Content: Ultra-high quality thermoelectric material property database. Developed by Dr. Byungki Ryu.
Link: https://tematdbv.streamlit.app/
Content: Alloy Design DB (v0.33). Data from KIMS. Designed and developed by Dr. Byungki Ryu
Link: https://byungkiryu-alloydesigndb-demo-v0-33-main-v0-33-u86ejf.streamlit.app/
Content: Database of solution, segregation, binding, and doping energies of alloying elements for the design of high-performance Cu-Ni-Si alloys. Data from KIMS. Designed and developed by Dr. Byungki Ryu
Link: https://cunisi-v01.streamlit.app/
Content: A database of calculated solid solution, segregation, and binding characteristics of additive elements in lithium alloys for the design of high-strength, long-life anode materials in Li-S batteries. Data from KIMS. Designed and developed by Dr. Byungki Ryu
Link: https://lithiumalloydesigndbv010.streamlit.app/
Content: Machine Learning Model Predicting Thermoelectric Properties of BiTe-based materials ver.0.2a. Developed by Dr. Jaywan Chung. Engined by LaNN.
Link: https://jaywan-chung.github.io/ml-tep-BiTe/
Content: Machine Learning Model Predicting Thermoelectric Properties of PbTe-based materials ver.0.1a. Developed by Dr. Jaywan Chung. Engined by LaNN.
Link: https://jaywan-chung.github.io/ml-tep-PbTe/
Content: Machine Learning Model Predicting Strength and Conductivity of Copper alloys (POONGSAN data) ver.0.5b. Developed by Dr. Jaywan Chung. Engined by LaNN.
Link: https://jaywan-chung.github.io/ml-copper-poongsan/
Content: Thermoelectric Power Generation Web Simulator Lite ver.0.53a. Developed by Dr. Jaywan Chung. Designed by Dr. Byungki Ryu.
Link: https://tes.keri.re.kr/
Content: Thermoelectric simulator for power TGM, standalone, multistage, 1D. Designed and devloped by Drs. Jaywan Chung and Byungki Ryu.
Link: nan
Content: Dr. Byungki Ryu
Link: https://sites.google.com/view/tesimulator/
Thermoelectric Power Generation Web Simulator Lite: https://tes.keri.re.kr
Material efficiency of thermoelectric conversion
Temperature-dependent material properties
Exact temperature solver for ThermoElectric differential eQuation (TEQ), using integral formalism (*)
Chebyshev sampling and interpolation ensuring high numerical accuracy and stability for material and device curves (*)
Easy copy-and-paste for input and output data
Full report on idealized thermoelectric power generator with current change: power, efficiency, heat current, and heat spectrum.
Temperature profile within the thermoelectric leg
Developed by JC, partially designed by BR
Main engine algorithm: arXiv:1810.11148 (preprint), APL 116, 193903 (2020) (Featured) and xxxx.xxxx (submitted)
KERI
Physics and Theory, B Ryu, S Park
Math and Data, J Chung
Material and device, SD Park, JK Lee, JH Park, JI Jang, JH Son
KAIST
Seunghwa RYU, Jiyoung JUNG, Wabi
German Aerospace Center (DLR), Germany
Eckhard Mueller, Pawel Ziolkowski, Johannes de Boor, Sahar, Prasanna
Starrydata of Japan
Yukari KATSURA (Univ of Tokyo / NIMS), Masato KUMAGAI (RIKEN / Sakura Internet, Inc. )
webdb: https://www.starrydata2.org ,
University of Warwick
Neophytos Neophytou (web), Samuel Foster
Specialists for non-equilibrium Green's function (NEGF) method to calculate charge and heat transport in thermoelectric materials
KIMS
Eun-Ae Choi, First principles electronic structure calculations of metallic interface for structured materials.
SZ Han, Cu alloys and material structure
Kyung hee university
Jong-Soo Rhyee
Starrydata:
experimental data from literatures
icsd in kisti:
icsd data
material project:
material basic information
good for battery materials
aflowlib:
good for alloys
TEDesignLab:
good for thermoelectric application