WIRELESS MONITOR MAINTENANCE AND CONTROL SYSTEM

• US 20150379785A1
• Filed: 02/07/2014
• Published: 12/31/2015
• Est. Priority Date: 02/07/2013
• Status: Abandoned Application

• Current Assignee: Lisa A. Brown, Mr Brown, N Ryan, Owen L. Brown
• Original Assignee: Owen J. Brown Jr, Ryan Brown
• Inventors: Brown,, Owen J. Jr., BROWN, Owen L., BROWN, Ryan
• Application Number:
  US14/766,028
• Publication Number:
  US 20150379785A1
• Time in Patent Office: Days
• US Class Current: 1/1
• CPC Class Codes: A01B 79/005 Precision agriculture
• CPC Class Codes: A01C 14/00 Methods or apparatus for planting not provided for in other groups of this subclass
• CPC Class Codes: A01C 15/00 Fertiliser distributors combined with seeders A01C7/06
• CPC Class Codes: A01D 34/008 for automated or remotely controlled operation
• CPC Class Codes: A01F 15/08 Details
• CPC Class Codes: G06F 16/245 Query processing
• CPC Class Codes: G07C 5/006 Indicating maintenance
• CPC Class Codes: G07C 5/08 Registering or indicating performance data other than driving, working, idle, or waiting time, with or without registering driving, working, idle or waiting time

Abstract

A system of mobile computer equipment, sensors and software methods for generating alerts, recommendations, control signals and report outputs for primarily towed machines, the method including receiving wirelessly data sets from a plurality of sensors, comparing them to a database of optimal values for each data set and generating an audible or visible output to a wireless hand-held graphical user interface including any combination of machine stroke count per unit produced to generate yield maps or recommendations to change linear travel rate of such machine, subcomponent performance rating, status or condition, recommendation and details to perform specific repair and maintenance procedures, order specific spares, production inventory field locations and other outputs, to optimize the productivity and uptime of such mobile machines.

Claims

1. A system and method for monitoring, controlling, optimizing and troubleshooting mobile equipment comprising:

a. A portable human-machine-interface means including;

i. a data storage means,

ii. wireless data transmission and receiving means,

iii. a microprocessor means, an input means and

iv. an output display means,

b. A motorized towing vehicle,

c. One or more mechanical implements coupled to said towing vehicle.

d. One or more sensors on one or more of such implements,

e. A microprocessor on one or more of such implements,

f. A wireless data link means communicating between such interface, sensors microprocessor (s),

g. A software program resident within such interface, integrating such processed sensor outputs into said interface,

h. One or more outputs from said interface visibly, electrically or audibly supplied to the operator of said towing vehicle, one of such outputs comprising;

(i) equipment repair procedures or

(ii) equipment actuator stroke count.

2. The system and method of claim 1 where said interface includes two or more of the following:

a. a flat panel touch display,

b. microphone input or

c. speaker output means.

3. The system and method of claim 1 where said interface is comprised of:

a. an iPad,

b. an Android or

c. other similar wireless data communication and processing touch screen terminal.

4. The system and method of claim 1 where said interface includes a keyboard input means.

5. The system and method of claim 1 where said interface includes a self-contained power supply.

6. The system and method of claim 1 further including an electric or hydraulic power supply means located on said motorized towing unit or one or more implements.

7. The system and method of claim 1 where said motorized towing vehicle is a tractor.

8. The system and method of claim 1 where said motorized towing unit is any from a list of machines comprising:

a. a truck,

b. payloader,

c. forklift,

d. backhoe or

e. grader.

9. The system and method of claim 1 where said implement is any component or plurality of components from a list comprising:

a. a tractor,

b. mower,

c. spader,

d. baler,

e. seed applicator,

f. fertilizer applicator,

g. water applicator,

h. herbicide applicator,

i. bale handler,

j. accumulator or

k. bale bundler machine.

10. The system and method of claim 1 where said sensor is an electromechanical or electronic means mounted on a mechanically actuating portion of the plunger of a baler thereby transmitting a signal impulse upon each stroke of said actuating portion.

11. The system and method of claim 1 where said sensors comprise a plurality of sensors measuring

a. implement outputs or

b. instrument parameters including two or more of the group comprising:

i. operating step times,

ii. movement,

iii. temperature,

iv. consumables remaining,

v. pressure,

vi. mechanical means location,

vii. actuator status,

viii. valve status,

ix. fluid levels,

x. flowrate,

xi. product location,

xii. product shape and

xiii. product amounts.

12. The system and method of claim 1 where said data link utilizes a personal area network built using the Bluetooth wireless technology standard.

13. The system and method of claim 1 where said data link utilizes a personal area network built using any cellular wireless technology from the list comprising:

a. frequency division multiple access (FDMA),

b. code division multiple access (CDMA),

c. polarization division multiple access (PDMA) and

d. time division multiple access (TDMA).

14. The system and method of claim 1 where said interface transmits and receives data wirelessly to a remote computer or server separate and apart from the mobile implement or towing vehicle.

15. The system and method of claim 1 where said software program is written in Objective C.

16. The system and method of claim 1 where said software program in said interface:

a. converts a plurality of signal inputs received from said data link, and

b. processes said inputs to produce one or more outputs.

17. The system and method of claim 1 where said software program performs said method for generating an implement recommendation, alarm or report, said method comprising:

a. receiving at a radio frequency receiver of an implement monitoring, reporting or recommendation computer system a plurality of data sets from a plurality of sensors and data sources resident on said implement, wherein each of said plurality of data sets describes a factor or system condition affecting or reporting the

i. operation,

ii. efficiency,

iii. performance,

iv. safety or

v. maintenance of an implement,

b. comparing a preset or programmable database of optimal or preferred range of values for one or more data sets in said computer system to one or more data sets; and

c. generating an audible or visible output to said interface using an output generator of said computer system, said output comprising at least one of the following;

i. recommendation or signal means to change the linear travel rate of such vehicle implement,

ii. plunger stroke count per bale,

ii. yield maps,

iv. reports of the output of products per unit time or per unit area travelled,

v. the status of implement components'"'"' performance, status or condition,

vi. recommendation to perform a specific inspection, repair or replacement procedure on a component of the implement,

vii. detailed instructions or pictures for the performance of said recommended repair or maintenance, and indication of specific components or assemblies needing repair,

viii. maintenance or replacement in the near future,

ix. a pictorial operations and repair details for one or more implement components or assemblies,

x. one or more signals to either stop or actuate designated implement components or subassemblies in a preset or specified speed and direction, or

xi. a bill of material of implement spare parts with interactive GUI purchase order placement means.

18. The software program method of claim 17 wherein said outputs include a decision-tree query process resulting in a repair method recommendation.

19. The software program method of claim 17 wherein said outputs include real-time statistical quality or process control trend analysis or control charts of the monitored components or implements.

20. The software program method of claim 17 wherein said outputs include at least one of the following:

a. recommendation or signal means to increase, maintain or decrease the linear travel rate of such vehicle or implement,

b. implement stroke count,

c. the output of products per unit time or per unit area of crop gathered,

d. the status of implement components'"'"' performance, status or condition of components,

e. recommendation to perform any specific inspection, repair or replacement procedure on a component of the implement based on such reported component status or condition,

f. repair procedures, or

g. an indication of components needing maintenance, repair or replacement immediately or in the near future.

21. The software program method of claim 17 wherein said outputs further include a plurality of screen formats containing one or more GUI means and on each screen resulting in one or more outputs or functions, said screen formats comprising any two or more from the list comprising

a. a Main Screen,

b. Troubleshooting Screen,

c. Controls Screen,

d. History Screen,

e. Performance Screen,

f. Info Screen or

g. Settings Screen.

22. A system and method for:

a. monitoring,

b. controlling,

c. optimizing or

d. troubleshooting a baler or bale bundler or bale accumulator machine comprising;

i. A portable flat touch screen human-machine-interface means including

ii. a data storage means,

iii. wireless data transmission and receiving means,

iv. a microprocessor means,

v. an input means and

vi. an output display means,

e. A motorized tractor means,

f. One or more balers or bundlers connected mechanically to said tractor means.

g. A plurality of sensors on the bundler, baler, accumulator or combination thereof,

h. A microprocessor on one or more of such baler, accumulator or bundler,

i. A wireless data link means communicating between such interface, sensors or microprocessor (s),

j. A software program resident within such interface, integrating such processed sensor outputs into said interface, including a method of generating baler, accumulator or bundler recommendation or report, said method comprising;

i. receiving at a wireless receiver of such monitoring, reporting or recommendation system a plurality of data sets from sensors

1. on the baler or

2. a plurality of sensors or data sources resident on said bundler or accumulator, wherein said plurality of data sets describes a factor or system condition or output

a. controlling,

b. affecting or

c. reporting the operation, efficiency, performance, safety or maintenance of the bundler, accumulator or the baler,

ii. comparing a preset or programmable database of optimal or preferred values or range of values for one or more data sets in said computer system to applicable received data sets; and

iii. generating an audible or visible output to said interface using an output generator of said computer system, said output comprising at least two of the following;

1. recommendation or signal means to increase or decrease the linear travel rate of such implement,

2. reports to the output of products per unit time or per unit area travelled,

3. the locations and quantity of baled or bundled crop product,

4. the status of implement components'"'"' performance, status or condition,

5. recommendation to perform a specific inspection, repair or replacement procedure on a component of the implement,

6. detailed stepwise pictorial procedures to perform such recommended repair, or

7. an indication of components needing repair or replacement immediately or in the near future.

k. One or more outputs from said interface visibly, electrically or audibly supplied to the operator of said tractor.

23. The system and method of claim 22 further including:

a. an electric or

b. hydraulic power supply means located on said tractor, baler, bundler or accumulator.

24. The system and method of claim 22 wherein such preferable or optimal values and upper and lower control limits of such values automatically are adjusted by the software when operator inputs tractor-specific hydraulic

a. capacity or

b. flowrate values into the interface.

25. The system and method of claim 22 further including a plunger stroke sensor means on the baler.

26. The system and method of claim 22 wherein such interface includes means for operator to reduce or increase performance speed of the bundler to account for:

a. crop condition or

b. baling or bundling conditions to reduce malfunctions.

27. The system and method of claim 22 wherein such operator of said tractor is a robotic system comprising

a. a data receiver means,

b. a microprocessor and

c. one or more electromechanical or electro pneumatic output means to adjust the tractor fuel flowrate and/or transmission gear ratio.

28. The system and method of claim 22 wherein such interface includes:

a. a database of spare parts available for one or more components in use, and the output of said interface includes an on-screen bill of material (BOM) of spare parts available,

b. a GUI input means whereby the operator of said interface can locate needed parts and place parts orders wirelessly to a remote spare parts provider.

29. The system and method of claim 22 which also includes a speech recognition module, enabling outputs, alerts or operator inputs at the human-machine-interface terminal to be audibly-based.

30. The system and method of claim 22 wherein said system and method:

a. computes the baler stroke count per bale per linear feet traveled by the system, and

b. Outputs to the interface a color or graphically coded map for each field, or for each section of each field, indicating how many bales per unit area were produced and

c. by utilizing average weight per bale displays how many pounds of product were yielded per unit area of land area harvested.

31. The system and method of claim 22 wherein such output includes a graphical yield map indicating:

a. unit weight of crop product baled per unit area,

b. locations and approximate weights of bales or bundles of bales produced or ejected from the baler, accumulator or bundler or both weight per area and locations of product.

32. The system and method of claim 22, wherein such output includes the coordinates of the locations of good, marginal or poor yielding areas as compared to a benchmark, wherein such coordinates are stored and subsequently downloaded for a programmable fertilizer or water application device coupled with:

a. a manual or a programmable tractor or

b. other transport device, to adjust the application of the optimal amount of fertilizer or water to specific areas of a field.

33. The system and method of claim 22 wherein such stroke sensor means is comprised of

a. an electromechanical reed switch or

b. electronic proximity switch, mounted in a location shielded from or outside of the flowpath of cut crop materials moving through the baler.

34. The system and method of claim 22 wherein such bundler or baler shall mean one or more mechanical implements from a group comprising:

a. a crop cutter means,

b. spading means,

c. seed planter means,

d. fertilizer applicator means,

e. herbicide applicator means or

f. cotton baler means.

35. The system and method of claim 22 wherein such sensor includes a commercially available moisture detector means to monitor, report and store data from moisture detector means on the baler.

36. The system and method of claim 22 further including:

a. a chemical preservative applicator means and

b. flow sensing and control valve means at the baler whereby the interface and software provides preservative applicator control, process, monitor or display inputs and outputs on the interface or transmits the data to one or more remote servers over a wireless network during baling operations.

37. The system and method of claim 22, further including an interface system providing viewing, setting, or controlling of parameters including one or more of the following:

a. applied feedrate of preservative,

b. amount of preservative available,

c. speed or amperage of fan or motor or pump applicators,

d. repair or replacement recommendations,

e. spray pattern,

f. fluid pressures,

g. temperatures and

h. status of machinery

38. The system and method of claim 22 further including:

a. one or more video camera means and

b. one or more additional wireless receiver-transmission means sending such video camera outputs to;

i. the operator interface screen or

ii. a remote server or monitor.

39. The system and method of claim 22 whereby one or more sensors on said baler measures and transmits data to the interface which displays outputs of remaining baler twine count or usage rate.