WO2019141587A1 - Installation de production d'énergie, procédé servant à faire fonctionner une unité de calcul et module d'équipement ultérieur - Google Patents

Installation de production d'énergie, procédé servant à faire fonctionner une unité de calcul et module d'équipement ultérieur Download PDF

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Publication number
WO2019141587A1
WO2019141587A1 PCT/EP2019/050573 EP2019050573W WO2019141587A1 WO 2019141587 A1 WO2019141587 A1 WO 2019141587A1 EP 2019050573 W EP2019050573 W EP 2019050573W WO 2019141587 A1 WO2019141587 A1 WO 2019141587A1
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computing
computing unit
power
energy
electrical energy
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PCT/EP2019/050573
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German (de)
English (en)
Inventor
Tobias MADER
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Mader Tobias
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Application filed by Mader Tobias filed Critical Mader Tobias
Priority to EP19700665.3A priority Critical patent/EP3743878A1/fr
Publication of WO2019141587A1 publication Critical patent/WO2019141587A1/fr

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    • G—PHYSICS
    • G06—COMPUTING; CALCULATING OR COUNTING
    • G06Q—INFORMATION AND COMMUNICATION TECHNOLOGY [ICT] SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES; SYSTEMS OR METHODS SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES, NOT OTHERWISE PROVIDED FOR
    • G06Q50/00—Information and communication technology [ICT] specially adapted for implementation of business processes of specific business sectors, e.g. utilities or tourism
    • G06Q50/06—Energy or water supply

Definitions

  • the invention relates to a power generation plant with an energy generating device and a computing unit. Furthermore, the invention relates to a method for operating a computing unit. In addition, the invention relates to a retrofit assembly for installation on a power generating device.
  • Electrical energy such as electricity
  • electricity is nowadays provided by different power plants operated by power generators.
  • the electricity generated in the power generation plants (electrical energy) is first through a
  • the generated and counted electrical energy is then fed into a supply network, which is operated by an energy supplier and can also be referred to as a power grid.
  • the power generation plant is coupled on the generator side with the supply network. This means that each energy generating plant is assigned a corresponding energy output counter, which counts the amount of electrical energy that is fed into the supply network.
  • the electrical energy is routed to the respective consumer via the supply network, that is to say to the end customer, who is connected to the supply network on the consumer side.
  • End customers can be households, small and medium-sized enterprises (SMEs) or large enterprises (factories).
  • SMEs small and medium-sized enterprises
  • factories large enterprises
  • the end customer typically consumes the electrical energy made available to it, which has been fed into the respective domestic network via the supply network.
  • data centers are known that include several computing units that provide computing or server performance.
  • mining farms which consist of several mining units, on the basis of which among other checksums or so-called hash values for block-chain applications such as cryptocurrencies are calculated or generated.
  • the checksums or hash values can be used for a decentralized administration, control and / or control of shared bookkeeping, ie a so-called “distributed ledger”.
  • the data centers Due to the high computational effort, the data centers have a high energy requirement.
  • the data centers especially the mining farms, set up in the vicinity of a power plant, so that generated by the power generation plant and fed into the grid electrical energy must travel only a short distance until the electrical energy is transmitted to the consumer side connected to the supply network computing units, in particular mining units. This minimizes transmission losses.
  • the data centers are operated by computational service providers that are independent of the operators of the power generation plant. The operators of the data centers are therefore typical end users who are connected to the supply network into which the electrical energy generated by the power generation plant is fed.
  • the object of the invention is to provide a more energy efficient and cost effective way to operate a computing unit.
  • the object is achieved by a power generation plant with an energy generating device that generates electrical energy for feeding into a supply network, an energy output meter that counts the fed by the power generation device in the supply network electrical energy, and at least one computing unit that has a corresponding Computing power, wherein the computing unit in the direction of current flow between the power generation device and the Energy output counter is arranged, wherein the computing unit is configured to provide server and / or computing power to a computing service provider and / or a computing power user available, in particular wherein the computing service provider is different from the operator of the power generation plant.
  • a method for operating at least one computing unit of a power generation plant comprising the following steps:
  • the computing unit Providing the computing unit with the electrical energy generated by the power generation device, the computing unit providing server and / or computing power to a computing service provider and / or a computing power user,
  • the basic idea of the invention is that the electrical current or the electrical energy generated by the energy generating device is tapped directly in order to supply the at least one computing unit with the required electrical energy (so-called self-supply or self-supply), ie before the electrical energy is counted via the energy output counter and also before the electrical energy is ever fed into the supply network. Therefore, only the unused part of the generated electrical energy is fed into the supply network and only this part of the electrical energy is counted by the energy output counter. Accordingly, the at least one computing unit is not connected to the power supply network in terms of its counterpart or consumer side in contrast to the approaches known from the prior art, but rather is the generator side.
  • the at least one computing unit thus represents an energy consumer, which is not used for power generation, but provides its computing or server power for purposes other than power generation available.
  • the computing or server performance is used by a computing service provider or computing power user who is independent of the operator of the power generation plant.
  • the computing or server power available is used by the computing service provider or by the computing user for artificial intelligence applications.
  • the available computing or server performance can also be used to generate checksums or hash values, which are required, inter alia, for block-chain applications, for example for cryptocurrencies. In general, any compute-intensive applications can be covered by the available computing or server performance.
  • the server and / or computing power provided by the computing unit is thus used independently of the power generation plant.
  • the direction of current flow corresponds to the direction of energy flow, that is to say the direction which indicates the flow of energy, namely in the direction of the supply network.
  • the computing unit is thus part of the power generation plant.
  • the computing unit is integrated in the power generation plant.
  • the integrated into the power generation unit computing unit is therefore arranged in front of an output counter of the power generation plant.
  • the construction or cultivation of the at least one computing unit is provided at corresponding electrical stations of the power generation plant.
  • the at least one computing unit is owned by the operator of the power generation plant.
  • the at least one computing unit may even be the property of the operator of the power generation plant.
  • the operator of the power generation plant is entitled to claims from the Renewable Energy Sources Act (EEG).
  • the owner of the at least one computing unit is a computing service provider that is different from the operator of the power generation plant, wherein the operator of the power generation plant sets up the computing unit of the computing service provider as part of the power generation plant.
  • the energy generation plant or the energy production facility can be a solar plant, a solar plant park, a wind power plant, a hydroelectric power plant, a biomass power plant, a coal power plant, a gas power plant or a nuclear power plant, so that the generated electrical energy is solar energy, wind energy , Hydroelectric energy, energy from biomass, energy from fossil fuels or nuclear energy.
  • edge computing unit or a so-called edge computing center can be formed via the power generation plant and the computing unit integrated therein, in particular with the assigned or integrated server unit.
  • a computing unit or data center may be provided that provides, for example, server and / or computing power for compute-intensive applications, such as artificial intelligence ("Kl”) applications.
  • Kl artificial intelligence
  • the at least one computing unit or the at least one data center in the vicinity of highways can be installed in a simple manner so that the at least one computing unit or the at least one computer center for vehicle-to-vehicle communication, "Car2Car Communication "or” Car2X Communication "called, or can be used in autonomous driving.
  • the server and / or computing power for communication according to the 5G standard can be made available, which is intended inter alia for inter-vehicle communication.
  • the at least one computing unit can be supplied, in addition to the electrical energy generated by the energy generating device, with electrical energy from another energy generating plant.
  • the computing unit is at least partially operable via a so-called third-party supply.
  • the at least one computing unit is at least partially, in particular mainly, supplied with the required electrical energy by the power generation device that is part of the power generation plant.
  • the at least one computing unit can therefore be mainly self-powered.
  • the electrical energy generated by the energy generating device can be provided in addition to the at least one computing unit and other components of the power generation plant (self-supply), which are, however, usually provided for generating the electrical energy.
  • Rulers can generally be used in shared accounting, also known as Distributed Ledger.
  • Shared accounting usually has decentralized management, control and / or control, for example via a decentralized computer network takes place, in which several computing and / or server units are integrated, among other mining units.
  • the decentralized administration, control and / or control is carried out via a database, which includes all previously made transactions and is continuously updated with new transactions.
  • the previous transactions are secured by so-called checksums ("hash values") in order to prevent subsequent manipulation.
  • checksums are also known as cryptographic checksums.
  • the checksums or hash values used to secure split-book transactions are generated by the mining units, also referred to as miners.
  • the database is not centrally stored, but decentralized, ie via a decentralized computer network.
  • the subscribers (also referred to as nodes) of the decentralized computer network check the other subscribers (nodes), in particular their respective data records, in order to ensure that all subscribers (nodes) provide the same data. This further increases the security of the entire system.
  • blockchain An example of a shared bookkeeping can be represented by a so-called block chain (“blockchain”), the corresponding data being data blocks of this block chain, which are strung together, in particular in chronological order.
  • the previous data blocks, which comprise the transactions already made, are mapped using hash values in the new data blocks in order to prevent subsequent manipulation.
  • a block chain is a distributed database whose integrity is secured by the checksums generated by the mining units. This is due to the fact that the cryptographic checksum of the previous data set is saved in the respective subsequent data record, in particular via the hash values, as has already been explained above. This ensures that the data is subsequently no longer manipulable or the data in the correct temporal sequence are deposited.
  • the block chain consists of a series of individual data records or data blocks, in each of which one or more transactions are combined and provided with a check sum ("hash value").
  • the electrical energy fed into the supply network is counted by an energy output counter.
  • the electrical energy fed into the supply network is the electrical energy which has been generated by the energy generating device and has not been consumed by the computing unit (or other components whose own requirements are covered).
  • By counting or quantifying the electrical energy fed into the supply network it is ensured that the amount of electrical energy that has been generated by the energy generation system and has not been used for self-supply can be detected.
  • the counted or quantified electrical energy is the energy that is actually fed into the supply network and thus made available to the various end customers via the supply network.
  • the computing unit is a mining unit that is set up to generate data of a shared bookkeeping system, for example to generate a checksum, in particular the checksum of a block chain.
  • the checksum or so-called hash value is used to ensure integrity.
  • the computation steps that are necessary to generate a checksum are corresponding computationally intensive, so that a high energy demand exists. This can be ensured due to the direct connection to the power generation facility in a simple and energy efficient manner.
  • the computing unit has a communication interface, in particular wherein the computing unit is part of a decentralized computing network via the communication interface, via which transactions are managed, controlled and / or controlled in a decentralized manner.
  • the communication interface may be a wireless or wired interface via which the computing unit can be connected to the Internet.
  • LAN Local Area Network
  • the communication interface can be formed via a wireless local area network (WLAN) interface, via which the computing unit is integrated in the decentralized computer network.
  • WLAN wireless local area network
  • the distributed computing network can be provided to manage, control or control the shared accounting, for example the corresponding block-chain application, in particular that of a crypto-currency.
  • the communication interface to provide the computing power of the computing unit, in particular a third party.
  • the integrated into the power generation unit computing unit which is thus arranged in front of the output counter of the power generation plant, thus represents an interface for external computing power users.
  • the computing unit may comprise a server unit which is set up to set up a decentralized computing network with further server units, in particular transactions being managed, controlled and / or controlled locally via the decentralized computing network.
  • the further server units can be nodes that calculate the transactions, ie the corresponding data records that are backed up by the computing unit designed as a mining unit with a corresponding checksum that the computing unit calculates.
  • the server unit can be coupled to the communication interface or provide the communication interface.
  • the computing service provider and / or authorized persons for example the computing power user, can access the server and / or computing power of the computing unit via the communication interface of the computing unit, in particular via the Internet.
  • a further aspect provides that the computing unit has a current input interface, via which the computing unit receives electrical energy, in particular wherein the energy generating device is coupled to the current input interface.
  • the computing unit receives the electric power generated by the power generation device directly before this is counted over the energy output counter.
  • the computing unit is coupled to the power generation device via the current input interface.
  • a transformer is provided which is assigned to the current input interface of the computing unit.
  • the transformer converts the electrical energy generated by the energy generating device into a voltage level which is required by the at least one computing unit and can be processed, for example a voltage 230 V. This ensures that the computing unit is not damaged.
  • the transformer can also be referred to as an isolating transformer.
  • the transformer can convert a voltage of the power-generating device, for example of 690 V, to a voltage level suitable for the computing unit, for example to a voltage of 230 V or to 400 V.
  • the electrical energy at the voltage level can be used with which the power generating device works. This is also referred to as self-supply or self-supply with regard to the power generation plant.
  • a departure to the power supply of the computing unit is preceded by the output counter of the power generation plant, in particular wherein the transformer is associated with the departure.
  • a further aspect provides that the at least one computing unit is assigned a self-consumption meter that detects the power consumption of the computing unit.
  • the own power consumption of the at least one computing unit can be detected, which in the simplest case (without further self-supply of other components) represents the difference between the electrical energy generated by the power generation device and the electrical energy fed into the supply network by the power generation system.
  • the energy consumed by the at least one computing unit can be detected via the own energy consumption counter. so that the allowance can be determined according to the Renewable Energy Sources Act (EEG allowance) and deducted accordingly.
  • the own energy consumption meter is provided in addition to the usually provided output counter of the power generation device, which is set up to count the power supply to the public grid.
  • the at least one computing unit may be at least partially, in particular completely, housed in a shelving system to which a ventilation system is associated, in particular wherein the ventilation system is a passive or active ventilation system.
  • the shelving system ensures that the at least one computing unit has a desired stability and security against contact.
  • About the corresponding ventilation system ensures that the heated air is discharged, which arises during operation of at least one computing unit. As a result, the reliability of the power generation plant, in particular the at least one computing unit, increased accordingly, since overheating is avoided. It can also be provided that the ventilation system supplies the computing unit with sufficient fresh air or cooled air.
  • the ventilation system can also be designed as an active ventilation system, which includes, for example, an active fan and / or an air conditioning system.
  • the ventilation system includes, among other things, a fresh air duct system and an exhaust air duct system.
  • the ventilation system can be a ventilation system with supply and exhaust air and / or a temperature-controlled ventilation system.
  • corresponding sensors are provided which monitor the temperature of the at least one computing unit in order to detect impending overheating at an early stage.
  • the sensors can be part of the shelving system.
  • the shelving system may further be constructed to have fire retardant properties.
  • the shelving system can also be described as a rack.
  • a plurality of computing units may be provided to which a power distributor is assigned. Accordingly, the plurality of computing units represent a data center, in particular in the case of computing units designed as mining units, a so-called mining farm whose power supply is ensured via the power distributor.
  • the power distributor may include a power management function to ensure the safe operation of the multiple computing units.
  • the power management device is filed, for example, to detect the production output of the power generation plant, ie the amount of energy produced. Furthermore, the power management device can be set up to control the at least one arithmetic unit as needed and / or as required, thereby enabling a safety and operationally suitable function of the overall system.
  • the power management device may be configured to monitor the power flows.
  • the power management device can also be set up to communicate, inter alia, via the communication unit or a pool platform with a management server, thereby improving the security and operationally suitable function of the overall system.
  • the computing unit has a remote maintenance component, via which the computing unit can be maintained remotely. Since the computing unit is designed as part of the power generation plant, monitoring of the computing unit can be performed remotely via the remote maintenance component, without entering the power generation plant, in particular by the computing service provider or the computing power user, the computing or Server performance of at least one computing unit receives.
  • the communication interface can be provided.
  • the computing unit includes the necessary intelligence (control computer), sensors and switches that are needed for remote maintenance.
  • the computing unit may comprise at least one application specific integrated circuit (ASIC), a quantum computer, a graph streaming Processor unit (GSP), an artificial intelligence processor unit (Kl processor), a stream processor unit, a vector processor, a graphics processor unit (GPU) or a processor unit (CPU).
  • ASIC application specific integrated circuit
  • GPU graph streaming Processor unit
  • Kl processor artificial intelligence processor unit
  • GPU graphics processor unit
  • CPU processor unit
  • the energy-generating device is an energy-generating device which generates electrical energy from renewable energies.
  • the object is achieved according to the invention by a retrofit module for installation at an energy generating device which generates electrical energy for feeding into a supply network, wherein the retrofit module comprises at least one arithmetic unit which is set up, a computing service provider and / or a computing power user and / or to provide computing power, and wherein the retrofit assembly is arranged to be located upstream of an energy output counter in the direction of current flow.
  • the energy output counter is the energy output counter of the power generation facility.
  • the retrofit assembly may generally include a plurality of computing units, a shelving system, a ventilation system, a power distributor, a transformer, a self-consumption meter and / or a branch line
  • the retrofit module may have a connection interface, which is designed as an output power rail interface and / or a self-supply rail interface, via which the retrofit module can be connected to an output power rail and / or an auxiliary power rail.
  • the retrofit module is designed to be connected to a power generating device, in particular in front of the corresponding energy output counter, which defines the end of the output power rail.
  • the output power rail or the auxiliary power rail interface are terminals that differ from distinguish a power plug that is typically used consumer or end customer side.
  • the output power rail is the rail of a power plant leading to the energy output meter. From the output power rail can branch off at least one self-consumption rail, are connected to the electrical load of the power generation plant, which are used to generate the electrical energy.
  • an electric generator can be considered, via which the electrical energy is generated.
  • Figure 1 is a schematic representation of a power generation system according to the invention with a retrofit module according to the invention
  • Figure 2 is a schematic representation of a computing unit used in the power generation plant of Figure 1.
  • FIG. 1 shows a power generation plant 10, which has an energy generating device 12 in the form of a wind power plant, which is for example part of a wind farm.
  • an energy generating device 12 in the form of a wind power plant, which is for example part of a wind farm.
  • a solar system as part of a solar park
  • a hydroelectric power plant can be provided.
  • the energy generating device 12 generally generates electrical energy, which is fed by the power generation plant 10 into a supply network 14, so that the generated electrical energy can be made available to end customers who are connected to the utility network 14 on the consumer side.
  • the power generation plant 10 is therefore coupled to the supply network 14 on the generator side.
  • the power plant 10 includes an energy output counter 16 which counts the electrical energy generated by the power plant 12 and fed into the utility grid 14.
  • the energy generation plant 10 comprises a computer center 18 designed as a mining farm, which comprises a plurality of computing units 20 designed as mining units, which allocate server and / or computing power to a computing service provider and / or a computing power user Make available.
  • the concretely illustrated embodiment thus depicts a mining farm with a plurality of mining units, so that these terms are also used below when the data center 18 or the computing units 20 is mentioned. Therefore, the corresponding reference numbers are used for the mining farm and the mining units.
  • the computing units 20 and thus the data center 18 can provide the existing server and / or computing power to a computing service provider and / or a computing power user but also for other purposes, as will also be explained below.
  • the calculating units 20 designed as mining units are each set up to generate data of a shared bookkeeping system, in particular a checksum, via which previous transactions of the shared bookkeeping are saved in order to prevent subsequent manipulation.
  • the data is a checksum of a block-chain application, such as a crypto-currency.
  • the computing units 20 are generally arranged in the direction of current flow I between the energy generation device 12 and the energy output counter 16.
  • the computing units 20 are coupled via a branch line 22 to the line 24, which is provided between the power generating device 12 and the energy output counter 16, ie the power line, via which the generated electrical energy is fed into the supply network 14.
  • This line 24 is also referred to as the output power rail.
  • the branch line 22 may be a self-service rail that is connected to the output power rail or the line 24.
  • the branch line 22 can be subsequently connected to the output power rail or the line 24 in order to connect the computing units 20 to the output power rail or the line 24.
  • the multiple computing units 20 are housed in a racking system 26, which is associated with a ventilation system 28 to ensure the ventilation of the computing units 20.
  • the waste heat produced during operation of the computing units 20 can therefore be removed via the ventilation system 28, which ensures that the computing units 20 do not overheat.
  • the ventilation system 28 may be a passive ventilation system.
  • an active ventilation system 28 may be provided which actively cools the at least one computing unit 20.
  • sensors are also provided, via which the temperature of the computing units 20 is monitored.
  • the sensors can be accommodated in the shelving system 26.
  • the multiple computing units 20 are powered directly by means of the generated electrical energy of the power generation device 12, so that a self-supply of the computing units 20 is given, which is also referred to as self-supply.
  • a transformer 30 is provided in the branch line 22, which converts the generated electrical energy to a voltage level which can be processed by the computing units 20, for example to a voltage level of 230 V.
  • the corresponding electrical energy is then distributed via a power distributor 32 to the plurality of computing units 20.
  • the power distributor 32 may include a power management device, which ensures, inter alia, that the available electrical energy is distributed evenly.
  • the power generation plant 10 comprises a self-energy consumption meter 34, which is provided in the branch line 22 in the embodiment shown, in order to receive the data from the arithmetic units 20 to capture used electrical energy.
  • the self-consumption of the mining farm or of the data center 18 is therefore detected, this essentially corresponding to the difference of the generated electrical energy and the electrical energy fed into the supply network 14, provided that there are no further components which have an intrinsic supply.
  • FIG. 2 one of the several computing units 20 is shown in detail.
  • the computing unit 20 has a current input interface 36, via which the computing unit 20 receives the electrical energy needed for operation.
  • the arithmetic unit 20 can therefore be coupled to the power generating device 12 via the current input interface 36, in particular via the line 24 and the branch line 22, so that the arithmetic unit 20 receives the electrical energy generated by the power generating device 12 directly.
  • the electrical energy generated by the energy generating device 12 is converted via the transformer 30 to a suitable voltage level.
  • computing unit 20 comprises a computing processor 38 and a server unit 40, so that the computing unit 20 has corresponding computing and / or server performance.
  • computing processor 38 includes an application specific integrated circuit (ASIC).
  • ASIC application specific integrated circuit
  • the computing unit 20 has a communication interface 42, via which the computing unit 20 can be connected to the Internet, for example a wired interface or a wireless interface.
  • the communication interface 42 it is possible via the communication interface 42 for the available computing and / or server performance to be used for other purposes, for example a decentralized accounting.
  • the arithmetic unit 20 may thus be part of a decentralized computer network, via which, for example, transactions are managed, controlled and / or controlled in a decentralized manner, as is the case, inter alia, in the case of block-chain applications or shared-bookkeeping applications in general.
  • the remote computing network may include other server entities, including nodes that provide records associated with corresponding transactions. As already explained, the data records are backed up by the checksums against subsequent manipulation, which are calculated by the computing units 20 designed as mining units.
  • the available computing and / or server performance can be made available for other computationally intensive applications, for example for artificial intelligence applications.
  • the computing unit 20 has a remote maintenance component 44, which is coupled to the communication interface 42 via the server unit 40.
  • the remote maintenance component 44 may also be coupled directly to the communication interface 42 in order, for example, to be able to determine problems with the server unit 40, which would otherwise not be possible if the server unit 40 fails.
  • the remote maintenance component 44 may be coupled to the arithmetic processor 38 in order to be able to remotely maintain it accordingly.
  • remote maintenance component 44 it is generally possible to also remotely maintain the respective computing unit 20, since this is designed as part of the energy generation system 10.
  • the computing or server power provided by the computing processor 38 and / or the server unit 40 can be made available to a computing service provider and / or a computing power user who is independent of the operator of the power generation facility 10.
  • the computing or server performance is used by an external computing service provider and / or an external computing user to provide an artificial intelligence (Kl) application or a block-chain application, such as a cryptocurrency application.
  • Kl artificial intelligence
  • the computation-intensive checksums or hash values can be calculated using the computational units 20 designed as mining units.
  • the energy-intensive computation steps, which are required, for example, to calculate the checksums, can be made directly on site at the operator of the power generation plant 10, wherein the required electrical energy is diverted before it is fed into the supply network 14. In this respect, it is an own or self-supply of the respective computing units 20.
  • the at least one computing unit 20 can be subsequently connected to the energy generating device 12 as part of a retrofit module 46, ie before the energy output counter 16, so that the retrofit module 46 removes its own power from the terminal power of the energy generating device 12 in order to ensure self-supply.
  • the retrofit module 46 is set up to be arranged upstream of an energy output counter 16 in the direction of current flow, as shown in FIG. 1 and already explained.
  • the retrofit module 46 To connect the retrofit module 46 in front of the energy output meter 16 of the energy generating device 12, the retrofit module 46 includes a corresponding connection interface 48, which is also referred to as an output power rail interface and / or a self-service rail interface depending on the connection of the retrofit module 46.
  • the retrofit module 46 is connected to an output power rail and / or a self-consumption rail, which is represented in FIG. 1 by the line 24 or the branch line 22.
  • the retrofit module 46 is thus configured to be connected to the power generating device 12 by subsequently integrating the retrofit module 46 in front of the power output counter 16, which defines the end of the output power rail or line 24.
  • the branch line 22 shown in Figure 1, as already explained, constitute a self-supply rail of the power generating device 12, in addition to the retrofit module 46 further electrical loads (components of the power generation system 10) is supplied with electrical energy passing through the power generating device 12 itself has been generated (self-supply of the other components).
  • the retrofit module 46 to be connected to the energy generating device 12 may comprise all components which are connected to the line 24 before the energy output counter 16, for example also the branch line 22.
  • the retrofit assembly 46 may include a plurality of computing units 20, all of which are configured as described above.
  • the retrofit module 46 includes the shelving system 26 and the (passive) ventilation system 28.
  • the transformer 30, the power distributor 32 and / or the own energy consumption meter 34 may also be part of the retrofit module 46.
  • the retrofit assembly 46 may include the interface 48 via which the retrofit assembly 46 is connected to the output power rail (line 24) or an existing self-service rail (branch line 22).
  • the retrofit module 46 comprises a self-supply rail (branch line 22) which is connected to the existing output power rail (line 24).
  • the attachment interface 48 would then be an output power rail interface via which the retrofit assembly 46 is connected directly to the output power rail (line 24).
  • the retrofit module 46 is subsequently incorporated into the existing power generation device 12 by connecting the respective components of the retrofit module 46, as shown in FIG. 1, before the energy output counter 16, ie before the end of the output power rail or line 24.

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Abstract

L'invention concerne une installation de production d'énergie (10) comprenant un système de production d'énergie (12) qui produit de l'énergie électrique destinée à être injectée dans un réseau d'alimentation (14), un compteur de sortie d'énergie (16) qui compte l'énergie électrique injectée par le système de production d'énergie (12) dans le réseau d'alimentation (14), et au moins une unité de calcul (20) qui présente une puissance de calcul correspondante. L'unité de calcul (20) est disposée dans la direction du flux de courant entre le système de production d'énergie (12) et le compteur de sortie d'énergie (16). L'unité de calcul (20) est mise au point pour fournir une puissance de serveur et/ou de calcul à un fournisseur de calcul et/ou à un utilisateur de puissance de calcul. Le fournisseur de calcul et/ou l'utilisateur de puissance de calcul est différent de l'opérateur de l'installation de production d'énergie (10). La présente invention concerne en outre un procédé servant à faire fonctionner une unité de calcul (20), ainsi qu'un module d'équipement ultérieur (46) destiné à être installé sur un système de production d'énergie (12).
PCT/EP2019/050573 2018-01-22 2019-01-10 Installation de production d'énergie, procédé servant à faire fonctionner une unité de calcul et module d'équipement ultérieur WO2019141587A1 (fr)

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EP19700665.3A EP3743878A1 (fr) 2018-01-22 2019-01-10 Installation de production d'énergie, procédé servant à faire fonctionner une unité de calcul et module d'équipement ultérieur

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DE102018101327.2 2018-01-22
DE102018101327.2A DE102018101327A1 (de) 2018-01-22 2018-01-22 Energieerzeugungsanlage, Verfahren zum Betreiben einer Rechen-Einheit sowie Nachrüstbaugruppe

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WO2021239430A1 (fr) 2020-05-27 2021-12-02 Siemens Aktiengesellschaft Fourniture de capacité informatique locale pour nuage en périphérie

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
WO2021239430A1 (fr) 2020-05-27 2021-12-02 Siemens Aktiengesellschaft Fourniture de capacité informatique locale pour nuage en périphérie

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DE102018101327A1 (de) 2019-07-25

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