Although mainstream photolithography and printing technology have enabled wearable electronics, doing so often entails attaching fairly rigid electronic patches to existing fabrics or directly on the skin, leading to only a small area of the body being covered.
Smart fabrics allow for the seamless integration of electronics, optics, biosensors, and mechanics into a thin strand of fibre that is intrinsically flexible and as thin as a human hair. These fabrics can then be used to monitor vital physiological signals related to our mental and physical health status.
Guo said: “Our breakthrough is the first successful attempt at using thermally drawn fibre in wearable bioelectronics for monitoring biochemical signatures.
"Since most developments so far could not be considered clothes, we devoted our effort to transforming fibre, to make truly wearable smart fabric.”
Graduate student Jingxuan Wu was the leading author of the research work, and it was published in Analytical and Bioanalytical Chemistry on January 9, 2023.
Fibre2Fashion News Desk (DP)
Although mainstream photolithography and printing technology have enabled wearable electronics, doing so often entails attaching fairly rigid electronic patches to existing fabrics or directly on the skin, leading to only a small area of the body being covered.
Smart fabrics allow for the seamless integration of electronics, optics, biosensors, and mechanics into a thin strand of fibre that is intrinsically flexible and as thin as a human hair. These fabrics can then be used to monitor vital physiological signals related to our mental and physical health status.
Guo said: “Our breakthrough is the first successful attempt at using thermally drawn fibre in wearable bioelectronics for monitoring biochemical signatures.
"Since most developments so far could not be considered clothes, we devoted our effort to transforming fibre, to make truly wearable smart fabric.”
Graduate student Jingxuan Wu was the leading author of the research work, and it was published in Analytical and Bioanalytical Chemistry on January 9, 2023.
Fibre2Fashion News Desk (DP)
这种纤维可能会导致基于纤维的智能衣服,在功能上提供更大的通用性,更大的传感区域,更舒适。据日本东北大学的一份新闻稿称,该团队认为,他们开发的智能织物可以彻底改变纺织和医疗行业,造福整个人类社会。
为了生产这种纤维,该团队利用了通用的热拉伸工艺,将热量从宏观预制体中抽出微结构纤维。研究小组还在纤维的纵向表面制作了两个钠和尿酸传感电极。
虽然主流光刻和印刷技术已经使可穿戴电子产品成为可能,但这样做往往需要将相当坚硬的电子补丁贴在现有的织物上或直接贴在皮肤上,导致只覆盖身体的一小部分。
智能织物可以将电子、光学、生物传感器和力学无缝集成到一根本质上柔韧且像头发一样细的薄纤维中。这些织物可以用来监测与我们的精神和身体健康状况相关的重要生理信号。
郭说:“我们的突破是第一次成功地尝试将热拉伸纤维用于可穿戴生物电子设备,以监测生化特征。
“由于到目前为止的大多数开发还不能被视为衣服,我们致力于改造纤维,制造真正可穿戴的智能面料。”
研究生吴敬轩是这项研究工作的主要作者,并于2023年1月9日发表在《分析与生物分析化学》上。
Fibre2Fashion新闻台(DP)