Regulatory science for hernia mesh: Current status and future perspectives
暂无分享,去创建一个
Wei He | Wenbo Liu | Yajie Xie | Yudong Zheng | Kun Qiao | Haoye Meng | H. Meng | Yudong Zheng | Wei He | Yajie Xie | K. Qiao | Wenbo Liu
[1] Ken Gall,et al. Modifying hernia mesh design to improve device mechanical performance and promote tension-free repair. , 2018, Journal of biomechanics.
[2] Jie Kang,et al. A Meta-analysis Comparing Lightweight Meshes With Heavyweight Meshes in Lichtenstein Inguinal Hernia Repair , 2013, Surgical innovation.
[3] R. Bittner,et al. Laparoscopic IPOM versus open sublay technique for elective incisional hernia repair: a registry-based, propensity score-matched comparison of 9907 patients , 2019, Surgical Endoscopy.
[4] Ana Maria Matos-Azevedo,et al. Endoscopic and histological evaluations of a newly designed inguinal hernia mesh implant: Experimental studies on porcine animal model and human cadaver , 2015, Annals of medicine and surgery.
[5] C. Aubé,et al. CT findings of complications after abdominal wall repair with prosthetic mesh. , 2017, Diagnostic and interventional imaging.
[6] Corey R Deeken,et al. Physicomechanical evaluation of polypropylene, polyester, and polytetrafluoroethylene meshes for inguinal hernia repair. , 2011, Journal of the American College of Surgeons.
[7] Allan B Dietz,et al. Regenerative Materials for Surgical Reconstruction: Current Spectrum of Materials and a Proposed Method for Classification. , 2019, Mayo Clinic proceedings.
[8] Q. Liu,et al. Hernioplasty with bilayer polypropylene mesh: a new tension-free technique , 2006, Hernia.
[9] D. Earle,et al. Prosthetic material in inguinal hernia repair: how do I choose? , 2008, The Surgical clinics of North America.
[10] Kaitlyn Sadtler,et al. Analyzing the scaffold immune microenvironment using flow cytometry: practices, methods and considerations for immune analysis of biomaterials. , 2019, Biomaterials science.
[11] B. Ystgaard,et al. The use of an acellular porcine dermal collagen implant in the repair of complex abdominal wall defects: a European multicentre retrospective study , 2015, Techniques in Coloproctology.
[12] A. Turner,et al. Evaluation of a flexible collagen surgical patch for reinforcement of a fascial defect: Experimental study in a sheep model. , 2008, Journal of biomedical materials research. Part B, Applied biomaterials.
[13] Emanuele Lo Menzo,et al. American Society for Metabolic and Bariatric Surgery and American Hernia Society consensus guideline on bariatric surgery and hernia surgery. , 2018, Surgery for obesity and related diseases : official journal of the American Society for Bariatric Surgery.
[14] R. Pricolo,et al. Comparison between self-gripping, semi re-absorbable meshes with polyethylene meshes in Lichtenstein, tension-free hernia repair: preliminary results from a single center , 2018, Acta bio-medica : Atenei Parmensis.
[15] L. Jørgensen,et al. Comparison of hernia registries: the CORE project , 2018, Hernia.
[16] Zhiying Qiu,et al. Electrospun P(LLA-CL) Nanoscale Fibrinogen Patch vs Porcine Small Intestine Submucosa Graft Repair of Inguinal Hernia in Adults: A Randomized, Single-Blind, Controlled, Multicenter, Non-Inferiority Trial. , 2019, Journal of the American College of Surgeons.
[17] F. Köckerling,et al. The Importance of Registries in the Postmarketing Surveillance of Surgical Meshes , 2017, Annals of surgery.
[18] B Hernández-Gascón,et al. Computational framework to model and design surgical meshes for hernia repair , 2014, Computer methods in biomechanics and biomedical engineering.
[19] Paul D. Dalton,et al. Additive manufacturing with polypropylene microfibers. , 2017, Materials science & engineering. C, Materials for biological applications.
[20] Yves Bayon,et al. Comparing the host tissue response and peritoneal behavior of composite meshes used for ventral hernia repair. , 2015, The Journal of surgical research.
[21] Peter Mente,et al. Biomechanical comparison of four soft tissue replacement materials: an in vitro evaluation of single and multilaminate porcine small intestinal submucosa, canine fascia lata, and polypropylene mesh. , 2009, Veterinary surgery : VS.
[22] E. Baker,et al. The plasminogen activator and matrix metalloproteinase systems in colorectal cancer: relationship to tumour pathology. , 2003, European journal of cancer.
[23] Spencer P Lake,et al. Mechanical properties of the abdominal wall and biomaterials utilized for hernia repair. , 2017, Journal of the mechanical behavior of biomedical materials.
[24] Laura Iop,et al. A Comprehensive Comparison of Bovine and Porcine Decellularized Pericardia: New Insights for Surgical Applications , 2020, Biomolecules.
[25] Thomas W Gilbert,et al. Retrorectus repair of incisional ventral hernia with urinary bladder matrix reinforcement in a long-term porcine model. , 2018, Regenerative medicine.
[26] Anjali S Kumar,et al. Biologic versus Synthetic Mesh Reinforcement: What are the Pros and Cons? , 2014, Clinics in Colon and Rectal Surgery.
[27] G. Clermont,et al. Three-year results from a preclinical implantation study of a long-term resorbable surgical mesh with time-dependent mechanical characteristics , 2011, Hernia.
[28] G. Campanelli,et al. Classification of primary and incisional abdominal wall hernias , 2009, Hernia.
[29] J. Fischer,et al. When the Mesh Goes Away: An Analysis of Poly-4-Hydroxybutyrate Mesh for Complex Hernia Repair , 2019, Plastic and reconstructive surgery. Global open.
[30] Karolina Ludwicka,et al. Stable composite of bacterial nanocellulose and perforated polypropylene mesh for biomedical applications. , 2018, Journal of biomedical materials research. Part B, Applied biomaterials.
[31] Yan Gu,et al. Comparison of Porcine Small Intestinal Submucosa versus Polypropylene in Open Inguinal Hernia Repair: A Systematic Review and Meta-Analysis , 2015, PloS one.
[32] M. Ivarsson,et al. Inguinal hernia repair using a synthetic long-term resorbable mesh: results from a 3-year prospective safety and performance study , 2014, Hernia.
[33] Clayton C. Petro,et al. An in vivo analysis of Miromesh--a novel porcine liver prosthetic created by perfusion decellularization. , 2016, The Journal of surgical research.
[34] Brent D. Matthews,et al. Physicomechanical evaluation of absorbable and nonabsorbable barrier composite meshes for laparoscopic ventral hernia repair , 2011, Surgical Endoscopy.
[35] Jason M. Weissler,et al. Management of Infected Mesh After Abdominal Hernia Repair: Systematic Review and Single-Institution Experience , 2017, Annals of plastic surgery.
[36] Silvia Todros,et al. MECHANICAL CHARACTERIZATION OF ANIMAL DERIVED GRAFTS FOR SURGICAL IMPLANTATION , 2016 .
[37] Brent D. Matthews,et al. Effect of acellular human dermis buttress on laparoscopic hiatal hernia repair , 2015, Surgical Endoscopy.
[38] Madhurima Vardhan,et al. Surgical mesh for ventral incisional hernia repairs: Understanding mesh design , 2016, Plastic surgery.
[39] B. Hernández-Gascón,et al. Understanding the Passive Mechanical Behavior of the Human Abdominal Wall , 2012, Annals of Biomedical Engineering.
[40] Jacob Rosenberg,et al. Open preperitoneal groin hernia repair with mesh: A qualitative systematic review. , 2017, American journal of surgery.
[41] D. Lomanto,et al. Guidelines for laparoscopic treatment of ventral and incisional abdominal wall hernias (International Endohernia Society [IEHS])—Part III , 2013, Surgical Endoscopy.
[42] Els Adriaens,et al. Totally extraperitoneal laparoscopic inguinal hernia repair using a self-expanding nitinol framed hernia repair device: A prospective case series. , 2017, International journal of surgery.
[43] G. Pascual,et al. Biomaterial Implants in Abdominal Wall Hernia Repair: A Review on the Importance of the Peritoneal Interface , 2019, Processes.
[44] Uwe Klinge,et al. The lightweight and large porous mesh concept for hernia repair , 2005, Expert review of medical devices.
[45] Kazunori Hoshino,et al. Bioactive polymeric scaffolds for tissue engineering , 2016, Bioactive materials.
[46] S. Ferzoco,et al. Early experience outcome of a reinforced Bioscaffold in inguinal hernia repair: A case series , 2018 .
[47] Y. Novitsky,et al. Evaluation of the Antimicrobial Efficacy of a Novel Rifampin/Minocycline-Coated, Noncrosslinked Porcine Acellular Dermal Matrix Compared With Uncoated Scaffolds for Soft Tissue Repair , 2016, Surgical innovation.
[48] C. Deeken,et al. Characterization of host response, resorption, and strength properties, and performance in the presence of bacteria for fully absorbable biomaterials for soft tissue repair , 2017, Hernia.
[49] Hua Tang,et al. Reconstruction of large-size abdominal wall defect using biodegradable poly-p-dioxanone mesh: an experimental canine study , 2014, World Journal of Surgical Oncology.
[50] Mieke L van Driel,et al. Mesh versus non-mesh for inguinal and femoral hernia repair. , 2015, The Cochrane database of systematic reviews.
[51] Nanliang Chen,et al. Fabrication and Characterization of Composite Meshes Loaded with Antimicrobial Peptides. , 2019, ACS applied materials & interfaces.
[52] B. Aru,et al. Polypropylene composite hernia mesh with anti-adhesion layer composed of polycaprolactone and oxidized regenerated cellulose. , 2019, Materials science & engineering. C, Materials for biological applications.
[53] Xinli Shi,et al. Review and approval of medical devices in China: Changes and reform. , 2018, Journal of biomedical materials research. Part B, Applied biomaterials.
[54] Li Sun,et al. Randomized Controlled Trial Of Lichtenstein Repair Of Indirect Inguinal Hernias With Two Biologic Meshes From Porcine Small Intestine Submucosa , 2019, Therapeutics and clinical risk management.
[55] Paolo Negro,et al. Biological Scaffolds for Abdominal Wall Repair: Future in Clinical Application? , 2019, Materials.
[56] C. Patrick,et al. Tissue engineering strategies for adipose tissue repair , 2001, The Anatomical record.
[57] Joanna Szulc,et al. An in vivo biocompatibility study of surgical meshes made from bacterial cellulose modified with chitosan. , 2018, International journal of biological macromolecules.
[58] Stuart Walker. Repair , 2018, Design Realities.
[59] David I. Watson,et al. Systematic review and meta-analysis of laparoscopic mesh versus suture repair of hiatus hernia: objective and subjective outcomes , 2017, Surgical Endoscopy.
[60] Gorjan Alagic,et al. #p , 2019, Quantum information & computation.
[61] T. Wynn,et al. Macrophages in Tissue Repair, Regeneration, and Fibrosis. , 2016, Immunity.
[62] Corey R Deeken,et al. Evaluation of a fully absorbable poly-4-hydroxybutyrate/absorbable barrier composite mesh in a porcine model of ventral hernia repair , 2016, Surgical Endoscopy.
[63] Czesław Szymczak,et al. Mechanics of mesh implanted into abdominal wall under repetitive load. Experimental and numerical study. , 2019, Journal of biomedical materials research. Part B, Applied biomaterials.
[64] A N Natali,et al. Synthetic surgical meshes used in abdominal wall surgery: Part II-Biomechanical aspects. , 2017, Journal of biomedical materials research. Part B, Applied biomaterials.
[65] Spencer P. Lake,et al. Contamination of hybrid hernia meshes compared to bioresorbable Phasix™ Mesh in a rabbit subcutaneous implant inoculation model , 2019, Annals of medicine and surgery.
[66] Corey R Deeken,et al. Differentiation of Biologic Scaffold Materials Through Physicomechanical, Thermal, and Enzymatic Degradation Techniques , 2012, Annals of surgery.
[67] A. Coda,et al. Classification of prosthetics used in hernia repair based on weight and biomaterial , 2012, Hernia.
[68] Aditi Yadwadkar. Analysis of the thermoplastic copolyester elastomers market influenced by widening scope of end-use applications , 2019 .
[69] I. Han,et al. Effect of polylactic film (Surgi-Wrap) on preventing postoperative ileus after major hepato-pancreato-biliary surgery , 2016, Annals of hepato-biliary-pancreatic surgery.
[70] Randy S. Haluck,et al. Design strategies and applications of biomaterials and devices for Hernia repair , 2016, Bioactive materials.
[71] Shuddhadeb Ray,et al. Pore size and pore shape--but not mesh density--alter the mechanical strength of tissue ingrowth and host tissue response to synthetic mesh materials in a porcine model of ventral hernia repair. , 2015, Journal of the mechanical behavior of biomedical materials.
[72] M. D. Lichtenstein,et al. Hernia Repair Without Disability , 1986 .
[73] H. Redl,et al. Comparison of three separate antiadhesive barriers for intraperitoneal onlay mesh hernia repair in an experimental model , 2011, The British journal of surgery.
[74] K. Junge,et al. Elasticity of the anterior abdominal wall and impact for reparation of incisional hernias using mesh implants , 2001, Hernia.
[75] D. Morton,et al. Systematic review of the stage of innovation of biological mesh for complex or contaminated abdominal wall closure , 2018, BJS open.
[76] Michael A. J. Sawyer. New Ovine Polymer-Reinforced Bioscaffold in Hiatal Hernia Repair , 2018, JSLS : Journal of the Society of Laparoendoscopic Surgeons.
[77] Q. Nunes,et al. Parietex™ Composite mesh versus DynaMesh®-IPOM for laparoscopic incisional and ventral hernia repair: a retrospective cohort study. , 2016, Annals of the Royal College of Surgeons of England.
[78] Arthur Fine,et al. Laparoscopic Repair of Inguinal Hernia with Biomimetic Matrix , 2012, JSLS : Journal of the Society of Laparoendoscopic Surgeons.
[79] Stavros A. Antoniou,et al. The Use of Biological Meshes in Diaphragmatic Defects – An Evidence-Based Review of the Literature , 2015, Front. Surg..
[80] D. Granger,et al. Preclinical evaluation of the effect of the combined use of the Ethicon Securestrap® Open Absorbable Strap Fixation Device and Ethicon Physiomesh™ Open Flexible Composite Mesh Device on surgeon stress during ventral hernia repair , 2017, Medical devices.
[81] D Eglin,et al. Infections associated with mesh repairs of abdominal wall hernias: Are antimicrobial biomaterials the longed-for solution? , 2018, Biomaterials.
[82] Molly M Stevens,et al. Scarring vs. functional healing: Matrix‐based strategies to regulate tissue repair , 2018, Advanced drug delivery reviews.
[83] Gordon R Higson. Essential principles of safety and performance of medical devices , 2001 .
[84] Kerry A. Daly,et al. Macrophage phenotype as a predictor of constructive remodeling following the implantation of biologically derived surgical mesh materials. , 2012, Acta biomaterialia.
[85] Jonathan B Lundy,et al. A Primer on Wound Healing in Colorectal Surgery in the Age of Bioprosthetic Materials , 2014, Clinics in Colon and Rectal Surgery.
[86] S. Badylak,et al. Strength over time of a resorbable bioscaffold for body wall repair in a dog model. , 2001, The Journal of surgical research.
[87] Alexander Huber,et al. Histopathologic host response to polypropylene-based surgical mesh materials in a rat abdominal wall defect model. , 2012, Journal of biomedical materials research. Part B, Applied biomaterials.
[88] Corey R Deeken,et al. Effect of repetitive loading on the mechanical properties of biological scaffold materials. , 2012, Journal of the American College of Surgeons.
[89] T. Robinson,et al. Major mesh-related complications following hernia repair , 2005, Surgical Endoscopy And Other Interventional Techniques.
[90] Stephen F. Badylak,et al. Extracellular Matrix-Based Biomaterials and Their Influence Upon Cell Behavior , 2019, Annals of Biomedical Engineering.
[91] G. Greco,et al. Impact of pericardium bovine patch (Tutomesh®) on incisional hernia treatment in contaminated or potentially contaminated fields: retrospective comparative study , 2015, Hernia.
[92] F. Frizelle,et al. Meta‐analysis of prophylactic mesh to prevent parastomal hernia , 2017, The British journal of surgery.
[93] В. А. Ходак,et al. tension-free repair of abDoMinal wall hernias using glue in experiMent , 2013 .
[94] N. Bouvy,et al. Critical overview of all available animal models for abdominal wall hernia research , 2017, Hernia.
[95] R A Raffman,et al. Hernia repair without disability. , 1972, The Journal of the Medical Society of New Jersey.
[96] D. Mcwhinnie,et al. Laparoscopic Spigelian Hernia Repair: A Systematic Review , 2016, Surgical laparoscopy, endoscopy & percutaneous techniques.
[97] T. Bisgaard,et al. Long-term Recurrence and Complications Associated With Elective Incisional Hernia Repair. , 2016, JAMA.
[98] S. Guelcher,et al. Substrate modulus of 3D-printed scaffolds regulates the regenerative response in subcutaneous implants through the macrophage phenotype and Wnt signaling. , 2015, Biomaterials.
[99] Changli Zhao,et al. Research of a novel biodegradable surgical staple made of high purity magnesium , 2016, Bioactive materials.
[100] Ward Small,et al. Low density biodegradable shape memory polyurethane foams for embolic biomedical applications. , 2013, Acta biomaterialia.
[101] C. G. Fontanella,et al. A numerical investigation of the healthy abdominal wall structures. , 2016, Journal of biomechanics.
[102] H. Redl,et al. Biologic hernia implants in experimental intraperitoneal onlay mesh plasty repair: the impact of proprietary collagen processing methods and fibrin sealant application on tissue integration , 2011, Surgical Endoscopy.
[103] Ralf Gundling,et al. Mechanical Properties of Mesh Materials Used for Hernia Repair and Soft Tissue Augmentation , 2012, PloS one.
[104] Susan Downey,et al. Clinical Application of a Silk Fibroin Protein Biologic Scaffold for Abdominal Wall Fascial Reinforcement , 2014, Plastic and reconstructive surgery. Global open.
[105] Michael J. Rosen,et al. Major Complications Associated With Xenograft Biologic Mesh Implantation in Abdominal Wall Reconstruction , 2009, Surgical innovation.
[106] S. Tabiri,et al. Our Experience with the Use of Low Cost Mesh in Tension-Free Inguinal Hernioplasty in Northern Ghana. , 2017, Ghana medical journal.
[107] Robin Shandas,et al. Integrating a novel shape memory polymer into surgical meshes decreases placement time in laparoscopic surgery: an in vitro and acute in vivo study. , 2013, Journal of biomedical materials research. Part A.
[108] G. Campanelli,et al. EuraHS: the development of an international online platform for registration and outcome measurement of ventral abdominal wall hernia repair , 2012, Hernia.
[109] Thomas W Gilbert,et al. Comparison of in vivo remodeling of urinary bladder matrix and acellular dermal matrix in an ovine model. , 2018, Regenerative medicine.
[110] B Calvo,et al. Mechanical behaviour of synthetic surgical meshes: finite element simulation of the herniated abdominal wall. , 2011, Acta biomaterialia.
[111] B. Matthews,et al. Remodeling characteristics and biomechanical properties of a crosslinked versus a non-crosslinked porcine dermis scaffolds in a porcine model of ventral hernia repair , 2015, Hernia.
[112] G. Campanelli,et al. International guidelines for groin hernia management , 2018, Hernia.
[113] S. Deepthi,et al. Alginate nanobeads interspersed fibrin network as in situ forming hydrogel for soft tissue engineering , 2017, Bioactive materials.
[114] N. Bouvy,et al. Comparison of coated meshes for intraperitoneal placement in animal studies: a systematic review and meta-analysis , 2019, Hernia.
[115] Henrik Holmberg,et al. Chronic pain and risk for reoperation for recurrence after inguinal hernia repair using self-gripping mesh. , 2019, Surgery.
[116] David M. Adelman,et al. Bioprosthetic Versus Synthetic Mesh: Analysis of Tissue Adherence and Revascularization in an Experimental Animal Model , 2018, Plastic and reconstructive surgery. Global open.