简介/ABOUT
Zhang Lab致力于解决与能源利用和碳中和相关的一系列科学基础与工程实际问题。实验室研究主要聚焦在以下几个方向：
✔ CCS/CCUS技术：开发和优化碳捕集与封存（CCS）及碳捕集、利用与封存（CCUS）过程中的纳米尺度技术研究，探索其在不同地质条件下的应用潜力，助力实现碳中和目标。
✔ 多尺度流-固性质研究：通过多孔介质中流-固性质实验分析与理论计算，深入探讨二氧化碳在地质介质中的迁移和封存机制，关于纳米结构表界面对其机制影响，提高碳封存的效率和安全性。
✔ 非常规地下能源开发：基于纳米-宏观多尺度数值模拟技术，研究非常规能源（如页岩气、氢气、地热能等）的开发过程与优化策略，推动清洁能源的可持续开发。
✔ 能源技术与系统优化模型：构建和应用先进的能源技术与系统优化模型，评估并优化不同能源系统的效率和环境影响，结合微观-宏观多尺度的技术研究，为能源政策的制定提供科学依据。
团队结合实验分析与理论计算，基于纳米地球科学理论，通过多尺度数值模拟，致力于为实现碳中和和可持续发展目标做出创新性贡献。
Zhang Lab is dedicated to addressing a range of fundamental scientific and engineering challenges related to energy utilization and carbon neutrality. The lab's research is primarily focused on the following areas:
✔ CCS/CCUS Technologies: Development and optimization of nanoscale technologies in carbon capture and storage (CCS) and carbon capture, utilization, and storage (CCUS). We explore their potential applications under different geological conditions to support carbon neutrality goals.
✔ Multiscale Flow-Solid Interaction Studies: Through experimental analysis and theoretical modeling of flow-solid interactions in porous media, we investigate the migration and storage mechanisms of CO₂ in geological media. Special attention is given to the impact of nanoscale surface and interface structures on these mechanisms to enhance the efficiency and safety of carbon storage.
✔ Unconventional Subsurface Energy Development: Using multiscale numerical simulation techniques from the nanoscale to the macroscale, we study the extraction processes and optimization strategies for unconventional energy sources such as shale gas, hydrogen, and geothermal energy, promoting the sustainable development of clean energy.
✔ Energy Technology and System Optimization Models: We develop and apply advanced models to optimize the efficiency and environmental impacts of various energy systems. By integrating multiscale research from the micro- to the macroscale, we provide scientific evidence to inform energy policy decisions.
Our team combines experimental analysis and theoretical calculations based on nanoscale geoscience principles. Through multiscale numerical simulations, we are committed to contributing innovative solutions to the goals of carbon neutrality and sustainable development.