Results 241 to 250 of about 1,853,453 (379)

SPECIAL HEAT TRANSFER PHENOMENA FOR SUPERCRITICAL FLUIDS

, 1956
K. Goldmann
openalex   +2 more sources

Discussion: “Heat Transfer for Forced Flow of Air at Right-Angles to Cylinders” (Chappell, E. L., and McAdams, W. H., 1926, Trans. ASME, 48, pp. 1201–1228) [PDF]

, 1926
B. N. Broido, E. L. Chappell, W. H. McAdams   +2 more
openalex   +1 more source

A Workflow‐Centric Approach to Generating FAIR Data Objects for Computationally Generated Microstructure‐Sensitive Mechanical Data

Advanced Engineering Materials, EarlyView.
A novel metadata schema is introduced to address the sparsity of microstructure‐sensitive mechanical data. The design follows the material modeling workflow, as each run results in the definition of unique data objects. The schema includes categorical elements to ensure findability, accessibility, interoperability, and reusability (FAIR). This approach
Ronak Shoghi, Alexander Hartmaier
wiley   +1 more source

Limits of dropwise condensation heat transfer on dry nonwetting surfaces. [PDF]

iScience
Hatte S, Pitchumani R.
europepmc   +1 more source

Evaluation of the Sodium-Water Reaction in Heat Transfer Systems

, 1957
D. D. ADAMS, G. J. BARENBORG, W. W. KENDALL   +2 more
openalex   +2 more sources

Discussion: “Combustion and Heat Transfer” (Haslam, R. T., and Hottel, H. C., 1928, Trans. ASME, 49–50(3), p. 031003) [PDF]

, 1928
Geo. A. Orrok, H. W. Brooks, Edwin Lundgren, John Van Brunt, Z. G. Deutsch, R. T. Haslam, H. C. Hottel   +6 more
openalex   +1 more source

Development of a Novel Processing Route for Dispersoid/Precipitation‐Strengthened High Conductive Copper Alloys by Using Metalized Nanoceramics in Additive Manufacturing

Advanced Engineering Materials, EarlyView.
This study explores a process chain to produce dispersoid‐strengthened CuCr1Zr for applications requiring high strength and conductivity. Using gas‐atomized powder and copper‐plated alumina nanoparticles, additive manufacturing is performed via powder bed based additive manufacturing with green and red lasers, followed by heat treatment.
Heinrich von Lintel, Abdelrahman Elsayed, Lukas Mielewczyk, Katja Eichmann, Julia Grothe, Ulrich Krupp, Avinash Hariharan, Katrin Jahns   +7 more
wiley   +1 more source

Experimental Research on the Problems of Heat Transfer in Packed Tubes

, 1948
Sugao SUGAWARA, Takashi Satō
openalex   +2 more sources

Trans‐Conductive Melt Pool Scaling and its Implications for Parameter Transfer in Laser Powder Bed Fusion for Metals with High Thermal Diffusivity

Advanced Engineering Materials, EarlyView.
Developing process parameters for the laser‐based Powder Bed Fusion of metals can be a tedious task. Based on melt pool depth, the process parameters are transferable to different laser scan speeds. For this, understanding the melt pool scaling behavior is essential, particularly for materials with high thermal diffusivity, as a change in scaling ...
Markus Döring, Matthias Gehring, Michael Schmidt   +2 more
wiley   +1 more source

In Situ Biofilm Monitoring Using a Heat Transfer Sensor: The Impact of Flow Velocity in a Pipe and Planar System. [PDF]

Biosensors (Basel)
Netsch A, Sen S, Horn H, Wagner M.
europepmc   +1 more source