Traditionally, obtaining 2D materials involves the stripping of layered crystals. However, the anisotropic bonding arrangement within the 3D crystals shows that they are mechanically similar to 2D crystals and can also be stripped into nanosheets.

Assembling different metal organic frameworks (MOFs) into hybrid MOF on MOF heterostructures has been proven to be a promising approach for developing synergistic properties for various applications. Here, we explore the performance of MOF on MOF heterostructures by epitaxially growing MIL-88B (Fe)

Porous skeleton has high porosity and adjustable function. These two characteristics together create sufficient interfaces for material exchange and energy transfer within the skeleton.

In recent years, there has been increasing interest in developing innovative materials and treatment strategies to improve wound healing outcomes, particularly for chronic wounds and antimicrobial resistance.

In order to continuously develop devices with good applicability and the recent emergence of functional integration hybrid frameworks, there is an urgent need to convert metal organic framework (MOF) particles into thin films.

The key separation and purification industry accounts for almost half of industrial energy consumption. Based on the molecular properties of gas mixture components (such as chemical affinity or molecular size), the use of porous solids for gas separation has attracted much attention as an efficient/