I am a self-motivated and fast learner who enjoys solving problems and learning new skills. I have strong communication and teamwork skills, as well as a keen eye for design and user experience. I am always eager to take on new challenges and explore new opportunities in the software engineering field.
Also, I am fascinated by the power and potential of large language models (LLMs). I have been following the latest developments and innovations in this field, and I am eager to contribute to the advancement of LLMs and their applications. I believe that LLMs are the future of natural language processing, and I want to be part of this exciting journey.
Proposed a text-to-video generation method based on diffusion model. This method can achieve zero-shot video generation without any training by just adjusting the existing diffusion model.
As the main person in charge of the alumni data platform project in our department, I was responsible for requirement analysis, solution design, data processing, platform development and testing. Using Feishu system as a data storage and visualization tool, I successfully cleaned, integrated and standardized the original data, eliminating errors, omissions and inconsistencies. I created a user-friendly website using Vue framework. The website provides some special features, such as batch import/export, data analysis and statistics. The final product received high praise from our teachers and alumni, achieving data compatibility, relevance, sharing, security and low development maintenance cost. It now has nearly 100,000 alumni data collected from the founding of the school to the present.
Built a highly generalizable model and performed transfer learning to cope with the challenges of different datasets from different institutions, different annotation methods, and different datasets in the competition.
In the summer research project at NTU, for the pneumonia CT medical image detection problem, used ResNet model to identify and detect pneumonia symptoms, and used Grad-CAM and Guided Grad-CAM methods to generate attention heat maps and explain the model’s decision process, achieving 90% accuracy