IP Library Granted Patent US 12,433,285
Granted Patent B2
US 12,433,285 · App. 18/243,060 · Granted Oct 7, 2025

Method and apparatus for the management of a soil pest or pathogen

Inventors: Jason D. Crisp (Newark, DE); Ekaterini Riga (Newark, DE); Gordon J. McComb (Kennewick, WA)
Assignee: Lisi Global, Inc.
A01M19/00A01M17/00A01M21/046
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Quick Facts
Patent No.
US 12,433,285
App. No.
18/243,060
Granted
Oct 7, 2025
Kind
B2
Abstract

A method for the management of a soil pest or pathogen includes a source of high voltage electricity; at least one capacitor for storing the high voltage electricity; a multiplicity of electrodes inserted into a soil location having a soil pest and/or pathogen to be managed; and an electrical switch which is controllably opened and closes so as to form a pulse of electricity which is passed through the soil location and between the electrodes so as to effect the management of the soil pest and/or pathogen.

Claims (60)

1. A method for the management of a soil pest or pathogen, comprising:

providing a source of high voltage electricity having a predetermined capacitance;

electrically coupling the source of high voltage electricity having the predetermined capacitance with a soil location having a soil pest which requires management;

supplying the source of high voltage electricity having the predetermined capacitance to the soil in a predetermined number of pulses to effect an in-situ management of the soil pest or pathogen at the soil location; and

wherein the soil pest or pathogen includes a fungi which produces a pathogenesis, and wherein the step of providing the high voltage electricity having the predetermined capacitance comprises generating a source of high voltage DC electricity having a voltage range of 1 kV to 100 kv; an amperage of 5 amps to 50 kA; a frequency of 1 Hz to 1000 Hz; and a capacitance of 1 uF to 1000 uF.

2. A method as claimed in claim 1 , and wherein the step of electrically coupling the source of high voltage electricity having the predetermined capacitance further comprises providing a plurality of spaced electrodes having a given length dimension, and inserting the plurality of the spaced electrodes into the soil location to a predetermined depth, and wherein the source of high voltage electricity having the predetermined capacitance is electrically coupled with at least some of the spaced electrodes.

3. A method as claimed in claim 2 , and wherein the step of providing the plurality of spaced electrodes further comprises selecting a predetermined spacing of the respective electrodes which facilitates a transmission of the source of high voltage electricity having the predetermined capacitance across the soil location having the soil pest or pathogen requiring management, and between at least some of the plurality of electrodes, and wherein the transmission of the high voltage electricity having the predetermined capacitance between at least some of the electrodes decreases the pathogenesis of the soil pest or pathogen which is to be managed.

4. A method as claimed in claim 1 , and wherein the step of supplying the source of the high voltage electricity having the predetermined capacitance to the soil in predetermined pulses further comprises, selecting an application time during which the respective pulses are applied of 0.1 seconds to 60 seconds to effect a desired management of the soil pest.

5. A method as claimed in claim 1 , and wherein prior to the step of selecting an application time to effect a desired management of the soil pest or pathogen, the method further comprises determining an electrical conductivity of the soil location which has the soil pest or pathogen requiring management; and selecting a soil pest or pathogen response to be effected by the application time of the high voltage electricity having the predetermined capacitance so as to facilitate the management of the soil pest or pathogen at the soil location.

6. A method as claimed in claim 5 , and wherein the soil conductivity of the soil location lies within a range of 100 to 2500 Micro Siemens per cubic centimeter of soil at the soil location.

7. A method as claimed in claim 5 , and wherein the soil pest or pathogen to be managed comprises Ascomcetes and Basidioycetes Fungi, and the selected soil pest or pathogen response of the soil pest or pathogen to be managed, and which is effected by the pulses of the high voltage electricity having the predetermined capacitance comprises a reduction in the pathogenesis of the soil pest.

8. A method for the management of a soil pest or pathogen, comprising:

providing a source of high voltage electricity having a predetermined capacitance;

electrically coupling the source of high voltage electricity having the predetermined capacitance with a soil location having a soil pest which requires management;

supplying the source of high voltage electricity having the predetermined capacitance to the soil in a predetermined number of pulses to effect an in-situ management of the soil pest or pathogen at the soil location; and

wherein the step of supplying the source of high voltage electricity having the predetermined capacitance to the soil location, and in predetermined pulses to effect the management of the soil pest or pathogen at the soil location further comprises, delivering to the soil location greater than 2 joules of electricity per cubic centimeter of soil at the soil location so as to facilitate a reduction in an adverse soil pest pathogenesis at the soil location of greater than 5 percent.

9. A method as claimed in claim 8 , and wherein the adverse soil pest pathogenesis at the soil location comprises a root rot; leaf curling and/or leaf spot of a plant which is planted at the soil location, by an action of the soil pest or pathogen, and wherein the adverse soil pest pathogenesis decreases a plant vigor; a crop yield; and/or lowers a production quality of the plant which is effected by the soil pest or pathogen at the soil location, and where the plant is being grown.

10. A method for the management of a soil pest or pathogen, comprising:

providing a source of high voltage electricity having a predetermined capacitance;

electrically coupling the source of high voltage electricity having the predetermined capacitance with a soil location having a soil pest which requires management;

supplying the source of high voltage electricity having the predetermined capacitance to the soil in a predetermined number of pulses to effect an in-situ management of the soil pest or pathogen at the soil location;

wherein the step of electrically coupling the source of high voltage electricity having the predetermined capacitance further comprises providing a plurality of spaced electrodes having a given length dimension, and inserting the plurality of the spaced electrodes into the soil location to a predetermined depth, and wherein the source of high voltage electricity having the predetermined capacitance is electrically coupled with at least some of the spaced electrodes; and

wherein the plurality of spaced electrodes are located at a distance of 1 centimeter to 40 centimeters one, from the others, and wherein each of the electrodes have a length dimension of 4 centimeters to 80 centimeters.

11. A method for the management of a soil pest or pathogen, comprising:

providing a source of high voltage electricity having a predetermined capacitance;

electrically coupling the source of high voltage electricity having the predetermined capacitance with a soil location having a soil pest which requires management;

supplying the source of high voltage electricity having the predetermined capacitance to the soil in a predetermined number of pulses to effect an in-situ management of the soil pest or pathogen at the soil location;

wherein the step of supplying the source of the high voltage electricity having the predetermined capacitance to the soil in predetermined pulses further comprises, selecting an application time during which the respective pulses are applied of 0.1 seconds to 60 seconds to effect a desired management of the soil pest; and

wherein the step of supplying the source of the high voltage electricity having the predetermined capacitance to the soil location further comprises providing at least one high voltage DC solid state electrical switch, and which, when rendered electrically closed, allows the passage of the source of the high voltage electricity having the predetermined capacitance, and a high electrical current, to the soil location, and wherein, when the electrical switch, when rendered electrically open, substantially stops the passage of the high voltage electricity having the predetermined capacitance, and high electrical current, to the soil location; and wherein the method further comprises providing a multiplicity of capacitors which are selectively, electrically coupled with the high voltage DC solid state electrical switch, and wherein the high voltage DC solid state electrical switch is electrically coupled with at least one of the capacitors, and wherein the high voltage DC solid state electrical switch, when rendered electrically closed, facilitates an electrical discharge of at least one of the capacitors.

12. A method as claimed in claim 11 , and wherein the step of providing the source of the high voltage electricity having the predetermined capacitance comprises generating a source of electricity; and delivering the source of the generated electricity to at least one electrically discharged capacitor, and wherein the discharged capacitor stores the high voltage electricity having the predetermined capacitance by way of the action of the high voltage DC sold state electrical switch when the high voltage DC solid state electrical switch is rendered electrically open.

13. A method as claimed in claim 12 , and wherein the multiplicity of capacitors each have a discharge rate which is calculated as an elapsed time which is needed to electrically discharge any previously stored electricity in the respective capacitors by way of the action of the high voltage DC solid state electrical switch, and subsequently form a pulse of high voltage electricity having the predetermined capacitance, and which is delivered to the soil location, and wherein the method further comprises forming a pulse of high voltage electricity having a predetermined capacitance, by electrically discharging each capacitor at a discharge rate of 100 microseconds to 500 millisecond during a time interval which is less than 600 times per second.

14. A method as claimed in claim 13 , and wherein a surge current is immediately generated upon the rendering of the high voltage DC solid state electrical switch electrically closed, and the discharge of a previously electrically charged capacitor, and wherein the methodology further comprises a step of generating a surge current of 5 Amps to 50 kA immediately following the step of rendering the high voltage DC electrical switch electrically closed.

15. A method for the management of a soil pest or pathogen, comprising:

providing a source of high voltage electricity having a predetermined capacitance;

electrically coupling the source of high voltage electricity having the predetermined capacitance with a soil location having a soil pest which requires management;

supplying the source of high voltage electricity having the predetermined capacitance to the soil in a predetermined number of pulses to effect an in-situ management of the soil pest or pathogen at the soil location;

wherein the step of electrically coupling the source of high voltage electricity having the predetermined capacitance further comprises providing a plurality of spaced electrodes having a given length dimension, and inserting the plurality of the spaced electrodes into the soil location to a predetermined depth, and wherein the source of high voltage electricity having the predetermined capacitance is electrically coupled with at least some of the spaced electrodes;

wherein the step of providing the plurality of spaced electrodes further comprises selecting a predetermined spacing of the respective electrodes which facilitates a transmission of the source of high voltage electricity having the predetermined capacitance across the soil location having the soil pest or pathogen requiring management, and between at least some of the plurality of electrodes, and wherein the transmission of the high voltage electricity having the predetermined capacitance between at least some of the electrodes decreases a pathogenesis of the soil pest or pathogen which is to be managed; and

wherein the method further comprises providing an isolation transformer which is electrically coupled with both the source of high voltage electricity having a predetermined capacitance, and with the plurality of spaced electrodes which are inserted into the soil location having the soil pests or pathogens which need to be managed; and operating the isolation transformer in a manner so as to effect a transmission of the high voltage electricity having the predetermined capacitance through the soil location, and between adjacent electrodes, and which impedes at least in part, the dissipation of the high voltage electricity having the predetermined capacitance into the soil at the soil location.

16. A method as claimed in claim 15 , and wherein at least some of the plurality of spaced electrodes have a different electrical polarity.

17. A method for the management of a soil pest or pathogen, comprising:

providing a source of high voltage electricity;

providing a plurality of spaced electrodes each having a given length dimension, and which are oriented in a predetermined, spaced relationship, one relative to the other, and orienting the spaced electrodes in electrical discharging relation relative to a soil location having a soil pest or pathogen such as a fungi, or nematode to be managed;

providing a capacitor and which is electrically coupled with the source of the high voltage electricity, and storing the source of the high voltage electricity in the capacitor so as to form a source of high voltage electricity having a predetermined capacitance;

providing a high voltage solid state electrical switch which is electrically coupled with the source of high voltage electricity having the predetermined capacitance, and which is stored in the capacitor, and wherein the high voltage solid state electrical switch is further electrically coupled with each of the spaced electrodes, and wherein the high voltage solid state electrical switch can be rendered electrically open so as to facilitate a storage of the source of high voltage electricity in the capacitor, and electrically closed so as to facilitate an electrical discharge of the capacitor and the subsequent delivery of the source of the high voltage electricity having the predetermined capacitance to the respective plurality of spaced electrodes;

providing an electrical switch driver which is electrically coupled with the high voltage solid state electrical switch, and wherein the high voltage solid state electrical switch, when actuated, is effective in causing the high voltage solid state electrical switch to be rendered either electrically open, or electrically closed;

providing an isolation transformer which is electrically coupled with both the source of the high voltage electricity having the predetermined capacitance, and with the plurality of spaced electrodes which are oriented in electrical discharging relation relative to the soil location, and operating the isolation transformer in a manner so as to effect a transmission of the high voltage electricity having the predetermined capacitance through the soil location, and between the adjacent spaced electrodes, and to impede, at least in part, the dissipation of the high voltage electricity having the predetermined capacitance into the soil at the soil location;

providing a controller which is coupled in controlling relation relative to the electrical switch driver, and which is effective in rendering the high voltage solid state electrical switch electrically opened and closed; and

repeatedly rendering the electrical switch driver operable to facilitate an electrical opening and closing of the high voltage solid state electrical switch and so forming a multiplicity of pulses of electricity which are delivered to the plurality of electrodes, and which are oriented in electrical discharging relation relative to the soil location, and wherein the plurality of electrical pulses facilitate a reduction in an adverse soil pest or pathogen pathogenesis or effect at the soil location which is greater than 5%.

18. A method as claimed in claim 17 , and wherein the step of providing a source of high voltage electricity further comprises supporting a mobile electric power generating assembly on an earth traversing vehicle for movement across the soil location having the soil pest or pathogen requiring management; and generating the source of the high voltage electricity with the mobile electric power generation assembly.

19. A method as claimed in claim 17 , and wherein the step of providing the plurality of spaced electrodes further comprises mounting and operably coupling the plurality of spaced electrodes on an earth traversing vehicle, and moving the plurality of electrodes across the soil location having the soil pest or pathogen to be managed, and wherein the earth traversing vehicle moves the respective spaced electrodes into, and out of the soil location.

20. A method as claimed in claim 19 , and wherein the step of providing the plurality of spaced electrodes comprises providing a plurality of individual electrodes having a given length dimension, and positioning the individual electrodes in a predetermined, spaced array; and inserting the plurality of electrodes having the given length dimension to a predetermined depth into the soil location having the soil pest or pathogen to be managed.

21. A method as claimed in claim 20 , and wherein the step of providing the plurality of individual electrodes having the given length dimension further comprises causing at least some of the individual electrodes to have a different electrical polarity.

22. A method as claimed in claim 19 , and wherein the step of providing the spaced electrodes further comprises providing a supporting platform on the earth traversing vehicle; movably coupling the supporting platform on the earth traversing vehicle; positioning the spaced electrodes on the platform; propelling the earth traversing vehicle across the soil location, and selectively moving the supporting platform, and which is carrying the spaced electrodes, along a path of travel so as to repeatedly insert, and then withdraw the electrodes from the soil location having the soil pest to be managed for a predetermined period of time so as to facilitate the reduction in the adverse soil pest or pathogen effect at the soil location.

23. A method as claimed in claim 17 , and wherein the adverse soil pest or pathogen effect at the soil location comprises a root rot; leaf curling; and/or leaf spot of a plant which is planted at the soil location, by the an action of the soil pest or pathogen, and wherein the adverse soil pest or pathogen effect decreases a plant vigor; a crop yield; and/or lowers a production quality of the plant which is effected by the soil pest or pathogen at the soil location.

24. A method as claimed in claim 20 , and wherein the plurality of spaced electrodes are located at a distance of 1 centimeters to 40 centimeters, one from the others, and wherein each of the electrodes have a length dimension of 4 centimeters to 80 centimeters.

25. A method as claimed in claim 17 , and wherein the step of forming the multiplicity of pulses of electricity further comprises selecting an application time during which the respective electrical pulses are applied to the soil location, and which lies in a range of 0.01 second to 60 seconds to effect a desired management of the soil pest or pathogen.

26. A method as claimed in claim 25 , and wherein before the step of forming the multiplicity of pulses of electricity, the method further comprises determining an electrical conductivity of the soil location which has the soil pest or pathogen requiring management; and adjusting the application time of the respective electrical pulses to the soil location so as cause the desired management of the soil pest or pathogen.

27. A method as claimed in claim 26 , and wherein the step of determining the electrical conductivity of the soil comprises orienting a sensor in electrical conductive sensing relation relative to the soil location; and coupling the sensor in a signal transmitting relationship relative to the controller; and wherein the step of providing the controller further comprises adjustably controlling the electrical switch driver with the controller so as to produce resulting electrical pulses to effect the desired management of the soil pest at the soil location.

28. A method as claimed in claim 27 , and further comprising delivering to the soil location greater than 0.2 joules of electricity per cubic centimeter of soil, at the soil location, so as to effect the reduction of the soil pest or pathogen effect of greater than 5%.

Continuity (3)
Continuation 15475374 · Mar 31, 2017
Continuation In Part 14462733 · Aug 19, 2014
Related Publication 20230413799A1 · Dec 28, 2023
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