There is a growing requirement of lightweight, energy-saving, integrated devices for various wearable and portable electronic applications.
Besides, we have also adopted a new concept of supercritical CO2 fluid treatment to efficiently reduce the operation current of RRAM devices for portable electronic applications.
The direct methanol fuel cell (DMFC) is regarded as a promising candidate in portable electronic power applications.
Finally, we can reduce the operation current of silicon oxide-based RRAM for portable electronic product applications by SCCO2 fluid treatment.
The performance of the MEMS-based DMFC stack is rather good for application in portable electronic products.
The key driver has been the Flash memory, in particular the NAND Flash, the preeminent NVM technology for the mass storage application in portable electronic systems.
Organic light-emitting diode (OLED) display is considered one of the promising portable electronic devices given that the application requirements for the Internet of Things are necessary.
Although most RRAM devices have many properties superior to nonvolatile memory, the high operation current of RRAM and performance degradation are major issues in nonvolatile memory in terms of the application of portable electronic products.
Due to low cost, facile large-scale synthesis and superior electrochemical performance of S@PPy cathode with high sulfur loading, this work will provide a very promising method to further promote the Li S batteries in the practical application of portable electronic devices, electric devices and energy storage system.
In order to fabricate nonvolatile 4 Mb ferroelectric random access memory (FRAM) for the application to portable electronic devices, we proposed two noble techniques; (1) shared sense amplifier arrangement structure for reducing a chip size, active current, and power consumption, and (2) address transition detection (ATD) control scheme for asynchronous operation and limited address skew-free.
