Physicochemical properties of ball milled boron particles: Dry vs. wet ball milling process

Band gap-engineered ZnO and Ag/ZnO by ball-milling method and their photocatalytic and Fenton-like photocatalytic activities

“…The estimated mean particle sizes for dry the dry and wet ball-milled Ag/ZnO samples were 285 nm and 302 nm, respectively. The size distribution of the particles ground under dry milling conditions was much broader than those under wet milling conditions, and the size reduction rate in the dry process was faster than in the wet process [51,52]. …”

Synthesis of Magnetite Nanoparticles by Top‐Down Approach from a High Purity Ore

“…Due to that interest, in very recent years, high energy ball milling has extensively been used to study the effect on the particle size, crystallite size, and lattice strain in metals, metal oxides, metal alloys, and so forth [32][33][34][35]. Physicochemical properties of ball milled boron particles under two grinding techniques such as dry and wet grinding were investigated by Jung et al [36]. They found that the size distribution, morphology, size reduction rate, and the degree of agglomeration of milled boron particles are affected by milling type as the wet milling process produced boron particles with narrower size distribution, smoother morphology, and less amount of agglomerated particles compared to dry milling process.…”

Preparation and characterization of baicalein powder micronized by the SEDS process

“…Supercritical CO 2 technologies include the gas antisolvent (GAS) process [13,14], precipitation by a compressed antisolvent (PCA) process [15,16], a SEDS process [17], and so on [18]. Among these processes, the SEDS process prepares smaller particles than the other techniques while avoiding most of the disadvantages of the conventional technologies, such as milling [19], spray drying [20], freeze-drying [21], etc. [22], and little or no organic solvent residue is observed [23][24][25].…”