The growing demand for high-power-density electric and electronic systems has encouraged the development of energy-storage capacitors with attributes such as high energy density, high capacitance
Berkeley Lab scientists have achieved record-high energy and power densities in microcapacitors made with engineered thin films, using materials and fabrication techniques already widespread in chip
Electrolytic MnO 2 /Zn battery has attracted significant attention for large-scale energy storage due to its advantages of high energy density and low cost. However, the acidic
Advanced Materials 31 (25), 2019, 1807450. The development of self‐powered electronic systems requires integration of on‐chip energy‐storage units to interface with various types of energy harvesters, which are
Gang Chen''s 83 research works with 714 citations and 3,469 reads, including: Stability characteristics analysis and ultra-low frequency oscillation suppression strategy for FSC-VSPSU
The energy devices for generation, conversion, and storage of electricity are widely used across diverse aspects of human life and various industry. Three-dimensional (3D) printing has emerged as
An integrated energy system combines the power grid, natural gas pipeline, district heating network, and renewable energy generation to enhance the integration of renewable energy
On-chip energy-storage devices play an important role in powering wireless environmental sensors and micro-electromechanical systems [ 1, 2 ]. Starting from the 1980s, on-chip energy-storage devices, including micro-batteries and supercapacitors, have been applied to power the real-time clock on a chip [ 3 ].
To be effective, on-chip energy storage must be able to store a large amount of energy in a very small space and deliver it quickly when needed – requirements that can’t be met with existing technologies.
Their findings, reported this month in Nature, have the potential to change the paradigm for on-microchip energy storage solutions and pave the way for sustainable, autonomous electronic microsystems.
To answer this question, Mai, Yan and colleagues designed an in-transistor energy-storage chip model (Mai–Yan model), as shown in Fig. 1. Interestingly, the charge-storage capability is amplified by a parameter in transistors, named the gate voltage.
Nanostructured storage devices with 3D metal–insulator–metal (MIM) architectures—which require conformal metal and insulator deposition inside porous nanostructures—have successfully increased capacitance density, and therefore energy storage, per unit planar area (Fig. 3b, Supplementary Table 3).
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