Review of Micro-bionic Robots

doi:10.3901/JME.2025.03.178

Abstract

Abstract: As a micro-electromechanical system with a size of centimeters or below, micro-bionic robots have the characteristics of small size, light weight and excellent portability. They are widely used in complex environments such as environmental detection, target search, reconnaissance and strike. In order to enable researchers to understand the research progress of micro-bionic robots, a summary and analysis of relevant literature in the past 15 years are conducted based on the world’s largest abstract and citation database Scopus, providing a visual depiction of the development trends in the field of micro-bionic robots. The general characteristics and research status of micro-bionic robots are summarized from the three key points of the bionic movement form, manufacturing technology and driving technology of micro-bionic robots, supplemented by the introduction of the special research direction of bio-electromechanical hybrid micro robots. The technical bottleneck of the development of micro-bionic robots is fully analyzed, and the development idea of energy-driving-sense-control full flexible integration is put forward, which promotes the innovative development of integrated manufacturing technology. Based on the military and anti-terrorism and riot control application background, the characteristics and advantages of micro-bionic robots are fully analyzed, and the combat application conception with micro-bionic robots as the core is carried out. In addition, the application of micro-bionic robots in civil life is discussed. Finally, the shortcomings and future development of the existing micro-bionic robots are discussed and summarized, which provides a valuable reference for the development of the micro-bionic robots technology and its military application prospect.

Key words: micro-bionic robots, driving technology, manufacturing technology, full flexible integration, military application

CLC Number:

TH39

LUO Zirong, HONG Yang, JIANG Tao, LIN Zening, YANG Yun, ZHU Qunwei. Review of Micro-bionic Robots[J]. Journal of Mechanical Engineering, 2025, 61(3): 178-196.

References

[1] ZHAO S，SUN D，ZHANG J，et al. Actuation and biomedical development of micro-/nanorobots-A review[J]. Materials Today Nano，2022，18:100223.
[2] SCHäTZLEIN E，BLAESER A. Recent trends in bioartificial muscle engineering and their applications in cultured meat，biorobotic systems and biohybrid implants[J]. Communications Biology，2022，5:737.
[3] 杨云，林泽宁，洪阳，等. 微型软体机器人能源驱动技术研究进展[J]. 国防科技大学学报，2023，45(3):76-85. YANG Yun，LIN Zening，HONG Yang，et al. Research progress of energy and actuator for micro-soft robots[J]. Journal of National University of Defense Technology，2023，45(3):76-85.
[4] 陶永，刘海涛，王田苗，等. 我国服务机器人技术研究进展与产业化发展趋势[J]. 机械工程学报，2022，58(18):56-74. TAO Yong，LIU Haitao，WANG Tianmiao，et al. Research progress and industrialization development trend of chinese service robot[J]. Journal of Mechanical Engineering，2022，58(18):56-74.
[5] 丁希仑，高海波，黄攀峰，等. 蓬勃发展的空间机器人技术与应用[J]. 机器人，2022，44(1):1. DING Xilun，GAO Haibo，HUANG Panfeng，et al. Booming space robotics and applications[J]. Robot，2022，44(1):1.
[6] 吴其林，赵韩，陈晓飞，等. 多臂协作机器人技术与应用现状及发展趋势[J]. 机械工程学报，2023，59(15):1-16. WU Qilin，ZHAO Han，CHEN Xiaofei，et al. Review of technology，application status and development trend in multi-arm cooperative robots[J]. Journal of Mechanical Engineering，2023，59(15):1-16.
[7] FEARING R S，WOOD R J. Challenges for 100 milligram flapping flight[J]. Flying Insects and Robots，2010(1):219-229.
[8] KOVAC M，FUCHS M，GUIGNARD A，et al. A miniature 7g jumping robot[C]// 2008 IEEE International Conference on Robotics and Automation. Pasadena:IEEE，2008:373-378.
[9] SHIN B，HA J，LEE M，et al. Hygrobot:A self-locomotive ratcheted actuator powered by environmental humidity[J]. Science Robotics，2018，3(14):eaar2629.
[10] TAKAGI K，YAMAMURA M，LUO Z W，et al. Development of a rajiform swimming robot using ionic polymer artificial muscles[C]// 2006 IEEE/RSJ International Conference on Intelligent Robots and Systems. Beijing:IEEE，2006:1861-1866.
[11] WEHNER M，TRUBY R L，FITZGERALD D J，et al. An integrated design and fabrication strategy for entirely soft，autonomous robots[J]. Nature，2016，536(7617):451-455.
[12] WHITNEY J P，SREETHARAN P S，MA K Y. Pop-up book MEMS[J]. Journal of Micromechanics and Microengineering，2011，21(11):115021.
[13] GAFFORD J B，KESNER S B，WOOD R J，et al. Microsurgical devices by Pop-Up book MEMS[C]// ASME 2013 International Design Engineering Technical Conferences and Computers and Information in Engineering Conference. Portland:ASME，2013:13086-13092.
[14] MALEKMOHAMMADI S，SEDGHI AMINABAD N，SABZI A，et al. Smart and biomimetic 3D and 4D printed composite hydrogels:Opportunities for different biomedical applications[J]. Biomedicines，2021，9(11):1537.
[15] HEIDEN A，PRENINGER D，LEHNER L，et al. 3D printing of resilient biogels for omnidirectional and exteroceptive soft actuators[J]. Science Robotics，2022，7(63):abk2119.
[16] SACHYANI KENETH E，KAMYSHNY A，TOTARO M，et al. 3D printing materials for soft robotics[J]. Advanced Materials，2021，33(19):2003387.
[17] MARAVEAS C，BAYER I S，BARTZANAS T. 4D printing:perspectives for the production of sustainable plastics for agriculture[J]. Biotechnology Advances，2022，54:107785.
[18] HONG Y，LIN Z，LUO Z，et al. Development of conductive hydrogels:from design mechanisms to frontier applications[J]. Bio-Design and Manufacturing，2022，5(4):729-756.
[19] KIM S，HSIAO Y H，LEE Y，et al. Laser-assisted failure recovery for dielectric elastomer actuators in aerial robots[J]. Science Robotics，2023，8(76):eadf4278.
[20] 李铁风，李国瑞，梁艺鸣，等. 软体机器人结构机理与驱动材料研究综述[J]. 力学学报，2016，48(4):756-766. LI Tiefeng，LI Guorui，LIANG Yiming，et al. Review of materials and structures in soft robotics[J]. Chinese Journal of Theoretical and Applied Mechanics，2016，48(4):756-766.
[21] 田爱芬，孙悦，王茜茜，等. IPMC柔性驱动材料研究进展[J]. 现代化工，2022，42(4):48-52. TIAN Aifen，SUN Yue，WNAG Qianqian，et al. Research progress on IPMC as flexible actuating material[J]. Modern Chemical Industry，2022，42(4):48-52.
[22] 雷静，葛正浩，覃兴蒙，等. 软体机器人驱动方式与制造工艺研究进展[J]. 微纳电子技术，2022，59(6):505-515. LEI Jing，GE Zhenghao，QIN Xingmeng，et al. Research progress on actuation mode and manufacturing process of soft robots[J]. Micronanoelectronic Technology，2022，59(6):505-515.
[23] MA Z，ZHAO J，YU L，et al. A review of energy supply for biomachine hybrid robots[J]. Cyborg and Bionic Systems，2023，4:0053.
[24] VO-DOAN T T，DUNG V T，SATO H. A cyborg insect reveals a function of a muscle in free flight[J]. Cyborg and Bionic Systems，2022，2022:9780504.
[25] XIA M，WANG H，YIN Q，et al. Design and mechanics of a composite wave-driven soft robotic fin for biomimetic amphibious robot[J]. Journal of Bionic Engineering，2023，20(3):934-952.
[26] AMIRHOSSEINI H，NAJAFI F. Design，prototyping and performance evaluation of a bio-inspired walking microrobot[J]. Iranian Journal of Science and Technology，Transactions of Mechanical Engineering，2020，44(3):799-811.
[27] JAYARAM K，SHUM J，CASTELLANOS S，et al. Scaling down an insect-size microrobot，HAMR-VI into HAMR-Jr[C]// 2020 IEEE International Conference on Robotics and Automation (ICRA). Paris:IEEE，2020:10305-10311.
[28] HOLLAR S，FLYNN A，BELLEW C，et al. Solar powered 10 mg silicon robot[C]// The Sixteenth Annual International Conference on Micro Electro Mechanical Systems，2003. Kyoto:IEEE，2003:706-711.
[29] BIRKMEYER P，PETERSON K，FEARING R S. DASH:a dynamic 16g hexapedal robot[C]// 2009 IEEE/RSJ International Conference on Intelligent Robots and Systems. St. Louis:IEEE，2009:2683-2689.
[30] BENA R M，YANG X，CALDERóN A A，et al. High-performance six-DOF flight control of the bee$^{++}$:an inclined-stroke-plane approach[J]. IEEE Transactions on Robotics，2023，39(2):1668-1684.
[31] REN Z，KIM S，JI X，et al. A high-lift micro-aerial-robot powered by low-voltage and long-endurance dielectric elastomer actuators[J]. Advanced Materials，2022，34(7):2106757.
[32] CHEN Y，LIU Y，LIU T，et al. Design and analysis of an untethered micro flapping robot which can glide on the water[J]. Science China Technological Sciences，2022，65:1749-1759.
[33] CHEN Y，ZHAO H，MAO J，et al. Controlled flight of a microrobot powered by soft artificial muscles[J]. Nature，2019，575(7782):324-329.
[34] WANG C，WANG S，DE CROON G，et al. Embodied airflow sensing for improved in-gust flight of flapping wing MAVs[J]. Frontiers in Robotics and AI，2022，9:1.
[35] CHEN R，YUAN Z，GUO J，et al. Legless soft robots capable of rapid，continuous，and steered jumping[J]. Nat. Commun，2021，12(1):7028.
[36] LOEPFE M，SCHUMACHER C M，LUSTENBERGER U B，et al. An untethered，jumping roly-poly soft robot driven by combustion[J]. Soft Robotics，2015，2(1):33-41.
[37] KOVAČ M，WASSIM H，FAURIA O，et al. The EPFL jumpglider:a hybrid jumping and gliding robot with rigid or folding wings[C]// 2011 IEEE International Conference on Robotics and Biomimetics. Karon Beach:IEEE，2011:1503-1508.
[38] FAN J Z，WANG S Q，YU Q G，et al. Swimming performance of the frog-inspired soft robot[J]. Soft Robot，2020，7(5):615-626.
[39] ZHU J，WHITE C，WAINWRIGHT D K，et al. Tuna robotics:A high-frequency experimental platform exploring the performance space of swimming fishes[J]. Science Robotics，2019，4(34):eaax4615.
[40] ZHAO Y，XUAN C，QIAN X，et al. Soft phototactic swimmer based on self-sustained hydrogel oscillator[J]. Science Robotics，2019，4(33):eaax7112.
[41] REN Z Y，HU W Q，DONG X G，et al. Multi-functional soft-bodied jellyfish-like swimming[J]. Nature Communications，2019，10:12.
[42] LI G R，CHEN X P，ZHOU F H，et al. Self-powered soft robot in the Mariana Trench[J]. Nature，2021，591(7848):66-71.
[43] CHEN Y A，DOSHI N A，GOLDBERG B A，et al. Controllable water surface to underwater transition through electrowetting in a hybrid terrestrial-aquatic microrobot[J]. Nature Communications，2018，9(1):2495.
[44] GOLDBERG B，ZUFFEREY R，DOSHI N，et al. Power and control autonomy for high-speed locomotion with an insect-scale legged robot[J]. IEEE Robotics and Automation Letters，2018，3(2):987-993.
[45] DE RIVAZ S D，GOLDBERG B，DOSHI N，et al. Inverted and vertical climbing of a quadrupedal microrobot using electroadhesion[J]. Science Robotics，2018，3(25):eaau3038.
[46] 中国科学院沈阳自动化研究所. 微型爬行机器人[EB/OL]. 2023-12-12]. http://rlab.sia.cas.cn/sptp/lu/202102/t20210203_624624.html. Shenyang Institute of Automation Chinese Academy of Sciences. Micro crawling robot[EB/OL]. 2023-12-12]. http://rlab.sia.cas.cn/sptp/lu/202102/t20210203_624624.html.
[47] LIN D J，WANG J Y，JIAO N I，et al. A flexible magnetically controlled continuum robot steering in the enlarged effective workspace with constraints for retrograde intrarenal surgery[J]. Advanced Intelligent Systems，2021，3(10):1.
[48] GE Z，DAI L，ZHAO J，et al. Bubble-based microrobots enable digital assembly of heterogeneous microtissue modules[J]. Biofabrication，2022，14(2):025023.
[49] DAI L，GE Z，JIAO N，et al. 2D to 3D manipulation and assembly of microstructures using optothermally generated surface bubble microrobots[J]. Small，2019，15(45):1902815.
[50] MA K Y，CHIRARATTANANON P，FULLER S B，et al. Controlled flight of a biologically inspired，insect-scale robot[J]. Science，2013，340(6132):603-607.
[51] GRAULE M A，CHIRARATTANANON P，FULLER S B，et al. Perching and takeoff of a robotic insect on overhangs using switchable electrostatic adhesion[J]. Science，2016，352(6288):978-982.
[52] CHEN Y，WANG H，HELBLING E，et al. A biologically inspired，flapping-wing，hybrid aerial-aquatic microrobot[J]. Science Robotics，2017，2(11):eaao5619.
[53] JAFFERIS N T，HELBLING E F，KARPELSON M，et al. Untethered flight of an insect-sized flapping-wing microscale aerial vehicle[J]. Nature，2019，570(7762):491-495.
[54] LOK M，HELBLING E F，ZHANG X，et al. A low mass power electronics unit to drive piezoelectric actuators for flying microrobots[J]. IEEE Transactions on Power Electronics，2018，33(4):3180-3191.
[55] OLEJNIK D A，MUIJRES F T，KARáSEK M，et al. Flying into the wind:Insects and bio-inspired micro-air-vehicles with a wing-stroke dihedral steer passively into wind-gusts[J]. Frontiers in Robotics and AI，2022，9:1.
[56] HALDANE D W，YIM J K，FEARING R S. Repetitive extreme-acceleration (14-g) spatial jumping with Salto-1P[C]// 2017 IEEE/RSJ International Conference on Intelligent Robots and Systems (IROS). Vancouver:IEEE，2017:3345-3351.
[57] YIM J K，FEARING R S. Precision jumping limits from flight-phase control in salto-1P[C]// 2018 IEEE/RSJ International Conference on Intelligent Robots and Systems (IROS). Madrid:IEEE，2018:2229-2236.
[58] YIM J K，SINGH B R P，WANG E K，et al. Precision robotic leaping and landing using stance-phase balance[J]. IEEE Robotics and Automation Letters，2020，5(2):3422-3429.
[59] AUBIN C A，HEISSER R H，PERETZ O，et al. Powerful，soft combustion actuators for insect-scale robots[J]. Science，2023，381:1212-1217.
[60] CHENG T，LI G，LIANG Y，et al. Untethered soft robotic jellyfish[J]. Smart Materials and Structures，2019，28(1):015019.
[61] KRUTH J P. Material incress manufacturing by rapid prototyping techniques[J]. CIRP Annals，1991，40(2):603-614.
[62] BAILEY S A，CHAM J G，CUTKOSKY M R，et al. Comparing the locomotion dynamics of the cockroach and a shape deposition manufactured biomimetic hexapod[C]// International Symposium on Experimental Robotics. Springer，2000:239-248.
[63] CHU W S，LEE K T，SONG S H，et al. Review of biomimetic underwater robots using smart actuators[J]. International Journal of Precision Engineering and Manufacturing，2012，13(7):1281-1292.
[64] LI M，PEI Y，CAO Y，et al. Flexible strain sensors:from devices to array integration[J]. Flexible and Printed Electronics，2021，6(4):043002.
[65] RANZANI T，RUSSO S，BARTLETT N W，et al. Increasing the dimensionality of soft microstructures through injection-induced self-folding[J]. Advanced Materials，2018，30(38):1802739.
[66] WALLIN T J，PIKUL J，SHEPHERD R F. 3D printing of soft robotic systems[J]. Nature Reviews Materials，2018，3(6):84-100.
[67] WU C，XU F，WANG H，et al. Manufacturing technologies of polymer composites&mdash:A review[J]. Polymers，2023，15(3):712.
[68] WANG F，LUO F，HUANG Y，et al. 4D printing via multispeed fused deposition modeling[J]. Advanced Materials Technologies，2023，8(2):2201383.
[69] DOUILLET C，NICODEME M，HERMANT L，et al. From local to global matrix organization by fibroblasts:A 4D laser-assisted bioprinting approach[J]. Biofabrication，2022，14(2):025006.
[70] WOOD R，SHANG J，COMBES S，et al. Artificial insect wings of diverse morphology for flapping-wing micro air vehicles[J]. Bioinspiration & Biomimetics，2009，4(3):036002(1-6).
[71] WOOD R J. Liftoff of a 60 mg flapping-wing MAV[M]. Harvard Universiy Press，2007.
[72] TEMEL F Z，DOSHI N，KOH J S，et al. The milliDelta:A high-bandwidth，high-precision，millimeter-scale Delta robot[J]. Science Robotics，2018，3(14):eaar3018.
[73] 邢志广，林俊，赵建文. 人工肌肉驱动器研究进展综述[J]. 机械工程学报，2021，57(9):1-11. XING Guangzhi，LIN Jun，ZHAO Jianwen，et al. Overview of the artificial muscle actuators[J]. Journal of Mechanical Engineering，2021，57(9):1-11.
[74] 李梦月，杨佳，焦念东，等. 微纳米机器人的最新研究进展综述[J]. 机器人，2022，44(6):732-749. LI Mengyue，YANG Jia，JIAO Niandong，et al. Review on the latest research progress of micro-nano robots[J]. Robot，2022，44(6):732-749.
[75] DOSHI N，GOLDBERG B，SAHAI R，et al. Model driven design for flexure-based Microrobots[C]// 2015 IEEE/RSJ International Conference on Intelligent Robots and Systems (IROS). Hamburg:IEEE，2015:4119-4126.
[76] ZHENG M，WANG D，ZHU D，et al. Piezo climber:versatile and self-transitional climbing soft robot with bioinspired highly directional footpads[J]. Advanced Functional Materials，2023，33(44):2308384.
[77] HOOVER A M，STELTZ E，FEARING R S. RoACH:An autonomous 2.4 g crawling hexapod robot[C]// 2008 IEEE/RSJ International Conference on Intelligent Robots and Systems. Nice:IEEE，2008:26-33.
[78] HAOMACHAI W，SHAO D，WANG W，et al. Lateral undulation of the bendable body of a gecko-inspired robot for energy-efficient inclined surface climbing[J]. IEEE Robotics and Automation Letters，2021，6(4):7917-7924.
[79] 徐殿国，白凤强，张相军，等. 形状记忆合金执行器研究综述[J]. 电工技术学报，2022，37(20):5144-5163. XU Dianguo，BAI Fengqiang，ZHANG Xiangjun，et al. Review on shape memory alloy actuators[J]. Transactions of China Electrotechnical Society，2022，37(20):5144-5163.
[80] TAN X，CLARK A J，MCKINLEY P K. Evolutionary multiobjective design of a flexible caudal fin for robotic fish[J]. Bioinspiration & biomimetics，2015，10(6):065006.
[81] YANG X，CHANG L，PÉREZ-ARANCIBIA N O. An 88-milligram insect-scale autonomous crawling robot driven by a catalytic artificial muscle[J]. Science Robotics，2020，5(45):eaba0015.
[82] QIU J，JI A，ZHU K，et al. A gecko-inspired robot with a flexible spine driven by shape memory alloy springs[J]. Soft Robotics，2023，10(4):713-723.
[83] 毛婷，彭瀚旻，查泽琳，等. 形状记忆合金驱动的连续跳跃柔性机器人[J]. 振动、测试与诊断，2021，41(3):447-452. MAO Ting，PENG Hanmin，ZHA Zelin，et al. Continuous jumping soft robot driven by shape memory alloy[J]. Journal of Vibration，Measurement & Diagnosis，2021，41(3):447-452.
[84] HAO Y，ZHANG S，FANG B，et al. A review of smart materials for the boost of soft actuators，soft sensors，and robotics applications[J]. Chinese Journal of Mechanical Engineering，2022，35(1):1.
[85] 林晓鹏，肖友华，管奕琛，等. 离子聚合物-金属复合材料(IPMC)柔性电极的研究进展[J]. 化工进展，2023，42(9):4770-4782. LIN Xiaopeng，XIAO Youhua，GUAN Yichen，et al. Recent progress of flexible electrodes for ion polymer-metal composites (IPMC)[J]. Chemical Industry and Engineering Progress，2023，42(9):4770-4782.
[86] RONG Q，LEI W，LIU M. Conductive hydrogels as smart materials for flexible electronic devices[J]. Chemistry，2018，24(64):16930-16943.
[87] HONG Y，LIN Z，YANG Y，et al. Biocompatible conductive hydrogels:Applications in the field of biomedicine[J]. International Journal of Molecular Sciences，2022，23(9):4578.
[88] LI T F，LI G R，LIANG Y M，et al. Fast-moving soft electronic fish[J]. Science Advances，2017，3(4):7.
[89] LIN Z，JIANG T，YANG Y，et al. Matrigel-fibrinogen-thrombin hydrogels with high bioactivity for the fabrication of self-propelled in vitro muscular tissues[J]. Applied Materials Today，2024，39:1.
[90] CAO J，QIN L，LIU J，et al. Untethered soft robot capable of stable locomotion using soft electrostatic actuators[J]. Extreme Mechanics Letters，2018，21:9-16.
[91] JI X，LIU X，CACUCCIOLO V，et al. An autonomous untethered fast soft robotic insect driven by low-voltage dielectric elastomer actuators[J]. Science Robotics，2019，4(37):eaaz6451.
[92] WANG X，DAI L，JIAO N，et al. Superhydrophobic photothermal graphene composites and their functional applications in microrobots swimming at the air/water interface[J]. Chemical Engineering Journal，2021，422:129394.
[93] HONG J W，YOON C，JO K，et al. Recent advances in recording and modulation technologies for next- generation neural interfaces[J]. iScience，2021，24(12):103550.
[94] AMAR A B，KOUKI A B，CAO H. Power approaches for implantable medical devices[J]. Sensors，2015，15(11):28889-28914.
[95] KAKEI Y，KATAYAMA S，LEE S，et al. Integration of body-mounted ultrasoft organic solar cell on cyborg insects with intact mobility[J]. NPJ Flexible Electronics，2022，6(1):78.
[96] BOZKURT A，LOBATON E，SICHITIU M. A biobotic distributed sensor network for under-rubble search and rescue[J]. Computer，2016，49(5):38-46.
[97] SHOJI K，AKIYAMA Y，SUZUKI M，et al. Biofuel cell backpacked insect and its application to wireless sensing[J]. Biosensors and Bioelectronics，2016，78:390-395.
[98] LEE D，JEONG S H，YUN S，et al. Totally implantable enzymatic biofuel cell and brain stimulator operating in bird through wireless communication[J]. Biosensors and Bioelectronics，2021，171:112746.
[99] GHAFOURI N，KIM H，ATASHBAR M Z，et al. A micro thermoelectric energy scavenger for a hybrid insect[C]// SENSORS，2008 IEEE. Lecce:IEEE，2008:1249-1252.
[100] WOIAS P，SCHULE F，BÄUMKE E，et al. Thermal energy harvesting from wildlife[J]. Journal of Physics:Conference Series，2014，557(1):012084.
[101] ZHANG H，WU X，PAN Y，et al. A novel vibration energy harvester based on eccentric semicircular rotor for self-powered applications in wildlife monitoring[J]. Energy Conversion and Management，2021，247:114674.
[102] SHAFER M W，MACCURDY R，SHIPLEY J R，et al. The case for energy harvesting on wildlife in flight[J]. Smart Materials and Structures，2015，24(2):025031.
[103] TRAN-NGOC P T，LE D L，CHONG B S，et al. Intelligent insect-computer hybrid robot:Installing innate obstacle negotiation and onboard human detection onto cyborg insect[J]. Advanced Intelligent Systems，2023，5(5):2200319.
[104] RASAKATLA S，TENMA W，SUZUKI T，et al. CameraRoach:A wiFi- and camera-enabled cyborg cockroach for search and rescue[J]. Journal of Robotics and Mechatronics，2022，34:149-158.
[105] ARIYANTO M，REFAT C M M，HIRAO K，et al. Movement optimization for a cyborg cockroach in a bounded space incorporating machine learning[J]. Cyborg Bionic Syst，2023，4:0012.
[106] LIU P，MA S，LIU S，et al. Omnidirectional jump control of a locust-computer hybrid robot[J]. Soft Robot，2023，10(1):40-51.
[107] MA S，LIU P，LIU S，et al. Launching of a cyborg locust via co-contraction control of hindleg muscles[J]. IEEE Transactions on Robotics，2022，38(4):2208-2219.
[108] LI Y，WU J，SATO H. Feedback control-based navigation of a flying insect-machine hybrid robot[J]. Soft Robotics，2018，5(4):365-374.
[109] VO DOAN T T，TAN M Y W，BUI X H，et al. An ultralightweight and living legged robot[J]. Soft Robotics，2017，5(1):17-23.
[110] SATO H，BERRY C，PEERI Y，et al. Remote radio control of insect flight[J]. Frontiers in Integrative Neuroscience，2009，3.
[111] NGUYEN H D，DUNG V T，SATO H，et al. Efficient autonomous navigation for terrestrial insect-machine hybrid systems[J]. Sensors and Actuators B:Chemical，2023，376:132988.
[112] NGUYEN H D，TAN P Z，SATO H，et al. Sideways walking control of a cyborg beetle[J]. IEEE Transactions on Medical Robotics and Bionics，2020，2(3):331-337.
[113] SATO H，VO DOAN T T，KOLEV S，et al. Deciphering the role of a coleopteran steering muscle via free flight stimulation[J]. Current Biology，2015，25(6):798-803.
[114] VO DOAN T T，SATO H. Insect-machine hybrid system:Remote radio control of a freely flying beetle (Mercynorrhina torquata)[J]. Journal of Visualized Experiments，2016，(115):54260.
[115] KIM C H，CHOI B，KIM D G，et al. Remote navigation of turtle by controlling instinct behavior via human brain-computer interface[J]. Journal of Bionic Engineering，2016，13(3):491-503.
[116] XU N W，TOWNSEND J P，COSTELLO J H，et al. Developing biohybrid robotic jellyfish (Aurelia aurita) for free-swimming tests in the laboratory and in the field[J]. Bio-protocol，2021，11(7):e3974.
[117] LATIF T，WHITMIRE E，NOVAK T，et al. Towards fenceless boundaries for solar powered insect biobots[C]// 201436th Annual International Conference of the IEEE Engineering in Medicine and Biology Society. Chicago:IEEE，2014:1670-1673.
[118] REISSMAN T，GARCIA E. An ultra-lightweight multi-source power harvesting system for insect cyborg sentinels[C]// ASME 2008 Conference on Smart Materials，Adaptive Structures and Intelligent Systems. Ellicott:ASME，2008:711-718.
[119] SHOJI K，MORISHIMA K，AKIYAMA Y，et al. Autonomous environmental monitoring by self-powered biohybrid robot[C]// 2016 IEEE International Conference on Mechatronics and Automation. Harbin:IEEE，2016:629-634.
[120] RASMUSSEN M，RITZMANN R E，LEE I，et al. An implantable biofuel cell for a live insect[J]. Journal of the American Chemical Society，2012，134(3):1458-1460.
[121] HUANG S H，CHEN W H，LIN Y C. A self-powered glucose biosensor operated underwater to monitor physiological status of free-swimming fish[J]. Energies. 2019，12(10):1827.
[122] HALáMKOVá L，HALáMEK J，BOCHAROVA V，et al. Implanted biofuel cell operating in a living snail[J]. Journal of the American Chemical Society，2012，134(11):5040-5043.
[123] SZCZUPAK A，HALáMEK J，HALáMKOVá L，et al. Living battery - biofuel cells operating in vivo in clams[J]. Energy & Environmental Science，2012，5(10):8891-8895.
[124] ZEBDA A，COSNIER S，ALCARAZ J P，et al. Single glucose biofuel cells implanted in rats power electronic devices[J]. Scientific Reports，2013，3(1):1516.
[125] MIYAKE T，HANEDA K，NAGAI N，et al. Enzymatic biofuel cells designed for direct power generation from biofluids in living organisms[J]. Energy & Environmental Science，2011，4(12):5008-5012.
[126] MACVITTIE K，HALÁMEK J，HALÁMKOVÁ L，et al. From “cyborg” lobsters to a pacemaker powered by implantable biofuel cells[J]. Energy & Environmental Science，2013，6(1):81-86.
[127] SCHWEFEL J，RITZMANN R E，LEE I N，et al. Wireless communication by an autonomous self-powered cyborg insect[J]. Journal of The Electrochemical Society，2015，161(13):H3113.
[128] AKTAKKA E E，KIM H，NAJAFI K. Energy scavenging from insect flight[J]. Journal of Micromechanics and Microengineering，2011，21:095016.
[129] NODA T，OKUYAMA J，KAWABATA Y，et al. Harvesting energy from the oscillation of aquatic animals:Testing a vibration-powered generator for bio-logging data logger systems[J]. Journal of Advanced Marine Science and Technology Society，2014，20:37-43.
[130] SHAFER M W，MACCURDY R，GARCIA E. Testing of vibrational energy harvesting on flying birds[C]// ASME 2013 Conference on Smart Materials，Adaptive Structures and Intelligent Systems. Snowbird:ASME，2013.
[131] DALER L，MINTCHEV S，STEFANINI C，et al. A bioinspired multi-modal flying and walking robot[J]. Bioinspir Biomim，2015，10(1):016005.
[132] SHEARWOOD J，ALDABASHI N，ELTOKHY A，et al. C-band telemetry of insect pollinators using a miniature transmitter and a self-piloted drone[J]. IEEE Transactions on Microwave Theory and Techniques，2021，69(1):938-946.
[133] FU S，WEI F，YIN C，et al. Biomimetic soft micro-swimmers:From actuation mechanisms to applications[J]. Biomed Microdevices，2021，23(1):6.