Aircraft energy systems management method

• US 6,636,786 B2
• Filed: 10/18/2001
• Issued: 10/21/2003
• Est. Priority Date: 10/18/2001
• Status: Active Grant

• Current Assignee: The Boeing Co.
• Original Assignee: The Boeing Co.
• Inventors: Partel, Walter V.
• Primary Examiner(s): Marc-Coleman, Marthe Y.
• Application Number:
  US10/045,997
• Publication Number:
  US 20030078704A1
• Time in Patent Office: 733 Days
• Field of Search: 701/3, 701/14, 701/28, 244/183, 244/185, 244/186, 340/945, 340/961
• US Class Current: 701/3
• CPC Class Codes: B64D 43/00 Arrangements or adaptations of instruments arrangements of cameras B64D47/08; aeronautical measuring instruments per se G01C
• CPC Class Codes: B64D 45/00 Aircraft indicators or protectors not otherwise provided for camouflage F41H3/00

Abstract

An energy systems management method includes steps of providing a hierarchically arranged, interrelated set of synoptic displays interfaced to an energy system for receiving information from and providing command inputs to the energy system. One synoptic display of the set of synoptic displays is an overall energy synoptic, and the other synoptic displays of the set of synoptic displays are synoptics displaying the status of corresponding energy systems. The method also includes steps of acquiring human inputs through the synoptic displays, for example, by means of a computer user interface device, and controlling the energy system by processing the human inputs through the synoptic displays to provide command inputs to the energy system.

Claims

1. An energy systems management method comprising steps of:

providing a hierarchically arranged, interrelated set of synoptic displays interfaced to an energy system for receiving information from and providing command inputs to said energy system, wherein said synoptic displays include a bubble representing said energy system and an arrow representing an energy source and functional dependence interrelationship, said bubble and said arrow arranged hierarchically;

acquiring human inputs through said synoptic displays; and

controlling said energy system by processing said human inputs through said synoptic displays to provide command inputs to said energy system.

2. The energy systems management method of claim 1 wherein one synoptic display of said set of synoptic displays is an overall energy synoptic displaying a bubble representing each energy system.

3. The energy systems management method of claim 2 wherein said energy system has a corresponding synoptic display selectable from said overall energy synoptic by selecting the corresponding bubble representing said energy system.

4. The energy systems management method of claim 1 wherein one synoptic display of said set of synoptic displays is a synoptic displaying the status of a corresponding energy system.

5. An energy systems management method comprising steps of:

providing a hierarchically arranged, interrelated set of synoptic displays interfaced to an energy system for receiving information from and providing command inputs to said energy system, wherein said synoptic displays include a bubble representing said energy system, a text box representing a supporting system function, and an arrow representing an energy source and functional dependence interrelationship, said bubble, said text box, and said arrow arranged hierarchically;

acquiring human inputs through said synoptic displays; and

controlling said energy system by Processing said human inputs through said synoptic displays to provide command inputs to said energy system.

6. The energy systems management method of claim 5 wherein selecting said text box provides detailed information and accumulates said detailed information into a consequential checklist.

7. The energy systems management method of claim 5, further comprising a step of displaying boxed messages wherein selecting a boxed message provides an appropriate command input to an energy system for producing corrective action.

8. The energy systems management method of claim 5 wherein said synoptic displays utilize a color and shape graphical representation scheme for representing an enablement status of each energy system and an enablement status of each energy source and functional dependence interrelationship.

9. The energy systems management method of claim 5 wherein said synoptic displays utilize a shape graphical representation scheme for distinguishing energy systems from supporting system functions dependent on said energy systems.

10. The energy systems management method of claim 5 wherein said synoptic displays are interfaced to an aircraft'"'"'s main power systems.

11. An energy systems management method comprising:

providing a hierarchically arranged, interrelated set of synoptic displays interfaced to an energy system for receiving information from and providing command inputs to said energy system, wherein one synoptic display of said set of synoptic displays is an overall energy synoptic, and at least one synoptic display of said set of synoptic displays is a synoptic displaying the status of a corresponding energy system, wherein said synoptic displays include a bubble representing said energy system and an arrow representing an energy source and functional dependence interrelationship, said bubble and said arrow arranged hierarchically;

acquiring human inputs through said synoptic displays; and

controlling said energy system by processing said human inputs through said synoptic displays to provide command inputs to said energy system.

12. The energy systems management method of claim 11 further comprising a step of displaying boxed messages wherein selecting a boxed message provides an appropriate command input to an energy system for producing corrective action.

13. An energy systems management method comprising:

providing a hierarchically arranged, interrelated set of synoptic displays interfaced to an energy system for receiving information from and providing command inputs to said energy system, wherein one synoptic display of said set of synoptic displays is an overall energy synoptic, and at least one synoptic display of said set of synoptic displays is a synoptic displaying the status of a corresponding energy system, wherein said synoptic displays include a bubble representing said energy system, a text box representing a supporting system function, and an arrow representing an energy source and functional dependence interrelationship, said bubble, said text box, and said arrow arranged hierarchically;

acquiring human inputs through said synoptic displays; and

controlling said energy system by processing said human inputs through said synoptic displays to provide command inputs to said energy system.

14. The energy systems management method of claim 13 wherein said energy system has a corresponding synoptic display selectable from said overall energy synoptic by selecting the corresponding bubble representing said energy system.

15. The energy systems management method of claim 13 wherein selecting said text box provides detailed information and accumulates said detailed information into a consequential checklist.

16. The energy systems management method of claim 13 wherein said synoptic displays utilize a color and shape graphical representation scheme for representing whether each energy system is enabled and whether each energy source and functional dependence interrelationship is enabled.

17. The energy systems management method of claim 13 wherein said synoptic displays distinguish energy systems from supporting system functions by representing energy systems with a bubble and supporting system functions with a text box.

18. The energy systems management method of claim 13 wherein said synoptic displays are interfaced to an aircraft'"'"'s main power systems.

19. An energy systems management method comprising:

providing a hierarchically arranged, interrelated set of synoptic displays interfaced to an energy system for receiving information from and providing command inputs to said energy system, wherein one synoptic display of said set of synoptic displays is an overall energy synoptic, wherein at least one synoptic display of said set of synoptic displays is a synoptic displaying the status of a corresponding energy system, wherein said synoptic displays include a bubble representing an energy system, a text box representing a supporting system function, and an arrow representing an energy source and functional dependence interrelationship, said bubble, said text box, and said arrow arranged hierarchically, wherein said energy system has a corresponding synoptic display selectable from said overall energy synoptic by selecting the corresponding bubble representing said energy system, wherein selecting said text box provides detailed information and accumulates said detailed information into a consequential checklist, and wherein said synoptic displays employ a graphical means for representing whether each energy system is enabled and whether each energy source and functional dependence interrelationship is enabled;

acquiring human inputs through said synoptic displays;

displaying boxed messages wherein selecting a boxed message provides an appropriate command input to an energy system for producing corrective action; and

controlling said energy system by processing said human inputs through said synoptic displays to provide command inputs to said energy system.