Development of printed attachable E-Health sensors by homogeneous spray of nano ink materials

快速发展的印刷电子技术为低成本生物医学医疗设备提供了新的可能性，以持续监测重要的生物信号。拟议的方法将结合联合收割机纳米技术，直接印刷和快速原型。我提出了一个系统级的方法，用于设计和印刷的可拉伸生物医学传感器系统，使用功能纳米油墨材料。所提出的方法建立在无线传感器系统如何发展的历史趋势上，其中各种微型设备已被集成到一个单一的设备中。然而，所提出的方法是新颖的，因为它带来了印刷电子概念的生物医学领域。印刷电子产品有潜力提高功能，同时降低系统级成本。柔性电子领域的最新进展在材料特性、器件理解和再现性方面已经达到了一个复杂的阶段，这已经证明了潜在的价值和支持更具挑战性的应用的能力。因此，高效印刷技术的关键创新可以产生全新一代的电子健康传感器产品和设备，当与功能性电子纳米油墨的高分辨率直接印刷相结合时，这种创新战略将产生一种新的具有成本效益和精确的工业标准，取代当今使用的最佳方法。这将使加拿大在附加生物医学传感器方面具有战略优势。

Rapidly developed printed electronics promote new possibilities for low-cost biomedical healthcare devices to continuously monitor vital biological signals. The proposed approach will combine nanotechnology, direct printing and rapid prototyping. I propose a system-level approach for the design and printing of stretchable biomedical sensor systems using functional nano-ink material. The proposed approach builds on the historical trend of how wireless sensor systems have been developed, where various micro-devices have been integrated into a single device. However, the proposed approach is novel in that it brings the printed electronics concept to the biomedical field. Printed electronics have the potential to improve functionality while reducing the costs at the system level. Recent advances in the field of flexible electronics have reached a stage of sophistication in material properties, device understanding, and reproducibility that have demonstrated both potential value and the capacity to support more challenging applications. Therefore, pivotal innovations in process-efficient printing techniques can result in an entirely new generation of E-health sensor products and devices When combined with high-resolution direct printing of functional electronic nano inks, this innovation strategy will result in a new cost-effective and precise industrial standard that supersedes the best methods in use today. This would give Canada a strategic advantage in attachable bio-medical sensors.