pumpetildyse

Pumpetildyse is a synthetic inorganic–organic hybrid material described in the materials science literature as a class of layered compounds. It consists of alternating inorganic slabs and organic intercalants, forming a two‑dimensional framework with adjustable interlayer spacing. The structure enables tunable electrochemical and catalytic behavior, making pumpetildyse a topic of interest for energy storage, sensing, and catalysis research.

In typical pumpetildyse architectures, the inorganic layers provide structural rigidity and electrical pathways, while the organic spacers control interlayer distance and chemical environment. This modularity allows researchers to vary metal centers, chalcogenide or oxide components, and organic linkers to tailor properties such as thermal stability, ion mobility, and redox potential. Reported benefits include enhanced ion diffusion along the layers, adjustable capacity, and improved thermal resilience compared with conventional layered materials.

Synthesis methods for pumpetildyse commonly involve solvothermal or solid-state reactions, often conducted under inert atmospheres. Post-synthesis intercalation or replacement of organic components can further tune conductivity and interlayer spacing. Doping with aliovalent metals or introducing functional groups in the organic spacers are common strategies to optimize performance for specific applications.

Applications cited in the literature focus on energy storage, such as lithium- or sodium-ion batteries and supercapacitors, where high charge storage and fast kinetics are desirable. Additional uses include heterogeneous catalysis and gas sensing, where the accessible interlayer galleries can host reactive species.

See also: layered materials, metal–organic frameworks, transition metal dichalcogenides, hydrides.