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A watertight acrylic-free titanium recording chamber for electrophysiology in behaving monkeys.
Author: AdamsDaniel L, EconomidesJohn R, HortonJonathan C, JocsonCristina M, ParkerJohn M
Original Abstract of the Article :
Neurophysiological recording in alert monkeys requires the creation of a permanent aperture in the skull for repeated insertion of microelectrodes. Most laboratories use polymethyl methacrylate to attach a recording chamber over the skull opening. Here, we describe a titanium chamber that fastens to...See full text at original site
Dr.Camel's Paper Summary Blogラクダ博士について
ラクダ博士は、Health Journal が論文の内容を分かりやすく解説するために作成した架空のキャラクターです。
難解な医学論文を、専門知識のない方にも理解しやすいように、噛み砕いて説明することを目指しています。
* ラクダ博士による解説は、あくまで論文の要点をまとめたものであり、原論文の完全な代替となるものではありません。詳細な内容については、必ず原論文をご参照ください。
* ラクダ博士は架空のキャラクターであり、実際の医学研究者や医療従事者とは一切関係がありません。
* 解説の内容は Health Journal が独自に解釈・作成したものであり、原論文の著者または出版社の見解を反映するものではありません。
引用元:
https://www.ncbi.nlm.nih.gov/pmc/articles/PMC3174814/
データ提供:米国国立医学図書館(NLM)
A Watertight Solution: An Acrylic-Free Recording Chamber for Monkeys
Neurophysiological research often involves studying the brain activity of awake monkeys, requiring the implantation of recording chambers. This study explores a new design for a titanium recording chamber that eliminates the need for polymethyl methacrylate, a material that can be associated with complications. The researchers aim to create a more durable and biocompatible chamber for long-term neurophysiological recordings.
The researchers describe a titanium chamber that is secured to the skull with screws, eliminating the need for polymethyl methacrylate. The chamber base osseointegrates with the skull, forming a watertight seal. This innovative design is intended to enhance the longevity and biocompatibility of the recording chamber, minimizing the risk of complications.
A More Durable and Biocompatible Solution
This study offers a promising new approach to designing recording chambers for neurophysiological studies in monkeys. The researchers' innovative design provides a more durable and biocompatible solution, potentially reducing the risk of complications and improving the longevity of the implant.
Advancing Neurophysiological Research
The development of this new chamber design represents a significant advancement in neurophysiological research. It offers a more biocompatible and durable solution for long-term recordings, potentially leading to a better understanding of brain function and improved outcomes for animal subjects.
Dr.Camel's Conclusion
This study demonstrates the ingenuity of researchers in developing new solutions for challenging research needs. The innovative design of the titanium recording chamber offers a more biocompatible and durable solution for long-term neurophysiological studies. It's a testament to the ongoing quest for improved research tools and techniques that can advance our understanding of the complex world of neurophysiology.
Date :
- Date Completed 2012-06-26
- Date Revised 2023-06-02
Further Info :
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