Nano‐SiO₂ Doped Polystyrene Materials for Inertial Confinement Fusion Targets

Preparation and Properties of Nano‐SiO2/Epoxy Composites Cured by Mannich Amine

“…3b), which implied that the treated nano-SiO 2 was coated successfully by KH-550. [10] C was present in all of the samples, including untreated nano-SiO 2 , presumably as a contaminant. Figure 4 shows SEM micrographs of nano-SiO 2 /epoxy composites with different nanoSiO 2 contents.…”

Laser-generated plasmas by graphene nanoplatelets embedded into polyethylene

“…These advanced targets all have characteristics to produce high accelerated ions in carbon-hydrogenated plasmas and, as thick, to generate extractable high ion current using repetition rate lasers. The prepared advanced target can be used as high yield of proton and carbon ion source for many applications, such as LIS to inject pre-accelerated ions in superconducting cyclotrons of INFN-LNS in Catania (Italy) (Gammino et al, 2004), production of 10-100 MeV proton and carbon ions for hadrontherapy according to aims of the ELIMED Project (Schillaci et al, 2014), production of hot hydrogenated plasmas for astrophysical studies in the field of nuclear reactions induced in light nuclei and plasma Coulomb screening effects (Torrisi, 2014b), and inertial confinement fusion using composite pellets based on deuterium and tritium polymers containing high carbon nanoparticles (CNP) concentrations (Sang et al, 2005).…”

Microcápsulas Vacías Empleadas en Aplicaciones de Ultrasonidos: Generalidades, Usos y Métodos de Fabricación

“…proteger encimas de los esfuerzos cortantes en reactores tradicionales, proteólisis de microorganismos y reacciones hidrofóbicas) (Caussette, et al, 1999), (Colombié, Gaunand, & Lindet, 2001), (Bommarius & Karau, 2005), provee estabilidad para fármacos (e.g. protección contra fluidos biológicos) (Barrat, 2002), (Allen & Cullis, 2004), aumenta la bio-compatibilidad de fármacos convencionales y permite la dosificación controlada de moléculas activas (Wise, et al, 2000), (Yang, Qiao, Hong, & Dong, 2013), (Siepman & A, 2001), elimina incompatibilidades, sirve de material inerte para el confinamiento de elementos incompatibles (Sang, Yang, Cui, Zhu, & Sheng, 2005), es usada para fabricar micro reactores (Ikeuchi, Tane, & Ikuta, 2012), (Murphy & Wudl, 2010), andamios para cultivar tejidos, (Sukhorukov, Fery, & Mohwald, 2005), y se usa para construir rellenos livianos/flotación, separadores o amortiguadores (Shchukin & Sukhorukov, 2004). Las microcápsulas también pueden ser empleadas como células artificiales, (Ouyang, et al, 2004) como cubiertas protectoras para encimas y tejidos (Cao, 2005) (Colvin, 2003), o como vectores de transferencia para terapia genética (Selvam, et al, 2006;Baker, 2010), dispersantes de colorantes (Luo Yan, 2002), sistemas de purificación de agua (Sohn, et al, 2012), electrodos (Lee, Jung, & Oh, 2003), almacenadores de gas (Tamae, Sumi, & Yasuda, 1996), catalizadores, (Ikeda, et al, 2006) cosméticos (Cheng, et al, 2009).…”