Cavitation damage in liquid metals Final report
Cavitation damage resistance, high frequency fatigue, and stress corrosion behavior of metals in high temperature liquid sodium
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Cavitation damage resistance, high frequency fatigue, and stress corrosion behavior of metals in high temperature liquid sodium
Cavitation performance of 83 degree helical inducer operated in liquid hydrogen
Cavitation bubble collapse in venturi, discussing flow characteristics under large pressure gradient
Cavitation damage in high-temperature liquid metal pumps for Rankine cycle space power plants studied in water model
Cavitation performance testing in water of mixed flow pump impeller
Cavitation delay time variation with velocity, size, dissolved air content, liquid tension, flow history and surface characteristics
Fluid dynamic characteristics of propellant pumps in presence of oscillatory cavitation, noting performance of J-2 rocket engine system
Accelerated cavitation damage in liquid sodium and mercury of stainless steels and superalloys under consideration for use in liquid metal power conversion systems
High-temperature liquid potassium cavitation damage tests
Cavitation damage resistance of refractory alloys in high temperature liquid potassium
Cavitation damage in liquid alkali metal pumps for space power systems
Cavitation damage resistance of refractory and stainless steel alloys in liquid potassium at high temperatures
Thermodynamic property effects of water and ethyl alcohol on cavitation processes in venturi tube
Reynolds number and incidence angle effects on inducer cavitation in water
Cavitation damage in alkali metal pumps, noting damage resistance and material properties for application in space power systems
Frequency pattern analysis for liquid rocket pump fluid cavitation characteristics
To investigate the incidence and influence of tumor cavitation (TC) on survival outcomes of locally advanced squamous cell lung cancer (LA-SqCLC) patients treated with concurrent chemoradiation therapy (C-CRT).
An order of magnitude rise in the thermoelectric (TE) performance of the PbSe, a scalable and easy-to-manufacture TE material, has been achieved by incorporating reduced graphene oxide (Gr) nanoplatelets in a PbSe/PbSeO 3 heterostructure formed by acoustic cavitation-assisted oxidation. The fabricated Gr/PbSe/PbSeO 3 nanocomposites exhibit high TE performance with an exceptionally high Seebeck coefficient coupled with low thermal conductivity. The variation in the Seebeck coefficient has been attributed to a reduction in charge carrier mobility due to the ferroelectric polarization effect. Furthermore, the increase in electrical resistivity is minimized by adding graphene. At an optimal weight fraction (0.2 wt%), graphene nano-inclusions lead to superior Seebeck coefficient values as high as ~2000 μV/K at ~500 K, providing high overall TE performance. This study shows substantial changes in the TE properties of PbSe through the incorporation of graphene and PbSeO 3 . The understanding and methodology developed in this study can be exploited for the scalable manufacturing of high-performance TE materials.