Jifang Tao

TL;DR: A novel approach to generate adjustable oxygen vacancies is demonstrated, through which the electronic structure of sensing materials can be fine-tuned and can facilitate the mass production, commercialization, and large-scale deployments of sensors with controllable morphology and superior sensing performance targeted for ultratrace gas detection.

TL;DR: In this article, a micromachined reconfigurable metamaterial is presented, whose unit cell consists of a pair of asymmetric split-ring resonators (ASRRs); one is fixed to the substrate while the other is patterned on a movable frame.

TL;DR: The on-chip tailorability of capacitive sensors integrated with metal-organic framework (MOF) films abundant in coordinatively unsaturated metal sites for gas detection is presented, demonstrating the feasibility of tuning sensing property by adjusting MOF-analyte interactions.

TL;DR: In this article, the lattice structure of metamaterials was reconfigurable from 2-fold to 4-fold rotational symmetry by using micromachined actuators.

TL;DR: The intergrowth of ZIF-8 crystals on ultrathin graphene oxide (GO) membranes helps to reduce the non-selective pores of pristine GO membranes leading to gas selectivities as high as 406, 155, and 335 for H2/CO2, H 2/N2, and H2-CH4 mixtures, respectively.