Übersetzung für "Überschussenergie" in Englisch

Excess energy is thus converted into heat and dissipated via heat sinks.

The houses even generate a surplus of energy that will be used to charge an e-car that the tenant rents with the house.

Principally it is also conceivable that in the power-to-gas plant 24 a surplus energy of a plant is used.

However, the energy carrier can also be used to store excess energy in industrial countries.

Available excess energy can also be used to prolong the signal duration or signal evaluation.

Any surplus energy from the combustion of the contaminants can thus be used for the pyrolysis process.

This in turn results in an excess energy which needs to be compensated for at the end of the switching operation.

These are then said, for their part, to drive the ATP synthesis and to store their excessive energy in the phosphate bonds of the ATP.

The resulting ultrafast redistribution of excess energy is essential for avoiding a local overheating of the sensitive macromolecular structure.

Most notably, the city of Los Angeles was unaffected by the crisis because government-owned public utilities in California (including the Los Angeles Department of Water & Power) were exempt from the deregulation legislation and sold their excess power to private utilities in the state (mostly to Southern California Edison) during the crises.

As a result of generated, during the tool operation, excess energy, the head of the drive piston 9 impacts the pressure member 7, displacing it in the setting direction 5 .

Depending on the overall heat balance of the method, thermal excess energy can be taken from or supplied to this hot fluid, in order thus to maintain the required temperature conditions, which is indicated in FIG.

Dependent on the temperature of the surplus energy it is often possible to reuse the heat for other purposes after evaporation.

The innovative non-adiabatic approach addresses fundamental problems, such as proton transfer, vibrational lifetimes and the dissipation of excess energy.

Instead of feeding all the surplus energy produced into the network, as is usual today, it is stored in the form of hydrogen.

An additional “sun battery” affords greater independence, since surplus power produced during the day can be stored locally instead of being delivered to the power grid.

In this case, an excited atom can decay by transferring its excess energy to another particle in the environment.

In wet-chemical methods, the compounds are generally embedded in or chemically bonded to polymeric materials, which are generally of such a nature that suitable charge carriers (electrons or holes) can be generated and transported in them, with the proviso that excitons, which transfer their excess energy to the respective electroluminescent compound, are formed when oppositely charged charge carriers collide.

These compounds are frequently embedded in or chemically bonded to polymeric materials, which are generally of such a nature that suitable charge carriers can be generated and transported in them, with the proviso that, when charge carriers of opposite charge meet, excitons are formed which transfer their excess energy to the respective electroluminescent compound.

Any surplus energy from wind and sun can even be used to pump water up into the storage lake or other reservoir and thus be able to make available energy for days when there is less wind and/or sun.

Therefore, the excess energy produced by the generator is temporarily stored in the energy storage device, and when needed can be relayed to the ?-controller or sensor/actuator, or also to a transceiver for transferring information.

The energy storage installation as claimed in claim 1, wherein the energy storage installation is used for storing seasonal excess electrical energy in a power plant that is operated with renewable energies.

Furthermore, high-temperature batteries or high-temperature electrolyzers can be provided for absorbing surplus energy from renewable, fluctuating energy sources (wind energy, solar energy).

The system as claimed in claim 1, wherein the system is used in a power plant, which is operated with renewable energy, for storing seasonal electric surplus energy.

The method as claimed in claim 15, further comprising driving the compression process by electrically seasonally arising surplus energy of a power plant with renewable energies.

According to preferred embodiments, the energy for the electrolytic conversion of M x+ Cl x ? to M and Cl 2 is provided substantially from excess energy, for example, from renewable energies or from conventional energy sources, in other words, for example, to an extent of more than 30%, preferably more than 70%, more preferably more than 80%, and very preferably more than 90%, based on the energy requirement of the electrolysis.