IP Library › Granted Patent US 12,332,106
Granted Patent B1
US 12,332,106 · App. 18/898,183 · Granted Jun 17, 2025

Wellbore water level and health determination system and method(s)

Inventor: Philip James Meyer (Golden, CO)
Assignee: IMBRR, LLC
G01F23/804E03B5/04G01F25/20
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Quick Facts
Patent No.
US 12,332,106
App. No.
18/898,183
Granted
Jun 17, 2025
Kind
B1
Abstract

The present disclosure relates to systems and methods for determining the water level and health of a wellbore. The system may be configured to perform a wellbore water level determination method and a wellbore health determination method to determine the water level in a wellbore (and/or the health of the wellbore) using a set of real-time parameters and pump-characteristics data.

Claims (92)

1. A water level determination method for determining a water level in a wellbore, the water level determination method comprising:

providing a pumping unit;

providing a fluid connection line, the fluid connection line comprising:

an inlet fluidically coupled to the pumping unit;

an outlet fluidically coupled to a water infrastructure; and

an intermediate line disposed between the inlet and the outlet;

providing a sensor unit in the intermediate line;

sensing a sensor data of a water flowing across the intermediate line with the sensor unit, the sensor data comprising:

a pressure,

a flow rate, and

a temperature;

transmitting the sensor data to a first server;

determining a set of real-time parameters corresponding to the sensor data;

analyzing the set of real-time parameters with:

a characteristic data of the pumping unit, the wellbore, and the fluid connection line, wherein the characteristic data is stored in the first server;

determining a water level parameter by analyzing the characteristic data and the set of real-time parameters; and

determining the water level based on the water level parameter.

2. The water level determination method of claim 1 , wherein providing the sensor unit further comprises:

a pressure sensor;

a flow rate sensor; and

a temperature sensor.

3. The water level determination method of claim 2 , wherein providing the sensor unit further comprises:

providing a flow control valve disposed in the fluid connection line; and

positioning the pressure sensor prior to the flow control valve.

4. The water level determination method of claim 1 and further comprising:

providing a calibration routine; and

calibrating the characteristic data with the calibration routine, wherein the calibration routine comprises:

actuating the flow control valve for modifying the sensor data to a refined sensor data; and

calibrating the characteristic data with the refined sensor data to generate a calibrated characteristic data.

5. The water level determination method of claim 4 , wherein actuating the flow control valve further comprises:

actuating gradually, the flow control valve between:

a first position to obtain the refined sensor data comprising:

a maximum value of the sensor data;

a second position to obtain the refined sensor data comprising:

a minimum value of the sensor data; and

at least one position between the first position and the second position to obtain a plurality of values sensor data between the maximum value of the sensor data and the minimum value of the sensor data.

6. The water level determination method of claim 5 , wherein actuating the flow control valve further comprises:

the maximum value of the sensor data comprising:

a maximum rating pressure of the pumping unit; and

the minimum value of the sensor data comprising:

a minimum rating pressure of the pumping unit.

7. The water level determination method of claim 5 , wherein the characteristic data and the calibrated characteristic data further comprises:

a pump curve digitized into a multi-order polynomial.

8. The water level determination method of claim 4 and further comprising:

analyzing the set of real-time parameters with the calibrated characteristic data for determining:

a refined water-level parameter; and

determining based on the refined water-level parameter, a refined water level of water in the wellbore.

9. A water level determination system to determine a water level in a wellbore, the water level determination system comprising:

a pumping unit;

a fluid connection line, the fluid connection line comprising:

an inlet fluidically coupled to the pumping unit;

an outlet fluidically coupled to a water infrastructure; and

an intermediate line disposed between the inlet and the outlet;

a sensor unit disposed in the intermediate line, the sensor unit configured to:

sense a sensor data of a water flowing across the intermediate line with the sensor unit, the sensor data comprising:

a pressure,

a flow, and

a temperature; and

transmit the sensor data to a first server; and

a computing unit communicably coupled to the first server, to:

determine a set of real-time parameters corresponding to the sensor data;

transmit the set of real-time parameters to a first server;

analyze the set of real-time parameters with:

a characteristic data of the pumping unit, the wellbore, and the fluid connection line, wherein the characteristic data is stored in the first server;

determine a water level parameter by analyzing the characteristic data and the set of real-time parameters; and

determine the water level based on the water level parameter.

10. The water level determination system of claim 9 , wherein the sensor unit further comprises at least one of:

a pressure sensor;

a flow rate sensor; and

a temperature sensor.

11. The water level determination system of claim 10 and further comprising:

a flow control valve disposed in the fluid connection line, wherein the pressure sensor is positioned prior to the flow control valve.

12. The water level determination system of claim 9 , wherein the pumping unit is calibrated using a calibration routine, wherein, in the calibration routine:

the flow control valve is actuated to modify the sensor data to a refined sensor data; and

the characteristic data is calibrated with the refined sensor data to generate a calibrated characteristic data.

13. The water level determination system of claim 12 , wherein the flow control valve is gradually actuated between:

a first position to obtain the refined sensor data comprising:

a maximum value of the sensor data;

a second position to obtain the refined sensor data comprising:

a minimum value of the sensor data; and

at least one position between the first position and the second position to obtain a plurality of values sensor data between the maximum value of the sensor data and the minimum value of the sensor data.

14. The water level determination system of claim 13 , wherein:

the maximum value of the sensor data comprises:

a maximum rating pressure of the pumping unit; and

the minimum value of the sensor data comprises:

a minimum rating pressure of the pumping unit.

15. The water level determination system of claim 12 , wherein the characteristic data and the calibrated characteristic data further comprises:

a pump curve digitized into a multi-order polynomial.

16. The water level determination system of claim 12 , wherein the logic unit is configured to:

analyze the set of real-time parameters with the calibrated characteristic data to determine:

a refined water-level parameter; and

determining based on the refined water-level parameter, a refined water level of water in the well.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Oct 1, 2024
From: MEYER, PHILIP JAMES
To: IMBRR, LLC
Reel/Frame 068744/0075 →
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