High Thermal Conductivity Materials
By K. Watari, S. Shinde. 2001
293 citations recorded by the source corpus.
Subfields: General Health Professions, Philosophy
View Paper: https://www.semanticscholar.org/paper/a313c34e09a779bceb77b51f08cc8eddbe4812ac
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Citations in the corpus
- High thermal conductivity composites consisting of diamond filler with tungsten coating and copper (silver) matrix (2011, background): “within the plane of the crystal layers, while perpendicular to the layers it is only 6 W m K [1–3].”
- Crystal Structure Induced Ultralow Lattice Thermal Conductivity in Thermoelectric Ag9AlSe6 (2018, background): “[25] Since optical phonons usually have extremely low velocities, this leads to a negligible contribution to the lattice thermal conductivity.[33] Since the number of atoms (n) in the primitive cell can measure the complexity of a crystal structure which usually includes many differently bonded atom”
- Raman-based technique for measuring thermal conductivity of graphene and related materials (2017, background): “The expected temperature dependence of thermal conductivity for crystalline graphene([108]) is restored as Γ moves toward zero defect regimes and the flake size increase to 30 μm (Fig 6(d)).”
- Graphite blocks with preferred orientation and high thermal conductivity (2012, background): “This is because the thermal conductivity parallel to the basal plane of highly oriented pyrolytic graphite is 2000 W/m K [3,8] at room temperature and the maximum in-plane thermal conductivity of a single crystal graphite reaches 2800 W/m K [9] at 80 K, compared to ca.”
- High-throughput computational screening of thermal conductivity, Debye temperature, and Grüneisen parameter using a quasiharmonic Debye model (2014, methodology): “The thermal conductivity at temperatures other than θa is estimated by [37,38,40]”