Panel (NPIAP), involve repositioning at regular intervals for patients confined in clinical bed or wheelchair. [6] However, an appropriate guideline for the repositioning, typically every 2 h, can depend on not only types of mattresses, including air pockets, memory foams and pocket spring, but also critical locations of skin prone to developing pressure injuries. In addition, frequent repositioning leads to decreasing the quality of sleep in patients, interfering with physical activities of patients, and increasing a high risk for back pain or musculoskeletal injuries for patients or caregivers.Recent advances in technologies of wireless platform offer physiological signals for prevention, diagnosis, and treatment of diseases at early stage. In particular, the wireless platforms with multimodal sensors, including Near Field Communication (NFC) or Bluetooth Low Energy (BLE) platforms, have great potential for continuous monitoring of pressure and temperature at interfaces between the skin and various media, including bed mattresses, [7,8] prosthetic sockets [9] and therapeutic compression garments. [10] However, it is challenging to continuously measure pressures with high accuracy and reliability on locations of interest due to a mismatch between the effective area of body weight and the interfacial area of the single sensor. A few reports suggest several pressure sensor arrays for measurement of pressure distribution at locations of interest. [11][12][13][14] Integration of this sensor array with the Bluetooth Low Energy (BLE) platform needs a large number of bulky batteries for long-term monitoring, which pose a risk for developing secondary injuries at skin interfaces. [15] In this context, multiple sensors integrated with the NFC platforms and systems can support capabilities for continuous monitoring of pressure distribution at skin interfaces over full body coverage for long term monitoring without bulky batteries. [7,8] Previous studies have introduced pressure sensors based on various mechanisms such as piezoresistive, [16][17][18] capacitive, [19][20][21] piezoelectric, [22,23] and triboelectric effects. [24,25] In particular, piezoresistive pressure sensors using metal film, CNT, graphene, ionic liquid, and liquid metal have great potential for integrating the wireless platforms owing to simple device design and readout circuit. For real clinical applications, the pressure sensor should have a thin, soft form factor for conformal, irritation-free contact to skin, excellent sensitivity, negligible hysteresis, high linearity and cyclic stability over required pressure range. [7,8] Furthermore, by collecting the pressure sen-