US 12,575,515 B2Granted

System and method for the integrated use of predictive and machine learning analytics for a center pivot irrigation system

AssigneeValmont Industries, Inc.

InventorsJohn A. Kastl, Paul D. Kavan

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Abstract

The present invention provides a system and method for analyzing sensor data related to an irrigation system. According to a preferred embodiment, the system includes algorithms for analyzing real-time, near real-time and historical data acquired from sensors in communication with a mechanized irrigation machine. Further, the algorithms of the present invention system may analyze collected sensor data to determine if an event has occurred or is predicted to occur. Further, the algorithms of the present invention may provide commands to an irrigation machine and notifications to users. According to further aspects of the present invention, the algorithms of the present invention may preferably apply machine learning and other data analysis tools to detect maintenance patterns, geographic trends, environmental trends, and to provide predictive analysis for future events.

Claims19

Dependent claims

An irrigation machine diagnostic system to receive and process the operational data and sensor inputs from one or more drive towers within an irrigation machine, the diagnostic system comprising:

a first drive tower monitoring system;
wherein the first drive tower monitoring system comprises:
a first plurality of sensors;
wherein the first plurality of sensors comprise sensors selected from the group of sensors comprising:
run time sensors, alignment sensors, tire pressure sensors, and water pressure sensors;
and
a first tower monitor board;
wherein the first tower monitor board comprises a first low voltage board (LVB) and a first communication board;
wherein the first low voltage board is configured to receive sensor data from the first plurality of sensors;
wherein the first low voltage board is configured to continually receive updated data regarding a first set of monitored features;
wherein the first set of monitored features comprise:
tire pressure, water pressure, run-time, and alignment:
a second drive tower monitoring system;
wherein the second drive tower monitoring system comprises:
a second plurality of sensors;
wherein the second plurality of sensors comprise sensors selected from the run time sensors, alignment sensors, tire pressure sensors, and water pressure sensors;
and
a second tower monitor board;
wherein the second tower monitor board comprises a second low voltage board (LVB) and a second communication board;
wherein the second low voltage board is configured to receive sensor data from the second plurality of sensors;
wherein at least one tire pressure sensor is configured to wirelessly report tire pressure at set intervals:
wherein at least one run time sensor is wired to at least one motor contactor coil;
a system master board, wherein the system master board is configured to communicate with the first tower monitor board and the second tower monitor board:
wherein the master board is configured as a router for Power-Line Carrier (PLC) messages;
a Smart Relay Board (SRB);
wherein the SRB is configured to request and receive sensor data from the system master board;
wherein the SRB is configured to analyze sensor data from the first tower monitor board and the second tower monitor board;
wherein the SRB is configured to cycle through a first set of monitored drive towers to periodically receive updated data for a plurality of monitored drive tower features:
wherein if the alignment sensor detects alignment data indicating a misalignment exceeding a safety threshold, the SRB is configured to trigger a safety interruption signal:
wherein the SRB is configured to send a prompt/message to determine the location of a detected safety issue/break;
and a device panel, wherein the device panel is configured to display system data.

28 more elements

An irrigation machine diagnostic system to receive and process the operational data and sensor inputs from one or more drive towers within an irrigation machine, the diagnostic system comprising:

a first drive tower monitoring system:
wherein the first drive tower monitoring system comprises:
a first plurality of sensors;
wherein the first plurality of sensors comprise sensors selected from the group of sensors comprising:
run time sensors, alignment sensors, tire pressure sensors, and water pressure sensors;
and
a first tower monitor board, wherein the first tower monitor board comprises a first low voltage board (LVB) and a first communication board;
wherein the first low voltage board is configured to receive sensor data from the first plurality of sensors;
wherein the first low voltage board is configured to continually receive updated data regarding a first set of monitored features, wherein the first set of monitored features comprise:
tire pressure, water pressure, run-time, and alignment;
a second drive tower monitoring system;
wherein the second drive tower monitoring system comprises:
a second plurality of sensors;
wherein the second plurality of sensors comprise sensors selected from the run time sensors, alignment sensors, tire pressure sensors, and water pressure sensors;
and
a second tower monitor board;
wherein the second tower monitor board comprises a second low voltage board (LVB) and a second communication board:
wherein the second low voltage hoard is configured to receive sensor data from the second plurality of sensors;
wherein at least one tire pressure sensor is configured to wirelessly report tire pressure data at set intervals;
wherein at least one run time sensor is wired to at least one motor contactor coil;
wherein at least one alignment sensor is wired to an alignment microswitch;
a system master board, wherein the system master board is configured to communicate with the first tower monitor board and the second tower monitor board;
wherein the master board is configured as a router for Power-Line Carrier (PLC) messages;
a Smart Relay Board (SRB);
wherein the SRB is configured to request and receive sensor data from the system master board;
wherein the SRB is configured to analyze sensor data from the first tower monitor board and the second tower monitor board;
wherein the SRB is configured to cycle through a first set of monitored drive towers to periodically receive updated data for a plurality of monitored drive tower features;
wherein if the alignment sensor detects alignment data indicating a misalignment exceeding a safety threshold, the SRB is configured to trigger a safety interruption signal:
wherein the SRB is configured to send a prompt/message to determine the location of a detected safety issue/break;
and
a device panel, wherein the device panel is configured to display system data.

28 more elements

An irrigation machine diagnostic system to receive and process the operational data and sensor inputs from one or more drive towers within an irrigation machine, the diagnostic system comprising:

a first drive tower monitoring system;
wherein the first drive tower monitoring system comprises:
a first plurality of sensors;
wherein the first plurality of sensors comprise sensors selected from the group of sensors comprising:
run time sensors, alignment sensors, tire pressure sensors, and water pressure sensors;
and
a first tower monitor board;
wherein the first tower monitor board comprises a first low voltage board (LVB) and a first communication board;
wherein the first low voltage board is configured to receive sensor data from the first plurality of sensors;
a second drive tower monitoring system;
wherein the second drive tower monitoring system comprises:
a second plurality of sensors;
wherein the second plurality of sensors comprise sensors selected from the run time sensors, alignment sensors, tire pressure sensors, and water pressure sensors;
and
a second tower monitor board;
wherein the second tower monitor board comprises a second low voltage board (LVB) and a second communication board;
wherein the second low voltage board is configured to receive sensor data from the second plurality of sensors, wherein the first and second tower communication boards are linked to the system master board via a power-line carrier (PLC) link;
a system master board, wherein the system master board is configured to communicate with the first tower monitor board and the second tower monitor board;
a Smart Relay Board (SRB);
wherein the SRB is configured to request and receive sensor data from the system master board;
wherein the SRB is configured to analyze sensor data from the first tower monitor board and the second tower monitor board:
wherein the master board is configured to provide the SRB with system configuration data:
wherein if the SRB detects a loss of power on one or more circuits, the SRB is configured to determine the tower location of the loss of power by issuing a broadcast request for information from each tower;
and
a device panel, wherein the device panel is configured to display system data.

22 more elements

An irrigation machine diagnostic system to receive and process the operational data and sensor inputs from one or more drive towers within an irrigation machine, the diagnostic system comprising:

a first drive tower monitoring system;
wherein the first drive tower monitoring system comprises:
a first plurality of sensors;
wherein the first plurality of sensors comprise sensors selected from the group of sensors comprising:
run time sensors, alignment sensors, tire pressure sensors, and water pressure sensors;
a first tower monitor board;
wherein the first tower monitor board comprises a first low voltage board (LVB) and a first communication board;
wherein the first low voltage board is configured to receive sensor data from the first plurality of sensors;
a second drive tower monitoring system;
wherein the second drive tower monitoring system comprises:
a second plurality of sensors;
wherein the second plurality of sensors comprise sensors selected from the run time sensors, alignment sensors, tire pressure sensors, and water pressure sensors;
a second tower monitor board;
wherein the second tower monitor board comprises a second low voltage board (LVB) and a second communication board;
wherein the second low voltage board is configured to receive sensor data from the second plurality of sensors, wherein the first and second tower communication boards are linked to the system master board via a power-line carrier (PLC) link;
a system master board, wherein the system master board is configured to communicate with the first tower monitor board and the second tower monitor board;
a Smart Relay Board (SRB);
wherein the SRB is configured to request and receive sensor data from the system master board;
wherein the SRB is configured to analyze sensor data from the first tower monitor board and the second tower monitor board:
wherein the master board is configured to provide the SRB with system configuration data:
wherein the SRB is configured to store reported values for each configured feature of the first monitored drive tower and the second monitored drive tower;
wherein the configured features comprise:
enabled/disabled states, comm settings, run time totals, and water pressure settings;
wherein the configured features comprise:
nominal and current tire pressures, and flat tire shutoff enable/disable status;
and
a device panel, wherein the device panel is configured to display system data.

24 more elements

Dependencies are inferred from the claim text.

Facts

Application: 18/295,927Filed 5 Apr 2023 · continuation in part
Priority: 7 Jun 2019
Published: US 2023/0013278 A127 Jul 2023
Granted: 17 Mar 2026
Term ends: Not estimatedThe source records don’t support an estimate.

Classification18 codes

A01G 25/16
Watering gardens, fields, sports grounds or the like: control of watering
A01G 25/092
Watering arrangements making use of movable installations on wheels or the like: movable around a pivot centre
G05B 15/02
Systems controlled by a computer: electric
G05B 19/042
Program control other than numerical control, i.e. in sequence controllers or logic controllers: using digital processors

Family

Application62/858,366Us provisional application · filed 7 Jun 2019
Application16/894,996Parent of this division · filed 8 Jun 2020
Application17/946,451Parent of this continuation-in-part · filed 16 Sep 2022
US 11,483,987 B2Parent of this division · filed 1 Nov 2022
US 2023/0232758 A1Pre-grant publication · published 27 Jul 2023
US 11,647,707 B2Parent of this continuation-in-part
Application17/946,451Parent of this division
US 2020/0383283 A1Published application
US 2023/0013278 A1Published application
US 12,575,515 B2This patent

From the US filing history. Foreign family members aren’t listed.