Peter K Liaw
researcher
Facts
7 properties
🏷️ Also known as
en Peter K Liaw
en Peter Liaw
🔖 Identifiers · 22
- ISNI
- 0000000116388415
- ORCID iD
- 0000-0003-0185-3411
- VIAF cluster ID
- 49551578, 2764158369762501460000
- Library of Congress Authorities ID
- n88074643
- ACM Digital Library citation ID
- 99660186554
- BIBSYS ID
- 1065315
- Bibliothèque nationale de France ID
- 15662529q
- Canadiana Name Authority ID
- ncf11465452
- CiNii Research ID
- 1980304959791652546
- Google Scholar author ID
- AizJ-qUAAAAJ
- IdRef ID
- 127493069
- J9U entity ID
- 987007430795305171
Show all 22 identifiers +10
- Libraries Australia ID
- 35721997
- LinkedIn personal profile ID
- peter-liaw-1051b917
- NACSIS-CAT author ID
- DA02802036
- NLA Trove people ID
- 1058128
- NUKAT ID
- n2007012632
- Research.com ID
- peter-k-liaw
- ResearchGate profile ID
- Peter-Liaw
- SciProfiles ID
- 232536
- Scopus author ID
- 34668072500
- Yale LUX ID
- person/0f8d1636-e3ec-4a32-b39b-a749602811f4
🔗 Connections
Author of 14
Accelerating the design of high-entropy alloys with high hardness by machine learning based on particle swarm optimization,
A physics-based machine-learning approach for modeling the temperature-dependent yield strengths of medium- or high-entropy alloys,
Data-driven investigation of microstructure and surface integrity in additively manufactured multi-principal-element alloys,
Edge dislocation-induced high-temperature strengthening in the Ti37V15Nb22Hf23W3 refractory high-entropy alloys,
Evolution of microstructure and residual stress for a lead-frame Cu-2.13Fe-0.026 P (wt%) alloy,
Fatigue life prediction of the FCC-based multi-principal element alloys via domain knowledge-based machine learning,
In situ monitoring of dislocation, twinning, and detwinning modes in an extruded magnesium alloy under cyclic loading conditions,
Materials Fingerprinting Classification
+6 more
← Authored by 14
Accelerating the design of high-entropy alloys with high hardness by machine learning based on particle swarm optimization,
A physics-based machine-learning approach for modeling the temperature-dependent yield strengths of medium- or high-entropy alloys,
Data-driven investigation of microstructure and surface integrity in additively manufactured multi-principal-element alloys,
Edge dislocation-induced high-temperature strengthening in the Ti37V15Nb22Hf23W3 refractory high-entropy alloys,
Evolution of microstructure and residual stress for a lead-frame Cu-2.13Fe-0.026 P (wt%) alloy,
Fatigue life prediction of the FCC-based multi-principal element alloys via domain knowledge-based machine learning,
In situ monitoring of dislocation, twinning, and detwinning modes in an extruded magnesium alloy under cyclic loading conditions,
Materials Fingerprinting Classification
+6 more
Affiliated with 2
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