Soft QGP Probes with ALICE

Graczykowski, L. K.

doi:10.5506/aphyspolb.47.1473

Cited by 1 publication

(3 citation statements)

References 13 publications

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“…e) Representative image of the polystyrene microsphere monolayer on a Si 3 N 4 surface. [80] f) Holey silicon fabricated using BCP self-assembly and RIE. Reproduced with permission.…”

Section: Fabrication Techniquesmentioning

confidence: 99%

“…Panel d) shows dispersion of granular PnCs made of a monolayer of close-packed PS nanoparticles deposited on ultra-thin Si 3 N 4 membrane. [80] all-dielectric platform. [70] The third strategy enabling the modification of SAWs dispersion is based on the nanoparticle-substrate contact resonance.…”

Section: Surface and Membrane Hypersonic 2d Pncsmentioning

confidence: 99%

“…Thus, the operating frequency of such systems can be easily adjusted by geometrical means, i.e., particle size and material, lattice period and symmetry, membrane thickness and material or adhesion forces at particle-membrane, and particle-particle interfaces (Figure 2d). [80]…”

Section: Surface and Membrane Hypersonic 2d Pncsmentioning

confidence: 99%

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2D Phononic Crystals: Progress and Prospects in Hypersound and Thermal Transport Engineering

Sledzinska

Graczykowski

Maire

et al. 2019

Adv Funct Materials

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The central concept in phononics is the tuning of the phonon dispersion relation, or phonon engineering, which provides a means of controlling related properties such as group velocity or phonon interactions and, therefore, phonon propagation, in a wide range of frequencies depending on the geometries and sizes of the materials. Phononics exploits the present state of the art in nanofabrication to tailor dispersion relations in the range of GHz for the control of elastic waves/phonons propagation with applications toward new information technology concepts with phonons as state variable. Moreover, phonons provide an adaptable approach for supporting a coherent coupling between different state variables, and the development of nanoscale optomechanical systems during the last decade attests this prospect. The most extended approach to manipulate the phonon dispersion relation is introducing an artificial periodic modulation of the elastic properties, which is referred to as phononic crystal (PnC). Herein, the focus is on the recent experimental achievements in the fabrication and application of 2D PnCs enabling the modification of the dispersion relation of surface and membrane modes, and presenting phononic bandgaps, waveguiding, and confinement in the hypersonic regime. Furthermore, these artificial materials offer the potential of modifying and controlling the heat flow to enable new schemes in thermal management.

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“…e) Representative image of the polystyrene microsphere monolayer on a Si 3 N 4 surface. [80] f) Holey silicon fabricated using BCP self-assembly and RIE. Reproduced with permission.…”

Section: Fabrication Techniquesmentioning

confidence: 99%

Section: Surface and Membrane Hypersonic 2d Pncsmentioning

confidence: 99%