邢慶子

● 1998--2003 清華大學工程物理系核技術及應用專業 工學博士

● 1994--1998 清華大學工程物理系工程物理專業 工學學士

● 2008.01--2008.03 日本KEK 訪問學者

● 2006--至今 清華大學工程物理系

● 2004--2006 清華大學物理系 博士後 ^[1] 

● 主講本科生課程《電磁場數值計算》。

● 參與講授研究生課程《加速器中的脈衝功率技術》。

● 目前指導在讀碩士生一名。 ^[1] 

● 核科學與技術學科，研究方向為加速器物理及應用。 ^[1] 

● 博士期間研究課題為“RFQ同時加速強流正負離子束的物理問題研究”，參與了“國家重點基礎研究發展規劃”潔淨核能項目中雙束加速的預研工作。

● 曾參與研究了使用變分法求解盤荷波導中的電磁場。

● 曾進行了向內發射同軸虛陰極振盪器的理論和數值模擬研究。

● 曾參加中國X射線自由電子激光試驗裝置（CTF）聯合設計組，參與了CTF-HGHG激光物理初步設計與計算的工作。

● 曾開展了不插入探針快速診斷腔鏈諧振狀態的研究。

● 曾開展了美國MSU FRIB RFQ加速器的高頻計算和水冷系統物理設計

● 曾開展了強流質子直線加速器前端關鍵技術及其RAMI技術的研究。

● 曾開展了四翼型變電壓RFQ加速器場調諧方法的研究。

在研工作：

● 清華大學工程物理系微型脈衝強子源（CPHS）強流質子直線加速器的研製

● 西安200MeV質子應用裝置（XiPAF）直線注入器的研製

[1] Q.Z. Xing, et al. The longitudinal “trapping” phenomenon in the simultaneous acceleration of intense H+ and H- in an RFQ. Nucl. Instr. and Meth. A 538 143~153(2005).

[2] Q.Z. Xing, et al. Two-dimensional theoretical analysis of the dominant frequency in the inward-emitting coaxial vircator. IEEE Trans. Plasma Sci., 2006, 34(3): 584~589

[3] J. Wu, Q.Z. Xing, et al. Field tuning and HOMs measurement of the 9-cell ICHIRO copper cavity model. 13th International Workshop on RF Superconductivity, Beijing, 2007

[4] Q.Z. Xing, et al. Mode analysis of high-power microwave generation in the inward-emitting coaxial Vircator based on computer simulation. IEEE Trans. Plasma Sci., 2009, 37(2): 298~303

[5] Q.Z. Xing, et al. Design of the CPHS RFQ Linac at Tsinghua University. Proceedings of IPAC10. 2010. 792~794

[6] Q.Z. Xing, et al. Development of the 3MeV RFQ for the compact pulsed hadron source at Tsinghua University. Proceedings of LINAC10. 2010

[7] Q.Z. Xing, et al. Spontaneous emission high-gain harmonic generation free-electron laser. Nucl. Instr. and Meth. A 637 S177~S182(2011)

[8] Q.Z. Xing, et al. Construction status of the CPHS RFQ at Tsinghua University. Proceedings of IPAC11. 2011.

[9] Q.Z. Xing, et al. A 3-MeV RFQ accelerator for the Compact Pulsed Hadron Source at Tsinghua University. Physics Procedia, 26(2012): 36~43

[10] J.C. Cai, Q.Z. Xing, et al. Design of the undercuts and dipole stabilizer rods for the CPHS RFQ accelerator. Chinese Physics C, 2012

[11] Q.Z. Xing, et al. Beam dynamics of the 13 MeV/50 mA proton linac for the Compact Pulsed Hadron Source at Tsinghua University. Proceedings of HB2012 conference. 2012

[12] Q.Z. Xing, et al. Tuning and Cold Test of a Four-Vane RFQ with Ramped Inter-Vane Voltage for the Compact Pulsed Hadron Source. CHIN. PHYS. LETT. Vol.30, No.5 (2013)052901

[13] Q.Z. Xing, et al. High power test and beam commissioning of the CPHS RFQ accelerator. Proceedings of IPAC13. 2013

[14] L. Du, X.L. Guan, C.X. Tang, Q.Z. Xing, Preliminary beam dynamics and structure design of one 50mA/CW RFQ with ramped inter-vane voltage. Proceedings of IPAC13. 2013

[15] L. Du, Q.Z. Xing, et al. A fast tuning method for a RFQ accelerator with ramped inter-vane voltage. Nucl. Instr. and Meth. A 726 91~95(2013).

[16] Q.Z. Xing, et al, CPHS Linac status at Tsinghua University. Proceedings of IPAC14. THPME023.

[17] J. Zeng, Q.Z. Xing, et al, Cooling design for the FRIB RFQ cavity at Michigan State University. Proceedings of IPAC14. THPME024.

[18] L. Du, Q.Z. Xing, et al, The design, construction and experiments of a RFQ cold model at Tsinghua University. Proceedings of IPAC14. THPRO095.

[19] Q.Z. Xing, et al, Present status of the high current proton linac at Tsinghua University and its beam measurements and applications. Proceedings of HB2014. TUO3AB01.

[20] Q.Z. Xing, et al., Present status of the 3MeV proton linac at Tsinghua University. Proceedings of LINAC14. THPP137.

[21] X.W. Wang, Q.Z. Sing, et al, Delivery of 3-MeV Proton and Neutron Beams at CPHS: A Status Report on Accelerator and Neutron Activities at Tsinghua University. Physics Procedia, 60(2014): 186~192

[22] Q.Z. Xing, et al, Design of the 7MeV linac injector for the 200MeV synchrotron of the Xi’an Proton Application Facility. Proceedings of IPAC16. MOPMW014.

[23] Q.Z. Xing, et al., Present status of the high current linac at Tsinghua University and its application. Proceedings of HB2016. WEAM3Y01. ^[1]