Systems and methods for utility meter reading

• US 8,199,027 B1
• Filed: 11/17/2009
• Issued: 06/12/2012
• Est. Priority Date: 11/19/2008
• Status: Active Grant

• Current Assignee: Jack Rubin
• Original Assignee: Jack Rubin
• Inventors: Rubin, Jack
• Primary Examiner(s): Mai, Lam T
• Application Number:
  US12/620,556
• Time in Patent Office: 938 Days
• Field of Search: 340/870.03, 340/870.02, 340/870.29, 340/521, 340/584, 340/632, 340/540, 340/577, 379/106.03, 370/320, 702/62, 702/188, 707/802, 701/24, 701/428, 701/430, 705/412, 705/7.13, 455/42, 455/256, 455/258, 455/39, 455/63.1
• US Class Current: 340/870.03
• CPC Class Codes: G08C 23/04 using light waves, e.g. infrared
• CPC Class Codes: H04Q 2209/60 for transmitting utility meters data, i.e. transmission of data from the reader of the utility meter
• CPC Class Codes: H04Q 9/00 Arrangements in telecontrol or telemetry systems for selectively calling a substation from a main station, in which substation desired apparatus is selected for applying a control signal thereto or for obtaining measured values therefrom

Abstract

The present disclosure is directed to systems and methods for utility meter reading. The present disclosure provides inexpensive, easy to install, devices that can collect and report utility usage data from a remote location automatically, or on-demand. The disclosed systems may be used to monitor up to sixty-four meters per system, wherein each of the sixty-four meters is monitored at least once per second. Methods for using the disclosed systems also are disclosed.

Claims

1. A electro-optical meter reading device (EOMR) for remotely reading a utility meter, the EOMR comprising:

a control unit in communication with an optical unit, the control unit comprising;

an interface adapter configured to communicate with the optical unit;

a processor configured to perform the functions of the control unit; and

a network interface configured to communicate a meter reading to a remote location;

the optical unit comprising;

an electro-optical reflective infrared sensor configured to;

transmit an infrared pulse, wherein the infrared pulse is directed to a portion of a utility meter face associated with a last dial of the utility meter;

receive a reflected portion of the infrared pulse; and

output a voltage, wherein the voltage changes based upon the amount of the infrared pulse reflected by the meter face; and

an interface, the interface being configured to transmit the voltage to the control unit.

2. The EOMR of claim 1, wherein the control unit is configured to simultaneously monitor up to eight optical units communicating with the control unit via an analog to digital converter.

3. The EOMR of claim 2, wherein the control unit is configured to simultaneously monitor up to sixty-four optical units communicating with the control unit via an analog to digital converter.

4. The EOMR of claim 2, wherein:

each of the up to eight optical units communicates with the control unit via an analog to digital converter;

the control unit employs digital multiplexing to accommodate the simultaneous monitoring of the up to eight optical units; and

the control unit is configured to receive a signal from all of the up to eight optical units in less than a tenth of a second.

5. The EOMR of claim 3, wherein:

each of the up to sixty-four optical units communicates with the control unit via an analog to digital converter;

the control unit employs digital multiplexing to accommodate the simultaneous monitoring of the up to sixty-four optical units; and

the control unit is configured to receive a signal from all of the up to sixty-four optical units in less than eight tenths of a second.

6. The EOMR of claim 4, further comprising a power supply.

7. The EOMR of claim 5, further comprising a power supply.

8. The EOMR of claim 6, wherein the power supply comprises a battery configured to be trickle-charged by an AC power source.

9. The EOMR of claim 7, wherein the power supply comprises a battery configured to be trickle-charged by an AC power source.

10. The EOMR of claim 8, wherein the EOMR and the power supply are configured such that the EOMR functions normally for over 120 hours in the event of an AC power loss to a trickle-charging circuit associated with the power supply.

11. The EOMR of claim 9, wherein the EOMR and the power supply are configured such that the EOMR functions normally for over 110 hours in the event of an AC power loss to a trickle-charging circuit associated with the power supply.

12. The EOMR of claim 8, wherein the power supply comprises up to four batteries configured to be trickle-charged by an AC power source, wherein the EOMR and the power supply are configured such that the EOMR functions normally for over 520 hours in the event of an AC power loss to a trickle-charging circuit associated with the power supply.

13. The EOMR of claim 9, wherein the power supply further comprises four batteries configured to be trickle-charged by an AC power source, wherein the EOMR and the power supply are configured such that the EOMR functions normally for over 430 hours in the event of an AC power loss to a trickle-charging circuit associated with the power supply.

14. The EOMR of claim 1, wherein the optical unit is configured to be attached at a meter face cover.

15. The EOMR of claim 13, wherein the optical unit is configured to be attached at a meter face cover.

16. A electro-optical meter reading device (EOMR) for remotely reading a utility meter, the EOMR comprising:

a control unit in communication with sixty-four optical units simultaneously monitored by the control unit, wherein;

each of the sixty-four optical units communicates with the control unit via an analog to digital converter;

the control unit employs digital multiplexing to accommodate the simultaneous monitoring of the sixty-four optical units; and

the control unit is configured to sequentially receive a signal from all sixty-four of the monitored optical units in less than eight tenths of a second;

the control unit comprising;

a peripheral interface adapter configured to communicate each of the sixty-four optical units via an analog to digital converter;

a processor configured to perform the functions of the control unit; and

a network interface configured to provide two-way communication with a remote location;

each of the sixty-four optical units comprising;

an electro-optical reflective infrared sensor configured to;

transmit an infrared pulse, wherein the infrared pulse is directed to a portion of a utility meter face associated with a last dial of the utility meter;

receive a reflected portion of the infrared pulse; and

output a voltage, wherein the voltage changes based upon the amount of the infrared pulse reflected by the meter face; and

an interface, the interface being configured to transmit the voltage to the control unit; and

a power supply comprising a battery configured to be trickle-charged by an AC power source, wherein;

the EOMR and the power supply are configured such that the EOMR functions normally for over 430 hours in the event of an AC power loss to a trickle-charging circuit associated with the power supply.