Synthesis, Optical Properties, and Self‐Assembly of Ultrathin Hexagonal In₂S₃ Nanoplates

Abstract

Arrested precipitation of In2S3 affords ultrathin hexagonal nanoplates with 0.76‐nm thickness and controllable sizes of 22–63 nm. The pictures show (from left to right) TEM images of 63‐nm nanoplates aligned parallel to a support, a side view of nanoplates, and 45‐nm nanoplates self‐assembled into microwires.

A facile preparation and visible light-induced photocatalysis of indium sulfide superstructure

“…It served as the template and the modification agent for the crystal growth [17][18][19][20]. For comparison, an experiment without SDS was also carried out.…”

“…Besides these methods, In 2 S 3 nanoparticles have been synthesized through a sonochemical method, a hydrothermal method, and a double-source precursor approach, etc. [4,[17][18][19][20]. However, as far as we know, the single crystalline b-In 2 S 3 nanoparticles were seldom prepared at low temperature (\100°C).…”

Flowerlike cubic β-In2S3 microspheres: Synthesis and characterization

“…In the wet chemical methods, it was usually prepared by assistance of ultrasound [13], template [14,15], stabilizer [16] or special self-prepared precursors [17,18]. Although the double-sulfur-source approach has been reported before, in which CS 2 and thioacetamide (C 2 H 5 NS) or S powder were used as the double sulfur sources [19,20], the studies were either the two-step route or concerned with additional coordination agents.…”

Solution-phase chemical route to branched single-crystalline CdS nanoarchitectures and their field emission property

“…In recent years, extensive attention has been attracted to fabrication of semiconductors with controlled morphologies and sizes due to their greatly potential applications in many fields, such as photonics and electronics [1][2][3][4][5]. Notably, the nanostructured semiconductors based on the field-emission (FE) property are of great commercial interests in displays and other electronic devices, such as flat-panel displays, parallel-electron-beam microscopes, vacuum microwave amplifiers, and X-ray sources [6][7][8][9][10].…”