Faculty
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CHU Xiangcheng

Piezoelectric Materials and Actuators Group,
The State Key Lab. of New Ceramics and Fine Processing,
School of Materials Science and Engineering,
Tsinghua University, Beijing, P.R.China

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Education Background

• Ph.D. (1996~2000): Department of Electromechanical Control and Automation, Faculty of Mechatronic Engineering, Harbin Institute of Technology, China

• M.S. (1994~1996): Depart. of Electromechanical Control and Automation, Faculty of Mechatronic Engineering, Harbin Institute of Technology, China

• B.S. (1990~1994): Depart. of Precision Instrumentation, Faculty of Mechatronic Engineering, Harbin Institute of Technology, China

Work Resume

• Associate Professor (2003~now): School of Materials Science and Engineering, Tsinghua University, China

• Assistant Professor (2002~2003): Depart. of Materials Science and Engineering, Tsinghua University, ChinaPostdoctoral fellow (2000~2002): Depart. of Materials Science and Engineering, Tsinghua University, China

Part-time Academic Job

• IEEE member, 《IEEE Transactions on Ultrasonics, Ferroelectrics, and Frequency Control》Permanent Reviewer,

• Senior member of the Chinese Mechanical Engineering Society,

• Senior member of the Chinese Acoustic Society,

• Senior member of the Chinese Institute of Electronics

• Reviewer of Journals,《Small & Special Electrical Machines》、《Piezoelectrics & Acoustooptics》、《Journal of Harbin Engineering University》、《Nanotechnology and Precision Engineering》、《Acta Mechanica Sinica》、《Journal of Xi′an Jiaotong University》、《JMST》、《Chinese Journal of Acoustics》

Research Field

1、Piezoelectric Material and Multilayer Piezoelectric Ceramic(MPC)

 Co-fired Monolithic MPC and Applications
 Tape Casting Techniques of Piezoelectric Material
 Fatigue and Fracture of MPC Structures and Devices
 Theoretical Research and it’s Application of MPC and PVDF

2、Piezoelectric Devices and Applications
 Linear or Rotational Motion Piezoelectric Actuators and Ultrasonic Motors
 Slim Multilayer Piezoelectric Speaker
 High performance Multilayer Piezoelectric Transformer
 Micro Piezoelectric Manipulator with a Probe and Nanometer Resolution
 Monolithic Multilayer Piezoelectric Actuator for the Car Ejector
 MEMS-based Piezoelectric Micro Pump
 Piezoelectric Unimorph, Bimorph, Multimorph and Applications
 Piezoelectric Techniques for Zoom/Focus Mechanism of Cellular Phone
 Ultra-Small Piezoelectric Precision Positioning System
 Piezoelectric Micro Motor using MPC and Utra-low Driving Voltage
 Piezoelectric Active Control Technology of Liquid Deformation and Flow
 Piezoelectric Sensor and Touch-Screen Techniques

3、Simulation, Optimization and Measurement of Piezoelectric Structures and Devices
 FEM Analysis
 Measurement of Vibration and Temperature
 Acoustic Measurement (SPL,THD,etc) Piezoelectric Speaker
 Laser Doppler Scanning Technique for Vibration Modal Shapes

Research Situation

1. A Fundamental Research on Some Key Techniques of Ultrasonic Motors

The traveling wave type and standing wave type of ultrasonic motors driven by the frictional mechanism are researched as major objects in this project. The project includes as follows: considering the dynamic models of the ultrasonic motors as electromechanical couple systems, studying some optimal design methods of the structures and optimizing control techniques using multivariable, miniaturizing and integrating of the drivers, as well as developing some new types of ultrasonic motors with the patent rights. The investigative contents of the project comprise also other key techniques: improving efficiency, increasing lifetime, enhancing control accuracy and reducing noise level of the ultrasonic motors. The implementation of the project will provide theoretical and technical foundation for industrialization of the ultrasonic motors in China.

2. Optimization design technology of novel piezoelectric micro motor

As to application and industrialization, we come up against the same problems about the development of the novel micro piezoelectric motor with an outer diameter smaller than 3mm. In this item, a new type of piezoelectric micro motor with a rod-shaped ceramic stator and higher output torque, superior to conventional piezoelectric motors with a film or cylinder stator, has been fabricated. According to the vibration theory and piezoelectricity, vibration model of the prototype motor was measured using scanning laser vibrometer PSV300 and miniature driving circuit with excellent impedance matching was designed. Through laser Doppler technology and FEM, its structure was also optimized. The maximum output torque can reach to 0.4mNm for stainless steel stator and 0.35mNm for copper stator. The preload is about 270mN and the resonant frequency 57 to 62 kHz. This kind of motor may be applied in the fields of military industry, mobile telephone, robots, medical appliances, and aerospace, etc.

3. Two-DOF Precision Piezoelectric Positioning System for Optical Adjustments

A two degree-of-freedom precision positioner driven by two ?15 mm ultrasonic motors, which use wobble vibration modes and four ring-shaped piezoelectric wafers for each one. The ultrasonic motors are mounted on the one side and driven by two AC input voltages with a 90 degree phase shift and around 40 kHz resonant frequency. The other side of the positioner will be tilted by a thrust force of the screws, which are connected to the output axis of the ultrasonic motors. The positioner is capable to produce a small tilting angle resolution, 0.002°, displacement resolution 20 nm and driving force ~1 Kg. This two degree-of-freedom precision positioner can be applied in the fields of optical communication, laser modulation, etc.

4. Special Piezoelectric Actuators with a Mechanical Position Feedback     Ultrasonic motors with multi-points mechanical position feedback will be developed in this project. Among them, ?15 mm wobble ultrasonic motors and ?30 mm traveling wave ultrasonic motors are used to drive the fabricated MPF system, which has a fan-shaped movable element, disk-shaped mounted insulation plate with eight metallic points. Ultrasonic motors will stop at each contact point and restart by a high level from control system. The rotation time between two points is about 100 ms for ?15 mm ultrasonic motors and 150 ms for ?30 mm traveling wave ultrasonic motors. The outline of the circuit is about 70 mm ?50 mm and each circuit has two output terminals for two ultrasonic motors. Standard input voltage of the driver is 10~15VDC and input voltage of the motors is about 400Vp-p.

5. High Performance Multilayer Piezoelectric Transformer

Low-firing multiplayer piezoelectric transformer (MPT) was studied in Beijing Tsinghua University in the 1980’s. This kind of MPT has high voltage step-up ratio, low driving voltage and small size. Its voltage step-up ratio is ten times higher than that of conventional Rosen type single layer transformer. Recently, with the increasing requirement of backlight inverters of portable computers and other electronic instruments, the MPT has attracted significant interests. The low-firing MPT and its inverter have many advantages, such as a thin shape, small size, high transfer efficiency, non electromagnetic interference. A new type inverter used for the backlight driving of liquid crystal display in portable computer are being developed and commercialized.

6. Improve Aerodynamic Character of Aerofoil Using Micro-Oscillating Generator

Presently, applications of the piezoelectric microjet can be found in many fields of scientific instruments, industrial control, biomedicine, etc. Based on different injecting medium, there are two kinds of jet systems: piezoelectric liquid-jet and piezoelectric airflow-jet systems. The piezoelectric liquid-jet system has already been applied to the atomizing drug delivery system, biology mass spectrum analysis, jet printer, etc. while piezoelectric airflow jet system has many potential applications in the fields of electronic refrigeration, military industry, gesture rectification of micro/silicon planet, aerodynamic improvement of aerofoil, etc. A piezoelectric jet element with single nozzle is fabricated and measured in our group. Theoretical model of vibrating piezoelectric-metal composite shell used inside the piezoelectric micro airflow jet is established, and resonant frequency equations and vibrating displacement equations with axisymmetric vibration behavior can be obtained. Using energy method the resonant frequency of the vibrating composite structure is resolved. The detailed emulation calculation and experimental test are developed for the practical piezoelectric micro airflow jet. The experimental results of vibration modes, distribution of displacement and velocity are measured by Laser Doppler Vibrometer. The relationship between the vibrating amplitude and driving voltage is established. The geometrical parameter of the piezoelectric ceramic layer is optimized by FEM.

7. Research on diffuser/nozzle-based valve less piezoelectric pump

A simple structured micropump actuated by a piezoelectric ceramic actuator and fabricated with the silicon-based microelectromechanical system (MEMS) process is presented. The piezoelectric actuation has been employed for the deflection of the membranes because of its benefits, such as small size and no EMI in comparison with the other types, especially electromagnetic counterpart and so on. The micropump consists of silicon and glass by means of anodic bonding. The diffusers are used instead of passive check valves. To analyze the principle of the diffuser/nozzle-based valve less piezoelectric pump, and calculated the cone angle and diffusion ratio which have key influences on the pump performance using fluent software. The diffuser/nozzle-based valve less piezoelectric pump using conventional process has been fabricated by a master Miss. Li EZ in my group, see follows. And silicon-based micropump has been investigating by another doctoral candidate Mr. Wang BW in my group.

8. Various piezoelectric actuating elements and structures

Piezoelectric micro-structure (PMS) with a 5×5mm reflected face for a laser beam scanning has been fabricated using a conventional linear cutting process. This device consists of CuSn4-3 substrate, PZT5A piezoelectric bimorph, micro mechanical hinges, and reflected face. It can generate one-dimensional bending vibration modal shapes with various nodal lines, i.e. the 1st, 2nd and 3rd harmonic motion, which has been measured using Laser Scanning Vibrometer (LSV). The reflected face inside the device can be rotated with the dilatation of the piezoelectric bimorph. By means of analysis on slope coefficient of the reflected area, some factors that affect the scanning angle of the reflected face are investigated. The collected experimental data reveal that the maximum scanning angle of this piezoelectric micro structure ranges from -0.25° to +0.25° under an alternating current 5V. Such piezoelectric micro-structure can be optimized and, in the future, applied as an actuating element inside micro systems, laser modulation system, communication system. And the silicon based PMS and its application will be studied in the future.

9. Piezoelectric transducer for distance measurement

For the application of airborne distance sensing, a bimorph flexural structure is usually used. The maximum operation frequency is limited by the attenuation of sound waves in the air, which increases as the operation frequency increases, and is usually below 100 kHz for sensing distances up to 3 m. The operation frequencies also depend on the physical properties of the materials and transducer structure parameters. The ultrasonic performance of such a transducer, such a directivity of their beam and sound pressure at axial direction strongly depends on the vibration profiles of the transducer. A bimorph flexural PUT based on low-sintering piezoelectric ceramics PMN-PNN-PZT, which have high piezoelectric constant (d33>680pC/N), high electromechanical coupling factor (Kp=0.70~0.73), was fabricated.

10. Disk-Pivot Micro Piezoelectric Actuator Using Vibration Mode B11

Micro piezoelectric actuator using vibration mode B11 (Bmn, where m is the number of nodal circles, n is the nodal diameters) is designed. Different from conventional wobble-type ultrasonic motor using piezoelectric rod or cylinder, piezoelectric disc is used to excite wobble modes and metal cylinder stator is used to amplify the transverse displacement, metal rod rotor is actuated to rotate. The outer diameter of the actuator is 14 mm. There are features such as low drive voltage, micromation, and convenient control of wobble state by modifying the structure of stator, etc. Finite Element Analysis (FEA) of the stator has been made. It is found that the resonant frequency of vibration mode B11 is 49.03 kHz, which is measured at 45.7 kHz by the laser vibrometer and impedance analyzer. The rotation speed has been measured, which could be as high as 10071 rpm under an alternating current 100 V. Such piezoelectric actuator can be optimized and adjusted to fit practical conditions. It can be applied in the fields of precise instrument, bioengineering and other micro actuate system. Besides the above, 3 to 4 new types of micro motors with an outer diameter smaller 8mm and co-fired monolithic multilayer piezoelectric ceramic have been designed and studied by one postdoctor and two masters in my group.

11. Ultrasonic Motor with Slots on the Piezoelectric Vibration Converter

A vibration conversion type ultrasonic motor based on semiwave combined rod type piezoelectric vibrator is composed of rotor, stator, pre stretching mechanism and mechanical torque output mechanism. Said stator consists of the upper stator, piezoelectric plate, electrode plate and lower stator. Said rotor consists of friction disk in contact with the top end face of upper stator and a metallic disk adhered onto top surface of said friction disk. Said pre stretching mechanism is composed of rubber washer, spring washer and circular clip. Said mechanical torque output mechanism comprises shaft and upper and lower bearings.

The dynamic behavior of a vibration converter of an ultrasonic motor is described using finite element method. Tetrahedral finite elements with three dimensions are formulated with the effects of piezoelectric coupling. And the solution of the coupled electroelastic equations of dynamic motion is presented. The simulated response of the vibration converter is calculated, and shows excellent consistency with experimental results, which proved that finite element modeling is a good approach to optimize piezoelectric apparatus design. A gradual optimized method is employed to ascertain the most compatible structure.

12. Three-DOF multilayer piezoelectric micromanipulator with a probe

To satisfy the need for semiconductor, biomedicine, nanodevices, etc, micromanipulators have been considered as a key technique, which can manipulate objects in nana-scale. What’s more, they are small in size and can move smartly. The piezoelectric ceramics (PZT) is usually used as materials for micro-actuator, considering its simple structure, small size, lightweight and high resolution. We promote a novel model of 3-DOF multilayer PZT micromanipulator and simulate it with FEA (finite element analysis). States under different applied voltages were discussed, including the motion along axis Z and the rotation along axis X and the bisector between X-Y. After analyzing the distribution of stress, we propose some method, which helps to improve the capability of the micromanipulator. We also do some quantificational analysis about the micromanipulator, discovering that the relationship between the displacements of the probe and applied voltages is perfecting linear. Comparing the constant D defining the relationship of the displacements of the probe and applied voltages, it proves that the simulation is correct. We compare the capability between the single-layer and multi-layer PZT just only to show that the multi-layer PZT can reduce applied voltages producing the same displacement.

13. Vibration mechanism and multilayer structure of piezoelectric devices

The program focuses on the monolithic multilayer piezoelectric actuators and their applications, such as ultrasonic motors, automobile ejectors, etc. The outline of the prototype for automobile ejectors is 10x10x30 mm and ones of other ultrasonic motors are 2x2x3 mm to 5x5x4 mm. The monolithic multilayer structures are manufactured using tape casting technique. The vibration mechanism including vibration modes will be studied using scanning laser vibrometer and Finite Element Method. And the fatigue and other characters will also investigated using experimental and theoretical methods. Because of multilayer piezoelectric ceramic, the working voltage may be reduced from 200V inside previous prototypes to 20V. Only in this way, could transformer inside the circuit power be omitted and circuit outline scaled down. So the applications of piezoelectric actuators and motors could be expanded to more fields.

14. Ultra Slim Speaker (USS) based on Multilayer Piezoelectric Actuator

The thinner structure and lower power consumption are benefit for the customers. The ultra slim speakers studied in my group have such features as follows: ultra slim < 0.5 mm, small number of components, simple design, no magnetic field, lower power consumption. but now there are still challenges, for example, “spiky” frequency response, different application, high capacity load, processing technique, etc. i am supervising a master to overcome these problems and cooperating with some famous companies.

Awards And Honors

• 1998 1st Prize of China Instrument and Control Society Scholarship

• 2004 3rd Grade Awards of Science and Technology in Shaanxi Province of China

• 2006 New Star in Science and Technology by Beijing Municipal Science and Technology Commission (BEIJING NOVA PROGRAM )

• 2006 New Century Excellent Talents in University (NCET) by Ministry of Education of China

• 2007 3rd Grade Awards of Science and Technology of Chinese Institute of Electronics

Academic Achievements

1. Lin, YX, Yuan, SM, Liu, YY, Zhang, MK, Yuan, JZ, Zhang, ZP, Chu, XC, High-solid-loading Ti-6Al-4V slurries for DLP additive manufacturing enabled by particle-size grading and a non-reactive diluent, POWDER TECHNOLOGY, 2027, Volume 485. 影响因子:  5.5

2. Hu, YQ, Jin, HR, Chu, XC, Cao, R, Selective Multi-Source Transfer Learning and Ensemble Learning for Piezoelectric Actuator Feedforward Control , ACTUATORS, 2026, Volume 15, Issue 1. 2025影响因子:  2.4

3. Zhao, ZH, Yuan, SM, Chu, XC, Cao, R, Chen, MY, Jin, HR, Self-Sensing 2-DOF Positioning System With Hysteresis Compensation for Microscale Applications, IEEE TRANSACTIONS ON AUTOMATION SCIENCE AND ENGINEERING, 2026, Volume 23, Pages 2678-2689. 2025影响因子:  7.9

4. Qi, HM, Qin, SY, Zhang, ZP, Meng, ZF, Zheng, L, Wang, XC, Chu, XC, Wang, F, Zheng, L, Chen, XY, High-performance self-polarized PVDF film based on one-dimensional core-shell nanofiller and direct ink writing 3D printing, NANO ENERGY, 2026, Volume 150. 2025影响因子:  16.7

5. Hu, YQ, Jin, HR, Chu, XC, Yi, YL, Transfer Learning-Based Piezoelectric Actuators Feedforward Control with GRU-CNN , APPLIED SCIENCES-BASEL, 2026, Volume 16, Issue 3. 2025影响因子:  2.9

6. Yi, YL, Yang, QX, Zhou, XK, Han, XY, Chu, XC, Jin, HR Neural network-based inverse design for multi-objective performance optimization of 70 kHz ultrasonic transducers , MEASUREMENT SCIENCE AND TECHNOLOGY, 2026, Volume 37, Issue 19. 2025影响因子:  3.7

7. Zheng, L, Qin, SY, Wang, XC, Gong, H, Li, XL, Guo, YY, Meng, ZF, Ding, S, Li, N, Chu, XC, Chen, XY, Enhancing electret properties of stretchable FEP/Ecoflex triboelectric materials by quenching polarization, CHEMICAL ENGINEERING JOURNAL, 2026, Volume 542. 2025影响因子:  12.5

8. Niu, PB, Liu, YY, Zhang, ZP, Sun, CC, Wang, LY, Jiang, S, Chu, XC, Yuan, SM, Machine learning-assisted dimensional accuracy control in DLP-based fabrication of ceramic cores, AEROSPACE SCIENCE AND TECHNOLOGY, 2026, Volume 177. 2025影响因子:  6.4

9. Cao, R, Yi, YL, Zhou, XK, Han, XY, Chu, XC, Jin, HR, Design, modeling and testing of a decoupling 2-DOF PZT micro-positioning platform, MEASUREMENT SCIENCE AND TECHNOLOGY, 2026, Volume 37, Issue 28. 2025影响因子:  3.7

10. Liu, YY, Yuan, SM, Niu, PB, Zhang, ZP, Lin, YX, Zhang, MK, Chu, XC, Jiang, S, Temperature field assisted vat photopolymerization (TF-VPP)fabrication of high-strength, low-shrinkage silica-based ceramic cores: Effectsof spherical powders and vacuum debinding, JOURNAL OF ADVANCED CERAMICS, 2026, Volume 15, Issue 8. 2025影响因子:  14.0

11. 宜亚丽,旷庆文,陈美宇,秦越,韩雪艳,褚祥诚,金贺荣, 多层PZT陶瓷自热温度影响因素分析, 压电与声光, 2025, Volume 47, Issue 1, Pages 121-128

12. Cheng, Yangyang,Yi, Yali,Kuang, Qingwen,Chu, Xiangcheng,Jin, Herong Research on the influence of uniaxial stress on the properties of PbTiO3 using first-principles, Computational Materials Science, 2025, Volume 253. 2025影响因子:  3.7

13. Zhao, Hanqing,Liao, Qingwei,Li, Yinghao,Chu, Xiangcheng,Yuan, Songmei,Qin, Lei Additive manufacturing of silicon carbide microwave-absorbing metamaterials, Additive Manufacturing Frontiers, 2025, Volume 4, Issue 1.

14. Lin, YX, Yuan, SM, Sun, CC, Yuan, JZ, Zhang, MK, Liu, YY, Zhang, ZP, Chu, XC, Research on additive manufacturing of Ti-6Al-4V material based on digital light processing technology , MATERIALS SCIENCE AND ENGINEERING A-STRUCTURAL MATERIALS PROPERTIES MICROSTRUCTURE AND PROCESSING, 2025, Volume 945. 2025影响因子:  7.9

15. Liu, YY, Yuan, SM, Niu, PB, Zhang, ZP, Sun, CC, Lin, YX, Zhang, MK, Chu, XC, Multi-dimensional optimization of slurry and synergistic suppression of interlayer cracking by layer thickness in DLP 3D printing silica-based ceramic cores, CERAMICS INTERNATIONAL, 2025, Volume 51, Issue 26, Pages 48037-48051. 2025影响因子:  6.0

16. Si, W, Liao, QW, Wang, XY, Wang, ZH, Chu, Y, Sun, MN, Ran, ZT, Chu, XC, Qin, L Organic-inorganic piezoelectric single-crystal TMCM-2CdCl3 with high piezoelectric properties, CHEMICAL PHYSICS LETTERS, 2024, Volume 835. 2025影响因子:  2.9

17. Dong, XY, Yang, P, Liu, ZQ, Tao, XL, Qin, SY, Hu, J, Chu, XC, Wang, ZL, Chen, XY, Mass Transfer System of a Large Number of Small Objects Based on Conjunction of Triboelectric Nanogenerators and Photo-Responsive Interface, ADVANCED FUNCTIONAL MATERIALS, 2024, Volume 34, Issue 21. 2025影响因子:  19.9

18. Hu, YQ, Jin, HR, Chu, XC, Chen, MY, Modeling nonlinear behavior of piezoelectric actuators using improved WT-GRU neural network, JOURNAL OF INTELLIGENT MATERIAL SYSTEMS AND STRUCTURES, 2024, Volume 36, Issue 2, Pages 108-118. 2025影响因子:  2.7

19. Sun, CC, Chen, JQ, Yan, SH, Jiang, DM, Chu, XC, Yuan, SM Piezoelectric-pneumatic micro-jet printing of high viscous piezoelectric slurry, ADDITIVE MANUFACTURING, 2023, Volume 66. 2025影响因子:  11.3

20. Liao, Yaoyao,Yang, Hong,Liao, Qingwei,Si, Wei,Chu, Yu,Chu, Xiangcheng,Qin, Lei, A Review of Flexible Acceleration Sensors Based on Piezoelectric Materials: Performance Characterization, Parametric Analysis, Frontier Technologies, and Applications , Coatings, 2023, Volume 13, Issue 7. 2025影响因子:  3.4

21. Si, W, Liao, QW, Chu, Y, Zhang, ZW, Chu, XC, Qin, L, A multi-layer core-shell structure CoFe2O4@Fe3C@NiO composite with high broadband electromagnetic wave-absorption performance , NANOSCALE, 2023, Volume 15, Issue 40, Pages 16381-16389. 2025影响因子:  5.2

22. Qin, SY, Chen, JQ, Yang, P, Liu, ZQ, Tao, XL, Dong, XY, Hu, J, Chu, XC, Wang, ZL, Chen, XY, A Piezo-Tribovoltaic Nanogenerator with Ultrahigh Output Power Density and Dynamic Sensory Functions , ADVANCED ENERGY MATERIALS, 2023, Volume 14, Issue 2. 2025影响因子:  25.5

23. Shi, YX, Yang, P, Lei, R, Liu, ZQ, Dong, XY, Tao, XL, Chu, XC, Wang, ZL, Chen, XY. Eye tracking and eye expression decoding based on transparent, flexible and ultra-persistent electrostatic interface , NATURE COMMUNICATIONS, 2023, Volume 14, Issue 1. 2025影响因子:  18.1

24. 王阮彬,程丽乾,逯景桐,金若其,贺铭哲,闫树浩,蒋大梅,邓世捷,褚祥诚, 碳纤维增强BT-HA复合材料的制备与性能, 硅酸盐通报, 2022, Issue 3, Pages 253-260

25. Sun, CC, Chu, XC, Yan, SH, Ren, JZ, Chen, D, Jiang, DM, Yuan, SM, The Design and Evaluation of a High-Speed Jet Dispenser Driven by Single Piezoelectric Stack, IEEE TRANSACTIONS ON ULTRASONICS FERROELECTRICS AND FREQUENCY CONTROL, 2022, Volume 69, Issue 2, Pages 833-842. 2025影响因子:  4.0

26. Sun, CC, Chu, XC, Chen, JQ, Chen, D, Ren, JZ, Yuan, SM, The jetting process and spreading characteristics of the power-law fluids for material jetting process, SMART MATERIALS AND STRUCTURES, 2022, Volume 31, Issue 11. 2025影响因子:  3.8

27. Zhou, YM, Li, Q, Zhuo, FP, Xu, C, Yan, QF, Zhang, YL, Chu, XC, Multi-step domain switching and polarization fatigue in [110]-oriented 0.67Pb(Mg1/3Nb2/3)O-3-0.33PbTiO(3) single crystals, JOURNAL OF THE EUROPEAN CERAMIC SOCIETY, 2020, Volume 40, Issue 6, Pages 2345-2356. 2025影响因子:  6.3

28. Yan, Shuhao, Cui, Qianyue, Hao, Junjie, Sun, Chaochao, He, Mingzhe, Willhandy, Chu, Xiangcheng, Wang, Ruanbin, Dielectric, piezoelectric and dc bias characteristics of Bi-doped PZT multilayer ceramic actuator,Materials Chemistry and Physics, Published 2020, Volume 255. 2025影响因子:  5.2

29. Sun, CC, Chu, XC, Yan, SH, Zheng, XY, Liu, L, Wang, XM, Yuan, SM, Influence of input signal on injection performance for needle driven piezoelectric micro-jet device, MICROSYSTEM TECHNOLOGIES-MICRO-AND NANOSYSTEMS-INFORMATION STORAGE AND PROCESSING SYSTEMS, 2020, Volume 27, Issue 5, Pages 2009-2019. 2025影响因子:  1.9

30. Ji, YJ, Li, Q, Zhuo, FP, Yan, QF, Zhang, YL, Chu, XC Phase coexistence and broad depolarization response in (Pb,La)(Zr,Sn,Ti)O-3 single crystals, CERAMICS INTERNATIONAL, 2019, Volume 45, Issue 8, Pages 10394-10399. 2025影响因子:  6.0

31. Pan, JY, Men, TL, Xu, XY, Xu, Z, Li, Q, Chu, XC, Shen, Y, Han, B, Wang, K  Domain growth dynamics in PMN-PT ferroelectric thin films, JOURNAL OF MATERIALS SCIENCE, 2019, Volume 54, Issue 15, Pages 10600-10608. 2025影响因子:  4.4

32. Chu, XC, Zhang, MF, Yuan, SM, Zheng, XY, An Eight-Zonal Piezoelectric Tube-Type Threaded Ultrasonic Motor Based on Second-Order Bending Mode , APPLIED SCIENCES-BASEL, Published 2019, Volume 9, Issue 10. 2025影响因子:  2.9

33. Zhou, YM, Li, Q, Xu, C, Zhuo, FP, Liu, DL, Yan, QF, Zhang, YL, Chu, XC, Phase structure and quasi-single-domain mechanism in Pb(Mg1/3Nb2/3)O-3-xPbTiO(3) single crystals near morphotropic phase boundary, JOURNAL OF APPLIED PHYSICS, 2019, Volume 126, Issue 4. 2025影响因子:  2.7

34. Ji, YJ, Li, Q, Zhuo, FP, Yan, QF, Zhang, YL, Chu, XC, Reversible and High-Temperature-Stabilized Strain in (Pb,La)(Zr,Sn,Ti)O-3 Antiferroelectric Ceramics, ACS APPLIED MATERIALS & INTERFACES, 2019, Volume 11, Issue 35, Pages 32135-32143. 2025影响因子:  7.8

35. Zhou, Yaming, Li, Qiang, Zhuo, Fangping, Xu, Chao, Yan, Qingfeng, Zhang, Yiling, Chu, Xiangcheng, Domain switching and polarization fatigue in rhombohedral PIN-PMN-PT and Mn-doped PIN-PMN-PT single crystals, Journal of the American Ceramic Society, 2019, Volume 102, Issue 11, Pages 6668-6679. 2025影响因子:  4.2

36. Zhuo, Fangping, Li, Qiang, Zhou, Yaming, Ji, Yongjie, Yan, Qingfeng, Zhou, Yun, Damjanovic, Dragan, Zhang, Yiling, Chu, Xiangcheng, Giant shape memory and domain memory effects in antiferroelectric single crystals , Materials Horizons, 2019, Volume 6, Issue 8, Pages 1699-1706. 2025影响因子:  11.4

37. Chu, XC, Gao, SN, Zhang, MF, Zhong, ZJ, Zhao, YQ, Yuan, SM, Li, LT An L-shaped ultrasonic linear piezoelectric motor with two second-order bending coupling modes, FERROELECTRICS, 2018, Volume 524, Issue 1, Pages 67-78. 2025影响因子:  0.7

38. Zhuo, FP, Li, Q, Zhou, YM, Ji, YJ, Yan, QF, Zhang, YL, Xi, XQ, Chu, XC, Cao, WW, Large field-induced strain, giant strain memory effect, and high thermal stability energy storage in (Pb,La)(Zr,Sn,Ti)O-3 antiferroelectric single crystal, ACTA MATERIALIA, 2018, Volume 148, Pages 28-37. 2025影响因子:  10.7

39. Zhuo, FP, Li, Q, Qiao, HM, Yan, QF, Zhang, YL, Xi, XQ, Chu, XC, Long, XF, Cao, WW, Field-induced phase transitions and enhanced double negative electrocaloric effects in (Pb,La)( Zr,Sn,Ti)O-3 antiferroelectric single crystal, APPLIED PHYSICS LETTERS, 2018, Volume 112, Issue 13. 2025影响因子:  3.8

40. Zhou, YM, Li, Q, Zhuo, FP, Yan, QF, Zhang, YL, Chu, XC, Anisotropic field induced phase transitions and negative electrocaloric effect in rhombohedral Mn doped Pb(In1/2Nb1/2)O-3-Pb(Mg1/3Nb2/3)O-3-PbTiO3 single crystals, CERAMICS INTERNATIONAL, 2018, Volume 44, Issue 8, Pages 9045-9052. 2025影响因子:  6.0  

41. Zhou, YM, Li, Q, Xu, C, Zhuo, FP, Yan, QF, Zhang, YL, Chu, XC, Anisotropic domain switching in Pb(Mg1/3Nb2/3)O-3-0.30PbTiO(3) single crystals with rhombohedral structure, JOURNAL OF THE AMERICAN CERAMIC SOCIETY, 2018, Volume 101, Issue 7, Pages 3054-3064. 2025影响因子:  4.2

42. Zhou, YM, Li, Q, Xu, C, Luo, NN, Zhuo, FP, Yan, QF, Zhang, YL, Chu, XC, Field induced O-M-C phase transition and domain structure evolution in Pb(Mg1/3Nb2/3)O-3-0.34PbTiO(3) single crystals under radial poling, JOURNAL OF ALLOYS AND COMPOUNDS, 2018, Volume 762, Pages 222-230. 2025影响因子:  6.7

43. Zhou, YM, Li, Q, Xu, C, Zhuo, FP, Liu, DL, Yan, QF, Zhang, YL, Chu, XC, Anisotropic temperature-electric field phase diagrams and domain structure evolution in rhombohedral Mn-doped PIN-PMN-PT single crystals, CRYSTENGCOMM, 2018, Volume 20, Issue 35, Pages 5169-5179. 2025影响因子:  2.4

44. Zhuo, Fangping, Li, Qiang, Gao, Jinghan, Ji, Yongjie, Yan, Qingfeng, Zhang, Yiling, Xi, XiaoQing, Chu, Xiangcheng, Wu, HongHui, Cao, Wenwu, Giant Negative Electrocaloric Effect in (Pb,La)(Zr,Sn,Ti)O3 Antiferroelectrics Near Room Temperature, ACS Applied Materials and Interfaces, 2018, Volume 10, Issue 14, Pages 11747-11755. 2025影响因子:  7.8

45. Zhuo, FP, Li, Q, Li, YY, Gao, JH, Yan, QF, Zhang, YL, Xi, XQ, Chu, XC, Cao, WW, Field induced phase transitions and energy harvesting performance of (Pb,La)(Zr,Sn,Ti)O-3 single crystal, JOURNAL OF APPLIED PHYSICS, 2017, Volume 121, Issue 6, 31. 2025影响因子:  2.7  

46. Xu, C, Li, Q, Yan, QF, Zhang, YL, Chu, XC, Composition driven structural instability in perovskite ferroelectrics, AIP ADVANCES, 2017, Volume 7, Issue 4. 2025影响因子:  1.7

47. Zhuo, FP, Li, Q, Gao, JH, Yan, QF, Zhang, YL, Xi, XQ, Chu, XC, Phase transformations, anisotropic pyroelectric energy harvesting and electrocaloric properties of (Pb,La)(Zr,Sn,Ti)O-3 single crystals, PHYSICAL CHEMISTRY CHEMICAL PHYSICS, 2017, Volume 19, Issue 21, Pages 13534-13546. 2025影响因子:  3.0

48. Men, TL, Thong, HC, Li, JT, Li, M, Zhang, J, Zhong, V, Luo, J, Chu, XC, Wang, K, Li, JF.  Domain growth dynamics in (K, Na)NbO3 ferroelectric thin films, CERAMICS INTERNATIONAL, 2017, Volume 43, Issue 12, Pages 9538-9542. 2025影响因子:  6.0

49. Huang, SQ, Yang, Y, Liu, SW, Chu, XC, A large-diaphragm piezoelectric panel loudspeaker and its acoustic frequency response simulation method, APPLIED ACOUSTICS, 2017, Volume 125, Pages 176-183. 2025影响因子:  4.3

50. Zhuo, FP, Li, Q, Yan, QF, Zhang, YL, Wu, HH, Xi, XQ, Chu, XC, Cao, WW, Temperature induced phase transformations and negative electrocaloric effect in (Pb,La)(Zr,Sn,Ti)O-3 antiferroelectric single crystal, JOURNAL OF APPLIED PHYSICS, 2017, Volume 122, Issue 15. 2025影响因子:  2.7

51. Chu, XC, Gao, SN, Zhong, ZJ, Zhao, YQ, Li, LT, Design and experiments of a miniature piezoelectric actuator using a multilayer PZT bimorph, FERROELECTRICS, 2017, Volume 514, Issue 1, Pages 114-122. 2025影响因子:  0.7

52. Zhang, MaoHua, Wang, Ke, Zhou, JinSong, Chu, Xiangcheng, Li, JingFeng, Zhou, JiaJun, Lv, Xiang, Wu, Jiagang, Thermally stable piezoelectric properties of (K, Na)NbO3-based lead-free perovskite with rhombohedral-tetragonal coexisting phase, Acta Materialia, 2017, Volume 122, Pages 344-351. 2025影响因子:  10.7

53. Zhuo, FP, Li, Q, Gao, JH, Wang, YJ, Yan, QF, Zhang, YL, Xi, XQ, Chu, XC, Cao, WW, Coexistence of multiple positive and negative electrocaloric responses in (Pb, La)(Zr, Sn, Ti)O-3 single crystal, APPLIED PHYSICS LETTERS, 2016, Volume 108, Issue 8. 2025影响因子:  3.8

54. Zhuo, FP, Li, Q, Gao, JH, Wang, YJ, Yan, QF, Xia, ZG, Zhang, YL, Chu, XC, Structural phase transition, depolarization and enhanced pyroelectric properties of (Pb1-1.5xLax)(Zr0.66Sn0.23Ti0.11)O-3 solid solution, JOURNAL OF MATERIALS CHEMISTRY C, 2016, Volume 4, Issue 29, Pages 7110-7118. 2025影响因子:  5.1

55. Zhu, C, Chu, XC, Yuan, SM, Zhong, ZJ, Zhao, YQ, Gao, SN, Development of an ultrasonic linear motor with ultra-positioning capability and four driving feet, ULTRASONICS, 2016, Volume 72, Pages 66-72. 2025影响因子:  4.8

56. Zhuo, FP, Li, Q, Gao, JH, Wang, YJ, Yan, QF, Zhang, YL, Chu, XC, Electric Field-Induced Phase Transition Behaviors, Thermal Depolarization, and Enhanced Pyroelectric Properties of (Pb0.97La0.02)(ZrxSn0.89 (-) Ti-x(0.11))O-3 Ceramics, JOURNAL OF THE AMERICAN CERAMIC SOCIETY, 2016, Volume 99, Issue 6, Pages 2047-2054, 2025影响因子:  4.2

57. Xu, C, Li, Q, Yan, QF, Luo, NN, Zhang, YL, Chu, XC, Domain Structure Evolutions During the Poling Process for [011]-Oriented PMN-xPT Crystals Across the MPB Region, JOURNAL OF THE AMERICAN CERAMIC SOCIETY, 2016, Volume 99, Issue 6, Pages 2096-2102. 2025影响因子:  4.2

58. Yuan, SM, Zhao, YQ, Chu, XC, Zhu, C, Zhong, ZJ, Analysis and Experimental Research of a Multilayer Linear Piezoelectric Actuator, APPLIED SCIENCES-BASEL, 2016, Volume 6, Issue 8. 2025影响因子:  2.9

59. Zhao, YQ, Yuan, SM, Chu, XC, Gao, SN, Zhong, ZJ, Zhu, C, Ultrasonic micro-motor with multilayer piezoelectric ceramic and chamfered driving tips, REVIEW OF SCIENTIFIC INSTRUMENTS, 2016, Volume 87, Issue 9. 2025影响因子:  1.6  

60. Xu, C, Li, Q, Yan, QF, Luo, NN, Zhang, YL, Chu, XC, M-C Type Phase Structure and Temperature-Induced M-C-C Transition in the As-Grown PMN-0.36PT Single Crystal, JOURNAL OF THE AMERICAN CERAMIC SOCIETY, 2016, Volume 99, Issue 8, Pages 2706-2712. 2025影响因子:  4.2

61. Xu, C, Li, Q, Yan, QF, Zhang, YL, Chu, XC, Domain Reengineering of the [011]-Poled PMN-0.35PT Single Crystals for Dielectric Bolometer Arrays, JOURNAL OF THE AMERICAN CERAMIC SOCIETY, 2016, Volume 99, Issue 11, Pages 3508-3511. 2025影响因子:  4.2

62. Chu, XC, Zhong, ZJ, Zhu, C, Zhao, YQ, Li, LT, A novel low-voltage non-resonant piezoelectric linear actuator based on two alternative principles, FERROELECTRICS, 2016, Volume 505, Issue 1, Pages 147-158. 2025影响因子:  0.7

63. Huang, Daren, Yuan, Songmei, Chu, Xiangcheng, Cui, Hongchao, Zhang, Shulan, Design and experiment of a piezoelectric driven non-contact dispenser, Piezoelectrics and Acoustooptics, 2016, Volume 38, Issue 1, Pages 11-15

64. Zhong, Zuojin, Chu, Xiangcheng, Chen, Haichao, Zhang, Shulan, Cui, Hongchao, Zhou, Mei, A research review on the key technologies of piezoelectric inkjet printhead for tile decoration, Piezoelectrics and Acoustooptics, 2016, Volume 38, Issue 2, Pages 221-226.

65. Zhao, Yanqiang, Yuan, Songmei, Zhu, Cong, Chu, Xiangcheng, Zhong, Zuojin, A piezoelectric actuator with dual contacts at the end, Piezoelectrics and Acoustooptics, 2016, Volume 38, Issue 5, Pages 687-690.

66. Gao, RL, Chu, XC, Huan, Y, Zhong, ZJ, Wang, XH, Li, LT, Ceramic-electrode inter-diffusion of (K, Na)NbO3-based multilayer ceramics with Ag0.7Pd0.3 electrode, JOURNAL OF THE EUROPEAN CERAMIC SOCIETY, 2015, Volume 35, Issue 1, Pages 389-392. 2025影响因子:  6.3

67. Gao, JH, Li, Q, Liu, HR, Shim, J, Yan, QF, Zhang, YL, Chu, XC, Enhanced temperature stability in Tb-doped (Ba0.99Ca0.01)(Ti0.98Zr0.02)O-3 lead free ceramics, CERAMICS INTERNATIONAL, 2015, Volume 41, Issue 2, Pages 2497-2501. 2025影响因子:  6.0  

68. Chang, J, Shen, Y, Chu, XC, Zhang, XH, Song, Y, Lin, YH, Nan, CW, Li, LT, Large d(33) and enhanced ferroelectric/dielectric properties of poly(vinylidene fluoride)-based composites filled with Pb(Zr0.52Ti0.48)O-3 nanofibers, RSC ADVANCES, 2015, Volume 5, Issue 63, Pages 51302-51307. 2025影响因子:  6.1

69. Fang, HJ, Li, Q, Yang, ZL, Luo, NN, Geng, C, Zhang, YL, Chu, XC, Yan, QF, Effects of pre-polarization on the dielectric and piezoelectric properties of 0-3 type PIN-PMN-PT/PVDF composites, JOURNAL OF MATERIALS SCIENCE-MATERIALS IN ELECTRONICS, 2015, Volume 26, Issue 9, Pages 6427-6433. 2025影响因子:  3.2  

70. Gao, JH, Li, Q, Li, YY, Zhuo, FP, Yan, QF, Cao, WW, Xi, XQ, Zhang, YL, Chu, XC, Electric field induced phase transition and domain structure evolution in (Pb, La)(Zr, Sn, Ti)O-3 single crystal, APPLIED PHYSICS LETTERS, 2015, Volume 107, Issue 7. 2025影响因子:  3.8

71. Yuan, SM, Zhu, C, Chu, XC, Zhao, YQ, Amin, M, Fan, YL, A novel linear piezoelectric actuator with two working principles of standing and traveling wave vibration mode, AIP Advances, 2015, Volume 5, Issue 10. 2025影响因子:  1.7

72. Zhuo, FP, Li, Q, Li, YY, Gao, JH, Yan, QF, Zhang, YL, Chu, XC, Cao, WW, Effect of A-site La3+ modified on dielectric and energy storage properties in lead zironate stannate titanate ceramics, MATERIALS RESEARCH EXPRESS, 2014, Volume 1, Issue 4. 2025影响因子:  2.5

73. Gao, JH, Li, Q, Luo, NN, Yan, QF, Zhang, YL, Chu, XC, Synthesis and characterization of Pb(Mg1/3Nb2/3)O-3-PbTiO3 relaxor ferroelectrics modified by Ba(Mg1/3Nb2/3)O-3, CERAMICS INTERNATIONAL, 2014, Volume 40, Issue 1, Pages 487-493. 2025影响因子:  6.0

74. Li, YY, Cao, WW, Li, Q, Yan, QF, Gao, JH, Zhuo, FP, Xi, XQ, Zhang, YL, Chu, XC, Electric field induced metastable ferroelectric phase and its behavior in (Pb, La)(Zr, Sn, Ti)O-3 antiferroelectric single crystal near morphotropic phase boundary, APPLIED PHYSICS LETTERS, 2014, Volume 104, Issue 5. 2025影响因子:  3.8

75. Gao, RL, Chu, XC, Huan, Y, Wang, XH, Li, LT (K, Na) NbO3 based piezoceramics prepared by a two-step calcining and ball milling route, MATERIALS LETTERS, 2014, Volume 123, Pages 242-245. 2025影响因子:  2.6

76. Liu, HR, Li, Q, Li, YY, Luo, NN, Shim, J, Gao, JH, Yan, QF, Zhang, YL, Chu, XC, Structure Evolution and Electrical Properties of Y3+-Doped Ba1-xCaxZr0.07Ti0.93O3 Ceramics, JOURNAL OF THE AMERICAN CERAMIC SOCIETY, 2014, Volume 97, Issue 7, Pages 2076-2081. 2025影响因子:  4.2  

77. Chu, XC, Wang, JW, Yuan, SM, Li, LT, Cui, HC, A screw-thread-type ultrasonic actuator based on a Langevin piezoelectric vibrator, REVIEW OF SCIENTIFIC INSTRUMENTS, 2014, Volume 85, Issue 6, 2025影响因子:  1.6

78. Luo, NN, Li, Q, Yan, QF, Zhang, YL, Xia, ZG, Chu, XC, Structure, frequency dependent dielectric properties and domain configuration of PMN-PFN-PT single crystal, JOURNAL OF CRYSTAL GROWTH, 2014, Volume 401, Pages 414-417. 2025影响因子:  2.5

79. Gao, RL, Chu, XC, Huan, Y, Sun, YM, Liu, JY, Wang, XH, Li, LT A study on (K, Na) NbO3 based multilayer piezoelectric ceramics micro speaker, SMART MATERIALS AND STRUCTURES, 2014, Volume 23, Issue 10. 2025影响因子:  3.8

80. Jiang, T, Li, Q, Yan, QF, Luo, NN, Zhang, YL, Chu, XC, Composition and temperature dependence of ferroelectric and pyroelectric properties of (1-x)[PMN-PT(65/35)]-xPZ (0 <= x <= 0.10) ceramics, MATERIALS RESEARCH BULLETIN, 2014, Volume 59, Pages 421-424. 2025影响因子:  5.8  

81. Gao, RL, Chu, XC, Huan, Y, Wang, XH, Li, LT, Investigation on co-fired multilayer KNN-based lead-free piezoceramics, PHYSICA STATUS SOLIDI A-APPLICATIONS AND MATERIALS SCIENCE, 2014, Volume 211, Issue 10, Pages 2378-2383. 2025影响因子:  2.0

82. He, WH, Li, Q, Yan, QF, Luo, NN, Zhang, YL, Chu, XC, Shen, DH, Temperature-Dependent Phase Transition in Orthorhombic [011](c) Pb(Mg1/3Nb2/3) O-3-0.35PbTiO(3) Single Crystal, CRYSTALS, 2014, Volume 4, Issue 3, Pages 262-272. 2025影响因子:  2.9

83. 褚祥诚,仲作金,张红军,张淑兰,周梅,崔宏超,文军,钟敏霖, 喷墨打印头陶瓷喷孔的皮秒激光加工研究, 佛山陶瓷, 2014, Issue 12, Pages 24-26+48

84. Chu, XC, Gao, RL, Huan, Y, Wang, XH, Li, LT Effects of the Co-Addition of Li, Sb, Ta on the Phase Structure and Piezoelectric Properties of (Na, K) NbO3 Lead Free Piezoceramics, RARE METAL MATERIALS AND ENGINEERING, 2013, Volume 42, Pages 130-134. 2025影响因子:  1.2

85. Lin, W, Chu, XC, Liu, JY, Li, LG Research on the Piezoelectric Touch Panel Based on PVDF, RARE METAL MATERIALS AND ENGINEERING, 2013, Volume 42, Pages 139-141, 2025影响因子:  1.2

86. Gao, Y, Hu, MZ, Chu, XC, Yan, QF Morphology evolution, growth mechanism and optical properties of AlN nanostructures, JOURNAL OF MATERIALS SCIENCE-MATERIALS IN ELECTRONICS, 2013, Volume 24, Issue 10, Pages 4008-4013. 2025影响因子:  3.2

87. Chu, XC, Liu, JY, Gao, RL, Chang, J, Li, LT Design and analysis of a piezoelectric material based touch screen with additional pressure and its acceleration measurement functions, SMART MATERIALS AND STRUCTURES, 2013, Volume 22, Issue 12. 2025影响因子:  3.8

88. Guo, Dong, Chen, Xiaosui, Chu, Xiangcheng, Zeng, Fei, Bai, Yang, Cao, Jiangli, Dkhil, Brahim, In situ observation of the nanocrystal growth and their piezoelectric performance change in P(VDF-TrFE) films by hot stage piezoresponse force microscopy, Journal of Applied Physics, 2013, Volume 113, Issue 18. 2025影响因子:  2.7

89. Chu, Xiangcheng, Xu, Yanan, Yuan, Songmei, Wang, Ling, Li, Longtu, Liu, Ming, A novel WIM sensor for highway based on PVDF piezoelectric material, Journal of Vibration, Measurement and Diagnosis, 2013, Volume 33, Issue 3, Pages 351-356.

90. Liao, Qingwei, Chen, Xiaosui, Guo, Dong, Chu, Xiangcheng, Zeng, Fei, Effect of Fe doping on the structure and electric properties of relaxor type BSPT-PZN piezoelectric ceramics near the morphotropic phase boundary, Sensors and Actuators, A: Physical, 2013, Volume 201, Pages 222-229. 2025影响因子:  5.1

91. Chen, Xiaosui, Guo, Dong, Chu, Xiangcheng, Zeng, Fei, Huang, Jeffie     Less

Poly(vinylidene fluoride-trifluoroethylene) nanowires with highly anisotropic piezoelectric response fabricated from melt phase, Science of Advanced Materials, 2013, Volume 5, Issue 8, Pages 915-920.

92. Yan, Lutao, Hou, Jingfeng, Yang, Zhipeng, Chu, Xiangcheng, Design and experimental characterization of a vibration energy harvesting device for rotational systems, Advances in Mechanical Engineering, 2013, Volume 2013. 2025影响因子:  2.3

93. Liu, HR, Li, Q, Ma, J, Chu, XC Effects of Bi3+ content and grain size on electrical properties of SrBi2Ta2O9 ceramic, MATERIALS LETTERS, 2012, Volume 76, Pages 21-24. 2025影响因子:  2.6

94. Li, YY, Li, Q, Wang, L, Yang, Z, Gao, JH, Chu, XC, Domain, dielectric and optical studies in antiferroelectric (Pb, La) (Zr, Sn, Ti)O-3 single crystals, SOLID STATE COMMUNICATIONS, 2012, Volume 152, Issue 18, Pages 1791-1794. 2025影响因子:  2.8

95. Li, YY, Li, Q, Yan, QF, Zhang, YL, Xi, XQ, Chu, XC, Cao, WW, Phase transitions and domain evolution in (Pb, La)(Zr, Sn, Ti)O-3 single crystal, APPLIED PHYSICS LETTERS, Published 2012, Volume 101, Issue 13. 2025影响因子:  3.8

96. Luo, NN, Li, Q, Xia, ZG, Chu, XC, Phase Diagram, Temperature Stability, and Electrical Properties of (0.85-x)Pb(Mg1/3Nb2/3)O3-0.10Pb(Fe1/2Nb1/2)O3-0.05PbZrO3-xPbTiO3 System, JOURNAL OF THE AMERICAN CERAMIC SOCIETY, 2012, Volume 95, Issue 10, Pages 3246-3253. 2025影响因子:  4.2

97. Xu, Yanan, Chu, Xiangcheng,Piezoceramic stack actuators for micropositioning stage, Key Engineering Materials, 2012, Volume 512-515, Pages 1337-1341.

98. Li, Q, Zhang, YL, Xia, ZG, Chu, XC, MPB design and crystal growth of PMN-PT-PZ relaxor ferroelectrics, JOURNAL OF CRYSTAL GROWTH, 2011, Volume 318, Issue 1, Pages 851-855. 2025影响因子:  2.5

99. Li, YY, Li, Q, Wang, L, Yang, Z, Chu, XC, Growth and characterization of (Pb, La)(Zr, Sn, Ti)O-3 single crystals, JOURNAL OF CRYSTAL GROWTH, 2011, Volume 318, Issue 1, Pages 860-864. 2025影响因子:  2.5

100. Ding, LD, Chu, XC, Li, LT Environmental Stability of the Step-Down Multilayer Piezoelectric Transformer, RARE METAL MATERIALS AND ENGINEERING, 2011, Volume 40, Pages 455-458. 2025影响因子:  1.2

101. Chu, Xiangcheng, Ding, Lidan, Meng, Xiangyu, Li, Longtu, Vibration and temperature measuring experiments on multilayer piezoelectric actuator, Advanced Materials Research, 2011, Volume 177, Pages 306-309.

102. Wang, Li, Zuo, Ruzhong, Liu, Longdong, Su, Hailin, Shi, Min, Chu, Xiangcheng, Wang, Xiaohui, Li, Longtu, Preparation and characterization of sol-gel derived (Li,Ta,Sb) modified (K,Na)NbO3 lead-free ferroelectric thin films, Materials Chemistry and Physics, 2011, Volume 130, Issue 1-2, Pages 165-169. 2025影响因子:  5.2

103. Yuan, Songmei, Huang, Shouqing, Chu, Xiangcheng, Gao, Renlong, Optimization methods for acoustic performance of piezoelectric panel loudspeaker, Proceedings of 2011 International Conference on Electronic and Mechanical Engineering and   Technology, EMEIT 2011, 2011, Volume 1, Pages 332-337.

104. Zuo, Ruzhong, Liu, Yi, Su, Shi, Chu, Xiangcheng, Wang, Xiaohui Phase transformation behavior and electrical properties of Pb(Zr 0.56Ti0.44)O3-Bi(Zn0.5Ti 0.5)O3 solid solution ceramics, Journal of the American Ceramic Society, 2011, Volume 94, Issue 12, Pages 4340-4344. 2025影响因子:  4.2

105. Chu, XC, Chen, XY, Ma, L, Li, LT, A MINIATURE HIGH-SPEED PIEZOELECTIRC MOTOR WITH A DISK-PIVOT STRUCTURE, INTERNATIONAL JOURNAL OF MODERN PHYSICS B, 2010, Volume 24, Issue 15-16, Pages 2404-2409. 2025影响因子:  2.3

106. Chu, XC, Meng, XY, Li, LT, The Design and Test of a New Kind of Piezoelectric Motor Based on Standing Wave and Multilayer, FERROELECTRICS, Published 2010, Volume 409, Issue 1, Pages 168-174. 2025影响因子:  0.7

107. Yuan, Songmei, Huang, Shouqing, Chu, Xiangcheng, Bi, Xiaopeng, Li, Longtu, Theoretical and experimental study on panel piezoelectric loudspeaker,  Piezoelectrics and Acoustooptics, 2010, Volume 32, Issue 6, Pages 978-984.

108. Chu, XC, Wu, JF, Xu, ZH, Li, LT, Vibration and Fatigue of Multilayer Piezoelectric Transformer, RARE METAL MATERIALS AND ENGINEERING, 2009, Volume 38, Pages 226-229. 2025影响因子:  1.2

109. Chen, XY, Chu, XC, Li, LT, Design and Experimental Study of Piezoelectric Ceramics Linear Motor, RARE METAL MATERIALS AND ENGINEERING, 2009, Volume 38, Pages 241-244. 2025影响因子:  1.2

110. Wu, JF, Chu, XC, Ji, Y, Zhong, L, Li, LT, Design and Property of a Square Cylinder Type Piezoelectric Ultrasonic Micromotor, RARE METAL MATERIALS AND ENGINEERING, 2009, Volume 38, Pages 245-248. 2025影响因子:  1.2

111. Chu, Xiangcheng, Bi, Xiaopeng, Li, Longtu, Relevant basic scientific issues in multi-layer piezoelectric ceramics, Journal of the Chinese Ceramic Society, 2009, Volume 37, Issue 6, Pages 1055-1062.

112. Bi, Xiao-Peng, Chu, Xiang-Cheng, Ji, Ye, Li, Long-Tu, Structural design and experimental research of a novel piezoelectric actuator, Journal of Synthetic Crystals, 2009, Volume 38, Issue 1, Pages 25-27.

113. Meng, Xiang-Yu, Chu, Xiang-Cheng, Bi, Xiao-Peng, Li, Long-Tu, Process and analysis of multilayer piezoelectric ceramic for micro-motor, Journal of Synthetic Crystals, Published 2009, Volume 38, Issue 1, Pages 72-76.

114. Yuan, Song-Mei, Tang, Zhuang-Yun, Chu, Xiang-Cheng, Research on the microparticales' manipulation using piezoelectric devices, Joint Conference of the 2009 Symposium on Piezoelectricity, Acoustic Waves, and Device Applications, SPAWDA 2009 and 2009 China Symposium on Frequency Control Technology, 2009, Pages 448-451.

115. Yuan, Song-Mei, Zha, Hai-Yong, Chu, Xiang-Cheng, The principle and structure of a screw drive piezoelectric motor, Joint Conference of the 2009 Symposium on Piezoelectricity, Acoustic Waves, and Device Applications, SPAWDA 2009 and 2009 China Symposium on Frequency Control Technology, 2009, Pages 462-465.

116. Chu, Xiang-Cheng, Chen, Xiang-Yu, Li, Long-Tu, A miniature disk-pivot piezoelectric motor with double rotors, Joint Conference of the 2009 Symposium on Piezoelectricity, Acoustic Waves, and Device Applications, SPAWDA 2009 and 2009 China Symposium on Frequency Control Technology, 2009, Pages 466-469.

117. Wang, BW, Chu, XC, Li, EZ, Li, LT, Gui, ZL, Properties of (Na,Bi)TiO(3)-Ba(Zr,Ti)O(3) Lead-Free Piezoelectric Ceramic, RARE METAL MATERIALS AND ENGINEERING[1002-185X], 2008, Volume 37, Pages 493-495. 2025影响因子:  1.2

118. Chu, XC, Ma, L, Yuan, SM, Li, MK, Li, LT, Two-dimensional optical scanning of a piezoelectric cantilever actuator, JOURNAL OF ELECTROCERAMICS, 2008, Volume 21, Issue 1-4, Pages 774-777. 2025影响因子:  2.7  

119. Chu, Xiangcheng, Long, Ma., Li, Longtu, Gui, Zhilun, A micro piezoelectric motor with a disk-pivot structure, Key Engineering Materials, 2008, Volume 368-372, Pages 202-203.

120. Ji, Ye, Chu, Xiangcheng, Li, Longtu, Gui, Zhilun, A novel piezoelectric micro-motor using multilayer co-firing piezoelectric ceramics, Key Engineering Materials, 2008, Volume 368-372, Pages 208-210.

121. Chu, Xiangcheng, Huang, Jinding, Li, Longtu, Gui, Zhilun, Finite element analysis and design of monolithic multilayer piezoelectric micromanipulator, Key Engineering Materials, 2008, Volume 368-372, Pages 218-220.

122. Wang, Baowei, Chu, Xiangcheng, Li, Longtu, A piezoelectric micropump based on MEMS fabrication, Key Engineering Materials, 2008, Volume 368-372, Pages 215-217.

123. Yang, Gang, Yue, Zhenxing, Ji, Ye, Chu, Xiangcheng, Li, Longtu, Improvement of fatigue resistance for multilayer lead zirconate titanate (PZT)-based ceramic actuators by external mechanical loads, Journal of Applied Physics, 2008, Volume 104, Issue 12. 2025影响因子:  2.7

124. Li, Long-Tu, Wu, Jun-Fei, Chu, Xiang-Cheng, Ji, Ye, Finite element analysis and experiment on piezoelectric bimorph, Optics and Precision Engineering, 2008, Volume 16, Issue 12, Pages 2378-2383.

125. Chu, Xiang-Cheng, Chen, Xiang-Yu, Li, Long-Tu, Disk-pivot structure micro piezoelectric actuator with bimorph, Optics and Precision Engineering, 2008, Volume 16, Issue 12, Pages 2366-2370.

126. Chu, Xiang-Cheng, Wu, Jun-Fei, Li, Long-Tu, Zhao, Shi-Xi, Zhong, Liang, Preparation of lead free knlnts piezoelectric ceramics by molten salt synthesis and its application, 2008 Symposium on Piezoelectricity, Acoustic Waves, and Device Applications, SPAWDA 2008, 2008, Pages 519-523.

127. Chu, Xiang-Cheng, Wu, Jun-Fei, Xu, Zhi-Han, Li, Long-Tu, Experiment research on multilayer piezoelectric transformer, 2008 Symposium on Piezoelectricity, Acoustic Waves, and Device Applications, SPAWDA 2008, 2008, Pages 524-527.

128. Gong, Wen, Chu, Xiangcheng, Li, Jing-Feng, Li, Longtu, Properties of (001)-textured Pb(Mg1/3Nb2/3)O 3-PbTiO3 thin films, Journal of Electroceramics, 2008, Volume 21, Issue 1-4, Pages 672-676. 2025影响因子:  2.7

129. Wang, BW, Chu, XC, Li, EZ, Li, LT, Gui, ZL, Preparation and properties of K doped (Bi,Na)TiO3-Ba(Zr,Ti)O-3 lead-free piezoelectric ceramic, RARE METAL MATERIALS AND ENGINEERING, 2007, Volume 36, Pages 425-427. 2025影响因子:  1.2

130. Chu, XC, Huang, JD, Li, SX, Li, LT, Gui, ZL, Simulation of 3-DOF multilayer piezoelectric micromanipulator, RARE METAL MATERIALS AND ENGINEERING, 2007, Volume 36, Pages 513-516. 2025影响因子:  1.2  

131. Chu, Xiangcheng, Yan, Renbo, Gong, Wen, Li, Longtu, Analysis of dynamic response for piezoelectric vibration converter by finite element simulation, Key Engineering Materials, 2007, Volume 336-338, Pages 335-337.

132. Li, Longtu, Zhang, Ningxin, Bai, Chenyang, Chu, Xiangcheng, Gui, Zhilun, Multilayer piezoelectric ceramic transformer with low temperature sintering, Frontiers of Ferroelectricity: A Special Issue of the Journal of Materials Science, 2007, Pages 155-161

133. Chu, XC, Ma, L, Li, LT, A disk-pivot structure micro piezoelectric actuator using vibration mode B-11, ULTRASONICS, 2006, Volume 44, Pages E561-E564. 2025影响因子:  4.8

134. Wang, BW, Chu, XC, Li, EZ, Li, LT, Simulations and analysis of a piezoelectric micropump, ULTRASONICS, 2006, Volume 44, Pages E643-E646. 2025影响因子:  4.8

135. Li, Longtu, Zhang, Ningxin, Bai, Chenyang, Chu, Xiangcheng, Gui, Zhilun, Multilayer piezoelectric ceramic transformer with low temperature sintering, Journal of Materials Science, 2006, Volume 41, Issue 1, Pages 155-161. 2025影响因子:  4.4

136. Gong, Wen, Li, Jing-Feng, Chu, Xiangcheng, Li, Longtu, Preparation and characterization of Pb(Zr,Ti)O3 films on SrTiO3 substrates, Materials Science Forum, 2005, Volume 475-479, Issue II, Pages 1583-1586.

137. Chu, Xiang-Cheng, Li, Long-Tu, Yuan, Song-Mei, A novel structural traveling wave piezoelectric motor with hollow body, Piezoelectrics and Acoustooptics, 2005, Volume 27, Issue 6, Pages 640-642.

138. Li, Enzhu, Chu, Xiangcheng, Li, Longtu, Gui, Zhilun, Study on the diffuser/nozzle-based valve less piezoelectric pump, Rare Metal Materials and Engineering, 2005, Volume 34, Issue 2, Pages 1034-1035. 2025影响因子:  1.2

139. Yan, Renbo, Chu, Xiangcheng, Li, Longtu, Gui, Zhilun, Vibration modes for annular stator of travelling wave ultrasonic motor, Rare Metal Materials and Engineering, 2005, Volume 34, Issue 2, Pages 1121. 2025影响因子:  1.2  

140. Gong, Wen, Chu, Xiangcheng, Li, Jing-Peng, Gui, Zhilun, Li, Longtu, Sol-gel process and properties of textured Pb(Zr, Ti)O3 films on silicon wafers, Key Engineering Materials, 2005, Volume 280-283, Issue I, Pages 239-242.

141. Chu, XC, Xing, ZP, Li, LT, Gui, ZL, High resolution miniaturized stepper ultrasonic motor using differential composite motion, ULTRASONICS, 2004, Volume 41, Issue 9, Pages 737-741. 2025影响因子:  4.8

142. Chu, XC, Yan, L, Li, LT, Characteristic analysis of an ultrasonic micromotor using a 3 mm diameter piezoelectric rod, SMART MATERIALS & STRUCTURES, 2004, Volume 13, Issue 2, Pages N17-N23. 2025影响因子:  3.8

143. Gong, W, Li, JF, Chu, XC, Gui, ZL, Li, LT, Preparation and characterization of sol-gel derived (100)-textured Pb(Zr,Ti)O-3 thin films: PbO seeding role in the formation of preferential orientation, ACTA MATERIALIA, 2004, Volume 52, Issue 9, Pages 2787-2793. 2025影响因子:  10.7

144. Gong, W, Li, JF, Chu, XC, Gui, ZL, Li, LT, Combined effect of preferential orientation and Zr/Ti atomic ratio on electrical properties of Pb(ZrxTi1-x)O-3 thin films, JOURNAL OF APPLIED PHYSICS, 2004, Volume 96, Issue 1, Pages 590-595. 2025影响因子:  2.7  

145. Chu, XC, Qiu, HY, Li, LT, Gui, ZL, Multi-DOF and sub-micrometer piezoelectric-electrorheological stepper motor, SMART MATERIALS & STRUCTURES, 2004, Volume 13, Issue 4, Pages N51-N56. 2025影响因子:  3.8

146. Gong, W, Li, JF, Chu, XC, Gui, ZL, Li, LT, Single-crystal Nb-doped Pb(Zr,Ti)O-3 thin films on Nb-doped SrTiO3 wafers with different orientations, APPLIED PHYSICS LETTERS, 2004, Volume 85, Issue 17, Pages 3818-3820. 2025影响因子:  3.8

147. Gong, Wen, Li, Jing-Feng, Chu, Xiangcheng, Li, Longtu, Effect of pyrolysis temperature on preferential orientation and electrical properties of sol-gel derived lead zirconate titanate films, Journal of the European Ceramic Society, 2004, Volume 24, Issue 10-11, Pages 2977-2982. 2025影响因子:  6.3

148. Li, Longtu, Chu, Xiangcheng, Gui, Zhilun, Recent developments in low-fired piezoelectric ceramic multilayer transformer, Ceramic Transactions, 2004, Volume 150, Pages 351-358.

149. Gong, Wen, Li, Jing-Feng, Chu, Xiangcheng, Li, Longtu, Texture control of sol-gel derived Pb(Mg1/3Nb2/3 O3-PbTiO3 thin films using seeding layer. Journal of the American Ceramic Society, 2004, Volume 87, Issue 6, Pages 1031-1034. 2025影响因子:  4.2

150. Gong, W, Li, JF, Chu, XC, Gui, ZL, Li, LT, Preparation of (100)- and (111)-textured Pb(Zr,Ti)O-3 piezoelectric films and direct measurement of their piezoelectric constants, JAPANESE JOURNAL OF APPLIED PHYSICS PART 2-LETTERS, 2003, Volume 42, Issue 12A, Pages L1459-L1461. 2025影响因子:  1.7

151. Chu, XC, Yuan, SM, Li, LT, Gui, ZL, Laser Doppler vibration analysis of miniaturized piezoelectric scanning structure, RARE METAL MATERIALS AND ENGINEERING, 2003, Volume 32, Pages 602-604. 2025影响因子:  1.2

152. Li, EZ, Chu, XC, Gui, ZL, Li, LT, Vibration characteristics of a piezoelectric sensor for distance measurement. RARE METAL MATERIALS AND ENGINEERING, 2003, Volume 32, Pages 605-608. 2025影响因子:  1.2

153. Hu, XiaoBing, Li, LongTu, Chu, XiangCheng, Gui, ZhiLun, The resonance vibration properties of a bimorph flexural piezoelectric ultrasonic transducer for distance measurement. Materials Science and Engineering B: Solid-State Materials for Advanced Technology, 2003, Volume 99, Issue 1-3, Pages 316-320. 2025影响因子:  5.7

154. Chu, Xiangcheng, Xing, Zengping, Gong, Wen, Li, Longtu, Gui, Zhilun, Vibration analysis of stepping piezoelectric micro-motor using wiggle mode, Materials Science and Engineering B: Solid-State Materials for Advanced Technology, 2003, Volume 99, Issue 1-3, Pages 306-308. 2025影响因子:  5.7  

155. Gong, Wen, Li, Jing-Feng, Chu, Xiangcheng, Gui, Zhilun, Li, Longtu, Preparation of (100)- and (111)-textured Pb(Zr,Ti)O3 piezoelectric films and direct measurement of their piezoelectric constants, Japanese Journal of Applied Physics, Part 2: Letters, 2003, Volume 42, Issue 12 A, Pages L1459-L1461. 2025影响因子:  1.7

156. Hu, XB, Li, LT, Chu, XC, Gui, ZL, Analysis and measurement of the vibrations of multilayer piezoelectric transformer, HIGH-PERFORMANCE CERAMICS 2001, PROCEEDINGS, 2002, Volume 224-2, Pages 125-128.

157. Yan, L, Chu, XC, Dong, SX, Li, LT, Piezoelectric ceramic vibration modes and potential applications, HIGH-PERFORMANCE CERAMICS 2001, PROCEEDINGS, 2002, Volume 224-2, Pages 129-134.

158. Chu, XC, Yan, RB, Yan, L, Li, LT, A quantitative circuit model of the stator of piezoelectric ultrasonic motor, HIGH-PERFORMANCE CERAMICS 2001, PROCEEDINGS, 2002, Volume 224-2, Pages 135-138.

159. Li, Longtu, Xing, Zengping, Chu, Xiangcheng, Gui, Zhilun, A method of improving the resolution and torque of stepper Ultrasonic motor, IEEE International Symposium on Applications of Ferroelectrics, 2002, Pages 323-325.

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