Energy Supply. The same energy supply may be used for the steering equipment and other systems. However, in the case of a failure in any system which shares the same energy supply steering shall be ensured in accordance with the relevant failure conditions of paragraph 5.3.
Energy Supply. 2.1.1. The vehicle manufacturer shall define the capacity of the energy source that will enable the current defined in paragraph 2.3. below to be available for the trailer during normal operation of the vehicle.
Energy Supply. Coordinate the use of the transmission and interconnection facilities to provide economical and reliable energy. Expected Allocation Factors - 1) peak load.
Energy Supply. (conclusions of SWOT analyses) Energy supply for Jugla neighborhood has been analyzed as a part of Riga energy supply. Strengths: good current technical condition of combined heat and power (CHP) plants and district heating grid; almost 90% of heat energy is produced in CHP cycle and 100% of electricity is produced in CHP cycle; the district heating grid renovation process is going according to the graphic, external pipe-works are replaced with pre- insulated pipes; during the last decade heat losses in grid have been reduced by more than a half and are now stabilized at 13% which is an appropriate level for an up to date city district heating system; security of both heat and electricity supply is high in Jugla due to several CHP plant connections to heat and electricity transmission networks. Weaknesses: due to the growing electricity demand in Riga and Jugla it might not be possible to significantly increase the share of electricity produced by renewable energy sources (RES). Opportunities: the existing natural gas storage infrastructure in Latvia is uniquely appropriate for energy resources storage in a gas state; the existing natural gas transmission grid will be available after Year 2014 for all gas producers and suppliers, including those who produce and supply sufficiently qualitative gas fuel produced using RES.
Energy Supply. Coordinates the use of the generating, transmission and interconnection facilities to provide economical and reliable energy. Costs of a general nature are allocated using the Electric MWh Generation Ratio.
Energy Supply. 3.1 We will supply energy to each property from the time at which we become the responsible supplier, and you will pay us the charges.
Energy Supply a. The Energy Supply function includes services of executive vice president, finance director, generation vice president/general manager and Edgemoor and Hay Road managers. This function also provides non-regulated operations and management; merchant functions including marketing, portfolio management, risk management, and strategic planning; and supply engineering and support including technical support and project management.
Energy Supply. 2.1 We’ll supply Energy (and provide (or procure that a third party provides) any services associated with the supply of Energy) to the Supply Point(s) at the Address from the Start Date until termination if:
Energy Supply. The Landlord will usually instruct an energy supplier to take over the supply of energy to your property. All accounts for the supply of energy will be transferred to the Tenant(s)' names for the duration of the tenancy. Tenants who change utility companies without permission from the Landlord may incur an administrative expense from the energy supplier. The tenant agrees that some information relating to the Tenant may be passed to utility services to set up the utilities account for the property.
Energy Supply. Reducing GHG emissions in energy supply is a necessary condition for the EU to achieve the Paris commitments. The transformation of the electricity system is already under way, reflected in increased investments in renewable energy and coal phase-out commitments implemented in several EU countries. The electricity sector will play a central role in achieving the EU Green Deal target of a net-zero EU by 2050. Technology options for decarbonising the energy sector are, to a large extent, available on the market. Without the need for breakthrough technologies, further reduction of emissions can be achieved either by replacing fossil fuels with carbon-free energy sources (mostly renewable energy) or by capturing their emissions by CCS and CCU technologies. The range of available low-carbon electricity generation technologies and large renewable resources means that electricity will decarbonisation efforts, provided it can attract sufficient finance. As discussed in previous sections, electricity is also important for decarbonising transport, buildings, and industry, through electrification of energy end uses. So, the implementation of climate neutrality targets depends crucially on the decarbonisation of electricity supply. Renewable energy and nuclear power are the most important carbon-free energy sources used to generate electricity. Renewable sources known today include: wind, solar (PV or thermal), geothermal energy, tide, wave and other ocean energy, hydropower, biomass, landfill gas and biogases. There is a strong consensus in research and stakeholders that renewables will play a key role in decarbonisation pathways. The rapid transformation of the electricity sector is facilitated by the dramatic cost reductions in renewable energy technologies over the past decade, due largely to the impacts of market support policies and enhanced innovation dynamics. The electricity produced by wind and solar PV is now often cheaper than the electricity produced by gas or coal. Solar and wind technologies have shown higher growth rates than other technologies in the last decade driven by large cost reductions and limitations facing other renewable technologies, e.g., limited untapped potential of hydro, land use competition for biomass. PV and wind power remain variable sources that can only produce when solar or wind resources are available, so their large-scale integration requires new market designs, storage, and flexibility. Nuclear energy is a well- established ...
