In this paper, the novel nanocrystalline powder core is proposed and designed for a SiC MOSFET based DC/DC boost converter. Finite Element (FE) models of the nanocrystalline powder core
This paper proposes a new ZCS non-isolated bidirectional buck–boost DC–DC converter for energy storage applications. The conventional bidirectional converter derived with auxiliary
DOI: 10.1016/J.NANOEN.2019.103883 Corpus ID: 199181721; A model for the triboelectric nanogenerator with inductive load and its energy boost potential @article{Lu2019AMF, title={A
By adopting a simple inductive energy storage (IES) circuit [7] In principle, this circuit is similar to a DC-DC boost converter circuit [30, 31]. The distinction is that the latter
Battery is the main energy storage device for EVs, HEVs, and PHEVs. Electricity is produced releasing the energy stored in the battery chemicals [27]-[28]. The battery life, power, and
: A novel magnetically-coupled energy storage inductor boost inverter circuit for renewable energy and the dual-mode control strategy with instantaneous value feedback of
the development of an inductive energy storage device [6], the com-bination of the inductive energy storage device and the trigger-less ignition method [16], and the use of a compact
A simple inductive energy storage circuit in a vacuum arc thruster is particularly suitable for CubeSats because of its compact size and low cost. In practice, it is necessary to
Solid-state Marx pulse generators are widely used in biomedical electroporation, food processing, and plasma material modification. It uses parallel charging of energy storage capacitors and
It is mentioned in refs. [18 - 20] that the inductor is used as the secondary energy storage element to discharge pulses on the load through the cooperative action of the switch. The pulse amplitude obtained on the load will be higher than that on the primary energy storage unit so as to get a higher voltage gain.
The following conclusions can be drawn: When the distributed inductor of the transmission line is used as the energy storage unit, nanosecond pulses with high-voltage gain can be generated, whose pulse width is determined by the length of the transmission line.
In the field of photovoltaic energy-based systems, achieving high voltage gain while minimizing voltage stress on semiconductor components is a critical challenge. This paper addresses this issue by presenting a novel high voltage gain converter that employs a coupled inductor with reduced voltage stress.
The inductors play a critical role in energy storage and transfer: Inductance Value for Lin: Should ensure Continuous Conduction Mode (CCM) operation under normal load conditions, reducing ripple and improving efficiency. Coupled Inductor: The turns ratio N helps in adjusting voltage levels and improving power transfer capability.
In 22, a switched inductor technique is utilized to construct a high step-up boost converter with fewer components and a simple structure, but the voltage gain is significantly reduced at low voltage inputs with low efficiency due to the hard-switching work condition.
The tests were conducted under different input and load conditions to verify that the converter has stable output characteristics. In addition, the proposed converter has low input current ripple, high voltage gain, low switching stress, and common ground characteristics, which makes it suitable for integrated multi-energy storage systems.
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