3D printing and modelling of customized implants and surgical guides for non-human primates

被引:62
|
作者
Chen, Xing [1 ]
Possel, Jessy K. [1 ]
Wacongne, Catherine [1 ]
van Ham, Anne F. [1 ]
Klink, P. Christiaan [1 ,2 ,3 ,4 ]
Roelfsema, Pieter R. [1 ,3 ,4 ]
机构
[1] Netherlands Inst Neurosci, Dept Vis & Cognit, Meibergdreef 47, NL-1105 BA Amsterdam, Netherlands
[2] Netherlands Inst Neurosci, Dept Neuromodulat & Behav, Meibergdreef 47, NL-1105 BA Amsterdam, Netherlands
[3] Vrije Univ Amsterdam, Dept Integrat Neurophysiol, De Boelelaan 1085, NL-1081 HV Amsterdam, Netherlands
[4] Acad Med Ctr, Dept Psychiat, Postbus 22660, NL-1700 DD Amsterdam, Netherlands
关键词
3D printing; Cranial implants; Electrophysiology; Primate; INTRACORTICAL-ELECTRODE-ARRAY; HEAD FIXATION DEVICE; CRANIAL IMPLANTS; BEHAVING MONKEYS; RECORDING CHAMBERS; TITANIUM IMPLANTS; MACAQUE MONKEYS; OSSEOINTEGRATION; SIMULATION; INTERFACE;
D O I
10.1016/j.jneumeth.2017.05.013
中图分类号
Q5 [生物化学];
学科分类号
071010 ; 081704 ;
摘要
Background: Primate neurobiologists use chronically implanted devices such as pedestals for head stabilization and chambers to gain access to the brain and study its activity. Such implants are skull-mounted, and made from a hard, durable material, such as titanium. New method: Here, we present a low-cost method of creating customized 3D-printed cranial implants that are tailored to the anatomy of individual animals. We performed pre-surgical computed tomography (CT) and magnetic resonance (MR) scans to generate three-dimensional (3D) models of the skull and brain. We then used 3D modelling software to design implantable head posts, chambers, and a pedestal anchorage base, as well as craniotomy guides to aid us during surgery. Prototypes were made from plastic or resin, while implants were 3D-printed in titanium. The implants underwent post-processing and received a coating of osteocompatible material to promote bone integration. Results: Their tailored fit greatly facilitated surgical implantation, and eliminated the gap between the implant and the bone. To date, our implants remain robust and well-integrated with the skull. Comparison with existing method(s): Commercial-off-the-shelf solutions typically come with a uniform, flat base, preventing them from sitting flush against the curved surface of the skull. This leaves gaps for fluid and tissue ingress, increasing the risk of microbial infection and tissue inflammation, as well as implant loss. Conclusions: The use of 3D printing technology enabled us to quickly and affordably create unique, complex designs, avoiding the constraints levied by traditional production methods, thereby boosting experimental success and improving the wellbeing of the animals. (C) 2017 The Author(s). Published by Elsevier B.V.
引用
收藏
页码:38 / 55
页数:18
相关论文
共 50 条
  • [31] Value of 3D printing for the comprehension of surgical anatomy
    Marconi, Stefania
    Pugliese, Luigi
    Botti, Marta
    Peri, Andrea
    Cavazzi, Emma
    Latteri, Saverio
    Auricchio, Ferdinando
    Pietrabissa, Andrea
    SURGICAL ENDOSCOPY AND OTHER INTERVENTIONAL TECHNIQUES, 2017, 31 (10): : 4102 - 4110
  • [32] 3D printing of customized lignocellulose nanofibril aerogels for efficient thermal insulation
    Liu, Chuhang
    Li, Mei-Chun
    Liu, Xinyue
    Zhou, Guoqiang
    Liu, Chaozheng
    Mei, Changtong
    ADDITIVE MANUFACTURING, 2023, 78
  • [33] 3D printing technology: A new approach for the fabrication of personalized and customized pharmaceuticals
    Ullah, Muneeb
    Wahab, Abdul
    Khan, Shahid Ullah
    Naeem, Muhammad
    Rehman, Khalil Ur
    Ali, Haider
    Ullah, Aziz
    Khan, Amjad
    Khan, Nauman Rahim
    Rizg, Waleed Y.
    Hosny, Khaled M.
    Alissa, Mohammed
    Badr, Moutaz Y.
    Alkhalidi, Hala M.
    EUROPEAN POLYMER JOURNAL, 2023, 195
  • [34] Finite Element Analysis of a Customized Eyeglass Frame Fabricated by 3D Printing
    Lee, Ji-Eun
    Im, Young-Eun
    Park, Keun
    TRANSACTIONS OF THE KOREAN SOCIETY OF MECHANICAL ENGINEERS A, 2016, 40 (01) : 65 - 71
  • [35] A Customized User Interface Implementation for 3D Printing Applications on Mobile Devices
    Shine, Daniel
    Baek, Nakhoon
    Kim, Dongjin
    ADVANCED SCIENCE LETTERS, 2016, 22 (09) : 2504 - 2508
  • [36] 3D Printing of Customized Li-Ion Batteries with Thick Electrodes
    Wei, Teng-Sing
    Ahn, Bok Yeop
    Grotto, Julia
    Lewis, Jennifer A.
    ADVANCED MATERIALS, 2018, 30 (16)
  • [37] USE OF 3D PRINTING TECHNOLOGIES IN EXTERNAL RADIOTHERAPY FOR THE FABRICATION OF CUSTOMIZED BOLUS
    Perez-Cualtan, Camilo E.
    Abril, Andrea
    Venegas, Daniel R. Suarez
    MOMENTO-REVISTA DE FISICA, 2024, (69): : 80 - 100
  • [38] Virtual surgical planning and 3D printing in prosthetic orbital reconstruction with percutaneous implants: a technical case report
    Huang, Yu-Hui
    Seelaus, Rosemary
    Zhao, Linping
    Patel, Pravin K.
    Cohen, Mimis
    INTERNATIONAL MEDICAL CASE REPORTS JOURNAL, 2016, 9 : 341 - 345
  • [39] Constructing Customized Multimodal Phantoms Through 3D Printing: A Preliminary Evaluation
    Qiu, Jianfeng
    Hou, Kun
    Dyer, Brandon A.
    Chen, Jyh-Cheng
    Shi, Liting
    Sun, Yong
    Xu, Longchun
    Zhao, Huihui
    Li, Zhengmei
    Chen, Tiao
    Li, Minghui
    Zhang, Fuquan
    Zhang, Haozhao
    Rong, Yi
    FRONTIERS IN PHYSICS, 2021, 9
  • [40] Case Study: 3D Modelling and Printing of a Plastic Respirator in Laboratory Conditions
    Pekarcikova, Miriam
    Trebuna, Peter
    Kliment, Marek
    Kral, Stefan
    APPLIED SCIENCES-BASEL, 2022, 12 (01):