mSLAb - 一种开源的掩膜立体光刻 (mSLA) 生物打印机

IF 4.6 Q2 MATERIALS SCIENCE, BIOMATERIALS ACS Applied Bio Materials Pub Date : 2024-06-10 DOI:10.1016/j.ohx.2024.e00543
Benedikt K. Kaufmann , Matthias Rudolph , Markus Pechtl , Geronimo Wildenburg , Oliver Hayden , Hauke Clausen-Schaumann , Stefanie Sudhop
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引用次数: 0

摘要

三维生物打印是一种组织工程学方法,利用快速成型技术制造等效组织,用于再生医学或医学药物测试。为此,可提供必要微环境的生物材料被加工成三维(3D)结构,以支持直接整合或打印后播种的细胞的存活。与生物打印中最常用的挤压式三维打印相比,立体光刻技术(SLA)的打印分辨率更高,处理速度更快,可使用明胶或胶原蛋白水凝胶等多种细胞友好型材料,因此非常适合生成三维组织结构。专有打印机的高成本严重限制了 SLA 生物打印的教学和研究。mSLAb 以入门级(350 欧元)桌面 mSLA 打印机(Phrozen Sonic Mini 4 K)为基础,配备了打印室温度控制和加湿功能,可处理细胞友好型水凝胶。此外,还重新设计了构建平台,以方便样品处理和打印构建体的显微分析。我们通过打印宏观多孔支架以及明胶基水凝胶空心通道验证了该系统,这些都是组织工程所需的代表性结构。
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mSLAb – An open-source masked stereolithography (mSLA) bioprinter

3D bioprinting is a tissue engineering approach using additive manufacturing to fabricate tissue equivalents for regenerative medicine or medical drug testing. For this purpose, biomaterials that provide the essential microenvironment to support the viability of cells integrated directly or seeded after printing are processed into three-dimensional (3D) structures. Compared to extrusion-based 3D printing, which is most commonly used in bioprinting, stereolithography (SLA) offers a higher printing resolution and faster processing speeds with a wide range of cell-friendly materials such as gelatin- or collagen-based hydrogels and SLA is, therefore, well suited to generate 3D tissue constructs.

While there have been numerous publications of conversions and upgrades for extrusion-based printers, this is not the case for state-of-the-art SLA technology in bioprinting. The high cost of proprietary printers severely limits teaching and research in SLA bioprinting. With mSLAb, we present a low-cost and open-source high-resolution 3D bioprinter based on masked SLA (mSLA). mSLAb is based on an entry-level (€350) desktop mSLA printer (Phrozen Sonic Mini 4 K), equipped with temperature control and humidification of the printing chamber to enable the processing of cell-friendly hydrogels. Additionally, the build platform was redesigned for easy sample handling and microscopic analysis of the printed constructs. All modifications were done with off-the-shelf hardware and in-house designed 3D printed components, printed with the same printer that was being modified.

We validated the system by printing macroscopic porous scaffolds as well as hollow channels from gelatin-based hydrogels as representative structures needed in tissue engineering.

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来源期刊
ACS Applied Bio Materials
ACS Applied Bio Materials Chemistry-Chemistry (all)
CiteScore
9.40
自引率
2.10%
发文量
464
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