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仿生可打印組織

UT Austin 研發類組織可打印材料

仿生可打印組織,正透過打造可複製活體人類組織選擇性過濾及運輸功能的 3D 可打印結構,推動材料科學向前邁進。德州大學奧斯汀分校研究人員,研發出一套可規模化的製程,透過數以十億計以薄膜隔開的微觀水滴,快速形成類組織物料。此物料可因應不同應用領域訂製,涵蓋由組織工程、器官支架,以至軟體機械人、廢水處理及腦啟發運算等範疇。此物料能夠模擬生物功能,而不僅僅是生物形態,這一特性擴大了 3D 打印物料於多個行業的潛在應用範圍。

對企業而言,此平台可透過單一製造方式,加速下一代醫療器械、先進過濾系統及自適應機械人技術的開發。此可規模化的生產方式,亦降低研究及商業化的門檻,讓實驗室及企業更易探索新的應用領域。隨著市場對多功能生物材料的需求日增,仿組織平台有望成為未來醫療保健、環境及工業科技的重要基礎。

圖片來源:The University of Texas at Austin

英文原文

Bioinspired printable tissues are advancing materials science by creating 3D-printable structures that replicate the selective filtering and transport functions of living human tissue. Researchers at the University of Texas at Austin developed a scalable process that rapidly forms tissue-like materials from billions of microscopic water droplets separated by thin membranes. The resulting material can be customized for applications ranging from tissue engineering and organ scaffolds to soft robotics, wastewater treatment and brain-inspired computing. Its ability to mimic biological functions rather than simply biological form expands the potential uses of 3D-printed materials across multiple industries.

For businesses, this platform could accelerate the development of next-generation medical devices, advanced filtration systems and adaptive robotic technologies using a single manufacturing approach. The scalable production method also lowers barriers for research and commercialization, making it easier for laboratories and companies to explore new applications. As demand grows for multifunctional biomaterials, tissue-inspired platforms could become an important foundation for future healthcare, environmental and industrial technologies.

Image Credit: The University of Texas at Austin

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來源
Trend Hunter
發布
2026-08-07
品類
Inventions
出處
3dprinting, news.utexas.edu

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