IP Library Granted Patent US 10,652,636
Granted Patent B2
US 10,652,636 · App. 16/421,130 · Granted May 12, 2020

Distributed antenna system architectures

Inventors: William Patrick Cune (Charlotte, NC); Bernhard Arthur Maria Deutsch (Hickory, NC); Jason Elliott Greene (Hickory, NC); Thomas Knuth (Berlin, DE)
Assignee: Corning Optical Communications LLC
H04Q11/0071H04B10/25752H04B10/25753H04B10/25754H04B10/808H04J14/025H04J14/0246H04J14/0278H04J14/06H04Q2011/0016
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Quick Facts
Patent No.
US 10,652,636
App. No.
16/421,130
Granted
May 12, 2020
Kind
B2
Abstract

Optical fiber-based wireless systems and related components and methods are disclosed. The systems support radio frequency (RF) communications with clients over optical fiber, including Radio-over-Fiber (RoF) communications. The systems may be provided as part of an indoor distributed antenna system (IDAS) to provide wireless communication services to clients inside a building or other facility. The systems incorporate various functions, such as optical network terminal (ONT), splitter, and local powering, in antenna coverage areas.

Claims (41)

1. A wireless communication system deployed in a multiple dwelling unit (MDU), comprising:

a head end unit configured to electronically receive and convert input downlink radio frequency (RF) signals received from at least one source to optical downlink RF signals to be distributed on an optical communication path comprising a plurality of optical fiber cables and at least one splitter component;

an optical line terminal (OLT) configured to receive and distribute optical multiplexed data signals on the optical communication path;

at least one optical network terminal (ONT) component located proximate to at least one remote unit and configured to demultiplex the optical multiplexed data signals into component parts;

a plurality of remote units distributed over multiple floors of the MDU, each remote unit being coupled to the head end unit and the OLT by the optical communication path to receive the optical downlink RF signals and the optical multiplexed data signals from the head end unit and the OLT, each remote unit of the plurality of remote units configured to receive power delivered from an electrical power source located in a respective coverage area of one or more of the plurality of the remote units, wherein each remote unit comprises an optical-to-electrical converter configured to convert the received optical downlink RF signals to output electrical downlink RF signals;

a plurality of antennas, at least one antenna being associated with each remote unit and being configured to distribute the output electrical downlink RF signals into a respective coverage area of its associated remote unit; and

an electrically conductive cable connecting the at least one ONT component to at least one of the plurality of remote units, the electrically conductive cable configured to provide power from the at least one ONT component to the at least one remote unit.

2. The wireless communication system deployed in an MDU of claim 1 , wherein the wireless communication system comprises a remote unit for each of a plurality of delineated spaces in the MDU, and wherein the wireless communication system comprises a plurality of electrical power sources not located in any of the plurality of remote units.

3. The wireless communication system deployed in an MDU of claim 2 , wherein a respective one of the plurality of electrical power sources is associated with each of the plurality of delineated spaces and is configured to deliver power to a respective remote unit in a respective one of the plurality of delineated spaces.

4. The wireless communication system deployed in an MDU of claim 3 , wherein the plurality of remote units comprises at least five remote units deployed on at least three floors of the MDU, and wherein the wireless communication system comprises an electrical power source for each remote unit being located in the respective one of the plurality of delineated spaces for the respective remote unit.

5. The wireless communication system deployed in an MDU of claim 3 , wherein the at least one splitter component comprises at least one input fiber and a plurality of output fibers, the at least one splitter component being capable of routing the optical downlink RF signals and the optical multiplexed data signals based on at least one of wavelength and polarization.

6. The wireless communication system deployed in an MDU of claim 5 , wherein the optical communication path comprises a riser cable comprising a plurality of optical fibers and deployed between the head end unit and the at least one splitter component, and wherein the plurality of optical cables connects the at least one splitter component to the plurality of remote units, wherein each remote unit is coupled to the at least one splitter component by at least one optical fiber.

7. The wireless communication system deployed in an MDU of claim 3 , further comprising a plurality of electrically conductive cables connecting the at least one ONT component to respective electrical power sources, whereby the at least one ONT component provides power received from the respective electrical power sources to one or more of the plurality of remote units.

8. A wireless communication system deployed in a multiple dwelling unit (MDU), comprising:

a head end unit configured to electronically receive and convert input downlink radio frequency (RF) signals received from at least one source to optical downlink RF signals to be distributed on an optical communication path comprising a plurality of optical fiber cables and at least one splitter component;

an optical line terminal (OLT) configured to receive and distribute optical multiplexed data signals on the optical communication path;

at least one optical network terminal (ONT) component located proximate to at least one remote unit and configured to demultiplex the optical multiplexed data signals into component parts;

a plurality of remote units distributed over at least three floors of the MDU, each remote unit being coupled to the head end unit and the OLT by the optical communication path to receive the optical downlink RF signals and the optical multiplexed data signals from the head end unit and the OLT, each remote unit of the plurality of remote units configured to receive power delivered from an electrical power source located in a respective coverage area of one or more of the plurality of the remote units, wherein each remote unit comprises an optical-to-electrical converter configured to convert the received optical downlink RF signals to output electrical downlink RF signals;

a plurality of antennas, at least one antenna being associated with each remote unit and being configured to distribute the output electrical downlink RF signals into a respective coverage area of its associated remote unit;

an electrically conductive cable connecting the at least one ONT component to at least one of the plurality of remote units, the electrically conductive cable configured to provide power from the at least one ONT component to the at least one remote unit; and

a plurality of electrical power sources not located in any of the plurality of remote units, wherein the optical communication path comprises a riser cable comprising a plurality of optical fibers.

9. The wireless communication system deployed in an MDU of claim 8 , wherein the at least one splitter component comprises at least one input fiber and a plurality of output fibers, the at least one splitter component being capable of routing the optical downlink RF signals and the optical multiplexed data signals based on at least one of wavelength and polarization.

10. A wireless communication system deployed in an MDU configured to electronically receive and convert input electrical downlink radio frequency (RF) signals received from at least one source to optical downlink RF signals to be distributed on an optical communication path and comprising:

an optical line terminal (OLT) configured to receive and distribute optical multiplexed data signals on the optical communication path, the optical communication path including at least one splitter component with at least one input fiber and a plurality of output fibers, the at least one splitter component being capable of routing the optical downlink RF signals and the optical multiplexed data signals based on at least one of wavelength and polarization;

at least one optical network terminal (ONT) component located proximate to at least one remote unit and configured to demultiplex the optical multiplexed data signals into component parts;

a plurality of remote units distributed over multiple floors of the MDU, each remote unit being coupled to the OLT by the optical communication path to receive the optical downlink RF signals and the optical multiplexed data signals, each remote unit of the plurality of remote units configured to receive power delivered from an electrical power source located in a respective coverage area of one or more of the plurality of the remote units, wherein each remote unit comprises an optical-to-electrical converter configured to convert the received optical downlink RF signals to output electrical downlink RF signals;

a plurality of antennas, at least one antenna being associated with each remote unit and being configured to distribute the output electrical downlink RF signals into a respective coverage area of its associated remote unit; and

an electrically conductive cable connecting the at least one ONT component to at least one remote unit of at least one of the plurality of remote units, the electrically conductive cable configured to provide power from the at least one ONT component to the at least one remote unit.

11. The wireless communication system deployed in an MDU of claim 10 , wherein the wireless communication system comprises a remote unit for each of a plurality of delineated spaces in the MDU.

12. The wireless communication system deployed in an MDU of claim 11 , wherein the wireless communication system comprises a plurality of electrical power sources not located in any of the plurality of remote units, and wherein a respective one of the plurality of electrical power sources is associated with each of the plurality of delineated spaces and is configured to deliver power to a respective remote unit in a respective one of the plurality of delineated spaces.

13. The wireless communication system deployed in an MDU of claim 11 , wherein the plurality of remote units comprises at least five remote units deployed on at least three floors of the MDU, and wherein the wireless communication system comprises an electrical power source for each remote unit being located in the respective one of the plurality of delineated spaces for the respective remote unit.

14. The wireless communication system deployed in an MDU of claim 13 , further comprising at least one electrically conductive cables connecting the at least one ONT component to respective electrical power sources, whereby the at least one ONT component provides power received from the respective electrical power sources to one or more of the plurality of remote units.

15. A wireless communication system deployed in an MDU configured to receive and convert input downlink radio frequency (RF) signals received from at least one source to optical downlink RF signals to be distributed on an optical communication path and comprising:

an optical line terminal (OLT) configured to receive and distribute optical multiplexed data signals on the optical communication path;

at least one optical network terminal (ONT) component located proximate to at least one remote unit and configured to demultiplex the optical multiplexed data signals into component parts;

a plurality of remote units distributed over at least three floors of the MDU, each remote unit being coupled to the OLT by the optical communication path to receive the optical downlink RF signals and the optical multiplexed data signals, each remote unit of the plurality of remote units configured to receive power delivered from an electrical power source located in a respective coverage area of one or more of the plurality of the remote units, wherein each remote unit comprises an optical-to-electrical converter configured to convert the received optical downlink RF signals to output electrical downlink RF signals;

an electrical power source associated with each remote unit;

at least one antenna associated with at least one of the remote units and configured to distribute the output electrical downlink RF signals into a respective coverage area of the remote unit; and

at least one electrically conductive cable connecting the at least one ONT component to at least one remote unit of at least one of the plurality of remote units, the electrically conductive cable configured to provide power from the at least one ONT component to the at least one remote unit, wherein the optical communication path comprises a riser cable deployed between the head end unit and at least one splitter component.

16. The wireless communication system deployed in an MDU of claim 15 , wherein the at least one splitter component comprises at least one input fiber and a plurality of output fibers, the at least one splitter component being capable of routing the optical downlink RF signals and the optical multiplexed data signals based on at least one of wavelength and polarization.

17. The wireless communication system deployed in an MDU of claim 15 , further comprising a plurality of electrically conductive cables connecting the at least one ONT component to respective electrical power sources, whereby the at least one ONT component provides power received from the respective electrical power sources to one or more of the plurality of remote units.

Assignments (2)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded May 12, 2025
From: CORNING OPTICAL COMMUNICATIONS LLC
To: ANI ACQUISITION SUB, LLC
Reel/Frame 071270/0328 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Nov 25, 2019
From: CUNE, WILLIAM PATRICK; DEUTSCH, BERNHARD ARTHUR MARIA; GREENE, JASON ELLIOTT; KNUTH, THOMAS
To: CORNING OPTICAL COMMUNICATIONS LLC
Reel/Frame 051101/0226 →
Continuity (6)
Continuation 16164085 · Oct 18, 2018
Continuation 15472926 · Mar 29, 2017
Continuation 14518574 · Oct 20, 2014
Continuation PCTUS2013037090 · Apr 18, 2013
Provisional Application 61638219 · Apr 25, 2012
Related Publication 20190289375A1 · Sep 19, 2019