Incident resource management

• US 10,108,912 B1
• Filed: 04/24/2012
• Issued: 10/23/2018
• Est. Priority Date: 04/25/2011
• Status: Active Grant

• Current Assignee: Joseph E. Conroy
• Original Assignee: Joseph E. Conroy
• Inventors: Conroy, Joseph E.
• Primary Examiner(s): Kundu, Sujoy
• Assistant Examiner(s): Dinh, Lynda
• Application Number:
  US13/454,581
• Time in Patent Office: 2,373 Days
• Field of Search: 702183
• CPC Class Codes: G06Q 10/025 Coordination of plural reservations, e.g. plural trip segments, transportation combined with accommodation
• CPC Class Codes: G06Q 10/06 Resources, workflows, human or project management; Enterprise or organisation planning; Enterprise or organisation modelling
• CPC Class Codes: G06Q 10/06311 Scheduling, planning or task assignment for a person or group
• CPC Class Codes: G06Q 10/063112 Skill-based matching of a person or a group to a task
• CPC Class Codes: G06Q 10/063116 Schedule adjustment for a person or group
• CPC Class Codes: G06Q 10/06312 Adjustment or analysis of established resource schedule, e.g. resource or task levelling, or dynamic rescheduling
• CPC Class Codes: G06Q 10/1097 Task assignment
• CPC Class Codes: G08B 25/003 Address allocation methods and details
• CPC Class Codes: G08B 25/004 Alarm propagated along alternative communication path or using alternative communication medium according to a hierarchy of available ways to communicate, e.g. if Wi-Fi not available use GSM
• CPC Class Codes: G08B 25/006 Alarm destination chosen according to type of event, e.g. in case of fire phone the fire service, in case of medical emergency phone the ambulance
• CPC Class Codes: G08B 25/016 Personal emergency signalling and security systems emergency non-personal manually actuated alarm activators G08B25/12
• CPC Class Codes: G08B 27/001 Signalling to an emergency team, e.g. firemen

Abstract

In an embodiment, a system may comprise a communications network and processing logic. The processing logic may acquire information regarding an incident, identify a first mobile resource (MR) that may respond to the incident based on a type of the incident and a capability associated with the first MR. The processing logic may further identify a generic path scenario to the incident based on a location of the MR and a location of the incident. The processing logic may identify that the first MR is preferred over a second MR with respect to responding to the incident and assign the first MR to the incident. The processing logic may send a message via the communications network to the first MR to notify the first MR that it has been assigned to the incident.

Claims

1. An incident resource management system, comprising:

a first nodal subsystem;

at least one mobile nodal subsystem, each of the at least one mobile nodal subsystem being associated with a mobile resource (MR),

a plurality of distributive nodal subsystems, each distributive nodal subsystem being located such that it selectively controls flow of traffic through a specific portion of a roadway;

a communications network communicatively linking each of the first nodal subsystem, the at least one mobile subsystem and the plurality of distributive nodal subsystems to allow communications therebetween;

wherein the first nodal subsystem, the at least one mobile subsystem and the plurality of distributive nodal subsystems each includes a computing device comprising at least a memory, a processor and processing logic for execution in the processor;

wherein the processing logic for the first nodal subsystem is configured and arranged for acquiring information regarding an incident, the information including a type of the incident and a location of the incident, for identifying a given MR based on the type of the incident and an operational capability associated with the given MR to respond to the incident, for determining a selected path to the incident based on a location of the given MR and the location of the incident, and for sending messages via the communications network to the given MR to be assigned to the incident, and to designate respective distributive nodal subsystems which are associated with the selected path;

wherein the processing logic of each of the at least one mobile subsystem is configured and arranged for generating updated path information for a dispatched given MR, and sending the updated path information to at least the designated respective distributive nodal subsystems which are associated with the selected path via the communications network; and

wherein the processing logic of the distributive nodal subsystem is configured and arranged for receiving updated path information from the at least one mobile nodal subsystem for determining a position of the given MR with respect to a given distributive nodal subsystem of the respective selected path and determining if the determined position corresponds to a trigger point for the given distributive nodal subsystem, and taking action to control the flow of traffic through the specific portion of a roadway.

2. The incident resource management system of claim 1, wherein the processing logic in the processor of the first nodal subsystem further includes generating updated path information for the given MR, and sending the updated path information to the given MR via the communications network.

3. The incident resource management system of claim 2, wherein the updated path information is based on a first generic path scenario and based on traffic pattern information, weather information, incident status, road conditions, or changes in a constraint used to determine the first generic path.

4. The incident resource management system of claim 1, wherein:

the first nodal subsystem further includes a display, and;

the processing logic in the processor of the first nodal subsystem further includes acquiring an intransit location of the given MR, and displaying an indication of the location of the given MR on the display.

5. The incident resource management system of claim 1 wherein the processing logic in the processor of the first nodal subsystem further includes acquiring an indication from the given MR that the given MR has reached the incident location.

6. The incident resource management system of claim 1 wherein the processing logic in the processor of the at least one mobile resource includes requesting additional resources for responding to the incident, and wherein the processing logic in the processor of the first nodal subsystem includes identifying and assigning the requested additional resources to the incident.

7. The incident resource management system of claim 1 wherein the processing logic in the processor of each of the at least one mobile nodal subsystem includes requesting from the first nodal subsystem for a path from the incident to a terminal node, and wherein the processing logic in the processor of the first nodal subsystem includes generating another path from the incident to a location of the terminal node, and sending the another path to the given MR via the communications network.

8. The incident resource management system of claim 1, wherein the processing logic for the first nodal subsystem is configured and arranged:

(a) for acquiring information regarding an incident, the information including a type of the incident and a location of the incident,

(b) for identifying a first MR based on the type of the incident and the operational capability associated with the first MR,

(c) for identifying a second MR based on the type of the incident and an operational capability associated with the second MR, wherein the first and second MR are selected from the group consisting of police personnel, taxi personnel, tow trucks personnel, ambulance personnel, aircraft personnel, military equipment personnel and other emergency personnel,

(d) for identifying a first generic path scenario to the incident based on a location of the first MR and the location of the incident,

(e) for identifying a second generic path scenario to the incident based on a location of the second MR and the location of the incident,

(f) for determining which of the first MR and the second MR should be dispatched as the given MR to respond to the incident based on the respective first and second generic path scenarios, and

(g) for sending messages via the communications network to the MR to be dispatched indicating that the selected MR is assigned to the incident, and to designate respective distributive nodal subsystems which are associated with the respective determined generic path scenario.

9. The incident resource management system of claim 1, wherein the processing logic in the processor in each of the at least one mobile nodal subsystem includes receiving a message via the communications network from the first nodal subsystem of the assignment of the given MR to respond to the incident and for sending a message to the first nodal subsystem indicating that the given MR accepts an assignment to the incident.

10. The incident resource management system of claim 1, wherein the processing logic in the processor of mobile nodal subsystem for the given MR further includes generating updated path information for the given MR, and sending the updated path information to the first nodal subsystem and each of the plurality of distributive nodal subsystems via the communications network.

11. The incident resource management system of claim 1, wherein the system further comprises one or more constraint nodes that provide constraint information relative to the selected path, where the constraint nodes are selected from the group consisting of cell phones, fixed sensors, mobile sensors, portable computing devices, tracking devices, and/or location reporting devices, the constraint node being communicatively coupled to each of the first nodal subsystem, the at least one mobile subsystem and the plurality of distributive nodal subsystems to allow communications therebetween.

12. The incident resource management system of claim 11, wherein the processing logic in the processor of the first nodal subsystem includes acquiring such constraint information from the one or more constraint nodes in determining the selected path to be taken by the given MR to the incident location.

13. The incident resource management system of claim 1 wherein the plurality of distributive nodal subsystems further includes one or more distributive nodal subsystems at locations along the path to be taken by the give MR and one or more distributive nodal subsystems that are associated with a respective distributive nodal subsystem at locations along the path, where the associated one or more distributive nodal subsystems are such that they selectively influence traffic flow on the path.

14. The incident resource management system of claim 13, wherein the processing logic in the processor of the respective distributive nodal subsystem at a particular path location further includes providing a control signal to a feature at the particular path location to one of control or influence flow of traffic at the particular location.

15. The incident resource management system of claim 13, wherein the processing logic in the processor of the respective distributive nodal subsystem at a particular path location further includes providing a control signal to the associated one or more distributive nodal subsystems so the associated distributive nodal subsystem one of controls or influences flow of traffic at the particular location.

16. The incident resource management system of claim 13, wherein the respective distributive nodal subsystem at a particular path location and the associated one or more distributive nodal subsystems form a cluster of distributive nodal subsystems.

17. The incident resource management system of claim 13, wherein:

the processing logic in the processor of the at least one mobile nodal subsystem of the given MR includes determining a location of the given MR in a time sequence and communicating such location information to the plurality of distributive nodal subsystems via the communications network; and

the processing logic in the processor of the plurality of distributive nodal subsystems includes determining from the communicated location information from the given MR whether the given MR is located at a trigger point with respect to a respective distributive nodal subsystem and if it is determined that the given MR has reached the trigger point then the processing logic further include establishing a particular operating condition for the respective distributive nodal subsystem.

18. The incident resource management system of claim 17, wherein the particular operating condition is a standby condition.

19. The incident resource management system of claim 13, wherein the processing logic in the processor of the respective distributive nodal subsystem further includes taking action to accommodate the given MR based on the given MR reaching the trigger point.

20. The incident resource management system of claim 13, wherein the processing logic in the processor of the respective distributive nodal subsystem includes determining based on additional location information of the given MR if the given MR has reached a release point;

and

if it is determined that the given MR has reached the release point then the processing logic in the processor of the respective distributive nodal subsystem further includes releasing the respective distributive nodal subsystem from functions associated with incident response.

21. A method for managing resources responding to an incident said method comprising the steps of:

providing a resource management system comprising a first nodal subsystem, at least one mobile nodal subsystem, each of the at least one mobile nodal subsystem being associated with a mobile resource (MR), a plurality of distributive nodal subsystems, each distributive nodal subsystem being located such that it selectively controls flow of traffic through a specific portion of a roadway, a communications network communicatively linking each of the first nodal subsystem, the at least one mobile subsystem and the plurality of distributive nodal subsystems to allow communications therebetween and wherein each of the first nodal subsystem, the at least one mobile subsystem and the plurality of distributive nodal subsystems including a computing device comprising at least a memory, a processor and processing logic for execution in the processor;

by the processing logic in the processor for the first nodal subsystem (I) acquiring information regarding an incident, the information including a type of the incident and a location of the incident, (II) identifying a given MR based on the type of the incident and an operational capability associated with the given MR to respond to the incident, (III) determining a selected path to the incident based on a location of the given MR and the location of the incident, and (IV) sending messages via the communications network to the given MR to be assigned to the incident, and to designate respective distributive nodal subsystems which are associated with the selected path;

by the processing logic of each of the at least one mobile subsystem generating updated path information for the dispatched MR, and sending the updated path information to at least the designated respective distributive nodal subsystems which are associated with the selected path via the communications network; and

by the processing logic of the distributive nodal subsystem for receiving updated path information from the at least one mobile nodal subsystem for determining a position of a dispatched given MR with respect to a given distributive nodal subsystem of the respective selected path and determining if the determined position corresponds to a trigger point for the given distributive nodal subsystem, and taking action to control the flow of traffic through the specific portion of a roadway.

22. The method of claim 21, further comprising by the processing logic in the processor of the first nodal subsystem acquiring constraint information from the one or more constraint nodes in determining the path to be taken by the given MR to the incident location.

23. The method of claim 21, wherein the provided plurality of distributive nodal subsystems further includes providing one or more distributive nodal subsystems at locations along the path to be taken by the give MR and providing one or more distributive nodal subsystems that are associated with a respective distributive nodal subsystem at locations along the path, where the associated one or more distributive nodal subsystems are such that they selectively influence traffic flow along the path.

24. The method of claim 23, further comprising by the processing logic in the processor of the respective distributive nodal subsystem at a particular path location providing a control signal to a feature at the particular path location so as to one of control or influence flow of traffic at the particular location.

25. The method of claim 23, further comprising by the processing logic in the processor of the respective distributive nodal subsystem at a particular path location providing a control signal to the associated one or more distributive nodal subsystems so the associated as to one of control or influence flow of traffic at the particular location by the associated one or more distributive nodal subsystems.

26. The method of claim 23, wherein the provided respective distributive nodal subsystem at a particular path location and the associated one or more distributive nodal subsystems form a cluster of distributive nodal subsystems.

27. The method of claim 23, further comprising:

by the processing logic in the processor of the at least one mobile nodal subsystem of the given MR determining a location of the given MR in a time sequence and communicating such location information to the plurality of distributive nodal subsystems via the communications network; and

by the processing logic in the processor of the plurality of distributive nodal subsystems determining from the communicated location information from the given MR whether the given MR is located at a trigger point with respect to a respective distributive nodal subsystem and if it is determined that the given MR has reached the trigger point then the processing logic further include establishing a particular operating condition for the respective distributive nodal subsystem.

28. The method of claim 27, wherein the particular operating condition is a standby condition.

29. The method of claim 23, further comprising by the processing logic in the processor of the respective distributive nodal subsystem taking action to accommodate the given MR based on the given MR reaching the trigger point.

30. The method of claim 23, further comprising:

by the processing logic in the processor of the respective distributive nodal subsystem determining based on additional location information of the given MR if the given MR has reached a release point; and

If it is determined that the given MR has reached the release point then by the processing logic in the processor of the respective distributive nodal releasing the respective distributive nodal subsystem from functions associated with incident response.