Effect of Mg Deficiency on the Thermoelectric Properties of Mg2(Si, Sn) Solid Solutions
暂无分享,去创建一个
[1] H. Korucu,et al. A review of the performance evaluation of thermoelectric nanostructure materials Bi2-xSbxTe3 (0.20≤X≤1.80) , 2023, Cleaner Chemical Engineering.
[2] M. Enculescu,et al. Thermoelectric properties of p-type Mg2Si0.3Sn0.7 doped with silver and gallium , 2023, Journal of Alloys and Compounds.
[3] Tianpeng Ding,et al. Physics-guided co-designing flexible thermoelectrics with techno-economic sustainability for low-grade heat harvesting , 2023, Science advances.
[4] M. Kanatzidis,et al. Weak Electron–Phonon Coupling and Enhanced Thermoelectric Performance in n‐type PbTe–Cu2Se via Dynamic Phase Conversion , 2022, Advanced Energy Materials.
[5] J. de Boor,et al. Developing a two-parabolic band model for thermoelectric transport modelling using Mg2Sn as an example , 2022, Journal of Physics: Energy.
[6] S. Sajjadi,et al. A comprehensive review on the effects of doping process on the thermoelectric properties of Bi2Te3 based alloys , 2022, Journal of Alloys and Compounds.
[7] B. Ryu,et al. Understanding the dopability of p-type Mg2(Si,Sn) by relating hybrid-density functional calculation results to experimental data , 2022, Journal of Physics: Energy.
[8] Huan-Yin Liu,et al. Effect of Bi Doping on the Thermoelectric Properties of Mg2Si0.3Ge0.04Sn0.66 Compound , 2022, Journal of Materials Research and Technology.
[9] Jingbo Li,et al. Ni substitution improves the high-temperature thermoelectric performance of electronegative element Se-filled skutterudite Se0.05Ni Co4-Sb12 , 2022, Journal of Alloys and Compounds.
[10] G. J. Snyder,et al. Key properties of inorganic thermoelectric materials—tables (version 1) , 2022, Journal of Physics: Energy.
[11] Yang Wang,et al. High thermoelectric performance of nanostructured Mg3Sb2 on synergistic Te-doping and Mg/Y interstitial , 2022, Journal of Materials Science.
[12] N. Hirayama,et al. Enhancement of thermoelectric performance of Mg2Si via co-doping Sb and C by simultaneous tuning of electronic and thermal transport properties , 2022, Journal of Alloys and Compounds.
[13] Shuai Zhang,et al. Large improvement in thermoelectric performance of pressure-tuned Mg3Sb2 , 2021, RSC advances.
[14] A. Chitsaz,et al. Thermoelectric Generators: A comprehensive review of characteristics and applications , 2021, Applied Thermal Engineering.
[15] Y. Miyazaki,et al. Realizing p-type Mg2Sn Thermoelectrics via Ga-Doping and Point Defect Engineering , 2021, ACS Applied Energy Materials.
[16] Hong-an Ma,et al. HPHT synthesis and enhanced thermoelectric transport properties of double-doped Co4Sb11TexSn1-x skutterudites , 2021, Journal of Alloys and Compounds.
[17] G. J. Snyder,et al. Chemical Interpretation of Charged Point Defects in Semiconductors: A Case Study of Mg2Si , 2021, ChemNanoMat.
[18] E. Müller,et al. Applications of thermodynamic calculations to practical TEG design: Mg2(Si0.3Sn0.7)/Cu interconnections , 2021, Journal of Materials Chemistry A.
[19] E. Mueller,et al. On the role of Mg content in Mg2(Si,Sn): Assessing its impact on electronic transport and estimating the phase width by in situ characterization and modelling , 2021 .
[20] T. Miyazaki,et al. Chemical-Pressure-Induced Point Defects Enable Low Thermal Conductivity for Mg2Sn and Mg2Si Single Crystals , 2021 .
[21] E. Toberer,et al. Efficacy of the Method of Four Coefficients to Determine Charge-Carrier Scattering , 2021, Physical Review Applied.
[22] K. Mitra,et al. Influence of Mg loss on the phase stability in Mg2X (X = Si, Sn) and its correlation with coherency strain , 2021 .
[23] Gang Chen,et al. Thermoelectric cooling materials , 2020, Nature Materials.
[24] B. Ryu,et al. Native point defects and low p-doping efficiency in Mg2(Si,Sn) solid solutions: A hybrid-density functional study , 2020, 2003.08886.
[25] J. de Boor,et al. Solid solution formation in Mg2(Si,Sn) and shape of the miscibility gap , 2020 .
[26] Jinfeng Dong,et al. Control of the Thermoelectric Properties of Mg2Sn Single Crystals via Point-Defect Engineering , 2020, Scientific Reports.
[27] G. J. Snyder,et al. Analytical Models of Phonon–Point-Defect Scattering , 2019, Physical Review Applied.
[28] D. Darminto,et al. Comparation of X-ray diffraction pattern refinement using Rietica and MAUD of ZnO nanoparticles and nanorods , 2019, Journal of Physics: Conference Series.
[29] Prashant Sahu,et al. Analyzing transport properties of p-type Mg2Si–Mg2Sn solid solutions: optimization of thermoelectric performance and insight into the electronic band structure , 2019, Journal of Materials Chemistry A.
[30] J. Heremans,et al. Optimization of the figure of merit in Bi100−xSbx/Al2O3 nanocomposites , 2018, Physical Review Materials.
[31] S. Pantelides,et al. Constructing Highly Porous Thermoelectric Monoliths with High-Performance and Improved Portability from Solution-Synthesized Shape-Controlled Nanocrystals. , 2018, Nano letters.
[32] Tomoaki Yamada,et al. Control of Mg content and carrier concentration via post annealing under different Mg partial pressures for Sb-doped Mg2Si thermoelectric material , 2018 .
[33] Z. Ren,et al. Recent progress in p-type thermoelectric magnesium silicide based solid solutions , 2017 .
[34] Biao Xu,et al. Highly Porous Thermoelectric Nanocomposites with Low Thermal Conductivity and High Figure of Merit from Large-Scale Solution-Synthesized Bi2 Te2.5 Se0.5 Hollow Nanostructures. , 2017, Angewandte Chemie.
[35] Xinbing Zhao,et al. Significant Roles of Intrinsic Point Defects in Mg2X (X = Si, Ge, Sn) Thermoelectric Materials , 2016 .
[36] S. Grasso,et al. Enhanced thermoelectric performance of porous magnesium tin silicide prepared using pressure-less spark plasma sintering , 2015 .
[37] J. Toboła,et al. KKR–CPA study of electronic structure and relative stability of Mg2X (X = Si, Ge, Sn) thermoelectrics containing point defects , 2015 .
[38] Y. Miyazaki,et al. Quantitative analysis of interstitial Mg in Mg2Si studied by single crystal X-ray diffraction , 2014 .
[39] X. Su,et al. Low effective mass and carrier concentration optimization for high performance p-type Mg2(1-x)Li2xSi0.3Sn0.7 solid solutions. , 2014, Physical chemistry chemical physics : PCCP.
[40] Xinbing Zhao,et al. High Performance Mg2(Si,Sn) Solid Solutions: a Point Defect Chemistry Approach to Enhancing Thermoelectric Properties , 2014 .
[41] W. Liu,et al. Advanced thermoelectrics governed by a single parabolic band: Mg2Si(0.3)Sn(0.7), a canonical example. , 2014, Physical chemistry chemical physics : PCCP.
[42] J. Bahk,et al. Electron transport modeling and energy filtering for efficient thermoelectric Mg2Si1-xSnx solid solutions , 2014 .
[43] J. Toboła,et al. Importance of relativistic effects in electronic structure and thermopower calculations for Mg 2 Si , Mg 2 Ge , and Mg 2 Sn , 2014, 1401.4376.
[44] H. Scherrer,et al. STUDY OF ELECTRON, PHONON AND CRYSTAL STABILITY VERSUS THERMOELECTRIC PROPERTIES IN Mg2X (X = Si, Sn) COMPOUNDS AND THEIR ALLOYS , 2013 .
[45] Wei Liu,et al. Convergence of conduction bands as a means of enhancing thermoelectric performance of n-type Mg2Si(1-x)Sn(x) solid solutions. , 2012, Physical review letters.
[46] Xinbing Zhao,et al. Miscibility gap and thermoelectric properties of ecofriendly Mg_2Si_1−xSn_x (0.1 ≤ x ≤ 0.8) solid solutions by flux method , 2011 .
[47] C. Uher,et al. Optimized Thermoelectric Properties of Sb-Doped Mg2(1+z)Si0.5–ySn0.5Sby through Adjustment of the Mg Content , 2011 .
[48] Ján Minár,et al. Calculating condensed matter properties using the KKR-Green's function method—recent developments and applications , 2011 .
[49] J. Toboła,et al. A Theoretical Search for Efficient Dopants in Mg2X (X = Si, Ge, Sn) Thermoelectric Materials , 2011 .
[50] Y. Isoda,et al. Thermoelectric Properties of p-Type Mg2.00Si0.25Sn0.75 with Li and Ag Double Doping , 2010 .
[51] D. J. Bergman,et al. Thermoelectric properties of a composite medium , 1991 .
[52] W. Zawadzki. Thermomagnetic Effects in Semiconductors , 1962, 1962.
[53] J. Callaway. Model for Lattice Thermal Conductivity at Low Temperatures , 1959 .
[54] R. Parmenter. Symmetry Properties of the Energy Bands of the Zinc Blende Structure , 1955 .
[55] G. Dresselhaus. Spin-Orbit Coupling Effects in Zinc Blende Structures , 1955 .
[56] J. Bardeen,et al. Energy Bands and Mobilities in Monatomic Semiconductors , 1950 .
[57] Y. Miyazaki,et al. Enhanced Thermoelectric Performance of p-type Mg2Sn Single Crystals via Multi-scale Defect Engineering , 2023, Journal of Materials Chemistry A.
[58] Z. Chen,et al. Realizing High Thermoelectric Performance in Non-nanostructured n-type PbTe , 2022, Energy & Environmental Science.
[59] E. Hatzikraniotis,et al. Highly efficient Mg2Si-based thermoelectric materials: A review on the micro- and nanostructure properties and the role of alloying , 2021 .
[60] D. Rowe,et al. α-in σ plot as a thermoelectric material performance indicator , 1995 .
[61] E. Kane,et al. Band structure of indium antimonide , 1957 .