具有可重构扩展平面结构的动态热传感机制
A dynamic thermal sensing mechanism with reconfigurable expanded-plane structures
AI总结：
提出一种基于可重构扩展平面结构的动态热传感器，通过高度可调的热导率解决传感器与介质参数不匹配问题，实现多环境高精度温度测量。
摘要：
精确测量温度在生物学、医学、工业自动化、能源管理和日常生活应用等多个领域至关重要。在大多数场景下，具有固定热导率的传感器不可避免地与被测介质的类似参数不匹配，从而导致原始温度场的失真和检测不准确。尽管近期在解决参数不匹配问题上做出了努力，但所有现有解决方案都局限于固定的工作介质，而更通用的传感器应在各种场景中发挥作用。在此，我们报告了一种能够在多种工作环境中进行高精度测量的动态热传感器。值得注意的是，得益于扩展平面结构的高度可调热导率，该传感器对具有宽范围热导率的背景介质有效工作。这一发展极大地增强了热传感器的鲁棒性和适应性，为多物理场传感场景中的应用奠定了坚实基础。
英文摘要：
The precise measurement of temperature is crucial in various fields such as biology, medicine, industrial automation, energy management, and daily life applications. While in most scenarios, sensors with a fixed thermal conductivity inevitably mismatch the analogous parameter of the medium being measured, thus causing the distortion and inaccurate detection of original temperature fields. Despite recent efforts on addressing the parameter-mismatch issue, all current solutions are constrained to a fixed working medium whereas a more universal sensor should function in a variety of scenes. Here, we report a dynamic thermal sensor capable of highly accurate measurements in diverse working environments. Remarkably, thanks to the highly tunable thermal conductivity of the expanded-plane structure, this sensor works effect on background mediums with a wide range of conductivity. Such a development greatly enhances the robustness and adaptability of thermal sensors, setting a solid foundation for applications in multi-physical sensing scenarios.
机构、总结、中文摘要均由AI分析而来，可能存在错误，请以论文正文为准。
