福莱新材旗下全资子公司浙江欧仁新材料有限公司承担的2022年度浙江省重点研发“领雁”项目完成验收。项目名称为“前沿创新诊疗设备研发——基于柔性传感技术的可穿戴人体健康监测设备研制与应用示范”，标志着公司在柔性传感与可穿戴健康监测方向取得阶段性成果。
项目完成验收与成果确认
公开报道显示，项目于2025年7月通过会议验收，8月完成验收公示，9月取得验收证书。项目围绕柔性传感材料、压力传感单元、人体信号检测和健康参数分析开展研发，并推进应用示范与成果转化。
柔性压力传感单元实现性能协同
项目在硬件方向采用规则裂纹与双复合导电材料功能层等设计，目标是在灵敏度、量程和一致性之间取得平衡。柔性材料可贴合人体曲面，同时需要兼顾大面积制造、重复弯折和长期信号稳定。
大幅面涂布和材料工艺研究为后续规模化制造提供基础，但产品化还需结合佩戴结构、封装、防护和实际使用环境完成验证。
探索无袖带脉搏波检测
项目研究了基于柔性传感技术的电容式检测方案，利用低负荷、体积小和易于体表共形的特点采集脉搏波信号。可穿戴健康设备需要在舒适性与数据质量之间平衡，传感器位置、佩戴压力和人体运动都会影响测量结果。
从数据采集延伸至智能分析
除硬件外，项目还开展多特征健康参数提取和回归分析研究，将柔性传感数据用于状态识别与参数估计，推动系统从记录原始信号向辅助分析发展。
论文、专利与标准成果同步推进
截至验收，公开报道披露项目组已发表多篇论文，申请并获得多项专利和软件著作权，并参与国家及行业标准制定。这些成果为柔性传感材料、可穿戴器件和健康监测方法的后续研究提供积累。
可穿戴健康监测涉及人体数据和医疗合规，项目研究成果不能直接等同于医疗诊断产品。后续应用仍需经过产品验证、临床或法规要求及实际场景评估。
A 2022 Zhejiang key R&D "Lingyan" project undertaken by Zhejiang Ouren New Materials Co., Ltd., a wholly owned Fulai subsidiary, has completed acceptance. The project, "Development and Demonstration of Wearable Human Health Monitoring Equipment Based on Flexible Sensing Technology," marks staged progress in flexible sensing and wearable health monitoring.
Acceptance and result confirmation
Public reporting states that the project passed meeting acceptance in July 2025, completed public acceptance notice in August and received its certificate in September. Work covered flexible sensing materials, pressure sensing units, physiological-signal acquisition, health-parameter analysis, application demonstrations and technology transfer.
Balancing performance in flexible pressure sensing units
The hardware used designs including controlled cracks and dual-composite conductive functional layers to balance sensitivity, range and consistency. Flexible materials conform to body surfaces while requiring large-area manufacturability, flex endurance and long-term signal stability.
Large-format coating and material-process research provide a foundation for scale, while productization still requires verification of the wearing structure, packaging, protection and actual environment.
Exploring cuffless pulse-wave acquisition
The project studied a capacitive flexible sensing approach for pulse-wave acquisition, using low loading, compact dimensions and body conformability. Wearable devices must balance comfort and data quality because sensor position, wearing pressure and body motion all affect the result.
From data acquisition to intelligent analysis
The project also studied multi-feature health-parameter extraction and regression analysis, using flexible sensor data for state recognition and parameter estimation and moving the system beyond raw-signal recording toward assisted analysis.
Papers, patents and standards
By acceptance, public reports said the team had published multiple papers, filed and received patents and software copyrights and participated in national and industry standards. These results support continued research into materials, wearable devices and health-monitoring methods.
Wearable health monitoring involves personal data and medical compliance. Research results are not equivalent to a medical diagnostic product; future use still requires product validation, applicable clinical or regulatory processes and real-world evaluation.
