Description:FIELD OF INVENTION

[001] The present invention relates to a system of automatic water level motor control. Particularly, the present invention relates to the system and method of automatic water level motor control that eliminates the need for additional starters or contactors for controlling operation of a motor. More particularly, the present invention relates to the system with integrated sensors and timer for controlling the operation of the motor.

BACKGROUND OF THE INVENTION

[002] Water management has become important in modern households, industries, and agricultural settings. Various systems are designed to ensure efficient water usage, prevent wastage, and maintain a consistent water supply. Traditional water management approaches often rely on manual intervention, which is time-consuming, inefficient, and prone to human error.
[003] Energy efficiency is another important consideration in water management systems. Some conventional controllers may not optimize motor operation based on real-time conditions, potentially leading to unnecessary energy consumption. Furthermore, the lack of comprehensive safety features in some systems can result in motor damage due to dry runs, voltage fluctuations, or other abnormal conditions.
[004] Various automatic water level control systems have been developed to automate motor operations based on water level detection in tanks or reservoirs. Examples of such solutions include systems that utilize simple float switches, analog water level sensors, and microcontroller-based control units.
[005] Conventional water level automation systems typically require two separate and distinct components i.e. an automatic water level controller, a microprocessor-based unit that integrates sensor inputs, user commands, and controls the power supply to motor starters. A separate motor starter unit that employs switches and contactors to physically initiate and control the water motor. This two-tiered approach results in increased system complexity, higher costs, and a larger physical footprint due to the presence of multiple components.
[006] The conventional system lacks adaptability to different motor specifications and come with factory programmed system parameter and changing them requires costly software reprogramming for each motor design with unique timing requirements, upper or lower voltage and current threshold to protect the motor. These systems lack the ability to incorporate time-based scheduling, such as automatically starting the motor at a specific time of the day while allowing sensor inputs to turn-off motor when sensor sense full tank condition. The absence of integrated time-based scheduling in traditional systems limits their flexibility and restricts their ability to automate water filling operations based on predetermined time windows.
[007] Traditional automatic water controllers lack real-time event notification capabilities, leaving users unaware of motor start/stop events and the reasons for these events (e.g., sensor triggers, manual commands) and hinders users from accurately tracking the energy costs associated with motor operation and optimizing their usage patterns for maximum energy savings. Currently, monitoring energy consumption requires the use of external devices such as separate electricity meters adding to the overall system cost and complexity.
[008] A patent document US11781673B2 titled “Water level control system” discloses a method and apparatus for monitoring a water level in a basin are disclosed. An automatic refill system includes a level sensor coupled to a refill valve system. The refill valve system has a valve driven by an actuator. The actuator receives a signal from a controller in response to a measured water level. The refill valve system flows water into a basin from a water source until a desired level is reached.
[009] Another patent document IN2031/CHE/2008 titled “Automatic water level control system” discloses an automatic water level control system for managing water levels in tanks. The system primarily focuses on controlling the electrical phase input power supply.
[0010] In order to overcome the problem associated with state of arts, there is a need for the development of an automatic motor operation control system that can overcome the aforesaid limitations in a more efficient manner.

OBJECTIVE OF THE INVENTION

[0011] The primary objective of the present invention is to provide a system for automatic water level motor control.
[0012] Another objective of the present invention is to develop an automatic water control system utilizing capacitor start and capacitor run (CSCR) motors, incorporating a versatile input mechanism comprising analog sensors, digital sensors, wireless commands, clock time-based triggers, and manual triggers (push and touch, preferably capacitive).
[0013] Yet another objective of the present invention is to enhance system reliability by eliminating the use of centrifugal switches and contactors.
[0014] Another objective of the present invention is to provide a simple wireless mechanism for configuring system parameters, including but not limited to: start duration, sensor input enable/disable settings, and the activation/deactivation of over/under-voltage and over/under-current monitoring and their associated actions.
[0015] Yet another objective of the present invention is to develop a cost-effective system by leveraging a microcontroller to manage motor circuitry, accommodate diverse input options for motor control, and enhance system flexibility and user-friendliness.
[0016] Another objective of the present invention is to prevent water wastage by automatically switching off the motor before the tank overflows.
[0017] Yet another objective of the present invention is to provide users with peace of mind by ensuring continuous water availability through automatic motor starts based on pre-defined schedules (using a real-time clock) or sensor inputs (e.g., water level sensors).
[0018] Yet another objective of the present invention is to enhance user experience by providing real-time notifications of motor start and stop events, including timestamps, via a wireless module.
[0019] Another objective of the present invention is to provide users with motor energy consumption data for optimizing energy usage.
[0020] Other objectives and advantages of the present invention will become apparent from the following description taken in connection with the accompanying drawings, wherein, by way of illustration and example, the aspects of the present invention are disclosed.

BRIEF DESCRIPTION OF DRAWINGS

[0021] The present invention will be better understood after reading the following detailed description of the presently preferred aspects thereof with reference to the appended drawings, in which the features, other aspects and advantages of certain exemplary embodiments of the invention will be more apparent from the accompanying drawing in which:
[0022] Figure 1 illustrates a system of automatically water level motor control;
[0023] Figure 2 illustrates an embodiment of the system of the present invention for water level motor control in a household set-up having a plurality of water storage system;
[0024] Figure 3 illustrates a system of automatically water level motor control with a wireless and/or wired connection of a plurality of sensors to a primary unit; and
[0025] Figure 4 illustrates the system with the plurality of sensors employed in the system and the tank.

SUMMARY OF THE INVENTION

[0026] The present invention relates to a system and method for automatic water level motor control. The system comprises of a primary unit and a capacitor unit. Further, the primary unit comprises of a processing unit, a user interface unit, a memory unit, an energy monitoring unit, a timer unit, a relay unit, a plurality of sensors, and a DC power connector, a DC power supply Unit, AC Power Connectors, Wireless sensor data transmitter, Wireless Sensor Data Receiver. Furthermore, the processing unit comprises of a microcontroller unit and a wireless communication module. Additionally, the relay unit comprises of a start relay and a run relay. The capacitor unit comprises of a start capacitor and a run capacitor. The system eliminates the use of contactors and the processing unit configured to control the start capacitor and the run capacitor using the start relay and the run relay.
[0027] The user interface unit comprises an input device and a plurality of light emitting diode (LED) indicators, wherein the LED indicators provide visual feedback to indicate a motor operating state, error conditions, sensor status, start triggers, stop triggers, and wireless connection status. The wireless communication module is configured to provide real-time notifications to a software module installed in a user device for the start and stop events of the motor, timestamps, triggering conditions, remote monitoring and control of the motor operations through the software module.
[0028] The present invention also provides a method for controlling water level motor automatically. The method comprising steps of: receiving wirelessly reprogramming instructions by a software module installed in a user device for remotely configuring a plurality of operational parameters to optimize a motor performance based on real-time operating conditions, adjusting the operational parameters based on the received instructions by the user for adjusting to varying operating conditions of the motor, monitoring energy consumption of the motor during operation by an energy monitoring unit for optimizing water usage and minimizing energy costs, storing the energy consumption data in a memory unit for analysis, monitoring and retrieving the energy consumption data later, transmitting the energy consumption data to the software module by a wireless communication module for presenting the data to the user, detecting water levels using a plurality of sensors for detecting presence and absence of water in the tank and automatically terminating operation of the motor upon detecting water level by the sensors for preventing overflow and dry run condition of water in the tank.

DETAILED DESCRIPTION OF INVENTION
[0029] The following detailed description and embodiments set forth herein below are merely exemplary out of the wide variety and arrangement of instructions which can be employed with the present invention. The present invention may be embodied in other specific forms without departing from the spirit or essential characteristics thereof. All the features disclosed in this specification may be replaced by similar other or alternative features performing similar or same or equivalent purposes. Thus, unless expressly stated otherwise, they all are within the scope of the present invention.
[0030] Accordingly, those of ordinary skill in the art will recognize that various changes and modifications of the embodiments described herein can be made without departing from the scope of the invention. In addition, descriptions of well-known functions and constructions are omitted for clarity and conciseness.
[0031] The terms and words used in the following description and claims are not limited to the bibliographical meanings but are merely used to enable a clear and consistent understanding of the invention. Accordingly, it should be apparent to those skilled in the art that the following description of exemplary embodiments of the present invention are provided for illustration purpose only and not for the purpose of limiting the invention.
[0032] It is to be understood that the singular forms “a,” “an,” and “the” include plural referents unless the context clearly dictates otherwise.
[0033] It should be emphasized that the term “comprises/comprising” when used in this specification is taken to specify the presence of stated features, integers, steps, or components but does not preclude the presence or addition of one or more other features, integers, steps, components, or groups thereof.
[0034] Accordingly, the present invention a system of automatic water level motor control. Particularly, the present invention relates to the system and method of automatic water level motor control that eliminates the need for additional starters or contactors for controlling operation of a motor. More particularly, the present invention relates to the system with integrated sensors and timer for controlling the operation of the motor.
[0035] In a preferred embodiment of the present invention, the present invention relates to a system (100) for automatic water level motor control. The system (100) comprises of a primary unit (101) and a capacitor unit (102), AC Power Connector (180), Wireless sensor data transmitter (190). Further, the primary unit (101) comprises of a processing unit (103), a user interface unit (106), a memory unit (107), an energy monitoring unit (108), a timer unit (109), a relay unit (110), a plurality of sensors (115, 116), a DC power supply unit (120), a DC power connector (121) and Wireless sensor data receiver (200). Furthermore, the processing unit (103) comprises of a microcontroller unit (104) and a wireless communication module (104). Additionally, the relay unit (110) comprises of a start relay (111) and a run relay (112). The capacitor unit (102) comprises of a start capacitor (113) and a run capacitor (114).
[0036] The present invention relates to a system (100) of automatic water level motor control designed to efficiently manage water levels in tanks (102) or reservoirs. The system (100) integrates advanced motor (108) control techniques with intelligent scheduling and sensors (104, 106) inputs to provide a comprehensive solution for water management.
[0037] Figure 1 and Figure 2 of the present invention illustrates the complete assembly of the present invention including the following components:
[0038] A) Primary unit (101): A primary unit (101) in the present invention is integrated in the system (100). The primary unit (101) is the core component of the system (100), responsible for receiving inputs from various sources, processing information, and controlling a motor's (160) operation. The primary unit (101) comprises of a processing unit (103), a user interface unit (106), a memory unit (107), an energy monitoring unit (108), a timer unit (109), a relay unit (110) comprises a start relay (111) and a run relay (112), a plurality of sensors (115, 116) and a DC power connector (121).
[0039] Further, the primary unit (101) is wirelessly coupled to the wireless sensor data transmitter (190). Further, the wireless sensor data transmitter (190) is connected to the sensors and configured to transmit data from the connected sensors. Further, the data is transmitted wirelessly using Radio Frequency in unlicensed spectrum band (example 433 MHz).
[0040] Further, the wireless sensor data receiver (200) is coupled to the processing unit (103). Further, the wireless sensor data receiver (200) is configured to receive the data from the wireless sensor data transmitter (190) using radio frequency in unlicensed spectrum band and transmit the data further to the main processing unit (103). Further, the unlicensed spectrum band may include but not limited to 433 MHz.
[0041] B) Processing unit (103): The processing unit (103) is integrated in the primary unit (101). The processing unit (103) acts as the brain of the system (100), overseeing all control functions. The processing unit (103) receives inputs from the user interface unit (106), the sensors (115, 116), the timer unit (109), and wireless communication module (105). The processing unit (103) unit processes the received data, monitors system parameters, and controls the motor operation based on pre-defined configurations and real-time conditions. The processing unit (103) comprises of a microcontroller unit (104) and a wireless communication module (105).
[0042] The microcontroller unit (104) is responsible for executing the system's control logic. In an embodiment of the present invention, the microcontroller unit (104) performs several critical functions, including but not limited to, processing inputs received from the user interface unit (106), the sensors (115,116), the timer unit (109), and the wireless communication module (105), storing system (100) parameters, scheduling information, and energy consumption data within the memory unit (107) for future reference and system (100) operation and continuously monitoring real-time voltage, current, and power data obtained from the energy monitoring unit (108).
[0043] The microcontroller unit (104) analyzes the data points, comparing them to pre-defined voltage and current thresholds stored in the system (100) parameters. If any threshold is exceeded, the microcontroller initiates appropriate actions to safeguard the motor (108) and the system (100). The timer unit (109) is configured to maintain accurate time information independent of an internet connection using an internal battery-powered clock and enables time-based scheduling for initiating the motor (160) operation at predefined time. The microcontroller unit (104) then compares this time with the scheduled events stored in the memory unit (107). When a scheduled event coincides with the current time, the microcontroller unit (104) initiates the corresponding motor (160) action, such as starting or stopping the motor (160).
[0044] Controlling the operation of the start relay (111) and run relay (112) within the relay unit (110). When the software determines that the motor (160) is to be started, the microcontroller unit (104) activates both the start relay (111) and run relay (112). While the run relay (112) remains engaged throughout the motor's (160) operation, the start relay (111) is deactivated after a specific start duration, as defined by the system (100) parameters. The design flexibility enables the system (100) to accommodate a wide range of motor (160) types with varying start capacitor (113) requirements by simply adjusting the start duration parameter through the wireless communication module (105).
[0045] Wireless Communication Module (105): The wireless communication module (105) in the present invention is configured to enable wireless communication with a user device. The wireless communication module (105) is configured to provide real-time notifications to a software module (170) installed in a user device for the start and stop events of the motor (160), timestamps, triggering conditions, remote monitoring and control of the motor (160) operations through the software module (170).
[0046] The wireless communication module (105) further provides reception of wireless commands, including instructions to start or stop the motor (160), scheduling data, and updates to the system (100) parameters. Transmission of the system (100) status information, including the motor (160) operation events, current parameter values, and notifications to external devices or systems. Reception of software updates transmitted wirelessly, allowing for enhancements to the system's (100) functionality and performance.
[0047] C) User interface unit (106): A user interface unit (106) is integrated in the primary unit (101) for providing means for user interaction and status indication of the system (100). The user interface unit (106) comprises of a user input device (118) and an LED indicators (119). The user input device (118) allows manual control of motor operation. It may be a tactile switch, touch sensor, or other suitable input mechanism. The LED Indicators (119) provide visual feedback on the system's (100) status. The indicators illuminate to convey various system (100) events including, but not limited to, over-current conditions, under-current conditions, over-voltage conditions, under-voltage conditions, sensor errors, such as incorrect wiring or disabled sensors, stop triggers, with different blinking patterns representing various stop conditions, such as user input, wireless commands, full tank sensor indication, dry run sensor indication, empty sump tank indication, scheduled events, voltage/current threshold exceedance, and countdown timer expiration, start triggers, indicating the source of the motor start command, such as a low water level tank sensor, user input, scheduled event, wireless command, power restoration, or loop timer, motor ON/OFF status, wireless communication status and the like.
[0048] D) Memory unit (107): A memory unit (107) is integrated in the primary unit (101) for storing data of the operation of the system (100) and pre-defined data. The memory unit (107) serves as the system's (100) permanent storage. The memory unit (107) may be integrated within the microcontroller or exist as an external memory device connected to the microcontroller via a standard interface, such as the Serial Peripheral Interface (SPI) bus. This unit stores critical system data, including, but not limited to, software programs that govern the system's (100) operation, factory-programmed configuration data and default settings, reconfigurable system parameters that can be adjusted by the user, scheduling information, including time-based schedules for motor start/stop operations and energy consumption data collected by the system for analysis and monitoring.
[0049] E) Energy monitoring unit (108): An energy monitoring unit (108) integrated in the primary unit (101) in the present invention for measuring and reporting real-time voltage, current, and power consumption data. The measurements are transmitted to the processing unit (103) for analysis and monitoring. The processing unit (103) stores the collected power consumption data in the memory unit (107) for future reference. Additionally, the processing unit (103) continuously compares the real-time voltage and current readings with the pre-defined voltage and current thresholds stored in the system (100) parameters. If the thresholds are exceeded, the processing unit (103) initiates appropriate actions, such as shutting down the motor (160) to prevent damage.
[0050] F) Timer unit (109): A timer unit (109) is backed by a battery incorporates a real-time clock (RTC) integrated circuit (IC) that maintains accurate timekeeping. The timer unit (109) is equipped with a battery backup to ensure continuous timekeeping even during power outages. The processing unit (103) synchronizes the clock time with the timer unit (109) and request time updates as needed. The timer unit (109) is configured to maintain accurate time information independent of an internet connection using an internal battery-powered clock and enables time-based scheduling for initiating the motor (160) operation at predefined time and the pre-defined time is based on the user input and schedules of time for operating the motor (160) in the software module (170).
[0051] G) Relay unit (110): A relay unit (110) is connected to the capacitor unit (102). The relay unit (110) comprises of a start relay (111) and a run relay (112). The start relay (111) controls the connection of a start capacitor (113) to the motor's (160) auxiliary winding. When a processing unit (103) determines that the motor (160) is to be started, the processing unit (103) activates the start relay (111) to energize the start capacitor (113). The start relay (111) remains engaged for a specific start duration, as defined by the system (100) parameters, and then deactivates to allow the motor (160) to operate with only the run capacitor (114). Once the motor (160) reaches the desired speed, the start relay (111) deactivates, and the motor (160) continues to operate with only the run capacitor (114). The Run Relay (112) controls the connection of the run capacitor (114) and the main power supply to the motor (160). The run relay (112) remains engaged throughout the duration of the motor (160) operation.
[0052] H) Plurality of sensors (115, 116): A plurality of sensors (115, 116) is connected by a sensor interface (117) that are physical connectors to facilitate the connection of various sensors (115, 116) to the processing unit (103). The connectors enable the processing unit (103) to read the values of the sensors (115, 116) and respond appropriately to the detected conditions. Further, the wireless sensor data transmitter (190) is connected to the plurality of sensors (115, 116) by one or more ways. Further, the one or more ways may include but not limited to wiredly and wirelessly, as shown in Figure 1 and Figure 3.
[0053] The system (100) utilizes various sensors to monitor the system (100) conditions and trigger appropriate actions. The sensors (115, 116) include digital sensor (115) and analog sensor (116). In an exemplary embodiment, the digital sensors (115), may be such as float switches, are employed to detect specific conditions, such as water levels in tanks. The digital sensors (115) typically provide a binary output, indicating either an open or closed state. The analog sensors (116) are employed to continuously monitor physical parameters, such as water levels within the tank. These sensors exhibit variable states, ranging from fully open to fully closed, or partially open, depending on the prevailing water level and conditions within the tank.
[0054] Furthermore, the analog sensors (116) play a crucial role in detecting dry run conditions. By monitoring water flow within the inlet pipe, these sensors can detect the presence or absence of water. In an exemplary embodiment, the analog sensor (116) detects a lack of water flow, it indicates a potential dry run condition, prompting the system to initiate appropriate actions, such as shutting down the motor to prevent damage. There may be 4 sensors employed in the system (100), 2 sensors (empty and full) in overhead tank, 1 empty sensor in sump tank/underground tank/reservoir, 1 sensor in the pipe, as shown in Figure 4. The system (100) supports both types of sensors that is analog and digital sensor. In another exemplary embodiment, sump tank and pipe sensor may not be required for underground water extraction and empty tank sensor may not be required to fetch municipality water because water comes only at specified time. Even the tank is empty running motor is waste on no-water hours. User may want to start motor with timer and turn off the motor (160) with full sensor. Further, the motor (160) is electrically connected to the AC Power Connector (180). The AC Power Connector (180) is brass connector point where input phase, neutral, and at least three motor wires are connected or screwed.
[0055] I) Direct current (DC) power connector (121): A DC power connector (121) is wiredly connected to the primary unit (101) and a direct current (DC) Power supply unit (120) converts mains alternating current (AC) power supply to a regulated DC power supply and provides power to all electronic components within the system (100).
[0056] J) Capacitor unit (102): A capacitor unit (102) in the present invention is wiredly connected to the primary unit (101) for providing proper motor operation. The capacitor unit comprises of the start capacitor (113) and the run capacitor (114). Further, the capacitor unit (102) comprises and houses the capacitors (102) for proper motor operation, a start capacitor (113) and a run capacitor (114). The start capacitor (113) is connected to the motor's (160) auxiliary winding. The start capacitor (113) provides additional starting torque to the motor (160), enabling the motor (160) to reach the required operating speed.
[0057] The run capacitor (114) is also connected to the motor's (108) auxiliary winding. The run capacitor (114) plays a crucial role in maintaining optimal motor (108) performance and efficiency during operation. The run capacitor (114) is used in both capacitor start and capacitor run (CSCR) motors (160) and non- CSCR motors that do not require a separate start capacitor (110).
[0058] In an embodiment, the present invention also provides a method, for controlling water level motor automatically, comprises the following steps:-
? receiving wirelessly reprogramming instructions by a software module (170) installed in a user device for remotely configuring a plurality of operational parameters to optimize a motor (160) performance based on real-time operating conditions;
? adjusting the operational parameters based on the received instructions by the user for adjusting to varying operating conditions of the motor (160);
? monitoring energy consumption of the motor (160) during operation by an energy monitoring unit (108) for optimizing water usage and minimizing energy costs;
? storing the energy consumption data in a memory unit (107) for analysis, monitoring and retrieving the energy consumption data later;
? transmitting the energy consumption data to the software module (170) by a wireless communication module (105) for presenting the data to the user;
? detecting water levels using a plurality of sensors (115, 116) for detecting presence and absence of water in the tank; and
? automatically terminating operation of the motor (160) upon detecting water level by the sensors (115, 116) for preventing overflow and dry run condition of water in the tank.
[0059] In an embodiment the advantages of the present invention are enlisted herein:
• The present invention develops an automatic water control system utilizing capacitor start capacitor run (CSCR) motors, incorporating a versatile input mechanism comprising analog sensors, digital sensors, wireless commands, clock time-based triggers, and manual triggers (push and touch, preferably capacitive).
• The present invention enhances system reliability by eliminating the use of centrifugal switches and contactors.
• The present invention provides a simple wireless mechanism for configuring system parameters, including but not limited to: start duration, sensor input enable/disable settings, and the activation/deactivation of over/under-voltage and over/under-current monitoring and their associated actions.
• The present invention develops a cost-effective system by leveraging a microcontroller to manage motor circuitry, accommodate diverse input options for motor control, and enhance system flexibility and user-friendliness.
• The present invention prevents water wastage by automatically switching off the motor before the tank overflows.
• The present invention provides users with peace of mind by ensuring continuous water availability through automatic motor starts based on pre-defined schedules (using a real-time clock) or sensor inputs (e.g., water level sensors).
• The present invention enhances user experience by providing real-time notifications of motor start and stop events, including timestamps, via a wireless module.
• The present invention provides users with motor energy consumption data for optimizing energy usage.

[0060] While this invention has been described in connection with what is presently considered to be the most practical and preferred embodiment, it is to be understood that the invention is not limited to the disclosed embodiments, but, on the contrary, is intended to cover various modifications and equivalent arrangements included within the scope of the appended claims.
, Claims:WE CLAIM:

1. An automatic water level motor control system (100), comprising:
a. a primary unit (101) integrated in the system (100), comprising:
• a processing unit (103) comprises a microcontroller unit (104) and a wireless communication module (105);
• a user interface unit (106);
• a memory unit (107);
• an energy monitoring unit (108);
• a timer unit (109);
• a relay unit (110) comprises a start relay (111) and a run relay (112);
• a plurality of sensors (115, 116);
• a DC power connector (121); and
• a wireless sensor data receiver (200);

b. DC Power Supply Unit (120) ;
c. AC Power Connectors (180);
d. Wireless sensor data transmitter (190) ; and
e. a capacitor unit (102) wiredly connected to the primary unit (101), comprises a start capacitor (113) and a run capacitor (114).

2. The system (100) as claimed in claim 1, wherein the user interface unit (106) comprises an input device (118) and a plurality of light emitting diode (LED) indicators (119), wherein the LED indicators (119) provide visual feedback to indicate a motor (160) operating state, error conditions, sensor status, start triggers, stop triggers, and wireless connection status.

3. The system (100) as claimed in claim 1, wherein the wireless communication module (105) is configured to provide real-time notifications to a software module (170) installed in a user device for the start and stop events of the motor (160), timestamps, triggering condi-tions, remote monitoring and control of the motor (160) operations through the software module (170).

4. The system (100) as claimed in claim 1, wherein the timer unit (109) is configured to maintain accurate time information independent of an internet connection using an internal battery-powered clock and enables time-based scheduling for initiating the motor (160) opera-tion at predefined time.

5. The system (100) as claimed in claim 4, wherein the pre-defined time is based on the user input and schedules of time for operating the motor (160) in the software module (170).

6. The automatic water level motor control system (100) as claimed in claim 1, wherein the processing unit (103) is operatively coupled to the memory unit (107) to store the inputs of the user for time schedules in the software module (170), software programs that govern the system's (100) operation, factory-programmed configuration data and default settings, reconfigurable system (100) parameters that are adjusted by the user, time-based schedules for motor start/stop operations and energy consumption data collected by the system (100) for analysis and monitoring.

7. The automatic water level motor control system (100) as claimed in claim 1, wherein the timer unit (109) is coupled to the sensors (117) to automatically terminate the motor (160) operation upon detecting a full tank condition, dry run condition and crossing voltage and current threshold as per pre-defined data input in the software module (170) by the user.

8. A method for controlling water level motor automatically, comprising steps of:
? receiving wirelessly reprogramming instructions by a software module (170) in-stalled in a user device for remotely configuring a plurality of operational parame-ters to optimize a motor (160) performance based on real-time operating condi-tions;
? adjusting the operational parameters based on the received instructions by the user for adjusting to varying operating conditions of the motor (160);
? monitoring energy consumption of the motor (160) during operation by an energy monitoring unit (108) for optimizing water usage and minimizing energy costs;
? storing the energy consumption data in a memory unit (107) for analysis, monitor-ing and retrieving the energy consumption data later;
? transmitting the energy consumption data to the software module (170) by a wire-less communication module (105) for presenting the data to the user;
? detecting water levels using a plurality of sensors (115, 116) for detecting presence and absence of water in the tank; and
? automatically terminating operation of the motor (160) upon detecting water level by the sensors (115, 116) for preventing overflow and dry run condition of water in the tank.

9. The method as claimed in claim 8, wherein the configuring of the operational parame-ters include at least one of a duration of start capacitor engagement, voltage thresholds, and current thresholds.

10. The method as claimed in claim 8, wherein the software module (170) generates de-tailed reports and visualizations based on the stored energy consumption data for presenting the data to the user in the software module.