EP3607630A1 - Ensemble en cascade servant à brancher une multitude d'accumulateurs d'énergie, branchement associé et procédé servant à commander une alimentation en énergie comprenant ledit ensemble - Google Patents

Ensemble en cascade servant à brancher une multitude d'accumulateurs d'énergie, branchement associé et procédé servant à commander une alimentation en énergie comprenant ledit ensemble

Info

Publication number
EP3607630A1
EP3607630A1 EP18715028.9A EP18715028A EP3607630A1 EP 3607630 A1 EP3607630 A1 EP 3607630A1 EP 18715028 A EP18715028 A EP 18715028A EP 3607630 A1 EP3607630 A1 EP 3607630A1
Authority
EP
European Patent Office
Prior art keywords
energy storage
energy
management arrangement
storage management
interconnection
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Withdrawn
Application number
EP18715028.9A
Other languages
German (de)
English (en)
Inventor
Issam Al-Abassy
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Accupower Forschungs Entwicklungs und Vertriebsgesellschaft Mbh
Original Assignee
Accupower Forschungs Entwicklungs und Vertriebsgesellschaft Mbh
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Accupower Forschungs Entwicklungs und Vertriebsgesellschaft Mbh filed Critical Accupower Forschungs Entwicklungs und Vertriebsgesellschaft Mbh
Publication of EP3607630A1 publication Critical patent/EP3607630A1/fr
Withdrawn legal-status Critical Current

Links

Classifications

    • H—ELECTRICITY
    • H02—GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02J—CIRCUIT ARRANGEMENTS OR SYSTEMS FOR SUPPLYING OR DISTRIBUTING ELECTRIC POWER; SYSTEMS FOR STORING ELECTRIC ENERGY
    • H02J7/00—Circuit arrangements for charging or depolarising batteries or for supplying loads from batteries
    • H02J7/0013—Circuit arrangements for charging or depolarising batteries or for supplying loads from batteries acting upon several batteries simultaneously or sequentially
    • H02J7/0024—Parallel/serial switching of connection of batteries to charge or load circuit
    • H—ELECTRICITY
    • H02—GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02J—CIRCUIT ARRANGEMENTS OR SYSTEMS FOR SUPPLYING OR DISTRIBUTING ELECTRIC POWER; SYSTEMS FOR STORING ELECTRIC ENERGY
    • H02J7/00—Circuit arrangements for charging or depolarising batteries or for supplying loads from batteries
    • H02J7/0042—Circuit arrangements for charging or depolarising batteries or for supplying loads from batteries characterised by the mechanical construction
    • H02J7/0045—Circuit arrangements for charging or depolarising batteries or for supplying loads from batteries characterised by the mechanical construction concerning the insertion or the connection of the batteries

Definitions

  • the present invention is in the general field of energy management.
  • This area includes devices, circuits and methods for the controlled and / or regulated distribution of electrical energy in at least one network.
  • the energy is outsourced depending on the network in addition to the established, physical and / or electrochemical storage systems in a variety of buffers such as hydrodynamic pumped storage, kinetic latches, capacitor banks or electrothermal latches.
  • buffers such as hydrodynamic pumped storage, kinetic latches, capacitor banks or electrothermal latches.
  • Such systems have in common that assemblies for controlled and / or regulated power distribution to integrate the different memory in a common network and / or a common circuit.
  • the present invention relates to the improvement of a power source, which is composed of a plurality of electrical energy storage.
  • a power source which is composed of a plurality of electrical energy storage.
  • Such power sources have long been the subject of research and development.
  • CH 172837 already describes a battery constructed from several cells in 1935, and GB 1 207 131 A proposes in the 1960's to use batteries as drive for vehicles.
  • DE 14 63 083 A already explains in the same decade electrochemical relationships for cell materials such as lead, silver / zinc or nickel / cadmium and proposes electrical and electro-mechanical measures that can be used to improve the combination of such cells in a block battery improved. Pressure, temperature, voltage and current are already discussed and characterized in detail as applicable control and / or control variables of such cells.
  • DE 2 241 619 A additionally discloses suitable control circuits and circuits for this purpose. Further, established applications, assemblies and measures for this technical field can be found in the documents DE 80 03 869 Ul, EP 269 783 A, WO 1988 001077 A, DE
  • the present invention relates to an arrangement for interconnecting a plurality of parallel or serially interconnected energy stores. Furthermore, a method for controlling the power supply between a charging unit or a consumer and the energy storage and a corresponding interconnection is concerned, in particular in connection with the optimization of the sustainable
  • the invention also relates to the use of a corresponding interconnection device.
  • WO 1999 050 947 A can be cited here as a generic, relevant document:
  • a matrix of energy storage cells is optimized via a control and / or regulating circuit and can be switched on and off in subgroups or as a whole according to the usage situation of a consumer provided.
  • the interconnection of energy storage devices with each other and with an energy source or a consumer is therefore a technology, which is of great importance in arrangements with many energy storage devices.
  • large capacities or outputs can only be realized by interconnecting a large number of small energy stores.
  • An example is - as disclosed in WO 1999 050 947 A - the efficient batteries for portable computers, which can also be used for the drive of automobiles.
  • EP 2452391 A1 describes a battery management system (BMS) for in a matrix parallel and / or serially interconnected energy storage, buffer resistors are used to specify the switching behavior.
  • BMS battery management system
  • US 20100225267 AI describes a parallel connection of energy storage, which can be coupled by means of a multiplexer with a charging unit.
  • No. 7956579 B2 describes a series connection of energy stores which can be coupled to a charging unit by means of a multiplexer.
  • US 7893561 B2 describes a BMS for monitoring parallel or series-connected battery cells, wherein both the voltage and the current are monitored. In this case, a matrix arrangement of the battery cells can be realized. It is a multiplexer function in terms of time disclosed.
  • US 7456521 B2 describes a technique for interconnecting batteries or energy storage devices, which is suitable for both a serial and a parallel arrangement of the batteries.
  • US 20130119935 Al describes the use of multiplexer technology to account for the voltage levels of a variety of batteries.
  • US 5,243,269 A describes an interconnection of a plurality of batteries with a charger, wherein the switching can be done individually with respect. One of the batteries.
  • the object is to provide an arrangement or a manner of interconnecting a plurality of energy stores, in which the individual energy stores can be charged or discharged in the most flexible manner possible, be it individually or in combination with one another. It is also an object to design a circuit arrangement such that the individual energy stores to be interconnected remain interconnectable in a particularly flexible manner.
  • An energy storage management arrangement is set up for the energy supply on the one hand between a charging unit and a plurality of parallel and / or serially interconnected energy stores and on the other hand between the energy stores and at least one consumer, with a connected to the energy storage and connectable to the at least one consumer and / or the charging unit Connecting device.
  • the interconnecting device per energy store comprises at least two at least three-stage switches, which can be realized in particular by a specific arrangement of power transistors or semiconductors, by means of which the respective energy store can be coupled to the charging unit or to the consumer, the changeover switches being arranged in this way are that energy storage management arrangement for a
  • the energy stores can be connected both serially and in parallel, in particular also in subgroups or with a specifically selected grouping by individual ones of the energy stores. It can
  • the arrangement can be cascaded as desired or expanded by any number of energy stores without losing the flexibility of the interconnection, and without the interconnection becoming more complex.
  • the energy transfer can on the one hand of a variety of energy storage to at least one
  • the energy stores can be coupled individually or together to at least one consumer, wherein at least one or one of the energy stores can be coupled to a charging unit.
  • the interconnection device By means of the interconnection device, charging and discharging of a multiplicity of energy stores which can be interconnected in parallel and / or in series with one another can be carried out.
  • this can be any - especially rechargeable - memory for electrical power to be understood, as he established as a battery or rechargeable battery or is available.
  • any type of batteries, accumulators, supercapacitors or supercaps, double-layer capacitors can be mentioned: any type of batteries, accumulators, supercapacitors or supercaps, double-layer capacitors.
  • the arrangement according to the invention requires neither a restriction to the usable materials nor with regard to the provided capacity or power of an energy store.
  • the interconnection device is understood to be a plurality of lines and switches and optionally further components which switches can be controlled individually or as a function of one another according to predefinable criteria, for example voltage range, temperature, current intensity, state of charge (SoC), pressure, time, power requirement, power duration, reliability.
  • the interconnection device may comprise a multiplexer or be set up at least for a multi-function circuit or multi-function circuit function.
  • the interconnection device is set up for interconnecting individual energy stores with the at least one consumer and with the charging unit, wherein each energy store is preferably connected to the interconnection device.
  • the number of energy storage devices is variable in that the energy storage devices can be connected to each other in a cascadable or cascadable manner.
  • the arrangement can be extended in the manner of a cascade, in particular since the respective switches are provided per energy store.
  • the memory referred to here as an energy store can also comprise a plurality of battery cells provided as a unit together, which can then be integrated together as a unit in the arrangement.
  • a three-stage switch As a three-stage switch is to be understood a switch which has at least two closed positions for contacting each of two of at least three lines and at least one position in which the switch is open, so that no current can flow.
  • the three-stage switch has at least three outgoing line sections or three inputs / outputs or contacts for these lines.
  • the interconnection device can be set up to provide an output voltage of the interconnected energy stores with a predefinable factor n with respect to those at a single one
  • the energy storage management arrangement can be set up for matching the voltage state of at least two specially selectable energy stores to one another, in particular in that the switching device specifically switches these two energy stores in parallel.
  • the energy storage management arrangement can be set up to switch over individual energy stores from the at least one consumer to the charging unit or vice versa, in particular by the interconnecting device decoupling the respective energy store from the other energy stores and specifically coupling this energy store to the charging unit.
  • the interconnection device can be connected both via data lines and via power lines or a combination thereof with individual energy stores, with the charging unit and / or with the at least one consumer.
  • the interconnection device can be set up to couple the individual energy stores with the at least one consumer such that the coupling of at least one of the energy stores to the at least one consumer is independent of the number of energy stores or independent of their interconnection permanently without interruption.
  • Such an interconnection device preferably has a control circuit which, upon detection of only one available, sufficient energy store, is designed to trigger an alarm signal.
  • the alarm signal is forwarded to a display, wherein the display is the current interconnection, de-energized switched, replaceable energy storage and / or free connection points designed to expand with additional energy storage displays.
  • the possibility of interconnecting subsets in parallel arrangement makes it possible according to the invention to exchange individual energy stores at any desired time; Furthermore, the entire arrangement can also be cascaded at any time. In view of a long life and / or efficiency of the arrangement, this is an essential aspect. It can also be ensured hereby that the performance of the entire arrangement is not impaired by individual non-optimally running / functioning energy stores. These energy storage can be switched without power and replaced or maintained, at any time, even during use of the other energy storage.
  • the arrangement according to the invention also provides various advantages, especially for consumers, who absolutely must be supplied continuously with a certain power.
  • such a mobile arrangement - for example, in a vehicle - be used optimally:
  • the number of energy storage can be adapted to the intended use. This opens up the possibility for short transport journeys to save on storage weight and increase the transport volume for payload. If longer distances are covered, the capacity can be increased by inserting fresh energy storage with maximum capacity and also the range.
  • Particularly preferred may be used in immobile use - for example, in a building - each energy storage to the extent of its full capacity and life expectancy.
  • the open-expandable system allows for the same performance with multiple, older energy stores of reduced capacity as with a few, fresh energy storage.
  • the arrangement according to the invention is set up in particular as described above for use in the field of energy storage for electric vehicles, especially due to the ability to adjust the range of each electric vehicle by expanding the inventive arrangement can.
  • Such an arrangement preferably comprises modules for data processing, which exchange data with an intelligently equipped energy store and / or can acquire data from a simple energy store via analysis circuits and use it for regulation.
  • This offers the possibility to combine different energy storage devices in one arrangement.
  • the latter advantageously allows the integration of older and / or established energy storage devices such as car batteries, which are basically still widely available and can be useful as an emergency supply for control circuits and controls useful.
  • control diagrams provide overviews in which payload, range and loading volume are displayed as a function of the data of the connected energy store and the possible exchange variants of available energy stores.
  • the calculation and display takes place in combination with an on-site, stationary arrangement with wireless exchange of the respective data. It can thus be made possible for each user to provide a particular arrangement specifically for each application. For example, if a person knows that they have to commute daily a certain distance, the arrangement can be designed specifically for this range, preferably set individually depending on the outdoor conditions and the temperature-dependent performance characteristics of the available memory from day to day.
  • the user merely has to switch off the corresponding energy store in the stationary arrangement, preferably from the arrangement of home automation, which can preferably be made possible by a control panel arranged next to each energy store, particularly preferably by a button marked as active insert into the mobile device.
  • the mobile device acquires the data of the additionally added energy stores, calculates the performance characteristics thus available, and displays them on the display.
  • one pole of at least one of the energy stores is connected to two change-over switches which are each connected to one of two main lines of the Energy storage management arrangement are coupled. This provides great flexibility of the type of interconnection with a simple structure of the arrangement.
  • the interconnection device can be interconnected with the energy stores such that each of the energy stores, in particular each energy store with a trio of three-stage switches forms an energy storage unit which can be interconnected between the main lines, which energy storage units can each be connected in parallel and can be cascaded in any number between the main lines are expandable.
  • the cascade of energy storage units is formed from five to ten energy stores, each with a pair of switches.
  • a respective energy storage unit forms a kind of module to which module the arrangement is modular as often as desired expandable.
  • the main line is to be understood as a line to which the energy stores can be coupled together or individually. Each energy store can be coupled to the main line.
  • the main line is in any case energized, whereas all other lines can optionally also be de-energized, depending on the interconnection. Without the main line no circuit can be closed.
  • the main line may have a plurality of main line sections, in particular two, each of which can be coupled to one of the poles of the energy store.
  • two main lines or main line sections of the energy storage management arrangement form those lines of a parallel circuit, between which a subset of the energy stores or all energy stores are connected.
  • both poles (input pole and output pole) of at least one of the energy stores, in particular of each energy store, can be coupled to the input terminal of one of the further energy stores, in particular of an adjacent energy store of the cascade.
  • this can be a partial parallel connection of individual energy storage or
  • individual ones of the energy stores in particular a number of n-1 energy stores, are arranged between three or four of the three-state switches. This allows cascading in a particularly elegant manner, or with the greatest possible flexibility.
  • the number of three-stage switch is equal to twice the amount of interconnected energy storage.
  • a main line closes the circuit, and the respective energy storage can be coupled by means of the two switches both to the main line or incorporated therein, as well as be coupled to at least one of the other energy storage.
  • individual ones of the energy stores, in particular each energy store are coupled to a three-stage switch connected to a first main line section of the energy store management arrangement and to a three-step switch connected to a second main line section of the energy store management arrangement. In this way, a clear, simple structure of the arrangement can be ensured, which by any number of
  • Energy storage is expandable.
  • the energy storage management arrangement interconnects a cascade of energy stores in that the energy stores are each interconnected between two main lines, which main lines can be coupled to each other via one of the energy stores and two of the changeover switches.
  • the main lines can be connected to each other in sections by a first and second connection line.
  • the interconnection device or a respective energy storage unit has at least one line bridge which couples one of the poles of a respective energy store to a first and a second three-state changeover switch connected to one / the first main line section of the energy store management arrangement.
  • the interconnecting device or a respective energy storage unit has at least one (first or third) connecting line which couples one pole of a respective energy store to two three-stage changeover switches respectively connected to one of the two main lines of the energy storage management arrangement.
  • the energy storage management arrangement comprises a voltage ramp filter which is provided or can be arranged between the charging unit and the energy stores and which is set up to filter or compensate voltage jumps when interconnecting individual ones of the energy stores, in particular by reducing the speed of a voltage change.
  • a voltage ramp filter provides the advantage that a connection is largely independent of the mode of operation or the voltage state of the individual energy storage is possible. Also, current pulses can be avoided, which bring with it the risk of device defects.
  • the voltage ramp filter can be arranged on or in the interconnection device such that the
  • Energy storage management arrangement for uninterrupted switching between each of the energy storage and / or between the at least one consumer or the at least one charging unit and the individual energy storage is set up, in particular by the voltage ramp filter on the Main line of the energy storage management arrangement is arranged or integrated therein.
  • the respective switching operation can in any case be carried out via the filter or discontinuities such as voltage or current changes can in any case be passed through the filter and damped.
  • a voltage ramp filter is the
  • Energy storage management arrangement integrated into the interconnection device, wherein the voltage ramp filter can also form the interface to the consumer or to the charging unit.
  • the integration ensures that regardless of the particular interconnection, the filter can filter any kind of discontinuities occurring, so that the consumer is not affected.
  • the voltage ramp filter is arranged in a sound circuit section between the at least one consumer or the charging unit and the individual energy stores, which circuit section can be switched between the individual energy stores. This makes it possible to switch the filter directly between at least one special energy store and the consumer or the charging unit.
  • the voltage ramp filter can be decoupled by means of a switch from a main line of the energy storage management arrangement or from the energy stores, which switch is preferably arranged directly in front of / behind the filter.
  • a switch from a main line of the energy storage management arrangement or from the energy stores, which switch is preferably arranged directly in front of / behind the filter.
  • the energy storage management arrangement has a computing unit that is in connection with the switches and can be coupled to one / the charging unit and at least one consumer, wherein the interconnection device, in particular together with a / the voltage ramp filter of the energy storage management arrangement, with respect to the respective switched
  • Energy storage forms a multiplexer Anordrumg or realized a multiplexer Fw hope when interconnecting the energy storage.
  • the functionality of the energy storage management arrangement can be expanded in a simple manner, in particular independently of the number of energy stores.
  • the manner of the interconnection can be specifically predefined in detail, in particular according to predetermined specific switching patterns.
  • an interconnection device for interconnecting a plurality of parallel and / or serially interconnected energy storage with at least one consumer on the one hand and with a charging unit on the other hand, wherein the individual energy storage by means of the interconnection of at least one consumer to the charging unit or vice versa are reversible , wherein the interconnection device is set up to interconnect the at least one load, in particular with the interposition of a voltage ramp filter, with a respective energy store or subgroups / subsets of these energy stores in parallel arrangement and thereby Compensate for voltage jumps, wherein the interconnection device is set up in particular for use in a previously described energy storage management arrangement.
  • an interconnection device provides a very high degree of flexibility regardless of the number of energy stores, be it with respect to charging or discharging of individual energy stores.
  • the aforementioned object is also achieved by a method for controlling the power supply on the one hand between a charging unit and a plurality of parallel and / or serially interconnected energy storage and on the other hand between the energy storage and at least one consumer by means of an energy storage management arrangement, in particular one described above
  • Energy storage management arrangement wherein individual of the parallel and / or serially interconnected energy storage are coupled by means of an interconnection device to the at least one consumer and / or to the charging unit, which is inventively proposed that the respective energy storage between at least two at least three-stage switches between two main lines of the energy storage management system is connected, wherein at least a subset of the energy storage are connected in parallel, or a first subset in parallel arrangement and a second subset are connected in series.
  • the interconnection can take place in such a way that partial discharge cycles can be realized with parallel interconnection of individual ones of the energy stores and / or full discharge cycles in the case of serial interconnection of individual energy stores.
  • voltage jumps are compensated when interconnecting individual ones of the energy stores by means of a voltage ramp filter, in particular by reducing the speed of a voltage change. This allows switching largely independent of the condition of the individual
  • the interconnection takes place without interruption via the filter. This allows a direct interconnection to the desired optimum times and also simplifies the control of a charge or discharge cycle.
  • the interconnection takes place based on at least one criterion or value / value from the group: predefined voltage or voltage range, temperature or temperature range, current intensity or current intensity range, state of charge (SoC), time or interval, (internal voltage). ) Resistance, or a respective maximum or minimum value.
  • criterion or value / value from the group: predefined voltage or voltage range, temperature or temperature range, current intensity or current intensity range, state of charge (SoC), time or interval, (internal voltage).
  • SoC state of charge
  • Resistance or a respective maximum or minimum value.
  • consumer characteristics may determine the mode of operation: load, current draw, supply voltage, supply current.
  • An example also provides a specific operating point of photovoltaic systems or wind turbines, which may preferably be connected as an additional source of energy;
  • Arrangement advantageously before control loops, which is able to adapt a power even in short to very short time intervals to sensibly store surpluses and / or increase the power output by interconnecting the available energy storage in partial shading / partial failure.
  • This allows a high degree of autonomy of the arrangement, or automation in a comparatively flexible manner.
  • the interconnection can also take place in such a way that individual or all energy stores are provided with the same state of charge.
  • the arrangement is particularly well suited for self-sufficient systems as well as systems where it can be expected that in the future only older, established energy storage devices can be used for capacity expansion.
  • this also includes non-rechargeable energy sources such as high-performance lithium-ion batteries.
  • a long-term supply of at least one consumer takes place by automated switching or interconnection of empty or partially discharged energy stores to fully or completely charged energy stores, in particular uninterrupted. This also allows the
  • the interconnection takes place in such a way that energy stores with lower performance are coupled to the respective consumer instead of energy stores with higher performance.
  • an arithmetic unit or the control device can determine the energy demand of the consumer and interconnect the available energy stores in such a way that the supply to the consumer is precisely ensured by those energy stores which are still set up for this purpose.
  • Particularly efficient energy storage systems can be spared and reserved for consumers who require a particularly demanding energy supply.
  • the latter measure takes place in a combination of mobile and immobile arrangement, wherein the two arrangements have communication interfaces that are suitably designed and detect detected and available energy storage in wireless communication and can exchange the associated data with each other.
  • the interconnection takes place in such a way, in particular as a function of the time, that partial cycles are realized with parallel discharge of a plurality of energy stores or full cycles with sequential discharge of a plurality of energy stores.
  • the aforementioned object is also achieved by using an interconnection device in an energy storage management arrangement according to the invention for interconnecting individual energy stores at least one consumer on the one hand and with a charging unit on the other hand, wherein the interconnection device per energy storage forms an energy storage unit which is arranged between at least two at least three-stage switches between two main lines of the energy storage management arrangement and is connected via at least one switchable line with one of the further energy storage units such that a any subset of the energy storage in parallel arrangement is interconnected, in particular use in a previously described energy storage management arrangement, preferably comprising a voltage ramp filter arranged between the charging unit and the energy storage.
  • a voltage ramp filter can compensate for voltage jumps when interconnecting the individual energy storage or when switching between the individual energy storage done in a particularly effective manner.
  • a circuit is set up for use in an energy storage management arrangement according to the invention.
  • this interconnection has a changeover switch, in particular a three-stage changeover switch.
  • the interconnection furthermore has a connection, which can be connected to at least one pole of an energy store, whereby in turn the connection can be connected via the interconnection to at least 3, preferably 4, further functional connections of the interconnection.
  • the functional connections comprise, preferably consist of, a discharge connection for parallel current draw, a discharge connection for serial current drain, a charge connection for charging current and an isolated, currentless connection for exchanging the energy storage device.
  • the interconnection is thus set up for use in an energy storage management arrangement according to the invention.
  • the respective energy storage can be switched off, decoupled and replaced at any time.
  • the individual energy stores are each connected via a respective data line 2 and a power line 3 to the interconnection device 15 and further, a computing unit 20 is connected via at least one data line to the interconnection device 15, wherein further by means of the interconnection device 15 from at least one consumer can be switched to the charging unit or vice versa.
  • the interconnection device is set up to receive control and / or regulating signals from the arithmetic unit 20 and energy stores to be exchanged in
  • an interconnecting device is characterized in that the
  • Interconnection device is part of a mobile device and is set up to detect available, connected energy stores in their performance data, to select in dependence on specifiable requirements and display the selection as a function of available, average runtime of the mobile system on the display control and / or adjustable.
  • an interconnection device is characterized in that the interconnection device is part of a stationary device and is set up, available, connected
  • the interconnection devices are set up to compare the data of the respectively connected and / or available energy stores via the respective arithmetic unit 20 and to maximize the efficiency of a mobile device and the sustainability of a stationary device.
  • the present invention makes possible a self-sufficient system configured for using an energy storage management arrangement according to the invention, wherein the self-sufficient system has at least one advantageous interconnection device, preferably a combination of mobile and stationary device, and at least one regenerative energy source, preferably a photovoltaic energy source or wind energy source connected.
  • the self-sufficient system has at least one advantageous interconnection device, preferably a combination of mobile and stationary device, and at least one regenerative energy source, preferably a photovoltaic energy source or wind energy source connected.
  • Figure 1 shows a schematic representation of a device or arrangement or wiring according to an embodiment, with a filter for voltage and current ramps;
  • FIG. 2 shows a schematic representation of an energy storage management arrangement according to an embodiment, with 3-stage switch and with six series-connected energy storage;
  • FIG. 3 shows a schematic illustration of an energy storage management arrangement according to an exemplary embodiment, with a 3-stage changeover switch and with six energy storage devices connected in parallel;
  • Energy storage management arrangement with 3-stage switch and with two groups of series-connected energy storage, which groups are connected in parallel to each other;
  • FIGS. 6, 7 each show a schematic representation of an energy storage management arrangement according to an exemplary embodiment, with a 3-stage changeover switch, in a further arrangement or wiring relative to one another;
  • FIG. 8 shows a schematic representation of an energy storage management arrangement according to an exemplary embodiment;
  • FIGS. 9, 10 and 11 are each a schematic representation of individual steps of a method for controlling the energy supply to interconnected energy stores or to at least one load according to embodiments, in particular by means of an energy storage management arrangement according to the exemplary embodiments.
  • FIG. 1 shows an energy storage management arrangement 10 according to an exemplary embodiment of the present invention, which has a voltage ramp filter 11 which comprises a plurality of capacitors Cl, C2 or capacitors and a plurality of inductors LI, L2, L3 or coils and that between a load 18 (potential ⁇ +, P-) and interconnected energy storage Bl, ..., Bn is arranged.
  • a voltage ramp filter 11 which comprises a plurality of capacitors Cl, C2 or capacitors and a plurality of inductors LI, L2, L3 or coils and that between a load 18 (potential ⁇ +, P-) and interconnected energy storage Bl, ..., Bn is arranged.
  • a load 18 potential ⁇ +, P-
  • the energy storage Bl to B6 are here via a three-stage switch 13 (on / to / neutral) with the filter 11 and connected to the consumer.
  • the switches are open and therefore all energy storage 'B' de-energized - so not yet electrically involved in the arrangement.
  • the current-locked energy storage can be arbitrarily exchanged user side or adapted in number to the intended or given use scenario.
  • the energy storage management system 10 has a plurality of switches or switch groups Sl to S12.
  • the energy storage Bl, ..., Bn are connected to each other by means of the switches S1 to S12 and to a respective main line section 12a, 12b, to which an input voltage B + or a
  • Output voltage B- is applied.
  • Each energy store is arranged between three or four of these switches.
  • Each energy store is coupled with a first connecting line 14a to one of the switches S1, S3, S5, S7, S9, S1 connected to the first main line section 12a, and to a second connecting line 14b (in particular at the other pole of the energy store) second main line section 12b connected switch S2, S4, S6, S8, S10, S12 coupled.
  • a line bridge 14a.l couples one of the poles of the respective energy store to another one of the switches connected to the first main line section 12a.
  • Some of the energy stores are also coupled with the other pole to a switch connected to the second main line section 12b or to the second main line section 12b via a third connecting line 14c.
  • Each energy store forms with a trio of these switches (or an even higher number, in particular four switches) an energy storage unit 16 which can be interconnected between the main lines 12a, 12b; 16.1, ..., 16.n (wherein the reference numeral 16.n to a last energy storage, not shown, the plurality of Energy storage refers).
  • the energy storage units 16 are connected in a cascade of n (or here six) energy storage between the main lines 12a, 12b.
  • n or here six
  • the switch S1, S12, the two- or three-stage switch 13, the filter 11 and the corresponding line sections form components of a circuit 15 set up for parallel and serial interconnection of individual energy storage.
  • the respective switch S1 to S12 is designed as a three-stage switch and each coupled to one of the main lines 12a, 12b and (optionally) coupled to one of the other switch, wherein a switching position to the main line of a parallel arrangement of the corresponding energy storage corresponds, and wherein a switching position for another switch corresponds to a serial interconnection of the corresponding energy storage. In an intermediate position of the switch is open, so according to a position without interconnection of the corresponding energy storage.
  • the three-stage switch or its three stages 0, 1 and 2 can e.g. be realized by a relay or semiconductor device, in particular Mosfet.
  • the voltage ramp filter 11 allows switching without adverse voltage or current spikes.
  • the voltage ramp filter 11 can be designed as a high-power filter for voltage and current ramps.
  • the current carrying in a respective type of interconnection lines are each provided with reference numerals, and the de-energized lines have no reference numerals.
  • all the energy stores B1 to B6 are connected in series (Bl / S / B2 / S / B3 / S / B4 / S / B5 / S / B6).
  • the switches Sl and S12 are at P ("parallel"), and the switches S3, S5, S7, S9, Si l are open, and the switches S2, S4, S6, S8, S10 are set to S ("serial")
  • the output voltage B + is as large as the sum of all partial voltages of the respective energy storage.
  • the capacity is as large as the individual capacity of the energy storage.
  • energy stores B1 and B3 are also connected in series and energy stores B4 and B6 are also connected in series, and group B1, B3 is connected in parallel with group B4, B6 (B1 / S / B3) // (B4 / S / B6).
  • the Energy storage B2 and B5 are unconnected.
  • the switches Sl, S6, S7 and S12 are at P ("parallel"), and the switches S3, S4, S9, SlO are open, and the switches S2, S5, S8, Si l are set to S ("serial") ,
  • the output voltage B + corresponds to twice the single voltage of the energy storage. Between the switches S3 and S5, the line bridge 14a.l is energized, as well as between the switches S9 and Si l.
  • the energy store B3 can be connected or energized both via the line 14a and via the line 14c, specifically indirectly via the line bridge 14a.l. coming from the preceding energy store B2. Likewise energy storage B6. In the interconnection shown in FIG. 4, both poles (input terminal and output terminal) of the energy store B2 can be coupled to the input terminal of the adjacent energy store B3 of the cascade from six energy stores.
  • energy stores B1 to B3 in series and energy stores or groups B4 to B6 are also connected in series, and the groups B1 to B3 are connected in parallel to the groups B4 to B6 (Bl / S / B2 / S / B3). // (B4 / S / B5 / S / B6).
  • the switches S1, S6, S7 and S12 are at P ("parallel"), and the switches S3, S5, S9, Si1 are open, and the switches S2, S4, S8, S1 are at S ("serial").
  • the output voltage B + corresponds to the triple individual voltage of the energy storage.
  • the energy storage Bl, B2 and B3 are each by means of
  • Lines 14b, 14c connected in series.
  • the line 14c between the switch S6 and the energy storage B4 is de-energized, so that the energy storage B4, B5 and B6 are connected as a subgroup parallel to the subgroup formed by the energy storage Bl, B2 and B3.
  • Fig. 6 shows a further circuit variant (Bl / S / B3 / S / B5).
  • the switches Sl, SlO are at P
  • Fig. 7 shows a further circuit variant (Bl // B3 // B5).
  • the switches S1, S2, S5, S6, S9, S10 are at P ("parallel"), and the switches S3, S4, S7, S8, S11, S12 are open, and this connection also provides the possibility of decoupling individual ones
  • the interconnections shown in Figures 6 and 7 can be realized or combined with one another by means of the same interconnection device 15.
  • These embodiments show individual ones of numerous variants of a circuit which can be individually configured both serially and in parallel, respectively Reference to individual energy stores or (subgroups) The number of energy stores is chosen only as an example and can of course be varied.
  • Energy storage management arrangement 10 for a plurality of energy stores B1, B2, B3, Bn and one or more consumers 4.1, 4.n are shown in FIG. 8, which are each coupled to an interconnection device 15 via a data line 2 and a power line 3.
  • the interconnection device 15 has a voltage ramp filter 11 which is arranged between the energy stores and the load or the charging unit.
  • the lines shown schematically between the energy storage B 1, B2 and the filter 11 may include the previously described lines 14a, 14b, 14c, 14a.l, optionally also other lines.
  • On a display device 17 or a man-machine interface data can be input and output.
  • a computing unit 20 is connected via a data line to the interconnection device 15, and thereby indirectly or directly with a respective one
  • FIG. 9 illustrates a method for controlling the power supply comprising a connection according to an embodiment.
  • step V2 the type of interconnection is selected according to manual or automatic specification.
  • step V3 data input / output takes place at a human-machine interface or between individual components of the energy storage management system 10.
  • step VI which can be arranged alternatively or additionally at another position before or after the steps V2, V3, identification takes place of connected or interconnected energy stores.
  • Rl is a query regarding charging requirements. If the charging requirements for a specific energy storage device are met, the charging process begins in step V5.
  • the charging requirements for a particular energy store are not met, for example because the state of charge is sufficiently high, it is checked in a second control point R2 whether the respective energy store can / should supply a consumer. If not, the query starts again in step V2 for this energy store. If yes, it is checked in a third control point R3 whether the respective energy store is suitable for the requirements of the consumer. If not, the query starts again in step V2 for this energy store. If so, the corresponding (at least one) energy store is connected to the consumer (step V6), and then the consumer (s) are supplied with energy, or interconnected energy stores are coupled to at least one consumer (step V7).
  • the charging process itself can be monitored and terminated with the control loop R3 as soon as certain charging requirements or requirements on the part of a consumer are met.
  • FIG. 10 illustrates the method of loading according to one embodiment.
  • step V3 it can be signaled that a charging process is started.
  • the charging V5 may begin with a step V5.1, which includes the selection of a power storage and the connection to the charging unit. Thereupon, an energy supply to the energy storage can take place in step V5.2.
  • a query can be made as to whether certain Loading requirements are met.
  • step V5.3 the charging process can be ended, comprising the decoupling of the energy store from the charging unit.
  • FIG. 11 illustrates a method for controlling the power supply by a connection according to an embodiment.
  • the type of interconnection of individual energy stores or subgroups of energy stores can be set at a control point R6, be it a serial interconnect (S), a parallel interconnect (P), or combinations thereof (S / P).
  • a serial interconnection (S) is to be carried out, then in step V6.1 the definition of a max. Threshold for the voltage interconnected energy storage done before in step V6.2 interconnecting the energy storage according to manual or automatic defaults, in particular according to the requirements made in step V2. in the
  • Step V6.3 can be carried out switching on or switching of energy storage or groups of energy storage in each case via the voltage ramp filter 11.
  • step V6.4 defining a max. Threshold for the current interconnected energy storage done.
  • step V6.5 identification and release of discharged energy storage can take place for charging, or separation of the respective energy store from the interconnected further energy stores.
  • the invention relates to an energy storage management arrangement 10 having an interconnection device 15 connected to the energy stores and connectable to the at least one load and the charging unit, which per energy store at least two at least three-stage switch (Sl, ..., S12), which are arranged such that the energy storage management arrangement 10 for a Sectionbesciens at least a subset of
  • Energy storage (Bl, Bn) is set up in parallel.
  • each energy storage device can be switched to currentless and exchangeable at any time by means of the respective changeover switch.
  • This allows a user-scalability of the entire system at any time and offers monetary benefits in the field of electric mobility and the customization of a mobile and / or permanently and reliably required system.
  • Particularly advantageous is a use of a mobile and a stationary system in combination to achieve both maximum efficiency in mobility as well as full use of the capacity and life expectancy of a plurality of energy storage devices.
  • Partially used batteries can be quickly recognized and replaced in the mobile application, while the stationary use of the optimum utility relative to the manufacturing costs of the respective Energyspei chers makes.
  • Particularly advantageous is the latter use with mobile terminals with multiple batteries on the one hand and stationary devices for powering stationary systems on the other hand.
  • Rl first control point, in particular for query regarding charging requirements
  • R2 second control point, in particular for querying consumers
  • R3 third control point, in particular for query regarding satisfied charging requirements or with respect
  • V3 Data input / output to interface to human or machine
  • V6.2 Interconnecting the energy storage devices according to manual or automatic presetting, in particular according to V2 V6.3 Switching on or switching over energy storage devices or groups of energy storage devices via a voltage ramp filter
  • V6.5 Identifying and releasing discharged energy storage for charging or disconnecting the respective energy storage from the interconnected further energy storage devices
  • V7 provide consumers with energy, or interconnected energy storage with at least one consumer couple

Abstract

Figurent au premier plan, lors du branchement d'accumulateurs d'énergie entre eux et à une source d'énergie ou à un consommateur, d'une part l'utilisation efficace de l'énergie stockée tout comme, d'autre part, la charge intelligente, la plus durable possible des accumulateurs d'énergie, le système global devant toujours pouvoir être configuré de manière la plus flexible possible. Toutefois dans de nombreux cas, des concepts existants ne peuvent pas être configurés de manière suffisamment flexible, ou le sont au contraire de manière complexe. L'invention concerne un ensemble de gestion (10) d'accumulateurs d'énergie comprenant un dispositif de branchement (15) raccordé aux accumulateurs d'énergie et pouvant être raccordé au ou aux consommateurs et à l'unité de charge, lequel dispositif comprend, par accumulateur de charge, au moins deux commutateurs (S1,..., S12) à au moins trois étages qui sont disposés de telle manière que l'ensemble de gestion (10) d'accumulateurs d'énergie est mis au point pour un branchement partiel d'une quantité partielle des accumulateurs d'énergie (B1,..., Bn) selon un agencement parallèle. Chaque accumulateur d'énergie peut dans ce cadre être commuté à un moment quelconque par le commutateur respectif sans courant et peut être remplacé. Cela rend possible une évolutivité côté utilisateur de l'ensemble du système à tout instant et offre des avantages pécuniaires dans le domaine de l'électromobilité et de l'adaptation individuelle côté utilisateur d'un système mobile et/ou requis de manière durable et fiable.
EP18715028.9A 2017-04-03 2018-04-03 Ensemble en cascade servant à brancher une multitude d'accumulateurs d'énergie, branchement associé et procédé servant à commander une alimentation en énergie comprenant ledit ensemble Withdrawn EP3607630A1 (fr)

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DE102017107070.2A DE102017107070A1 (de) 2017-04-03 2017-04-03 Kaskadierbare anordnung zum verschalten einer vielzahl von energiespeichern sowie verfahren zur steuerung der energieversorgung bei diesen energiespeichern
PCT/EP2018/058407 WO2018185059A1 (fr) 2017-04-03 2018-04-03 Ensemble en cascade servant à brancher une multitude d'accumulateurs d'énergie, branchement associé et procédé servant à commander une alimentation en énergie comprenant ledit ensemble

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