昂然，男，理学博士，研究员，博士生导师。

长期从事热电材料与器件、材料物理与化学、核技术及应用等交叉前沿领域的研究，形成了热电发电与制冷、热电传感、智能热管理等特色方向。在Nat. Commun., J. Am. Chem. Soc., Angew. Chem. Inter. Ed., Phys. Rev. Lett., Adv. Energy Mater., Adv. Funct. Mater., Energy Environ. Sci.等国际期刊发表SCI论文200余篇，其中影响因子大于10的论文70余篇，被Nature Index收录论文40余篇。应邀撰写英文综述论文4篇、英文专著章节1部，获授权国内发明专利10余项。主持国家重点研发计划重点专项课题、国家自然科学基金、省部级重点研发计划等多个项目，受邀国内外邀请报告70余次，担任大会主席或分会主席成功组织国际与国内学术会议4次。担任多个SCI期刊（包括Advances in Condensed Matter Physics、Chinese Physics Letters、Chinese Physics B、Acta Physica Sinica、Physics等）的客座主编和青年编委，并担任中国材料研究学会热电材料及应用分会理事。此外，多次受邀担任国家重点研发计划、国家高层次人才特殊支持计划、国家自然科学基金项目等重要评审专家。曾荣获“四川省学术和技术带头人”、“四川省有突出贡献的优秀专家”、“四川省高层次人才特聘专家”、“四川省青年科技奖”、“中国科学院创新交叉团队”、“四川大学青年科技人才奖”、“四川大学本科优秀毕业论文（设计）一等奖指导教师”、“四川大学优秀博士学位论文指导教师”等多项荣誉。

1999.09-2003.07：安徽师范大学物理系，物理学专业，学士。

2003.07-2008.07：中国科学院合肥物质科学研究院固体物理研究所，凝聚态物理，博士。

2008.07-2009.08：新加坡南洋理工大学电子与电气工程学院，博士后研究员。

2009.08-2010.07：新加坡国立大学电子与计算机学院，新加坡千年基金SMF博士后研究员。

2010.07-2010.11：新加坡南洋理工大学物理与数学科学学院，博士后研究员。

2010.11-2014.01：日本东北大学原子分子材料科学高等研究机构，日本学术振兴会JSPS特别研究员、助理研究员。

2014.01-2015.05：日本国家物质材料研究所，博士后研究员。

2015.05-至今：四川大学物理学院/原子核科学技术研究所，研究员、博导、课题组长。

主讲研究生课程：《材料改性技术》。已培养博士、硕士毕业生41名，其中获得博士学位16名、硕士学位25名。

热电材料与器件，材料物理与化学，能源与动力工程，人工智能及核技术应用

1.Q.Deng,R. Ang*et al.,Lattice defect engineering advances n-type PbSe thermoelectrics;Nat. Commun.16,656(2025).

2. Z. L. Zhao,R. Ang*et al.,Cooperative Nanostructuring and Resonant Density-of-States Engineering Enable High-Performance nType PbSe Thermoelectrics;J. Am. Chem. Soc.148, 17811-17823(2026).

3. J. L. Zhu,R. Ang*et al.,Synergistic Optimization of Electronic and Thermal Properties in Single-Stage GeTe Thermoelectric Devices;J. Am. Chem. Soc.147, 37555-37564(2025).

4. J. L. Zhu,R. Ang*et al.,Multi-Scale Lattice Strain Engineering Enables Reduced Deformation Potential and High Thermoelectric Performance in GeTe Alloys;Adv. Energy Mater.16, e71495(2026).

5. X. R. Rao,R. Ang*et al.,Dual Band Optimization and Defect Engineering Enable Ultrahigh Thermoelectric Performance in Filled Skutterudites;Adv. Energy Mater.16, e06357(2026).

6. F. Xu,B. Liu,R. Ang*,Advancing Thermoelectrics in Lead-Free Rhombohedral GeTe via Interfacial Engineering With MXene;Adv. Energy Mater.15, 2405554(2025).

7. J. L. Zhu,R. Ang*et al.,Multiphase Coherent Nanointerface Network Enhances Thermoelectric Performance for Efficient Energy Conversion and Contactless Thermosensation Applications in GeTe;Adv. Energy Mater.14, 2402552(2024).

8.Q.Deng,R. Ang*et al.,Ordered grain boundary reconstruction induces high-efficiency thermoelectric power generation in SnTe;Energy Environ. Sci.17, 9467-9478(2024).

9. J. L. Zhu,R. Ang*et al.,Valence Band Modification and Enhanced Phonon-Phonon Interactions for High Thermoelectric Performance in GeTe;Adv.Funct.Mater.35, 2417260(2025).

10. X. W. Zhao, B. Q. Fu,R. Ang*; Manipulating Pb Vacancies Achieved Ultra-High Thermoelectrics in Quaternary Pb_0.95Na_0.04Te_1-xSe_xvia Fine-Tuning Se Solubility;Adv. Funct. Mater.34, 2401582(2024).

11.Q.Deng,R. Ang*et al.,Unique Semi-Coherent Nanostructure Advancing Thermoelectrics of N-Type PbSe;Adv. Funct. Mater.34, 2310073(2024).

12. X. R. Rao,R. Ang*et al.,DualDecoupling Charge-Phonon Transport via Hierarchical Interface Reconstruction in Skutterudite Thermoelectrics;ACS Energy Lett.11, 6384-6395(2026).

13. X. B. Tan,R. Ang*et al.,Stabilized Cubic GeTe With Matched Grain-Boundary Networks and Band Convergence for High-Performance Dual-Mode Thermoelectric Devices;Adv. Sci.13, e76668(2026).

14. R. H. Li,R. Ang*et al.,Coupled Vacancy and Phonon-Scattering Engineering Drive Defect Evolution Toward Multifunctional High-Performance Bi₂Te₃Thermoelectrics;Adv. Sci.13, e75529(2026).

15. J. L. Zhu,R. Ang*et al.,Balancing Effective Mass and Carrier Mobility via Ga-Induced Multi-Band Valley Engineering in GeTe Thermoelectrics;Adv. Sci.13, e74427(2026).

16. R. H. Li,R. Ang*et al.,Cu₃SbSe₃-Alloying-Induced High Thermoelectric Performance and Mechanical Robustness in Bi₂Te₃-Based Thermoelectric Materials;Adv. Sci.12, e12417(2025).

17. X. B. Tan,R. Ang*et al.,Enhanced Band-Crystal Engineering Drives Superior Power Generation in GeTe;Adv. Sci.12, e06612(2025).

18. F. Xu,B. Liu,R. Ang*,Crystal symmetry-driven structural design for enhanced thermoelectric performance in lead-free cubic GeTe;Acta Mater.296, 121266(2025).

19. B. Z. Tian,R. Ang*et al.,Expanding thermoelectric horizons: Establishing correlations between thermoelectric parameters and multifunctional sensing signals;iScience28, 113549 (2025).(Cell Press)

20. B. Z. Tian,R. Ang*et al.,Multifunctional durable solid-state thermoelectricsensor enabled by interstitial Co doping inMg₃(Sb, Bi)₂;Device2, 100524 (2024).(Cell Press)

21.J. L.Zhu,R. Ang*et al.,Enhanced thermoelectric performance and mechanical strength in GeTe enable power generation and cooling;InfoMat6, e12514(2024).

22.Q.Deng,R. Ang*et al.,Ultra-high thermoelectric performance in ternary n-type PbTe collaboratively enabled by self-optimized carrier concentration and ultra-low lattice thermal conductivity;J.Mater.Sci.Tech.236,86-94(2025).

23. H. R. Feng,R. Ang*et al.,Annealing engineering induced high thermoelectric performance in Yb-filled CoSb₃skutterudites;J.Mater.Sci.Tech.150,168-174(2023).

24. Z. Y. Chen,R. Ang*et al.,Boosting thermoelectrics by alloying Cu₂Se in SnTe-CdTe compounds;J.Mater.Sci.Tech.89, 45-51 (2021).

25.F. J. Zhang,R. Ang*et al.,Lattice modulation and electronic band optimization in Q-doped SnTe-GeTe alloys (Q = Bi, Sb, and Ag);Sci. China Mater.66,3659-3669(2023).

26. B. Z. Tian,R. Ang*et al.,Thermoelectric composite hydrogels with ionic-electronic transport for bioactive energy harvesting and sensing;Nano Energy153, 111940(2026).

27. H. T. Liu,R. Ang*et al.,High-performance inn-type PbTe-based thermoelectric materials achieved by synergistically dynamic doping and energy filtering;Nano Energy91, 106706 (2022).

28.R. Anget al.,Atomistic origin of ordered superstructure induced superconductivity in layered chalcogenides;Nat.Commun.6, 6091 (2015).

29.R. Ang*et al.,Thermoelectricity generation and electron-magnon scattering in a natural chalcopyrite mineral from a deep-sea hydrothermal vent;Angew.Chem.Int.Ed.54, 12909-12913 (2015).

30.R. Ang*et al.,Real-space coexistence of the melted Mott state and superconductivity in Fe-substituted 1T-TaS₂;Phys.Rev.Lett.109, 176403 (2012).

一、研究生招生专业方向：

1.热电材料与器件

2.材料物理与化学

3.核技术及应用

二、招生要求：

1.申请硕士生或直博生，需本科就读于物理、材料、化学、电子、人工智能、计算机、核工程与核技术等相关专业。

2.申请普博生，硕士期间需具备凝聚态物理、半导体物理、材料、化学、人工智能、核工程与核技术等相关科研项目经验。