Tin(II) iodide

Tin(II) iodide AnhydroBeads^™−10 mesh, 99.99% trace metals basis comes as beads with red to purple in color with applications in semiconductor research, solar cells, material science, chemical synthesis, catalysis, and photonics. Tin (II) iodide is widely used as a precursor toprepare lead-free non-toxic hybrid perovskite materials. Tin-based perovskitesshow excellent electrical and optical properties such as high charge carrier mobility,absorption coefficient, and small exciton binding energies.

Tin(II) iodide (SnI₂) is a versatile compound with a range of applications in research, particularly in semiconductor technology, solar cells, chemical synthesis, catalysis etc. SnI₂ is used in perovskite solar cells as a precursor for tin-based perovskites or as an additiveto improve device stability and performance. The addition of a small amount of 2D tin film induces well-defined orientation and superior crystallinity in formamidinium tin iodide (FASnI3) films. This results in the longer life of charge carriers and improves the performance of hybrid perovskite solar cell (HPSC). [Ref] It can also be used to preparesolution-processable lamellar hybrid [CH₃(CH₂)₁₁NH₃]Sn_I3semiconductor.Its catalytic properties can be leveraged to develop new synthetic methodologies such as reductions, cyclizations, and coupling reactions. It is suitable to be used in photonic applications, including sensors and photovoltaic devices. It is used as a deposition material for preparing thin films for use in electronic and optoelectronic devices. Techniques like chemical vapor deposition (CVD) and physical vapor deposition (PVD) are explored for creating high-quality films. In a study, it is found that when a novel catalytic system comprised of tin sulfide (SnS) nanoflakes as a solid catalyst and tin iodide (SnI₂) as a dual-functional electrolyte additive, the Li-air battery enables operating at high current rates up to 10 000 mA g−1 (corresponding to 1 mA cm−2). Also it has been observed that that the role of the SnI2 is not only reacting with the lithium anode to provide protection but reducing the charge potential by promoting catalytic decomposition of the Li₂O₂.

Tin(II) iodide AnhydroBeads^™, −10 mesh, 99.99% trace metals basis is designed and tested under stringent dry manufacturing conditions to ensure low water content, trace metal purity of 99.99%, and low surface area-to-volume ratio. The salt possesses excellent electrical and optical properties such as high charge carrier mobility,absorption coefficient, and small exciton binding energies. The advantages of our AnhydroBeads^™ salts are as follows:

1) Reduced uptake rate of environmental moisture minimizes caking, dusting, and static buildup for repeated easy handling.

2) Higher crucible packing densities and lower volatility in high-temperature solid state procedures.

3) Easier pneumatic loading of salts to sample chambers due to less clogging issues associated with powdered salt counterparts.

AnhydroBeads is a trademark of Sigma-Aldrich Co. LLC