Enabling fast charging – Battery thermal considerations

Battery Charging Technologies for Advanced Submarine Requirements

Starting in 2009, MTU began combining the properties of its existing successful submarine solutions for all customers’ submarine designs with new market requests from submarine building shipyards. The resulting product specification was then augmented with the modern submarine requirements (partly described on the following pages). In 2011, the detailed concept study for these functional and pe...

Digital control of contactless battery charging system

This project develops and implements a safe, reliable method for contactless charging of electric vehicle batteries. The charging system's interface to the electric utility operates with unity power factor. This system accommodates many battery types by using a novel, large signal linear digital controller that can track arbitrary current profiles. Non-ohmic charging occurs through a two part, ...

Self-powered fluorescence display devices based on a fast self-charging/recharging battery (Mg/Prussian blue).

Stimuli-responsive (such as voltage and/or light) fluorescence display systems have attracted particular attention in their promising fields of application. However, there are few examples of self-powered fluorescence display devices. Here we designed and fabricated a self-powered fluorescence display device based on a fast-charging/recharging battery. The specially designed battery was compose...

Control-Oriented Modeling of A Lithium-Ion Battery for Fast Charging ⋆

The fast charge battery control problem is characterized by the need to have a sufficiently detailed model that can capture both the charging process and the inevitable constraints that limit the rate of charging due to battery state of health requirements. Presently, it appears the minimal modeling requirements to address the charging problem in model based fashion are unknown. This work seeks...

Charging Considerations for Virtual Private DiffServ Networks