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"Power Backup System With Multiple Outputs"

This invention relates to a user settable power backup system with multiple outputs comprises of an inverter connected with multiple loads through its various outputs which are operated simultaneously or selectively and connected to a controller wherein the controller is connected to a secondary storage device to give the backup, a plurality of power switches to switch On/ Off the load according to the priority defined by the user, a user interface to input priorities and parameters, a communication interface to forward and receive data from remote/ local through hand held device or web enabled device, a display unit to display the parameters and load conditions wherein the user interface, said communication interface and display unit are connected to the controller and said inverter is connected to a control panel, which supplies power through generator/ mains.(Fig. 1)

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Notices, Deadlines & Correspondence

Patent Information

Application #
Filing Date
29 April 2009
Publication Number
3/2011
Publication Type
Invention Field
ELECTRICAL
Status
Email
Parent Application
Patent Number
Legal Status
Grant Date
2018-02-02
Renewal Date

Applicants

SU-KAM POWER SYSTEMS LTD.
PLOT NO. WZ-1401/2, NANGAL RAYA, NEW DELHI - 110 046.

Inventors

1. KUNWER SACHDEV
SU-KAM POWER SYSTEMS LTD., PLOT NO. WZ-1401/2, NANGAL RAYA, NEW DELHI - 110 046.
2. VENKAT RAJARAMAN
SU-KAM POWER SYSTEMS LTD., PLOT NO. WZ-1401/2, NANGAL RAYA, NEW DELHI - 110 046.
3. SANJEEV KUMAR SAINI
SU-KAM POWER SYSTEMS LTD., PLOT NO. WZ-1401/2, NANGAL RAYA, NEW DELHI - 110 046.

Specification

FIELD OF INVENTION
The present invention relates to a user settable power backup system. More particularly, the present invention relates to a user settable power backup system with multiple outputs to supply power during power failure.
BACKGROUND & PRIOR ART OF THE INVENTION
In case of the inverter device which is to be used with different appliances, it is required to set various parameters according to the need of appliances. Therefore, the inverter device is equipped with the parameter setting apparatus for setting various kinds of parameters. The user sets various kinds of parameters, change and check using this parameter setting apparatus. It is common that parameters, such as voltage, time, temperature, current, frequency pattern and maximum frequency, are set beforehand and operation is controlled by the general-purpose inverter device currently used for the drive of appliances.
Although, a user does the setting variation of this parameter and the optimal inverter system can be built in recent years according to each use, the method of the setting variation of the parameter by the user at this time making an initial value a certain parameter set beforehand, rewriting this and going is usually.
Conventionally, the standard parameters are set beforehand where the inverter is made. These standard parameters are then set in the
inverter device, as per commercial use. Thus, the user starts taking these parameters as standard values.
On the other hand, the inverter device provided with the initializing function is also known. Here, this initializing function is a function which enables it to return the parameter changed by the user side to the data set up by the manufacture side at the time of factory shipments.
In the conventional example of the general-purpose inverter device provided with this initialization value function, the data constellation currently prepared as a canonical parameter at the time of factory shipments is a lot, and if an initializing function is performed for this reason, it will be set as the equal data same for every user.
Since the parameter by the original data set up by the user side will disappear if this initializing function is performed when re-setting the parameters, using a setting-out displaying means about each parameter in which the user is recorded separately, the parameter concerned is thus memorized in the memory.
And in the case of this conventional technology, the maker of the inverter device concerned defines the contents. A manufacturer's-standard initial-value-data group is set up. A user's original initial-value-data group, after the user of the inverter device concerned decides himself, what the maker was beforehand notified of, is set up. Then, the user concerned can choose arbitrary initial-value-data groups and can perform an initializing function.
Thus the maker, at the time of the factory shipments of the inverter device should take care of the user's concerned. A manufacturer's-standard initial-value-data group is stored on ROM (read only memory) and after storing a user's original initial-value-data group to the predetermined field of storing or EEPROM (electrically rewritable nonvolatile memory) on ROM, it makes this field write-protected area.
Reference may be made to the following known arts:
US publication no 20080296975 relates to a system for providing back-up battery operated power to an appliance in the event of a power failure. The present invention gives output in multiple steps. It reduces the power supplied to a particular object in three steps. This does not control the multiple outputs according to the user configured settings.
Publication no JP2006246658 discloses a parameter-setting unit in an inverter system, of which operability is improved by significantly reducing the required number of operations for registering the parameters needed by a user, in user-selected parameters. This does not control the multiple outputs according to the user configured settings.
Publication no JP2004040966 is directed to an inverter arrangement wherein the user can easily change and restore set values with respect to initial value data groups. IThis does not control the multiple outputs according to the user configured settings.
Publication no JP11252927 relates to an inverter device. The device is constituted in such a way that a plurality of parameters are successively displayed by means of a displaying means and parameter values are successively set correspondingly to the displayed parameters. This does not control the multiple outputs according to the user configured settings.
Publication no JP10032984 discloses an inverter apparatus by which various control modes can be realized easily by a method wherein a parameter initial value required for controlling a load can be set extremely simply on the side of a user. This does not control the multiple outputs according to the user configured settings.
Publication no JP2000139080 pertains to the method for setting parameters having the same contents in a plurality of inverter apparatuses in a short time. This does not control the multiple outputs according to the user configured settings.
Publication no JP9247948 is directed to an inverter device conducting a setting operation easily. It also conducts an exact setting operation easily in a short time even if control items are selected from a wide selection range. This does not control the multiple outputs according to the user configured settings.
US patent no 6,335,870 is directed to an inverter apparatus which is capable of easily structuring a controlling program for controlling the inverter apparatus to cope with various specifications. The inverter
apparatus is comprised of a control section including a CPU serving as a computing means for controlling a converter unit and an inverter unit, a memory, a memory serving as a first storage unit for storing an inverter-controlling basic program, a parameter storage unit for storing parameters, and an AP S/W storage unit serving as a second storage unit for storing a plurality of inverter-controlling application programs, and a display device for such as a parameter unit and having a display portion and an input portion. An inverter-controlling application program is transferred from outside the inverter apparatus to the AP S/W storage unit through a telecommunication means. This invention does not control the multiple outputs according to the user configured settings.
Publication no JP2007028794 relates to an inexpensive system for providing an emergency power supply for supplying power to a POS cash register required for a business transaction in a retail shop during a power interruption. A DC current is supplied from a power supply terminal of a vehicle, converted into an AC current by an inverter and supplied to a power supply tap during the power interruption caused by a natural disaster and an accident. The retail shop can implement the business transaction by connecting a power supply plug of the cash register in the retail shop to the power supply tap and operating the cash register. It does not control the multiple outputs according to the user configured settings.
Publication no CN1501560 is directed to a multiple-output circuit apparatus for setting order of power supply priority having rather high
safety, which can provide output power supply according to the random fluctuation in load, when the overall load current exceeds the set value, the apparatus can set the broken circuit order cut off the less-prior loads, thus sustaining the continuous power supply to the priority loads. This also not controls the multiple outputs according to the user configured settings.
Publication no CN201185396 is directed to an inverter circuit, in particular to an inverter circuit capable of outputting a wide range of voltages. The inverter circuit of the utility model is capable of outputting a wide range of voltages and comprises at least two single-output voltage inverter circuits, which consist of a power circuit, a converter circuit and an output filter circuit. The key technical proposal is that the inverter circuit is formed through arranging at least two single-output voltage inverter circuits in series. The utility model has the advantage of creatively arranging the inverter circuits in series, thus outputting a wide range of voltages as well as reducing the withstand voltage of a power transistor in the inverter circuits. It does not control the multiple outputs according to the user configured settings.
Further, reference may be made to the article by Alicante Murcia Region C, Federico Lorca Garcia Pinoso. The article explains off mains electricity power system in which, when the generator is switched off, the inverter uses the battery bank to produce 230v electricity silently. In doing this the inverter slowly discharges the battery bank. When the battery bank reaches a preset
charge level, the generator is automatically started to recharge the battery bank and simultaneously powers appliances that would normally be running off the inverter and battery bank. Electrical power remains constant throughout this process and the user would not notice the switchover apart from the generator starting. Alternatively when there is a large demand for power the system can be programmed to sense this and will startup the generator automatically.
Again, reference may be made to the product by "Hitachi Industrial Equipment System Co., Ltd". The product is an inverter which comprises the user-settable parameters including V/F free-setting (up to 7 points), frequency upper/lower limit, frequency jump, accel/ decel curve selection, manual torque boost value and frequency adjustment, analog meter tuning, start frequency, carrier frequency, electronic thermal protection level, external frequency output zero/span reference, external frequency input bias start/end, analog input selection, retry after trip, restart after instantaneous power failure, overload restriction and default value setting (US, Europe, Japan).
Reference may be made to the product entitled "IPC -E2 Multi-functional Inverter". The product is a multi-functional inverter system that has key benefits of uninterruptible power supplies with the extra runtime allowed by a larger battery bank. It delivers unsurpassed clean true sine wave output power alternatively from utility or battery to prevent interruption, charge batteries automatically with a multi-current
selection to facilitate battery performance, and can optionally converting solar energy to go green. This robust inverter is designed for 24/7 operation, and handles any kind of loads such as power tools, home appliances, consumer electronics and office equipments. In normal condition, this inverter transfers utility power to connected equipment(s). During power failure, it straightly withdraws battery power to continuously back up the load(s). The internal 2-stage intelligent charger, as well as the battery management programming, secures batteries from overcharge. With optional solar charger module installed, this inverter system can be transformed to off-grid solar system. The optional remote control panel kit further supports monitoring from distance.
None of the above listed patents talks about the power backup system with variable parameters with multiple outputs. In light of the above, there is a need for back-up power system that is always ready in case of power failure, used selectively for different apparatuses and provides multiple output of power simultaneously.
OBJECTS OF THE INVENTION
An object of the present invention is to provide a power source for backup.
Another object of the present invention is to provide a user settable power source for backup.
Yet another object is to provide a power source for backup which can be used for different apparatuses simultaneously or selectively.
Still another object of the present invention is to provide a power backup system with multiple outputs.
Further object of the present invention is to provide a power backup system in which the parameters of each output can be set by the user.
Another object of the present invention is to provide a power backup system which switches off the appliances as per the defined priority and settable parameters of the power backup system
Yet another object of the present invention is to provide a power backup system in which shutting time of the various appliances can be set by the user.
Another object of the present invention is to provide an automatic user settable power backup system with remote monitoring and controlling.
Still another object of the present invention is to provide an automatic user settable power backup system which can save a large amount of power.
Yet another object of the present invention is to provide a power backup system in which priority of the various appliances can be set by the user.
Another object of the present invention is to provide a power backup system which gives an alert to the user during the failure from normal running conditions of the appliance.
Another object of the present invention is to switch ON another source of power like a generator to simultaneously charge the battery & provide the power to the connected loads thus enhancing the runtime of the most critical connected loads.
STATEMENT OF INVENTION
According to this invention, there is provided a user settable power backup system with multiple outputs comprises of an inverter connected with multiple loads through its various outputs which are operated simultaneously or selectively and connected to a controller wherein the controller is connected to a secondary storage device to give the backup, a plurality of power switches to switch On/ Off the load according to the priority defined by the user, a user interface to input priorities and parameters, a communication interface to forward and receive data from remote/ local through hand held device or web enabled device, a display unit to display the parameters and load conditions wherein the user interface, said communication interface and display unit are connected to the controller and said inverter is connected to a control panel, which supplies power through generator/ mains.
SUMMARY
According to this invention, there is provided a user settable power backup system with multiple outputs comprises of an inverter connected with multiple loads through its various outputs which can be operated simultaneously or selectively. The present invention provides user settable power system for backup during power failure in which the value of the parameters of the multiple outputs are set as per the requirement of the user.
In a preferred embodiment, the backup power system provides power to the connected apparatuses. The priority and operation time of the load is defined by the user. The system can also be set to operate only when the appliance is turned on, which optimizes the current and power required to provide a backup power to the appliance for a maximum period of time. In an aspect, the present invention is provided with multiple output generator control. It has one critical output (single or three phases) and rests of the outputs are based on priority. The critical load is active based on the priority. As battery reaches to the lower cut off level, the generator gets started to run the critical load and charge the battery in parallel so that it can remain operational for longer duration. The user can set the values of the parameters of the outputs according to the requirement. A control means is provided so as to perform the operation required for setting out and initialization of a parameter which determines inverter control conditions to achieve the above objects.
Further, according to the present invention, the user can change the parameters from a remote location. During the failure of grid power, the present system will cutoff the power supply to the connected

load(s) at the predefined set level of parameters/conditions and will also send an alert message to the user via but not limited to email/ SMS.
In an embodiment according to the present invention, the backup power system is such as but not limited to UPS, inverter with any type battery or secondary storage device.
In an embodiment according to the present invention, the apparatuses/ load is such as but not limited to computer, television, any cooling device, lighting units, fans or any other device that can run through alternating current.
In an embodiment according to the present invention, the user interface can be touch screen or keypad to input parameters and set priority.
In an embodiment according to the present invention, the backup power system has single phase or three phases output.
In an embodiment according to the present invention, the backup power system is connected to the "n+l" number of loads with user defined priority.
BRIEF DESCRIPTION OF THE ACCOMPANYING DRAWING
Further objects and advantages of this invention will be more apparent from the ensuing description when read in conjunction with the accompanying drawings and wherein:
Figure 1 shows the block diagram of the user settable power backup system.
Figure 2 shows the flow chart according to the present invention.
DETAIL DESCRIPTION OF THE INVENTION WITH REFERENCE TO THE ACCOMPANYING DRAWINGS:
Reference may be made to fig 1, which shows the block diagram of a user settable power backup system according to the present invention. The user settable power backup system with multiple outputs (O/Pl, 0/P2, 0/P3, and O/P 4 .. ) is connected to the multiple loads which are operated simultaneously or selectively. The system comprises controlling the complete system including the inverter 1 which provides backup during mains power failure, a controller 2, a
secondary storage device 3 and the power switches (P1, P2, P3, Pn,
C1) to switch On/ Off the load according to the priority defined by the user. The controller 2 stores and allows the setting of the priority of execution of the inverter-controlling application program. A user interface 4, communication interface 5 and display unit 6 are connected to the controller 2. The user can set the priority and parameters through user interface 4 which can be displayed on display unit 6. The present invention provides user settable power system for backup during power failure in which the value of the parameters of the multiple outputs are set as per the requirement of the user. In an aspect, the present invention is provided with multiple output having a control panel 7 which supplies power to the power backup system through generator or mains. The control panel 7 is
controlled by the controller 2. The controller 2 controls the generator according to the user settings. The generator is turned on according to the user defined conditions based on priority of the loads and battery charging takes place to charge the batteries to increase the backup time of the high priority loads. The inverter is provided with a change over control 8 to change the output from mains mode to the inverter mode or the inverter mode to the mains mode. The controller 2 also monitors and controls the battery 3 and rectifier 9.
In addition, the priority of execution of the inverter-controlling application program, the order of priority in execution thereof, and the processing time interval of execution are set in the parameter storage unit of controller 2 through user interface 4 provided on the inverter apparatus or through communication interface 5 i.e. by hand held device with keypad and screen via telecommunication means.
The controller 2 includes built-in timer so as to optimize the uses of the output power available from the power backup system based on the certain user defined conditions but not limited to the battery voltage, state of the charge and time period. The operation time of the various appliances is set as per the use. The priority and operation time of the load is defined by the user. The system can also be set to operate only when the appliance is turned on, which optimizes the current and power required to provide a backup power to the appliance for a maximum period of time.
In an aspect, at least one critical output is connected to the system through switch C1 and rest of the outputs are connected to the
system through switches PI, P2, P3....Pn based on priority. During the operation, the controller checks the user settings and controls the output load according to the settings for example if the user sets the priority of the loads according to the battery voltage, the system shuts the load which is defined at first (least as per uses) priority and supplies power to rest of the loads when the threshold battery voltage for that load is reached. When the battery voltage reaches at certain defined level for second priority, it shuts the second load. This process is repeated for "n" number of loads. The system also starts the generator when the defined priority load is shut down.
When all the loads are off and the battery reaches to the lower cut off level, the generator gets started to run the critical load and charge the battery in parallel so that it can remain operational for longer duration. The user can set the values of the parameters as per the requirement
A control means is provided in the invention so as to perform the operation required for setting out and initialization of a parameter which determines inverter control conditions to achieve the above objects.
Now, reference may be made to fig. 2 indicating the flowchart of the present invention. The main controller 2 has complete control of the system and first initializes the system to the last saved settings or the default settings, if last settings are not available. Then, it monitors all the input and output parameters. In case, mains supply is available, the loads are transferred to the mains and battery charging is done
through the supply. If mains is not present, the power backup system is controlled by the controller 2. The load are turned on or off according to the user defined settings. The status of the system is displayed on the display 6. The controller 2 configures the system through the communication 5 or front user interface 4, if the input settings are validated okay. Then the settings are saved in the memory. The system also sends the alerts and notifications to the user according to the state of the system and connected loads.
The present invention uses parallel load controllers and has a provision of setting of the parameters of load/appliance at each output as per the requirement. The system gives an alert to the user during the failure from normal running conditions of the appliance or connected load.
Further, according to the present invention, the user can change the parameters from a remote location. During the failure of grid power, the present system will cutoff the power supply to the connected load(s) at the predefined set level and will also send an alert message to the user via but not limited to email / SMS.
Numerous modifications and adaptations of the system of the present invention will be apparent to those skilled in the art, and thus it is intended by the appended claims to cover all such modifications and adaptations which fall within the true spirit and scope of this invention.

WE CLAIM;
1. A user settable power backup system with multiple outputs comprises of an inverter connected with multiple loads through its various outputs which are operated simultaneously or selectively and connected to a controller wherein the controller is connected to a secondary storage device to give the backup, a plurality of power switches to switch On/ Off the load according to the priority defined by the user, a user interface to input priorities and parameters, a communication interface to forward and receive data from remote/ local through hand held device or web enabled device, a display unit to display the parameters and load conditions wherein the user interface, said communication interface and display unit are connected to the controller and said inverter is connected to a control panel, which supplies power through generator/ mains.
2. A user settable power backup system with multiple outputs as claimed in claim 1, wherein the controller stores and allows the setting of the priority of execution of the inverter-controlling application program and the user can set the priority and parameters through user interface which are displayed on display unit, wherein the value of the parameters of the multiple outputs are set as per the requirement of the user.
3. A user settable power backup system with multiple outputs as claimed in claim 1 or 2, wherein the order of priority in execution thereof, and the processing time interval of execution are set in the parameter storage unit of controller through user interface
provided on the inverter apparatus or through communication interface i.e. by hand held device with keypad and screen via telecommunication means.
4. A user settable power backup system with multiple outputs as claimed in any of the preceding claims, wherein the controller comprises built-in timer so as to optimize the uses of the output power available from the power backup system based on the certain user defined conditions but not limited to the battery voltage, state of the charge and time period.
5. A user settable power backup system with multiple outputs as claimed in any of the preceding claims, wherein the operation time of the various appliances is set as per the use wherein the system is provided with at least one critical output and rest of the outputs are based on priority.
6. A user settable power backup system with multiple outputs as claimed in any of the preceding claims, wherein the system also starts the generator when the defined priority load is shut down and the power backup system is such as but not limited to UPS, inverter, any type battery or secondary storage device.
7. A user settable power backup system with multiple outputs as claimed in any of the preceding claims, wherein the user interface can be touch screen or keypad to input parameters and set priority, and the power backup system has single phase or three phase.
8. A user settable power backup system with multiple outputs as claimed in any of the preceding claims, wherein the power backup system is connected to the "n+1" number of loads.
9. A user settable power backup system with multiple outputs as claimed in any of the preceding claims, wherein the inverter is provided with a change over control to change the output from mains mode to the inverter mode or the inverter mode to the mains mode in which the controller also monitors and controls the battery and rectifier.
10. A user settable power backup system with multiple outputs
substantially as herein described with reference to the
accompanying drawings.

Documents

Application Documents

# Name Date
1 885-DEL-2009-GPA-(17-08-2009).pdf 2009-08-17
2 885-DEL-2009-Form-1-(17-08-2009).pdf 2009-08-17
3 885-DEL-2009-Correspondence-Others-(17-08-2009).pdf 2009-08-17
4 885-DEL-2009-Form-5-(29-04-2010).pdf 2010-04-29
5 885-DEL-2009-Form-2-(29-04-2010).pdf 2010-04-29
6 885-DEL-2009-Drawings-(29-04-2010).pdf 2010-04-29
7 885-DEL-2009-Description (Complete)-(29-04-2010).pdf 2010-04-29
8 885-DEL-2009-Correspondence-Others-(29-04-2010).pdf 2010-04-29
9 885-DEL-2009-Claims-(29-04-2010).pdf 2010-04-29
10 885-DEL-2009-Abstract-(29-04-2010).pdf 2010-04-29
11 885-DEL-2009-Form-18-(10-09-2010).pdf 2010-09-10
12 885-DEL-2009-Correspondence-Others-(10-09-2010).pdf 2010-09-10
13 885-del-2009-form-2.pdf 2011-08-20
14 885-del-2009-form-1.pdf 2011-08-20
15 885-del-2009-description (provisional).pdf 2011-08-20
16 885-del-2009-correspondence-others.pdf 2011-08-20
17 885-DEL-2009-FER.pdf 2017-02-22
18 885-DEL-2009-OTHERS [21-08-2017(online)].pdf 2017-08-21
19 885-DEL-2009-FORM 3 [21-08-2017(online)].pdf 2017-08-21
20 885-DEL-2009-FER_SER_REPLY [21-08-2017(online)].pdf 2017-08-21
21 885-DEL-2009-DRAWING [21-08-2017(online)].pdf 2017-08-21
22 885-DEL-2009-COMPLETE SPECIFICATION [21-08-2017(online)].pdf 2017-08-21
23 885-DEL-2009-CLAIMS [21-08-2017(online)].pdf 2017-08-21
24 885-DEL-2009-ABSTRACT [21-08-2017(online)].pdf 2017-08-21
25 885-DEL-2009-Power of Attorney-250817.pdf 2017-09-01
26 885-DEL-2009-Correspondence-250817.pdf 2017-09-01
27 885-DEL-2009-HearingNoticeLetter.pdf 2017-12-08
28 885-DEL-2009-FORM-26 [09-01-2018(online)].pdf 2018-01-09
29 885-DEL-2009-Power of Attorney-090118.pdf 2018-01-15
30 885-DEL-2009-Correspondence-090118.pdf 2018-01-15
31 885-DEL-2009-Written submissions and relevant documents (MANDATORY) [17-01-2018(online)].pdf 2018-01-17
32 885-DEL-2009-PatentCertificate02-02-2018.pdf 2018-02-02
33 885-DEL-2009-IntimationOfGrant02-02-2018.pdf 2018-02-02

Search Strategy

1 SearchStrategy_17-02-2017.pdf

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