Preparation of BaTiO3 nanopowders by the solution combustion method

Facile synthesis of atomically mixed Fe 50 Co 50 nanoalloys via a simple combustion-based route

“…Solution combustion synthesis (SCS) has been successfully applied to the preparation of diverse nanomaterials, e.g., binary and complex metal oxide nanomaterials [21,22], nano-crystalline metallic materials [23] and nanocomposites [24,25]. SCS is a time-saving and energy-saving method, especially for the synthesis of complex oxides which can be easily adapted for scale-up applications [26].…”

Corrosion and Transformation of Solution Combustion Synthesized Co, Ni and CoNi Nanoparticles in Synthetic Freshwater with and without Natural Organic Matter

“…Due to this feature, combustion of SCS precursors occurs even in inert atmospheres and in vacuum and result in high-quality NMs with homogeneous crystal phases. The method has previously been used to produce NMs of different functional classes, including pure and multicomponent metal NMs [34][35][36][37] , as well as simple and complex oxides [38][39][40] . Since SCS is one of few techniques that could easily be scaled-up for industrial production of a broad class of NMs, it is important to study particle properties as well as corrosion and dissolution characteristics of SCS NPs in e.g.…”

The modification of surface, size and shape of barium zirconate powder via salt flux

“…“Bottom‐up” strategies via solution‐based routes have been in focus since they offer relatively better compositional and morphological control than the solid‐state reaction, which yields hard‐agglomerated powders with chemical inhomogeneity and undesirable morphology that has broadly dispersed particle sizes . Various solution techniques such as simple reflux, co‐precipitation via oxalate and citrate routes, solution combustion, and hydrothermal, solvotherma and sol‐gel processes have been explored. Co‐precipitation is easier than other solution methods, which can produce the crystalline BaZrO 3 phase at temperatures mostly lower than 500°C.…”

“…The use of urea or glycine as a reducing agent in combustion solution permits a single‐step synthesis that initiates the BaZrO 3 phase. Unfortunately, the calcination process is still required for completing the crystalline phase that generally provides an irregular morphology with large micron‐sized particle products . Desirable shape and size of the BaZrO 3 particle could be achieved directly from the direct reaction of precursor ions in strong basic solution via hydrothermal and solvothermal methods .…”

“…Unfortunately, the calcination process is still required for completing the crystalline phase that generally provides an irregular morphology with large micron-sized particle products. 16,17 Desirable shape and size of the BaZrO 3 particle could be achieved directly from the direct reaction of precursor ions in strong basic solution via hydrothermal and solvothermal methods. 18 However, more uniform particles were developed by using complex organic ligands in order to prevent particle agglomeration in the solvothermal method.…”