Baitian Liu

Focusing on interdisciplinary research across computer science and meteorology,
exploring innovative AI4Science applications for weather forecasting and efficient decision-making

Baitian Liu

Education

Hangzhou Dianzi University · School of Computer Science M.Eng. Student | Software Engineering
GPA 3.24/4.00 Advisor: Prof. Haiping Zhang 2023.09 -- Present
Hangzhou Dianzi University Information Engineering School · School of Computer Science B.Eng. | Software Engineering
GPA 4.2/5.0 2019.09 -- 2023.06

Experience

Zhejiang Branch, Chinese Academy of Meteorological Sciences Algorithm Development and Research Intern
Hangzhou, Zhejiang 2024.09 -- Present
  • ScopeBased on data resources and expert guidance from the Chinese Academy of Meteorological Sciences, designed and developed deep learning models for precipitation nowcasting, covering data preprocessing, model training, and integration into operational scenarios
  • OutcomesDeveloped two precipitation nowcasting models for operational pain points and started integrating them into practical meteorological workflows.
    1. Fast multi-lead precipitation nowcasting model (0--2 h): avoids error accumulation from autoregressive forecasting. With adversarial training and multi-lead information embedding, it outperforms traditional numerical weather prediction while providing higher spatiotemporal resolution (1 km, 6 min).
    2. Extreme precipitation forecasting model (0--1 h): shifts modeling from the numerical domain to the frequency domain and introduces a new architecture and optimization strategy for multi-scale precipitation features. It performs strongly on extreme events, especially preserving details at longer lead times.

Publications & Patents

Selected Projects

AI-based Meteorological Forecasting Models Core Algorithm Development and Research
Partner: Zhejiang Meteorological Service 2024.09 -- Present
  • OverviewCollaborated with Zhejiang Meteorological Service to develop deep learning-based meteorological forecasting models for operational forecasting needs, aiming to improve the accuracy and efficiency of precipitation nowcasting
  • ContributionResponsible for radar data preprocessing, quality control, and completeness checks; designed and optimized deep learning models; developed forecast visualization tools and completed operational scenario evaluations
  • OutcomesThe model outperformed traditional numerical weather prediction during the 2025 Meiyu season evaluation, reaching 1 km and 6 min spatiotemporal resolution with much lower inference time than numerical models, addressing the real-time limitations of short-term forecasting. Research on diffusion-based probabilistic forecasting is ongoing and is expected to further improve heavy-tailed precipitation prediction
Computer Vision-based Bayberry Object Detection Core Algorithm Development and Research
Partners: Zhejiang Meteorological Service, Xianju Meteorological Bureau 2024.12 -- 2025.10
  • OverviewCollaborated with Zhejiang Meteorological Service and Xianju Meteorological Bureau to develop visual algorithms for bayberry maturity detection and deploy them in bayberry orchards
  • ContributionResponsible for algorithm research, feasibility exploration, feature analysis, and post-processing of the collected dataset
  • ProgressBuilt an initial YOLO-based object detection model that meets expected recognition performance in open orchard scenarios across multiple seasons. Maturity prediction and large-scale statistical analysis are under development and may support bayberry sales in the Xianju region
Glass Plane Velocity Measurement with Binocular Telecentric Lenses Algorithm Development and Device Integration
Partners: Shanghai CEC Electronic System Engineering Co., Ltd.; Rainbow (Hefei) LCD Glass Co., Ltd. 2023.06 -- 2024.11
  • OverviewDeveloped a high-precision velocity measurement algorithm for 0.3 mm glass sheets in high-temperature and high-humidity industrial environments, controlling error within 0.6 mm/s
  • ContributionLed the design and implementation of the velocity measurement algorithm, completed telecentric camera and temperature sensor debugging, designed the UI, and deployed the algorithm on an industrial mobile computing platform
  • OutcomesSolved recognition challenges caused by glass transparency. Through precise edge localization and clock synchronization, the system achieved the target measurement accuracy. It ran stably at 80°C and 75% relative humidity, and the insulated enclosure plus self-checking functions significantly reduced defect rates in industrial production
Fast and Accurate Measurement of Australian Redclaw Crayfish via Skeleton Recognition Algorithm Development and Device Integration
2023.10 -- 2024.07
  • OverviewImplemented fast and accurate daily growth measurement for crayfish to support and accelerate breeding of new varieties
  • ContributionLed algorithm design and implementation, including data processing, model training, and supporting device design
  • OutcomesUsed skeleton keypoint recognition together with telecentric lenses to accurately locate and measure crayfish claw length. Combined with a staged detection workflow, the system enabled fast and stable crayfish data acquisition and analysis
YOLO-based Rural Miscellaneous Pile Recognition Algorithm Development Lead
Partner: Yunzhihaihui Information Technology Co., Ltd. 2023.06 -- 2024.12
  • OverviewDeveloped a YOLOv8-based detection and recognition system for rural road trash bins, garbage, and miscellaneous piles, including closed-lid and overflow status detection for trash bins, supporting automated supervision of rural streets
  • ContributionResponsible for dataset collection and augmentation, YOLOv8 model tuning to improve miscellaneous pile detection accuracy, and development of dedicated modules for trash bin status detection
  • OutcomesThe system achieved over 95% detection rate and 98% accuracy for trash bin closed-lid and overflow detection. It was successfully applied in the digital platform for beautiful countryside governance, significantly improving rural environmental supervision efficiency

About

During my graduate study, I have built a solid foundation in software engineering and artificial intelligence, and demonstrated strong practical ability and innovation through the development and deployment of multiple interdisciplinary projects. I am proficient in deep learning algorithm design, data processing, and system integration. As a major contributor to projects in meteorological forecasting, industrial velocity measurement, and environmental monitoring, I have helped deliver systems that were successfully applied in real-world scenarios. I have strong independent problem-solving ability and teamwork skills, and can efficiently handle complex technical challenges.

In future work, I hope to use deep learning to solve interdisciplinary problems in meteorology, industry, and related domains, promoting innovative AI applications in science and producing outcomes with practical value and real-world impact.