) and real-time factor (RTF) compared to traditional models. Especially in terms of adaptability to multiple languages and accent changes, the model shows superior performance. The conclusion shows that through technology integration, the performance of the speech recognition system in complex environments can be effectively improved, providing a new direction for the future development of speech recognition technology.

27 January 2025 in Preprints.org
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XLXinjin Li
Xinjin Li
YMYu Ma
Yu Ma
YHYangchen Huang
Yangchen Huang
XWXingqi Wang
Xingqi Wang
YLYuzhen Lin
Yuzhen Lin
CZChenxi Zhang
Chenxi Zhang
The rapid advancements in large language models (LLMs) have propelled natural language processing but pose significant challenges related to extensive data requirements, high computational demands and more training times. While current approaches have demonstrated powerful capabilities, they often fall short of achieving an optimal balance between model size reduction and performance preservation, limiting their practicality in resource-constrained settings. We propose Synergized Efficiency and Compression (SEC) for Large Language Models, a novel framework that integrates data utilization and model compression techniques to enhance the efficiency and scalability of LLMs without compromising performance. Inside our framework, Synergy Controller could balance data optimization and model compression automatically during the training. The SEC could reduce data requirements by 30%, compress model size by 67.6%, and improve inference speed by 50%, with minimal performance degradation. Our results demonstrate that SEC enables high-performing LLM deployment with reduced resource demands, offering a path forward toward more sustainable and energy-efficient AI models in diverse applications.

4 February 2025 in Preprints.org
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LHLuoyao He
Luoyao He
XWXingqi Wang
Xingqi Wang
YLYuzhen Lin
Yuzhen Lin
XLXinjin Li
Xinjin Li
YMYu Ma
Yu Ma
ZLZhenglin Li
Zhenglin Li

This study presents the Bayesian-Optimized Attentive Neural Network (BOANN), a novel approach enhancing image classification performance by integrating Bayesian optimization with channel and spatial attention mechanisms. Traditional image classification struggles with the extensive data in today's big data era. Bayesian optimization has been integrated into neural networks in recent years to enhance model generalization, while channel and spatial attention mechanisms improve feature extraction capabilities. This paper introduces a model combining Bayesian optimization with these attention mechanisms to boost image classification performance. Bayesian optimization optimizes hyperparameter selection, accelerating model convergence and accuracy; the attention mechanisms augment feature extraction. Compared to traditional deep learning models, our model utilizes attention mechanisms for initial feature extraction, followed by a Bayesian-optimized neural network. On the CIFAR-100 dataset, our model outperforms classical models in metrics such as accuracy, loss, precision, recall, and F1 score, achieving an accuracy of 77.6%. These technologies have potential for broader application in image classification and other computer vision domains.