Power accumulator. RU patent 2520309.
 Electrolyte for galvanic battery / 2496188Electrolyte for galvanic battery containing sulphur dioxide and conductive salt. Electrolyte is a jelly formed using fluorosulphinate. Also element of battery containing such electrolyte is described. |
 Device for thermostatting of accumulator batteries / 2483399Device for thermostatting of accumulator batteries (1-8) comprises a prestarting heater (15) and a cooler of liquid coolant, circulating via heat exchange channels in accumulator batteries. The cooler comprises a compressor (16), the outlet of which via a condenser (20), blown with a fan, is communicated with a coolant evaporator. The evaporator is arranged in a heat exchanger (26) of coolant cooling. With the heat exchanger (26) the pipelines (27) of coolant supply are connected with a circulating pump into heat exchange channels in accumulator batteries. The output from the heater (15) is communicated with the input to the pump, the output from which is communicated with the heat exchanger (26). The input into the heater (15) is communicated with the output of the pump, the input into which is communicated with an expansion tank. With the tank the input into the pump is communicated, and pipelines of coolant return from heat exchange channels in accumulator batteries are connected. |
 Accumulator power supply source for power-driven tool and power-driven tool / 2477550Accumulator power supply source for power-driven tool includes an accumulator, a monitoring circuit and a module for switchover to economy mode. The accumulator includes at least one accumulator cell. The monitoring circuit is controlled through receipt of power supply from the accumulator. The module for switchover to reduced energy consumption mode switches the accumulator power supply source over to reduced energy consumption mode by way of discontinuation of at least some or all of the monitoring circuit operations when the monitoring circuit reveals discharge completion condition wherein the accumulator discharge current is equal to or below the specific preset current value while the monitoring circuit additionally reveals at least one condition stable in terms of voltage wherein the accumulator cell voltage variation value stays within the pre-specified stable range of voltage variation values and a condition stable in terms of temperature wherein the value of the accumulator temperature vitiation stays within the pre-specified stable range of temperature variation values. |
 Method for nondestructive inspection of technical state of chemical current sources / 2467436Invention relates to evaluation of the technical state of chemical current sources and can be used when drawing up program-methodical documentation for conducting practical examination of the technical state of chemical current sources in order to evaluate their actual state, including at the final phase of their guaranteed service life. The technical result of the invention is improving time indicators of diagnosing chemical current sources, as well as the possibility of quantitative evaluation of the current technical state in nondestructive inspection mode. According to the invention, quantitative and qualitative indicators of the technical state of the chemical current source, which collectively enable to systematically evaluate the actual state of articles are used when forming the factor space. Exclusion of the destructive factor is achieved by introducing several thermal imaging factors into the factor space. Selection and formalisation of the main indicators - the generalised parameter of the technical state of the chemical current source, which depends on actual values of the component of the factor space, enable to conduct quantitative evaluation of the current state of the chemical current source and associate it with one of five possible states. |
 Method for determination of discharge degree for lead-acid battery / 2439753Method for determination of discharge degree for lead-acid battery (LAB) consists in the following: before tests using empirical formula, which sets functional relation of LAB discharge degree ΔC on change of electrolyte density Δρ at discharge, value of specific discharge index ΔCsp is determined with use of electrolyte temperature t, rated LAB capacitance Cr ΔC=f(Δρ, ΔCsp, t, Cr), (1); during tests electrolyte density ρ and temperature t are measured and using formula (1) degree of LAB discharge is determined; additionally before tests to determine value of specific discharge index empiric formula is used, which considers individual characteristics of LAB and sets dependency of its specific discharge index ΔCsp on value of theoretical specific discharge index of LAB ΔCsp min - ΔCsp=ΔCsp minxKv (2); correction factor Kv for individual characteristics of tested LAB sets relation between values of actual specific volume of electrolyte Vel sp and theoretic minimum specific volume of electrolyte Vsp min. Kv=Vel sp /Vsp min (3); using these values and functional relation (1) discharge degree ΔC is determined for LAB. |
 Accumulator storage battery of space vehicle / 2390885Accumulator storage battery is intended for being used in independent electric power supply systems of space vehicles and consists of in-series connected accumulators installed in holes of non-electroconductive heat-conducting plate. The latter is made of non-electroconductive plates between which there is layer of non-electroconductive power-consuming substance; accumulators are fixed in plates by means of membranes, and from central areas of electrode accumulator units the heat is removed with heat pipes. At that, temperature of phase transfer of power-consuming substance solid-liquid-solid is equal to temperature of phase transfer of heat carrier in heat pipe liquid-gaseous-liquid. |
 Spacecraft electric power supply system / 2390478Invention relates to spacecraft electric power-saving systems. Proposed system comprises solar and storage battery, as well as automatic control, test and storage battery equalising units. ACS allows simultaneous operation of said batteries for supply of onboard circuitry. Test and storage battery equalising unit effects element-by-element control of voltages and temperature in storage battery and leveling storage battery voltage misbalance. Said leveling is performed by charging separate storage batteries by preset algorithm by onboard computer or microprocessor incorporated with this unit. Structurally, the latter unit can be incorporated with both storage battery and automatic control unit. Charging voltage source can be incorporated with one of aforesaid units. |
 Method of performing service life tests of space storage batteries and device to this end / 2390477Invention relates to power supply systems of space objects, particularly incorporated with artificial Earth satellites (AES). Method consists in cycling accompanied by control over power characteristics of storage batteries (SA) connected in series in storage battery module. Tests are performed at operated AES. SA module A number is restricted by available excess power in AES power supply system. SA charge and discharge is controlled by onboard computer. SA discharge is performed by stabilised current and SA thermal state is continuously regulated in tests. Proposed method exploits device comprising solar batteries (SB) connected to load via voltage converter and storage batteries. The latter are connected to solar batteries via charge converters and, via discharge converters, to load. Load comprises onboard computer, telemetry hardware and command-and-measure radio line. Said module comprises thermal control plate with SA mounted therein, separate charge and discharge converters connected to the load of independent power supply system and onboard computer. Note here that individual discharge converter represents a current stabiliser. Thermal control plate is provided with temperature transducers and heaters while module incorporates discharge resistance. Note that said transducers and heaters are connected with onboard computer. Individual discharge converter output is additionally connected via switch with discharge resistance. |
 Charging controller / 2388131Application: in the field of power engineering. Controller of high-temperature battery charging for compensator of power in power transmission line comprises sensor devices and devices of calculation that include memory, besides charging controller comprises model of virtual battery. |
 Computer-aided software-hardware complex for charging and aging 'prisma' storage batteries / 2387054Invention relates to appliances intended for maintenance of storage batteries, particularly lead starter storage batteries with capacity approximating to 200 A/h. Proposed software device controlling storage battery charging/discharging consists of system controller (3) and PC (4). Software-controlled measuring adapters (10) with indication panels (11) convert the data from voltage transducers (9) and electrolyte temperature pickups (8) into digital form. Indication panels (11) display the storage battery state, i.e. connection, charging, discharging, interlocking, storage battery charge level scale, operation, availability of communication in charging/discharging control circuit. Power supplies (6) are implemented as pulsed program-controlled devices. Discharge circuits represent unit (7) of discharge resistors. Data exchange between power supplies (6), adapters (10), unit of discharge resistors (7) and control device (3, 4) is effected via interface (2). |
 Device for cell-by-cell equalizing capacities of battery-forming series-connected nickel-hydrogen cells / 2280299Proposed device has contact for connection to extreme terminals of storage battery, 2n output terminals, variable-voltage generator with transformer output, n controlled rectifiers whose outputs are connected to respective like-polarity terminals of cells, n strain gages, first and second switches, instrumentation amplifier, analog-to-digital converter, microprocessor, and control voltage supply. Outputs of strain gages are connected to n inputs of first switch whose output is connected to input of instrumentation amplifier and output of the latter, to input of analog-to-digital converter. Output of analog-to-digital converter is connected to microprocessor data bus which is connected to control inputs of first and second switches. Input of first switch is connected to output of control voltage supply and n outputs of second switch, to control inputs of n controlled rectifiers. Device provides for enhancing cycling intensity and eliminating polarity reversal of so-called weak cells thereby reducing drop in battery capacity with time, this being equivalent to enhancement of effective capacity by end of space vehicle active life. |
 Method for determining remaining capacity of lead accumulator / 2293343Preliminarily for appropriate type of accumulators an empiric formula is determined, determining dependency of full capacity of lead accumulator on discharge current Idis, temperature t and electrolyte concentration d. On basis of individually measured during receiving-transferring tests of certain accumulator battery, values of capacitors in two discharge modes, determined are correction coefficients and precise values of full capacity, appropriate for discharge currents related to marked sub-ranges of current. During discharge, discharge vessel of accumulator battery is determined continuously, by integrating discharge current Cj,p = Σ(Ij,p·Δt), and each increment thereof is added to content of j-numbered cell, where j - number of sub-range, to which current discharge current Ijp is related. Computation of remaining capacity at present discharge current, related to n sub-range, is performed by modifying all discharge capacitors, received in various sub-ranges, to n sub-range, adding modified discharge capacitors and subtracting that total from precise value of full capacity, appropriate for n-numbered sub-range. |
 Operating process of nickel-hydrogen storage battery incorporated in geostationary artificial earth satellite / 2305349Proposed nickel-hydrogen storage battery operating process involves checkup of steady-state self-discharge current and degree of battery charge against analog pressure transducers, battery storage in charged state with periodic additional charges to compensate for battery self-discharge in solar orbits, and conduction of charge-discharge cycles in shadow orbits; steady-state self-discharge current is maintained in battery between 0.003 and 0.006 of its rated capacity; additional charge is ceased according to arithmetic mean of analog pressure transducer readings whose value affords desired steady-state self-discharge current during additional charge ranging between 0.01 and 0.012 of battery rated capacity under charge-discharge cycle conditions. In addition battery location temperature is checked, and battery self-discharge steady-state current is maintained between 0.003 and 0.006 of rated capacity at battery location temperature below 10-12 °C both in additional-charge mode and during charge-discharge cycles; additional impulse charge is conducted, its parameters (period and relative pulse duration) being chosen to provide for mean charge current higher in magnitude by two or three times than battery steady-state self-discharge current. |
 / 2319257 |
| Method for equalizing capacity of nickel-hydrogen storage battery incorporated in space vehicle / 2321105 Proposed method for equalizing battery capacity makes use of tight dependence between rate of self-discharge of nickel-hydrogen cells and temperature and is implemented by disconnecting battery and load, its heating and storage at temperature not over 50 °C for time sufficient for complete discharge of all cells, that is, for voltage drop below 0.5 V. Proposed method is characterized in that it wants no special measures for its implementing as it uses heaters incorporated in storage battery. |
 Composite electrochemical current supply / 2323508Proposed composite electrochemical current supply has solitary secondary electrochemical current supplies electrically interconnected into series or series/parallel circuit with primary electrochemical current supply connected to each of them by means of switching device through electronic converter. Control unit functions to control voltage across each secondary electrochemical current supply and to disconnect respective primary one for charging secondary current supply to desired voltage level, or to disconnect composite electrochemical current supply from load to discharge secondary current supply below desired voltage level. |
 Method for control of power capacity of metal-hydrogen accumulator battery with gas collector / 2324262Method for controlling of Metal-Hydrogen Accumulator Battery (MHAB) with common gas collector includes measuring of parameters determining the level of MHAB charge, carrying out charge-discharge cycles, determining residual level of MHAB electrochemical energy charge on the basis of measured parameters, determining discharge power capacity, checking of allowed level of MHAB discharge power capacity loss, and stop of charging after the moment when current loss of discharge power capacity has exceeded allowed level, with subsequent monitoring of selfdischarging until pressure balance of gas mix in the MHAB is achieved at rated temperature and power capacity of electrochemical generating in accumulators is recovered by means of recovering of their electrolyte content. |
 Battery safety device for and battery equipped with this device / 2325006Battery is equipped with safety device comprising first metal plate, second metal plate and pressure sensitive conducting film, placed by both metal plates and designed for electric conduction efficiency as specified or higher pressure is applied. First and second metal plates are electrically connected to positive and negative electrodes respectively. Safety device connected to battery prevents cell failure or at least its inflammation or explosion even if battery is affected by external action caused by mechanical pressure, nails, nippers or by external pressure by means of current transfer from battery to safety device and battery discharge before the moment battery is failure under the influence of external action or external pressure. |
 Electric method of accumulator batteries quality control / 2326473Invention is related to electric equipment and may be used in production of accumulators and accumulator batteries, in particular, lead-acid accumulator batteries. During electric monitoring of accumulator or accumulator batteries with electrolyte quality, which is performed on completion of last technological manufacturing operation in the time limits (τ1-τ2), which depends on the type of items and technology of their manufacturing, with temperature of electrolyte in items within the interval (T1-T2), which depends on the type of items, the process of discharge lasts at least 3 sec and not more than 30 sec, the value of discharge current is maintained equal to In for every nominal type of item during the full process of discharge, voltage drop on the outputs U0 is measured before the discharge start, voltage drop at outputs U1 is measured in the moment t1 of discharge process, voltage drop at outputs U2 is measured in the moment t2 of discharge process, voltage drop at outputs ue is measured in the moment te in the end of discharge, value ΔU is calculated in equal to difference (U1-U2), values U0, ue, ΔU are compared with control values U0, control> Ue, control, Δucontrol for every type of items and on the basis of such comparison the decision is made on the quality of items, at that items are considered high quality if U0 lies in the range of values U0,control> ue more or equal to ue,control, ΔU less or equal to ΔUcontrol. |
 Measuring pcb assembly for storage battery module / 2335042Invention relates to measuring pcb assembly for storage battery. In compliance with this invention, the measuring pcb assembly incorporates connecting elements to effect electrical interconnection of single cells terminals. The aforesaid connecting element comprises an extending connecting part connecting it with the pcb furnished with through holes receiving the aforesaid extending parts of connecting elements and printed circuits connected with perforated holes. |
FIELD: transport.
SUBSTANCE: invention relates to automotive industry, particularly, to automotive storage batteries. Storage battery comprises application unit (AU) to define and/or process the storage unit operating parameters. Besides, storage battery incorporates cryptography unit (CU) for cryptographic processing of defined and/or processed operating parameters. Besides, it comprises communication interface (IF1, IF2) to output cryptographically processed working parameters.
EFFECT: possibility of accumulator authentication.
17 cl, 2 dwg
The invention relates to the battery energy, in particular, for the car.
In modern cars requirements to reliability and performance vehicle power is particularly high. In particular, the hybrid vehicle or electric car with a predominantly all-electric accumulators of energy play an important role. Besides, in modern cars is increasing the number of systems operating with electric power. This increases the need for power such vehicles. The energy management system in modern cars are trying to manage properly the energy needs around the car, to avoid any failures of the corresponding battery energy because of the very high current consumption.
Article “Friend or Foe - Battery-Authentication ICs separate the good guys from the bad”, Margery Conner, published on 2 February 2006 in EDN, discloses the use of authentication chips in the batteries, and the batteries for mobile phones or portable computers. Through these authentication chips batteries or accumulators with respect to the appropriate device are identified unambiguously, so can only apply appropriate batteries.
The objective underlying the invention consists in creating an energy storage, which should be exploited to the maximum extent reliably and efficiently.
This problem can be solved signs independent claim of the invention. The preferred embodiments of the invention presented in dependent clauses.
The invention is an energy storage with application block, which is made with the possibility to define and/or process the specified operating energy storage, and protection unit, which is made with the possibility of cryptographically to handle specific and/or processed working parameters, and the communication interface to provide cryptographically processed operating parameters. Through certain operating parameters can be especially good to determine the mode of charging and discharging the battery of energy which can be provided especially efficient operation of energy storage. Due to cryptographic processing of certain operational parameters before passing them can very safely to recognize manipulation.
Under the preferred option of the implementation, protection block is executed with the ability to encrypt certain and/or processed operating parameters. Thus the operating parameters are transmitted in a secure manner, so that the manipulation over them can be prevented.
In another preferred option implementation, protection block is executed with the option to generate a checksum based on specific and/or processed operating parameters. To do this, depending on the specific operational parameters before passing them is determined by the checksum. It can be transmitted in addition to the working parameters, to reliably recognize the change during a transfer. Thus it is possible to reliably guarantee the integrity parameters.
In another preferred option implementation, protection block is executed with the ability to authenticate the battery power by using cryptographic processing operating parameters. At the relevant encryption and generate a checksum battery power can be authenticated against the receiver operating parameters. Mismatched energy accumulators can thus recognize simple and reliable way, so that, for example, warranty claims in cases of damage can be unambiguously determined. Accordingly identified a battery power can be operated particularly effective way.
In another preferred option exercise, the protection unit is designed as a controller smart card is protected with non-volatile memory to store data to be protected. Controllers smart card is especially preferred way designed to encrypt and generate checksums. Cryptographic keys used to encrypt and generation of checksums are used only inside the controller smart card, so that manipulation can be reliably prevented. In a protected, nonvolatile memory, in addition to encryption keys stored parameters. In addition, controllers, smart cards are proven components that are particularly favorable cost.
In another preferred option exercise, the application block includes the application controller peripheral interfaces to define and/or processing of working parameters of the battery energy. The application controller preferred way is made especially productive, to be able to identify and especially to quickly process operating parameters. Especially suitable way the application controller can be used as setting the controller to, along with the definition and/or treatment of operating parameters control the protection unit.
In another preferred option implementation, protection block and the block applications integrated on a single chip. Due to this, the determination and processing of working parameters of energy storage may be provided particularly quickly and reliably.
In another preferred option exercise, the application block contains the communication interface. The application block contains the preferred way peripheral interfaces and can, therefore, is especially easy to use for the transfer of operating parameters.
In another preferred option implementation, communication interface is made with the possibility of wireless transmission of operating parameters. Wireless transmission is particularly suitable for the provision of working parameters of the external receiver. The battery power can be checked, for example by device diagnostics.
In another preferred option exercise, the application block contains the block of measurement made with the possibility of determination of working parameters of the battery's energy is particularly simple way. Thus the operating parameters of battery power, you can define a particularly simple way.
Examples of the implementation of the invention in more detail below with the help of drawings showing the following:
Figure 1 - schematic representation of battery power,
Figure 2 - another schematic representation of the battery energy.
Elements of similar structure and/or function indicated on the drawings same reference positions.
In the first example run (figure 1) is a schematic representation of the car VEH. Car VEH contains as an energy accumulator battery BAT for power supply of on-Board network. Typically, the battery power can be executed as a condenser with double layer, in particular, the so-called UltraCap or SuperCap in hybrid cars. However, for the specialist will be apparent and other well-known implementation of energy accumulators.
Battery energy Wat contains the block of measurement and authentication MAU, who from the entrance mapped line supply SL, which is the typical way connected with the connection terminals of the battery energy Wat. Typical unit of measurement and authentication MAU also receives power through the line of supply SL. Through the lines of supply SL battery energy Wat is connected with the energy distributor DIST and thus with an onboard network of the car VEH. The unit of measurement and authentication MAU can be integrated, for example, in some part of the body of the battery energy Wat, so that the measurement unit and authentication MAU nerushenko associated with battery energy Wat and mechanically protected. It is also possible separate accommodation in the body of the unit of measurement and authentication MAU and his mount out of battery power, and it is necessary to pay attention to the fact that the attachment is a mechanical one-piece.
In addition, the unit of measurement and authentication MAU contains a protection unit CU and the application block AU. The protection unit CU and the application block AU connected to each other, so between the two units can be controlled two-way communication, for example, using SPI. In addition, there may be other signal lines for transmission of control signals between the blocks. The protection unit CU designed as a controller smart card and a typical way, along with communication capabilities with the application block, does not contain any other peripherals. Controllers smart cards typically made with the possibility of cryptographic processing, for example, encryption and/or decryption of data streams, as well as the generation and/or checksumming. The application block AU contains unit of measurement MU required to determine the operating parameters. Along with the unit MU, the application block AU also contains the first and second communication interface IF1 and IF2. Through the first communication interface (IF1 the application block AU correlated with the control device CTRL that is accomplished, for example, as a system of power distribution. The first communication interface IF1 typically performed as CAN-interface, so that the operating parameters of the battery energy Wat available to not only the system CTRL energy distribution, and other control devices. The first communication interface IF1 can also be made wireless. However, specialist in the art will be apparent and other well-known communication interfaces, for example, LIN.
A second communication unit IF2 typically performed as a wireless interface, for example, Bluetooth or WLAN. Through him the operating parameters can be made available to other devices outside the car. For example, through this working parameters can be passed to the device diagnostics in the workshop. Operating parameters that are passed through a second serial interface (IF2, can for example also be used for calculations in the gas station for charging of battery energy. In principle, it is also possible wired second serial interface (IF2, for example, CAN, USB or RS232.
Through measurement unit MU in the application block AU operating parameters of the battery energy Wat on the line supply SL identified and processed in the application block AU. Processed operating parameters then served on the protection unit CU and handled it by using cryptographic means. At the same time working to parameters can be added checksum, and/or operating parameters encrypted. Encrypted and/or provided with a checksum operating parameters intermediate image is saved in the protection unit CU and/or re-transmitted in the application block AU and through him are transferred into the CTRL energy distribution or device diagnostics.
Working parameters of energy storage are, for example, voltage, current, capacitance, temperature, or the type of battery energy. Depending on these parameters can be defined mode voltage and current energy storage Wat and, thus, can tune the process of charging and discharging, so the battery energy Wat is effectively used.
Figure 2 shows the block of measurement and authentication MAU containing the application block AU and the protection unit CU. The application block AU contains, along with the first and second communication interface IF1 and IF2 and unit of measurement MU, the controller s application. It contains a typical image field module to bind to communication interfaces IF1 and IF2 and unit of measurement MU. The controller s applications can also be done in such a way that it contains unit of measurement MU and/or communication interfaces IF1 and IF2.
The protection unit CU designed as a controller smart card with nonvolatile memory MEME.
Through a shunt resistance R_S current, as an example of a working option of battery energy Wat, is determined by a measurement unit MU, which in this case can be performed as analog-to-digital Converter. Through the controller s application, depending on certain analog-to-digital value, determined current through a shunt resistance R_S and served on the controller smart card. The controller s applications typically performed as setting the controller and the controller manages the smart card, designed as a slave controller, so that you pass the current value is encrypted and/or depending on it generates a checksum. This cryptographic keys needed to encrypt and/or generate the checksum stored in non-volatile memory MEM controller smart card. The controller smart card is designed so that access to non-volatile memory MEM can be carried out only by himself. External access to non-volatile memory is not possible.
Encrypted and/or provided with a checksum, the value of current can, depending on the controller management s applications, stored intermediate way in nonvolatile memory MEME. Moreover, in non-volatile memory MEME can also save the settings charge and discharge, as well as the identification settings for the battery energy. But also there may be other units non-volatile memory, for example, the application block AU, which can be saved settings, preferably encrypted or provided with a checksum.
If the current value is requested, e.g. by CTRL energy distribution, encrypted and/or provided with a checksum, the value of current is passed back to the controller s applications and through the first or second serial interface (IF1 or IF2 is transmitted to the system CTRL energy distribution in or into the external device of diagnostics.
Along with the transfer of identification of parameters of energy storage Wat, the latter may, in relation to the system CTRL energy distribution or other control devices to authenticate so that apply appropriate methods of encryption and/or checksum, for example, the way "message authentication code" or a way to "request-response". Battery energy Wat can thus be identified as appropriate or not appropriate. If the battery energy Wat is identified as not appropriate, or between the unit and authentication MAU manipulate so that, for example, the message is changed, this can clearly identify, for example, electronically recorded in nonvolatile memory. If due to the use of unsuitable energy accumulators will be damaged by logging can unambiguously determine any warranty claims.
If, on the contrary, the battery energy Wat is identified as the appropriate storage of energy and settings, and parameters of the charge and discharge it to the appropriate control device, the battery energy through the appropriate coordination and accumulation of energy output can be operated effectively. In addition, through the use of non-volatile memory, you can more effectively to operate the entire system architecture of the car.
Along with separately used by the application block AU and protection unit CU, it is also possible integration units on a single chip.
Along with the application the application block AU and protection unit CU in battery energy vehicles, the battery power can and out of cars to be supplied similar blocks and operated accordingly.
1. Battery energy, especially for the car, with the application block (AU), which is made with the possibility to define and/or process the specified operating energy storage, and protection unit (CU), which is made with the possibility of cryptographically to handle specific and/or processed working parameters, and communication interface (IF1, IF2)to provide cryptographically processed working parameters, the protection unit (CU)performed as the controller smart card with a non-volatile memory to store data to be protected.
2. Battery energy of claim 1, wherein the protection unit (CU) is made with the ability to encrypt certain and/or processed operating parameters.
3. Battery energy of claim 1, wherein the protection unit (CU) is made with the option to generate a checksum based on specific and/or processed operating parameters.
4. Battery energy of claim 1, wherein the protection unit (CU) is made with the ability to authenticate the battery power by using cryptographic processing operating parameters.
5. Battery energy according to claim 1 in which the application block (AU) includes the application controller peripheral interfaces to define and/or processing of working parameters of the battery energy.
6. Battery energy of claim 1, wherein the protection unit (CU) and the application block (AU) integrated on a single chip.
7. Battery energy according to claim 1 in which the application block (AU) provides a data communication interface (IF1, IF2).
8. Battery energy according to paragraph 7, in which communication interface (IF1, IF2) made with the possibility of wireless transmission of operating parameters.
9. Battery energy according to claim 1 in which the application block (AU) provides a measurement unit (MU), which is made with the ability to determine operating parameters of the battery energy.
10. Battery energy according to claim 2, in which the protection unit (CU) is made with the ability to authenticate the battery power by using cryptographic processing operating parameters.
11. Battery energy according to claim 2, in which the application block (AU) includes the application controller peripheral interfaces to define and/or processing of working parameters of the battery energy.
12. Battery energy according to claim 2, in which the application block (AU) provides a data communication interface (IF1, IF2).
13. Battery energy indicated in paragraph 12, in which the protection unit (CU) is made with the ability to authenticate the battery power by using cryptographic processing operating parameters.
14. Battery energy on item 3, in which the protection unit (CU) is made with the ability to authenticate the battery power by using cryptographic processing operating parameters.
15. Battery energy on item 3, in which the application block (AU) includes the application controller peripheral interfaces to define and/or processing of working parameters of the battery energy.
16. Battery energy on item 3, in which the application block (AU) provides a data communication interface (IF1, IF2).
17. Battery energy according to article 16, in which communication interface (IF1, IF2) made with the possibility of wireless transmission of operating parameters.