[1] J Rezaian, F Forouzanfar. Consideration on Trephinated skull in the Sahre-e Sukte (Burnt City) in Sistan. Journal of Research on History of Medicine, 2012, 1, https://rhm.sums.ac.ir/article_42868_5cbaecf64c968c4dbc16a9a58bafef58.pdf.
[2] Merriam-Webster. com, ed. Medical definition of soft tissue. Medical Dictionary, https://www.merriam-webster.com/medical/softtissue.
[3] M Gridi-Papp. Human Anatomy, OpenStax CNX, 2018, http://cnx.org/contents/c29920ff-cf11-4c44-a140-046fb0e6e1f0@2.57.
[4] M J Buehler, T Ackbarow. Fracture mechanics of protein materials. Materials Today, 2007, 10:46-58.
[5] A Pissarenko, W Yang, H Quan, et al. The toughness of porcine skin:Quantitative measurements and microstructural characterization. Journal of the Mechanical Behavior of Biomedical Materials, 2020, 109:103848.
[6] P Sabouri, A Hashemi. Influence of crack length and anatomical location on the fracture toughness of annulus fibrosus. Medical Engineering & Physics, 2021, 88:1-8.
[7] G A Von Forell, P S Hyoung, A E Bowden. Failure modes and fracture toughness in partially torn ligaments and tendons. Journal of the Mechanical Behavior of Biomedical Materials, 2014, 35:77-84.
[8] B Gogly, G Godeau, D Septier, et al. Measurement of the amounts of elastic fibers in the skin and temporal arteries of healthy aged individuals by automated image analysis. Gerontology, 1998, 44:318-323.
[9] S Bose, S Li, E Mele, et al. Fracture behaviour of collagen:Effect of environment. Procedia Structural Integrity, 2020, 28:843-849.
[10] K Bircher, R Merluzzi, A Wahlsten, et al. Influence of osmolarity and hydration on the tear resistance of the human amniotic membrane. Journal of Biomechanics, 2020, 98:109419.
[11] Z Hu, W Sun, B Zhang. Characterization of aortic tissue cutting process:experimental investigation using porcine ascending aorta. Journal of the Mechanical Behavior of Biomedical Materials, 2013, 18:81-89.
[12] Y Qi, J Caillard, R Long. Fracture toughness of soft materials with rate-independent hysteresis. Journal of the Mechanics and Physics of Solids, 2018, 118:341-364.
[13] B Chu, E Gaillard, R Mongrain, et al. Characterization of fracture toughness exhaustion in pig aorta. Journal of the Mechanical Behavior of Biomedical Materials, 2013, 17:126-136.
[14] PA Hasgall, F Di Gennaro, C Baumgartner, et al. IT'IS Database for thermal and electromagnetic parameters of biological tissues. Version 4.1, Feb 22, 2022, DOI:https://doi.org/10.13099/VIP21000-04-1.
[15] H P Kok, A N T J Kotte, J Crezee. Planning, optimisation and evaluation of hyperthermia treatments. International Journal of Hyperthermia, 2017, 33:593-607.
[16] J Zhang, J Hills, Y Zhong, et al. Modeling of soft tissue thermal damage based on GPU acceleration. Computer Assisted Surgery, 2019, 24:5-12.
[17] K Giering, O Minet, I Lamprecht, et al. Review of thermal properties of biological tissues. Proceedings of SPIE-The International Society for Optical Engineering. 1995:45-65.
[18] Jason B Brill, Evan K Harrison, Michael J Sise, et al. The history of the scalpel:From flint to zirconium-coated steel. The American College of Surgeons (ACS) Clinical Congress 2017, 2017:13-17.
[19] Z Liu, C Wang, Z Chen, et al. The advance of surgical blades in cutting soft biological tissue:A review. The International Journal of Advanced Manufacturing Technology, 2021.
[20] S Luo, X Hu, C Wang, et al. Diamond application in medical field. Diamond & Abrasives Engineering, 2018, 38:1-7.
[21] G Wang. Endarterectomy for restenosis after internal carotid artery stenting. n. d., http://www.zzsqy.com.cn/OfficeNewsDetail-211.html.
[22] Meniscal CinchTM All-Inside Repair. n. d., https://www.arthrex.com/knee/meniscal-cinch-allinside-repair/resources.
[23] S Chandra, I Podder, M Chatterjee, et al. Anatomy and applications of the #15 scalpel blade and its variations. Journal of Cutaneous and Aesthetic Surgery, 2018, 11:79.
[24] S K R Rai, C Mancarella, A H Goel. Brain tumor interface dissection technique with surgical blade from laboratory to neurosurgical operating room. World Neurosurgery, 2017, 100:601-606.
[25] T W James, T H Baron. A comprehensive review of endoscopic ultrasound core biopsy needles. Expert Review of Medical Devices, 2018, 15:127-135.
[26] H Kim, H Park, S J Lee. Effective method for drug injection into subcutaneous tissue. Scientific Reports, 2017, 7:1-11.
[27] M Fujii, T Furumatsu, Y Kodama, et al. A novel suture technique using the FasT-Fix combined with Ultrabraid for pullout repair of the medial meniscus posterior root tear. European Journal of Orthopaedic Surgery & Traumatology, 2017, 27:559-562.
[28] J-H Chung, S-M Sohn, H-J You, et al. Use of a biopsy punch for end-to-side anastomosis in free-tissue transfer. Journal of Plastic Surgery and Hand Surgery, 2020, 54:215-219.
[29] Z Chen, Y Zhang, C Wang, et al. Understanding the cutting mechanisms of composite structured soft tissues. International Journal of Machine Tools and Manufacture, 2021, 161:103685.
[30] T Chanthasopeephan, J P Desai, A C W Lau. Determining fracture characteristics in scalpel cutting of soft tissue. First IEEE/RAS-EMBS Int. Conf. Biomed. Robot. Biomechatronics, IEEE, 2006:899-904.
[31] T Yang, H Yin, X Zhao, et al. Interaction modeling and simulation of a flexible needle insertion into soft tissues, ISR/Robotik 2014; 41st Int. Symp. Robot., 2014:1-6.
[32] J Pan, J Bai, X Zhao, et al. Real-time haptic manipulation and cutting of hybrid soft tissue models by extended position-based dynamics. Computer Animation and Virtual Worlds, 2015, 26:321-335.
[33] T Chanthasopeephan, J P Desai, A C W Lau. Measuring forces in liver cutting:New equipment and experimental results. Annals of Biomedical Engineering, 2003, 31:1372-1382.
[34] Y Xu, Q Zhang, G Liu. Cutting performance orthogonal test of single plane puncture biopsy needle based on puncture force. AIP Conf. Proc., AIP Publishing LLC, 2017:30016.
[35] M Mahvash, L M Voo, D Kim, et al. Modeling the forces of cutting with scissors. IEEE Transactions on Biomedical Engineering, 2008, 55:848-856.
[36] K T Miura, R U Gobithaasan, S Usuki. The polar-aesthetic curve and its applications to scissors design. Computer-Aided Design and Applications, 2015, 12:431-438.
[37] K Kendall, K N G Fuller. J-shaped stress/strain curves and crack resistance of biological materials. Journal of Physics D:Applied Physics, 1987, 20:1596.
[38] H Zhongwei. Experiment and theory research on cutting mechanism of biological soft tissue. Changsha:Hunan University, 2011. (in Chinese)
[39] Z Hu, B Zhang, W Sun. Cutting characteristics of biological soft tissues. CIRP Annals-Manufacturing Technology, 2012, 61:135-138.
[40] C T McCarthy, M Hussey, M D Gilchrist. On the sharpness of straight edge blades in cutting soft solids:Part I-indentation experiments. Engineering Fracture Mechanics, 2007, 74:2205-2224.
[41] M Mahvash, P E Dupont. Mechanics of dynamic needle insertion into a biological material. IEEE Transactions on Biomedical Engineering, 2009, 57:934-943.
[42] L Barbé, B Bayle, M de Mathelin, et al. Needle insertions modeling:identifiability and limitations. Biomedical Signal Processing and Control, 2007, 2:191-198.
[43] J T Hing, A D Brooks, J P Desai. Reality-based needle insertion simulation for haptic feedback in prostate brachytherapy. Proc. 2006 IEEE Int. Conf. Robot. Autom., IEEE, 2006:619-624.
[44] T Azar, V Hayward. Estimation of the fracture toughness of soft tissue from needle insertion. Int. Symp. Biomed. Simul., Springer, 2008:166-175.
[45] T Yang, L Xiong, J Zhang, et al. Modeling cutting force of laparoscopic scissors. Int. Conf. Biomed. Eng. Informatics, 2010.
[46] C Simone. Modeling of needle insertion forces for percutaneous therapies. Citeseer, 2002.
[47] A M Okamura, C Simone, M D O'leary. Force modeling for needle insertion into soft tissue. IEEE Transactions on Biomedical Engineering, 2004, 51:1707-1716.
[48] D d'Aulignac, R Balaniuk, C Laugier. A haptic interface for a virtual exam of the human thigh. Proc. 2000 ICRA. Millenn. Conf. IEEE Int. Conf. Robot. Autom. Symp. Proc. (Cat. No. 00CH37065), IEEE, 2000:2452-2457.
[49] X Bao, W Li, M Lu, et al. Experiment study on puncture force between MIS suture needle and soft tissue. Biosurface and Biotribology, 2016, 2:49-58.
[50] T L de Jong, L H Pluymen, D J van Gerwen, et al. PVA matches human liver in needle-tissue interaction. Journal of the Mechanical Behavior of Biomedical Materials, 2017, 69:223-228.
[51] W Maurel. 3D modeling of the human upper limb including the biomechanics of joints, muscles and soft tissues. English Journal, 1999.
[52] W Liu, Z Yang, P Li, et al. Mechanics of tissue rupture during needle insertion in transverse isotropic soft tissue. Medical & Biological Engineering & Computing, 2019, 57:1353-1366.
[53] S Jiang, P Li, Y Yu, et al. Experimental study of needle-tissue interaction forces:Effect of needle geometries, insertion methods and tissue characteristics. Journal of Biomechanics, 2014, 47:3344-3353.
[54] M Mahvash, P E Dupont. Fast needle insertion to minimize tissue deformation and damage. 2009 IEEE Int. Conf. Robot. Autom., 2009:3097-3102.
[55] S P DiMaio, S E Salcudean. Needle insertion modeling and simulation. IEEE Transactions on Robotics and Automation, 2003, 19:864-875.
[56] Y C Fung. Mechanical properties and active remodeling of blood vessels. Biomechanics, 1993.
[57] J R Crouch, C M Schneider, J Wainer, et al. A velocity-dependent model for needle insertion in soft tissue. Int. Conf. Med. Image Comput. Comput. Interv., Springer, 2005:624-632.
[58] L Y Gao, Q H Zhang, M Liu. Orthogonal cutting of biological soft tissue with single cutting edge. Appl. Mech. Mater., Trans. Tech. Publ., 2012:283-287.
[59] J Z Moore, K Malukhin, A J Shih, et al. Hollow needle tissue insertion force model. CIRP Annals, 2011, 60:157-160.
[60] A G Atkins, X Xu, G Jeronimidis. Cutting, by ‘pressing and slicing, ’of thin floppy slices of materials illustrated by experiments on cheddar cheese and salami. Journal of Materials Science, 2004, 39:2761-2766.
[61] C Richard, M R Cutkosky, K Maclean. Friction identification for haptic display. 1999.
[62] H Yang, P X Liu, J Zhang. Modelling of needle insertion forces for surgical simulation. IEEE Int. Conf. Mechatronics Autom. 2005, IEEE, 2005:592-595.
[63] P Dupont, B Armstrong, V Hayward. Elasto-plastic friction model:contact compliance and stiction. Proc. 2000 Am. Control Conf. ACC (IEEE Cat. No. 00CH36334), IEEE, 2000:1072-1077.
[64] Y Kobayashi, T Sato, M G Fujie. Modeling of friction force based on relative velocity between liver tissue and needle for needle insertion simulation. 2009 Annu. Int. Conf. IEEE Eng. Med. Biol. Soc., IEEE, 2009:5274-5278.
[65] C Simone, A M Okamura. Modeling of needle insertion forces for robot-assisted percutaneous therapy. Proc. 2002 IEEE Int. Conf. Robot. Autom. (Cat. No. 02CH37292), IEEE, 2002:2085-2091.
[66] K Comley, N A Fleck. The toughness of adipose tissue:measurements and physical basis. Journal of Biomechanics, 2010, 43:1823-1826.
[67] B Takabi, B L Tai. A review of cutting mechanics and modeling techniques for biological materials. Medical Engineering & Physics, 2017, 45:1-14.
[68] P P Purslow. Measurement of the fracture toughness of extensible connective tissues. Journal of Materials Science, 1983, 18:3591-3598.
[69] N K Simha, C S Carlson, J L Lewis. Evaluation of fracture toughness of cartilage by micropenetration. Journal of Materials Science:Materials in Medicine, 2004, 15:631-639.
[70] C Gokgol, C Basdogan, D Canadinc. Estimation of fracture toughness of liver tissue:Experiments and validation. Medical Engineering & Physics, 2012, 34:882-891.
[71] A C Barnett, L Tan, J Barrett, et al. Needle cutting of skin simulants. ASME 2016 11th Int. Manuf. Sci. Eng. Conf., 2016.
[72] B P Pereira, P W Lucas, T Swee-Hin. Ranking the fracture toughness of thin mammalian soft tissues using the scissors cutting test. Journal of Biomechanics, 1997, 30:91-94.
[73] P P Purslow. Positional variations in fracture toughness, stiffness and strength of descending thoracic pig aorta. Journal of Biomechanics, 1983, 16:947-953.
[74] D Taylor, N O'Mara, E Ryan, et al. The fracture toughness of soft tissues. Journal of the Mechanical Behavior of Biomedical Materials, 2012, 6:139-147.
[75] C T Koh, K Tonsomboon, M L Oyen. Fracture toughness of human amniotic membranes. Interface Focus, 2019, 9:20190012.
[76] K Tonsomboon, C T Koh, M L Oyen. Time-dependent fracture toughness of cornea. Journal of the Mechanical Behavior of Biomedical Materials, 2014, 34:116-123.
[77] M V Chin-Purcell, J L Lewis, T R Oegema, et al. Fracture of articular cartilage, 1996.
[78] A K Miri, L X Chen, R Mongrain, et al. Fracture toughness of vocal fold tissue:A preliminary study. Journal of Voice, 2016, 30:251-254.
[79] O A Shergold, N A Fleck. Mechanisms of deep penetration of soft solids, with application to the injection and wounding of skin. Proceedings of the Royal Society of London, Series A:Mathematical, Physical and Engineering Sciences, 2004, 460:3037-3058.
[80] A C Barnett, Y-S Lee, J Z Moore. Fracture mechanics model of needle cutting tissue. Journal of Manufacturing Science and Engineering, 2015, 138, doi:https://doi.org/10.1115/1.4030374.
[81] K Bircher, M Zündel, M Pensalfini, et al. Tear resistance of soft collagenous tissues. Nature Communications, 2019, 10:792.
[82] M Khadem, C Rossa, R S Sloboda, et al. Mechanics of tissue cutting during needle insertion in biological tissue. IEEE Robotics and Automation Letters, 2016, 1:800-807.
[83] S Singh, M-C Lo, V B Damodaran, et al. Modeling the insertion mechanics of flexible neural probes coated with sacrificial polymers for optimizing probe design. Sensors, 2016, 16:330.
[84] S Misra, K B Reed, A S Douglas, et al. Needle-tissue interaction forces for bevel-tip steerable needles. 2008 2nd IEEE RAS EMBS Int. Conf. Biomed. Robot. Biomechatronics, IEEE, 2008:224-231.
[85] S Misra, K J Macura, K T Ramesh, et al. The importance of organ geometry and boundary constraints for planning of medical interventions. Medical Engineering & Physics, 2009, 31:195-206.
[86] B L Tai, Y Wang, A J Shih. Cutting force of hollow needle insertion in soft tissue. Int. Manuf. Sci. Eng. Conf., American Society of Mechanical Engineers, 2013:V001T01A007.
[87] M Oldfield, D Dini, G Giordano, et al. Detailed finite element modelling of deep needle insertions into a soft tissue phantom using a cohesive approach. Computer Methods in Biomechanics and Biomedical Engineering, 2013, 16:530-543.
[88] P P Shetty, R W Hatton, A C Barnett, et al. Modeling the cutting edge geometry of scalpel blades. Proceedings of the Institution of Mechanical Engineers, Part B:Journal of Engineering Manufacture, 2015, 231:65-72.
[89] J Z Moore, Q Zhang, C S Mcgill, et al. Modeling of the plane needle cutting edge rake and inclination angles for biopsy. Journal of Manufacturing Science & Engineering, 2010, 132:635-645.
[90] A G Atkins, X Xu. Slicing of soft flexible solids with industrial applications. International Journal of Mechanical Sciences, 2005, 47:479-492.
[91] M D O'Leary, C Simone, T Washio, et al. Robotic needle insertion:Effects of friction and needle geometry. 2003 IEEE Int. Conf. Robot. Autom. (Cat. No. 03CH37422), IEEE, 2003:1774-1780.
[92] J L Westbrook, D R Uncles, B T Sitzman, et al. Comparison of the force required for dural puncture with different spinal needles and subsequent leakage of cerebrospinal fluid. Anesthesia and Analgesia, 1994, 79:769-772.
[93] M Giovannini, H Ren, J Cao, et al. Study on design and cutting parameters of rotating needles for core biopsy. Journal of the Mechanical Behavior of Biomedical Materials, 2018, 86:43-54.
[94] J Z Moore, A J Shih, P McLaughlin, et al. Blade oblique cutting of tissue for investigation of biopsy needle insertion. Trans. NAMRI/SME, 2009, 37:49-56.
[95] Y Wang, R K Chen, B L Tai, et al. Optimal needle design for minimal insertion force and bevel length. Medical Engineering & Physics, 2014, 36:1093-1100.
[96] K Sorouri, D J Podolsky, A M Q Wang, et al. Utilization of a robotic mount to determine the force required to cut palatal tissue. Journal of the Mechanical Behavior of Biomedical Materials, 2018, 86:433-439.
[97] A Spagnoli, R Brighenti, M Terzano, et al. Cutting resistance of soft materials:Effects of blade inclination and friction. Theoretical and Applied Fracture Mechanics, 2019, 101:200-206.
[98] D Wang, Q Song, Z Liu, et al. Cutting characteristics of porcine tenderloin tissue along tangential direction of surface. The International Journal of Advanced Manufacturing Technology, 2018, 98:17-27.
[99] F Casanova, P R Carney, M Sarntinoranont. In vivo evaluation of needle force and friction stress during insertion at varying insertion speed into the brain. Journal of Neuroscience Methods, 2014, 237:79-89.
[100] P Han, K Ehmann. Study of the effect of cannula rotation on tissue cutting for needle biopsy. Medical Engineering & Physics, 2013, 35:1584-1590.
[101] L L Holton. Force models for needle insertion created from measured needle puncture data. Studies in Health Technology and Informatics, 2001, 81:180-186.
[102] Y Kobayashi, A Onishi, T Hoshi, et al. Development and validation of a viscoelastic and nonlinear liver model for needle insertion. International Journal of Computer Assisted Radiology and Surgery, 2009, 4:53-63.
[103] A A Elagha, A H Kim, O Kocaturk, et al. Blunt atrial transseptal puncture using excimer laser in swine. Catheterization and Cardiovascular Interventions, 2007, 70:585-590.
[104] M J Oldfield, D Dini, T Jaiswal, et al. The significance of rate dependency in blade insertions into a gelatin soft tissue phantom. Tribology International, 2013, 63:226-234.
[105] J T Hing, A D Brooks, J P Desai. A biplanar fluoroscopic approach for the measurement, modeling, and simulation of needle and soft-tissue interaction. Medical Image Analysis, 2007, 11:62-78.
[106] N Abolhassani, R Patel, M Moallem. Trajectory generation for robotic needle insertion in soft tissue. 26th Annu. Int. Conf. IEEE Eng. Med. Biol. Soc., IEEE, 2004:2730-2733.
[107] M A Meltsner, N J Ferrier, B R Thomadsen. Observations on rotating needle insertions using a brachytherapy robot. Physics in Medicine & Biology, 2007, 52:6027.
[108] I Khalaji, M Hadavand, A Asadian, et al. Analysis of needle-tissue friction during vibration-assisted needle insertion. 2013 IEEE/RSJ Int. Conf. Intell. Robot. Syst., IEEE, 2013:4099-4104.
[109] L Tan, X M Qin, H C Zhang, et al. Penetration force in biopsy under condition of biomimetic vibration. Appl. Mech. Mater., Trans. Tech. Publ., 2015:436-440.
[110] H Prescher, M X Ling, V Bigdelle, et al. Scalpel edge roughness affects post-transection peripheral nerve regeneration. Surgery Open Science, 2021, 4:1-6.
[111] L Shu, S Li, M Terashima, et al. A novel self-centring drill bit design for low-trauma bone drilling. International Journal of Machine Tools and Manufacture, 2020, 154:103568.
[112] M Sabah, A N Aldabagh, A S Mahmood. Histological assessment for healing of intraoral surgical wounds produced by Diode Laser 940 nm versus surgical scalpel blade (an in vivo study). Al-Rafidain Dental Journal, 2020, 20:233-243.
[113] J E Scott, E A Swanson, J Cooley, et al. Healing of canine skin incisions made with monopolar electrosurgery versus scalpel blade. Veterinary Surgery, 2017, 46:520-529.
[114] C-L Lin, Y-A Huang. Simultaneously reducing cutting force and tissue damage in needle insertion with rotation. IEEE Transactions on Biomedical Engineering, 2020, 67:3195-3202.
[115] F A Urrea, F Casanova, G A Orozco, et al. Evaluation of the friction coefficient, the radial stress, and the damage work during needle insertions into agarose gels. Journal of the Mechanical Behavior of Biomedical Materials, 2016, 56:98-105.
[116] M Erdim, E Tezel, A Numanoglu, et al. The effects of the size of liposuction cannula on adipocyte survival and the optimum temperature for fat graft storage:An experimental study. Journal of Plastic, Reconstructive & Aesthetic Surgery, 2009, 62:1210-1214.
[117] F Casanova, P R Carney, M Sarntinoranont. Effect of needle insertion speed on tissue injury, stress, and backflow distribution for convection-enhanced delivery in the rat brain. PLOS ONE, 2014, 9:e94919.
[118] H Eto, H Suga, D Matsumoto, et al. Characterization of structure and cellular components of aspirated and excised adipose tissue. Plastic and Reconstructive Surgery, 2009, 124:1087-1097.
[119] C S Bjornsson, S J Oh, Y A Al-Kofahi, et al. Effects of insertion conditions on tissue strain and vascular damage during neuroprosthetic device insertion. Journal of Neural Engineering, 2006, 3:196.
[120] M Seredyka-Burduk, P K Burduk, et al. Ophthalmic complications of endoscopic sinus surgery. Brazilian Journal of Otorhinolaryngology, 2017, 83:318-323.
[121] I B James, D A Bourne, G DiBernardo, et al. The architecture of fat grafting II:Impact of cannula diameter. Plastic and Reconstructive Surgery, 2018, 142:1219-1225.
[122] R Valentine, P Wormald. Controlling the surgical field during a large endoscopic vascular injury. The Laryngoscope, 2011, 121:562-566.
[123] F Richter, S Shen, F Liu, et al. Autonomous robotic suction to clear the surgical field for hemostasis using image-based blood flow detection. IEEE Robotics and Automation Letters, 2021, 6:1383-1390.
[124] R Acland. Thrombus formation in microvascular surgery:an experimental study of the effects of surgical trauma. Surgery, 1973, 73:766-771.
[125] F May, J Krupka, M Fries, et al. FXII a inhibitor rHA-Infestin-4:Safe thromboprotection in experimental venous, arterial and foreign surface-induced thrombosis. British Journal of Haematology, 2016, 173:769-778.
[126] A Ismail, A I Abushouk, A Elmaraezy, et al. Cutting electrocautery versus scalpel for surgical incisions:a systematic review and meta-analysis. Journal of Surgical Research, 2017, 220:147-163.
[127] W Lin, Y Dai, J Niu, et al. Scalpel can achieve better clinical outcomes compared with electric cautery in primary total knee arthroplasty:A comparison study. BMC Musculoskeletal Disorders, 2020, 21:1-6.
[128] R Tsumura, Y Takishita, Y Fukushima, et al. Histological evaluation of tissue damage caused by rotational needle insertion. 2016 38th Annu. Int. Conf. IEEE Eng. Med. Biol. Soc., 2016:5120-5123.
[129] T Brophy, P D Srodon, C Briggs, et al. Quality of surgical instruments. The Annals of The Royal College of Surgeons of England, 2006, 88:390-393.
[130] A Rahimizadeh, K Haddadi. Is transforaminal retrieval of intradiscal deeply seated broken surgical knife blade all time pars sparing? A case report. International Journal of Surgery Case Reports, 2016, 19:131-133.
[131] Z Chen, C Wang, W Jiang, et al. A review on surgical instruments of knee arthroscopic debridement and total hip arthroplasty. Procedia CIRP, 2017, 65:291-298.
[132] G Roscioli, S M Taheri-Mousavi, C C Tasan. How hair deforms steel. Science, 2020, 369:689-694.
[133] Y Jiang, Q Song, F Gao, et al. Needle deformation in the process of puncture surgery:Experiment and simulation. Procedia CIRP, 2020, 89:270-276.
[134] P Li, Z Yang, S Jiang. Needle-tissue interactive mechanism and steering control in image-guided robot-assisted minimally invasive surgery:A review. Medical & Biological Engineering & Computing, 2018, 56:931-949.
[135] D de Melo Costa, L K de Oliveira Lopes, A F V Tipple, et al. Evaluation of stainless steel surgical instruments subjected to multiple use/processing. Infection, Disease & Health, 2018, 23:3-9.
[136] Y Saito, H Yasuhara, S Murakoshi, et al. Challenging residual contamination of instruments for robotic surgery in Japan. Infection Control & Hospital Epidemiology, 2017, 38:143-146.
[137] Z Liu, H Chen, J Sui, et al. Failure behavior and influence of surgical tool edges in soft tissue cutting. Journal of Manufacturing Processes, 2021, 68:69-78.
[138] A D Caballero, A T Dunoyer, R H Ligardo, et al. Deformation of scalpel blades after incision of gingival tissue in pig mandibles. An ex vivo study. Revista Odontológica Mexicana, 2017, 21(3):e168-e174.
[139] Y Xu. Safety evaluation of surgical instruments. University of Dundee, 2017.
[140] P H Tsai, T H Li, K T Hsu, et al. Effect of coating thickness on the cutting sharpness and durability of Zr-based metallic glass thin film coated surgical blades. Thin Solid Films, 2016, 618:36-41.
[141] N J van de Berg, T L de Jong, D J van Gerwen, et al. The influence of tip shape on bending force during needle insertion. Scientific Reports, 2017, 7:40477.
[142] T Rossi, G Querzoli, G Angelini, et al. Hydraulic resistance of vitreous cutters:the impact of blade design and cut rate. Translational Vision Science & Technology, 2016, 5:1.
[143] M D Greenwood, L K Seibold, N M Radcliffe, et al. Goniotomy with a single-use dual blade:short-term results. Journal of Cataract & Refractive Surgery, 2017, 43:1197-1201.
[144] J Lu, X Wang, Y Huang, et al. Fabrication and cutting performance of bionic micro-serrated scalpels based on the miscanthus leaves. Tribology International, 2020, 145:106162.
[145] M Giovannini, H Ren, X Wang, et al. Tissue cutting with microserrated biopsy punches. Journal of Micro and Nano-Manufacturing, 2017, 5:41004.
[146] J Lu, X Wang, C Ma, et al. Influence of blended textures generated by laser surface texturing on friction behavior in soft tissue cutting. Tribology International, 2019, 134:1-6.
[147] H Izumi, T Yajima, S Aoyagi, et al. Combined harpoonlike jagged microneedles imitating Mosquito's proboscis and its insertion experiment with vibration. IEEJ Transactions on Electrical and Electronic Engineering, 2008, 3:425-431.
[148] M Giovannini, K Ehmann. Vibrational cutting of soft tissue with micro-serrated surgical scalpels. Procedia CIRP, 2016, 45:199-202.
[149] A Burke, M Ross, S Shaidani, et al. Design of improved surgical scalpel handles with optimized grips, 2020.
[150] W Zhang, L Feng, F Wu, et al. Micro/nano-particle decorated metal wire for cutting soft matter. Nanotechnology, 2016, 27:355708.
[151] X Yi, C Wang, X Yu, et al. Chitosan/zinc nitrate microneedles for bacterial biofilm eradication. Journal of Biomedical Materials Research Part B:Applied Biomaterials, 2020, 109(6):911-920.
[152] A McConville, C Hegarty, J Davis. Mini-Review:Assessing the potential impact of microneedle technologies on home healthcare applications. Medicines (Basel, Switzerland), 2018, 5:50.
[153] L-R Jong. Calf reduction by partial resection of gastrocnemius using a suction-assisted cartilage shaver. Plastic and Reconstructive Surgery, 2020, 145:734e-743e.
[154] L Santos-Carreras, M Hagen, R Gassert, et al. Survey on surgical instrument handle design:ergonomics and acceptance. Surgical Innovation, 2012, 19:50-59.
[155] O Martin, R Schiebel, P T Truc Pham, et al. Designing of ergonomic scalpel handles with optimized weight and balance. Worcester Polytechnic Institute, 2020.
[156] A G Gonzalez, D R Salgado, L G Moruno. Optimisation of a laparoscopic tool handle dimension based on ergonomic analysis. International Journal of Industrial Ergonomics, 2015, 48:16-24.
[157] A G González, J Barrios-Muriel, F Romero-Sánchez, et al. Ergonomic assessment of a new hand tool design for laparoscopic surgery based on surgeons' muscular activity. Applied Ergonomics, 2020, 88:103161.
[158] R Sancibrian, C Redondo-Figuero, M C Gutierrez-Diez, et al. Ergonomic evaluation and performance of a new handle for laparoscopic tools in surgery. Applied Ergonomics, 2020, 89:103210.
[159] S Y Park, D J Kim, C Mo Nam, et al. Clinical and economic benefits associated with the use of powered and tissue-specific endoscopic staplers among the patients undergoing thoracoscopic lobectomy for lung cancer. Journal of Medical Economics, 2019, 22:1274-1280.
[160] G S DiFelice, J P van der List. Arthroscopic primary repair of proximal anterior cruciate ligament tears. Arthroscopy Techniques, 2016, 5:e1057-e1061.
[161] M Sahlabadi, S Khodaei, K Jezler, et al. Insertion mechanics of bioinspired needles into soft tissues. Minimally Invasive Therapy & Allied Technologies, 2018, 27:284-291.
[162] M Scali, T P Pusch, P Breedveld, et al. Ovipositor-inspired steerable needle:design and preliminary experimental evaluation. Bioinspiration & Biomimetics, 2017, 13:16006.
[163] J Gallo, M Holinka, C S Moucha. Antibacterial surface treatment for orthopaedic implants. International Journal of Molecular Sciences, 2014, 15:13849-13880.
[164] H B Skinner. Current diagnosis & treatment in orthopedics. Stamford, 2006.
[165] N McLaughlin, L F S Ditzel Filho, D M Prevedello, et al. Side-cutting aspiration device for endoscopic and microscopic tumor removal. Journal of Neurological Surgery. Part B, Skull Base, 2012, 73:11.
[166] R A Packer, S McGrath. Onscreen-guided resection of extra-axial and intra-axial forebrain masses through registration of a variable-suction tissue resection device with a neuronavigation system. Veterinary Surgery, 2020, 49:676-684.
[167] L R Solon, R Aronson, G Gould. Physiological implications of laser beams. Science, 1961, 134:1506-1508. http://www.jstor.org/stable/1707987.
[168] R Bhandari, K Singla, S V Sandhu, et al. Soft tissue applications of lasers:A review. International Journal of Dental Research, 2014, 2(1), doi:https://doi.org/10.14419/ijdr.v2i1.1720.
[169] B P Vitruk, D Ph. Soft tissue cutting with CO2, Diode Lasers, 2012.
[170] K Grattan. Laser-tissue interactions:fundamentals and applications. 2nd ed. Springer, Berlin, 2002.
[171] K Franjic, M L Cowan, D Kraemer, et al. Laser selective cutting of biological tissues by impulsive heat deposition through ultrafast vibrational excitations. Optics Express, 2009, 17:22937.
[172] A Vogel, V Venugopalan. Mechanisms of pulsed laser ablation of biological tissues. Chemical Reviews, 2003, 103:577-644.
[173] S Amini-Nik, D Kraemer, M L Cowan, et al. Ultrafast mid-IR laser scalpel:Protein signals of the fundamental limits to minimally invasive surgery. PLoS ONE, 2010, 5:1-6.
[174] A Vogel, P Schmidt, B Flucke. Minimization of thermomechanical side efects and increase of ablation efciency in IR ablation by use of multiply Q-switched laser pulses. Proc. SPIE, 2002.
[175] A Vogel, M R Capon, M N Asiyo-Vogel, et al. Intraocular photodisruption with picosecond and nanosecond laser pulses:Tissue efects in cornea, lens, and retina. Investigative Ophthalmology & Visual Science, 1994, 35:3032-3044.
[176] A Braun, M Kettner, M Berthold, et al. Efciency of soft tissue incision with a novel 445-nm semiconductor laser. Lasers in Medical Science, 2018, 33:27-33.
[177] D L Jiang, Z Yang, G X Liu, et al. A novel 450-nm blue laser system for surgical applications:efcacy of specifc laser-tissue interactions in bladder soft tissue. Lasers in Medical Science, 2019, 34:807-813.
[178] K Wuertz, P Vitruk. Superpulse 10, 600 nm CO2 laser revision of lingual frenum previously released with a Diode hot glass tip. 2017:2-4.
[179] M C Kong, D Axinte, W Voice. Aspects of material removal mechanism in plain waterjet milling on gamma titanium aluminide. Journal of Materials Processing Technology, 2010, 210:573-584.
[180] D A Axinte. Approach into the use of probabilistic neural networks for automated classifcation of tool malfunctions in broaching. International Journal of Machine Tools and Manufacture, 2006, 46:1445-1448.
[181] D Kundrat, R Graesslin, A Schoob, et al. Preclinical performance evaluation of a robotic endoscope for non-contact laser surgery. Annals of Biomedical Engineering, 2021, 49:585-600.
[182] A V Belikov, A V Skrypnik. Soft tissue cutting efciency by 980 nm laser with carbon-, erbium-, and titanium-doped optothermal fber converters. Lasers in Surgery and Medicine, 2019, 51:185-200.
[183] J S Shim. Finite element analysis of skin injuries by water jet cutting. Public Health, 2007, 125, http://scholar.google.com/scholar?hl=en&btnG=Search&q=intitle:Some+Contributions+on+MIMO+Radar#0.
[184] P Hreha, S Hloch, D Magurová, et al. Water jet technology used in medicine. Tehnicki Vjesnik, 2010, 17:237-240.
