REMOTE NON-INTRUSIVE OCCUPANT SPACE MONITORING SYSTEM

• US 20120158618A1
• Filed: 12/15/2010
• Published: 06/21/2012
• Est. Priority Date: 12/15/2010
• Status: Active Grant

• Current Assignee: Ademco Inc. (Resideo Technologies, Inc.)
• Original Assignee: Honeywell International Inc.
• Inventors: Roskos, Julie Hull
• Granted Patent: US 10,068,297 B2
• Time in Patent Office: Days
• US Class Current: 706/12
• CPC Class Codes: G06N 5/02 Knowledge representation; Symbolic representation
• CPC Class Codes: G06Q 50/06 Energy or water supply

Abstract

A system for remote non-intrusive occupant space monitoring. The system may have sensors and other mechanisms for non-intrusively obtaining information by capturing utility and communication signals, images, light, sound, environmental factors, background information, and so on, about a space and its occupants. The obtained information may be locally or remotely analyzed and modeled by a processor. Models of buildings, behavior, and power systems from the processor may be compared with pre-defined models to infer further information about the space and its occupants. Also, behavioral information may be obtained, inferred and/or learned. The models may be updated with the obtained, inferred and learned information.

Claims

1. A remote non-intrusive monitor of a space for occupants, comprising:

a non-intrusive sensor module for monitoring a space; and

a processor connected to the sensor module; and

wherein;

the sensor module provides signals representative of electrical power used at the space;

the signals representative of the electrical power are analyzed by the processor; and

analysis by the processor of the signals results in information about a space and/or an element, component, environment, and/or occupant, if any, of the space.

2. The monitor of claim 1, wherein:

if the electrical power used at the space contains disturbances from within or outside the space which are indicated in the signals representative of the electrical power, analysis by the processor of the disturbances results in information about the space, element, component, environment, and/or an occupant, if any, of the space; and

the information about the space and/or an occupant, if any, of the space, is a result of analysis by the processor of the one or more items selected from a group consisting of frequency, waveform, amplitude, wavelength and harmonics, in the signals representative of the electrical power.

3. The monitor of claim 2, wherein information about the space, element, component, environment, and/or an occupant, if any, is a result of analysis by the processor of one or more items from a group consisting of frequency, waveform, amplitude, wavelength and harmonics, in signals representative of the electrical power containing a reaction to disturbances in the signals representative of the electrical power.

4. The monitor of claim 2, wherein:

the one or more items versus time are entered in a plot;

the plot is a basis for information about an element, component, equipment, environment, and/or occupant; and

one or more certain patterns of the plot correlate with one or more pre-determined patterns representing specific behavior of the element, component, equipment, environment, and/or occupant.

5. The monitor of claim 4, wherein:

if one or more certain patterns of the plot, correlate with the one or more pre-determined patterns representing specific behavior of the element, component, equipment, environment, and/or occupant, then one or more certain patterns of the plot are indicative of the element, component, equipment, environment, and/or occupant, if any, having the certain behavior; and

the certain behavior of equipment, if any, comprise ramping on/off of furnaces, chiller performance, refrigerator usage, stove operation, inverters, motors, lighting activity, and/or other equipment operation at the space.

6. The monitor of claim 2, wherein:

the one or more items versus time are entered in a plot of amplitude versus time;

the plot is a basis for one or more models of a space; and

the one or more models are updated periodically and/or iteratively with information derived from analysis of the signals from the sensor module.

7. The monitor of claim 6, wherein virtually all models are updated periodically and/or iteratively with information derived from analysis of the signals from a sensor module or other detection approach, analysis input and/or human input.

8. The monitor of claim 1, wherein information about the element, component, environment, and/or an occupant, if any, of the space, is obtained from an internet or other information source, such as other sensed data.

9. A method for non-intrusive monitoring of an element, comprising:

non-intrusive obtaining data associated with a sensor or other detection approach of an element;

processing the data into at least one model of the element;

matching the model to one or more predefined models representing certain information;

associating the certain information with the element from the matching of the model of the element with the one or more predefined models representing the certain information; and

creating improved models based upon learning and training from disturbances, human input, previously improved models, and so forth.

10. The method of claim 9, further comprising:

non-intrusive obtaining additional data associated the element; and

wherein the model of the element learns the additional data and modifies itself in response to the additional data.

11. The method of claim 9, wherein:

the element is a utility power system; and

the one or more predefined models comprise models of electrical characteristics, mechanical characteristics, performance signature, environmental affects;

regression, and/or predictive aspects of the utility power system.

12. The method of claim 9, further comprising taking user input and modifying the data processed into the model of the element in response to the user input.

13. The method of claim 9, wherein:

the element is a utility power system for providing electricity to a building; and

the model of the element is updated through real-time analysis of a response of the building to utility power system disturbances on a line between the utility power system and the building.

14. The method of claim 9, further comprises:

creating a utility power system model as an electricity provider to one or more buildings;

creating a user power system model of an electricity consumer at a connected side to the one or more buildings;

modifying the utility power system model over time from data; and

modifying the user power system model modified over time from data; and

wherein;

the element is the electricity consumer;

the user power system model is modeled as a single block;

the single block is broken out into load blocks;

each load block is equipment based on a signature of electricity use by the electricity consumer;

each load block based on the signature is combined with a behavior analysis of each load block based on disturbances from the utility power system;

each load block based on the signature is combined with ambient conditions; and

human behavior is identified based on characteristics of a load block.

15. The method of claim 14, wherein if human behavior is a core need for non-intrusive obtaining data associated with an element, data from use of gas, water, telephone, and so forth, are processed to create, update, and/or modify the model of the element and to make decisions about the human behavior.

16. The monitor of claim 9, wherein:

the data can additionally be associated with an item associated with the element; and

the data are selected from a group comprising electrical power usage, gas usage, sound emanation, movement of the element, movement of an item associated with the element, images of the element, images of an item associated with the element, lighting of the element, lighting of an item associated with the element, RF signals from an area proximate to the element, RF signals from an area proximate to an item associated with the element, and/or publicly available information about the element and an item associated with the element.

17. A non-intrusive monitor system comprising:

a non-intrusive information acquisition mechanism;

an analysis module connected to the non-intrusive acquisition mechanism;

a modeling module connected to the analysis module; and

a resultant module connected to the modeling module; and

wherein;

information comprises one or more items relevant to one or more elements;

the modeling module is for matching a model to an element based on one or more items relevant to the element; and

the model implies other information about the element.

18. The system of claim 17, wherein the element comprises a space, person or persons, equipment, environment, behavior, system, and/or system of systems, and/or any combination of two or more of the space, person or persons, equipment, environment, behavior, system, and system of systems.

19. The system of claim 17, further comprising:

a user interface connected to the resultant module and to the non-intrusive information acquisition mechanism; and

wherein the user interface controls acquisition and collection of information, and/or receipt of selected information.

20. The system of claim 18, wherein:

the non-intrusive information acquisition mechanism acquires and collects information about the one or more elements; and

the information comprises one or more items of a group comprising;

waveforms of current and/or voltage of electrical power to an element;

images of an element;

sound signals from an element;

RF signals from an area proximate to an element;

background information about an element; and

reactions of an element to one or more other items of the group.