• []201506]Congratulations to Prof. Wang who was awarded "2014 ExxonMobil-PKU Scholarship/Fellowship Awarding"!

  • [20141204]Congratulations to Lei Chen and Jiapeng Yu whose paper titled "Convex Nanobending at a Moving Contact Line: The Missing Mesoscopic Link in Dynamic Wetting" was published in ACS Nano.http://pkunews.pku.edu.cn/xxfz/2014-12/01/content_286254.htm

  • [20140914]Congratulations to Lei Chen who was awarded the first prize of the 2014 Academic Forum for Chinese Doctoral Candidates held by Peking Unviersity

  • [20140825]Welcome Jiandong Wu and Chaoyu Huang join the HMT@MN

  • [20140701]Congratulations to Jiapeng Yu who has graduated from the HMT@MN with a PhD entitled "Thin liquid film at triple-phase contact line"

  • [20140701]Congratulations to Yuhui Li who has graduated from the HMT@MN with a PhD entitled "Manipulation of mammalian cells by means of thermo physical methods, freezing and/or hypotonicity"

  • [20140701]Congratulations to Hongwei Shen who has graduated from HMT@MN with a master degree entitled "CFD based simulation of a panel solar air heater"

  • [20140530]Prof. Daniel Attinger visited HMT@MN, discussed on multiscale aspects of wetting and delivery of an invited lecture: "Complex Fluids Boiling and Drying on Complex Surfaces: Multiscale Physics with Multiple Applications" at the College of Engineering of Peking University, May 30, 2014

  • []201506]Congratulations to Prof. Wang who was awarded "2014 ExxonMobil-PKU Scholarship/Fellowship Awarding"!

  • [20141204]Congratulations to Lei Chen and Jiapeng Yu whose paper titled "Convex Nanobending at a Moving Contact Line: The Missing Mesoscopic Link in Dynamic Wetting" was published in ACS Nano.http://pkunews.pku.edu.cn/xxfz/2014-12/01/content_286254.htm

  • [201409014]Congratulations to Lei Chen who was awarded the first prize of the 2014 Academic Forum for Chinese Doctoral Candidates held by Peking Unviersity

  • Welcome Jiandong Wu and Chaoyu Huang join the HMT@MN

  • Congratulations to Jiapeng Yu who has graduated from the HMT@MN with a PhD entitled "Thin liquid film at triple-phase contact line"

  • Congratulations to Yuhui Li who has graduated from the HMT@MN with a PhD entitled "Manipulation of mammalian cells by means of thermo physical methods, freezing and/or hypotonicity"

  • Congratulations to Hongwei Shen who has graduated from HMT@MN with a master degree entitled "CFD based simulation of a panel solar air heater"

  • [20140530]Prof. Daniel Attinger visited HMT@MN, discussed on multiscale aspects of wetting and delivery of an invited lecture: "Complex Fluids Boiling and Drying on Complex Surfaces: Multiscale Physics with Multiple Applications" at the College of Engineering of Peking University, May 30, 2014

HMT@MN Lab

The HMT@MN group focuses on microscale and nanoscale heat transfer, moving contact line of thin films, PM 2.5 transport and elimination and fundamental biosciences of cryobiology. we have developed a nanoscopic testing approach for the wetting theories; our work in bioheat has generated a fundamental understanding of the biophysical mechanisms behind IIF. Besides, the group is also recognized as a pioneer in developing low-cost mechanical PM2.5 precipitator. We have invented a new type of mechanical precipitator with high removal efficiency (>98%), low pressure drop (<300 Pa) and effectivity for fine particles (down to 0.5 μm).

The purpose of HMT@MN is to establish a interdisciplinary micro/nano-scale research platform that can cultivate inspiration in discovery sciences, find the real-world solutions to the air polution caused by PM 2.5, establish the fundamental heat/mass transfer or interfacial mechanism at the micro/nanoscale level, and generate health and wealth for the global world.

The HMT@MN researches are:

Solve the experimental bottleneck of moving contact line problem: Experimentally identify the sub-macroscopic interface topography and its dynamic characteristics and generate a fundamental understanding about nanoscopic contact angels and their velocity dependency. CFD and MD calculations will be conducted to establish a new fundamental mechanism of moving contact line.

Develope a grid-independent collision algorism to predict particle aggregation stochastically where the calculation cost is only 1% of  the popular O’Rourke method. Based on simulations, a low-cost mechanical PM2.5 precipitator with high removal efficiency will be designed and test. This inspiring technique is expected to be commercialized and practically applied in dust removal before denitration in Power Plant.

Investigate the relationships between IIF and the cell membrane and generate a fundamental understanding of the biophysical mechanisms behind IIF. Comprehensive observation of cell freezing process including the location of the initiation site, the growth rate and the ice dendrite morphology have been achieved and the relationship between IIF and cell membrane integrity is well understood.