IP Library › Granted Patent US 9,094,119
Granted Patent B2
US 9,094,119 · App. 13/543,719 · Granted Jul 28, 2015

Communications network for retransmission of signals

Inventors: Tat-Sing Huen (Danville, CA); Huei Meng Chang (Milpitas, CA)
Assignees: Huei Meng Chang; Tat-Sing Huen
H04B10/1129
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Quick Facts
Patent No.
US 9,094,119
App. No.
13/543,719
Granted
Jul 28, 2015
Kind
B2
Abstract

A communications network comprises: a plurality of nodes, wherein the nodes are interconnected via links; and a gateway node that transmits a signal to one or more of the nodes, wherein certain ones of the nodes receives a transmission of the signal and selected ones of the nodes repeats the transmission of the signal, and wherein a given node of the interconnected nodes receives multiple transmissions of the signal from two or more other nodes of the interconnected nodes.

Claims (77)

1. A communications network, comprising:

a plurality of nodes, wherein the nodes are interconnected via links; and

a gateway node that transmits a signal to one or more of the nodes,

wherein certain ones of the nodes receives a transmission of the signal and selected ones of the nodes repeats the transmission of the signal,

wherein a given node of the interconnected nodes receives multiple transmissions of the signal from two or more other nodes of the interconnected nodes,

wherein the multiple transmissions of the signal are time aligned by the given node,

wherein a correlated signal is generated based on the time aligned signals using signal processing,

wherein the correlated signal is a composite of the time aligned signals, and

wherein only the correlated signal is retransmitted by the given node.

2. The communications network of claim 1 wherein a second node is interconnected with a third node and a fourth node of the interconnected nodes, wherein the second node, the third node, and the fourth node are along a linear signal path, wherein the fourth node receives multiple transmissions of the signal from the second node and from the third node, wherein the fourth node time aligns the multiple transmissions of the signal from the second node and from the third node, and wherein the fourth node correlates the multiple transmissions of the signal using signal processing into a single correlated signal.

3. The communications network of claim 1 wherein a second node is interconnected with a third node and a fourth node of the interconnected nodes, wherein the second node and the third node are connected on a first linear signal path and the second node and the fourth node are connected on a second linear signal path, wherein the first linear signal path and the second linear signal path are not parallel, wherein the fourth node receives multiple transmissions of the signal from the second node and from the third node, wherein the fourth node time aligns the multiple transmissions of the signal from the second node and from the third node, and wherein the fourth node correlates the multiple transmissions of the signal using signal processing into a single correlated signal.

4. The communications network of claim 1 wherein the correlated signal is transmitted to the interconnected nodes connected to the given node.

5. The communications network of claim 1 wherein correlation is performed as a function of respective distances of the interconnected nodes, signal processing delay at each of the interconnected nodes, and respective attenuation of the multiple transmissions.

6. The communication network of claim 1 wherein the interconnected nodes are fixed at designated geographical locations, and wherein distances between the given node and the other ones of the interconnected nodes are used to calculate a phase shift to time align the multiple transmissions of the signal.

7. The communications network of claim 1 wherein the interconnected nodes are at known designated geographical locations and wherein those known designated geographical locations are transmitted to the other nodes of the network.

8. The communications network of claim 1 wherein each of the interconnected nodes is coupled to a street lamp.

9. The communications network of claim 1 wherein each of the interconnected nodes comprises,

two or more directional electromagnetic transmitters;

two or more directional electromagnetic receivers; and

a matrix switch, wherein the matrix switch receives an optical signal via one of the receivers,

wherein the received optical signal is converted to a baseband electrical signal,

wherein the baseband electrical signal is converted to a retransmission optical signal, and

wherein the retransmission optical signal is retransmitted by one or more of the transmitters to one or more of its interconnected nodes.

10. The communications network of claim 1 wherein the signal is a symbol-time signal having one or more bits per symbol.

11. The communications network of claim 1 wherein the signal is a physical layer signal, wherein the signal represents a portion of a plurality of network data packets, and wherein the selected ones of the nodes retransmit the signal without first storing the network data packet.

12. A communications network, comprising:

a plurality of nodes, wherein the nodes are interconnected via links; and

a gateway node that transmits a signal to one or more of the nodes,

wherein the signal is a symbol-time signal having one or more bits per symbol,

wherein certain ones of the nodes receives a transmission of the signal and selected ones of the nodes repeats the transmission of the signal,

wherein a given node of the interconnected nodes receives multiple transmissions of the signal from two or more other nodes of the interconnected nodes,

wherein the multiple transmissions of the signal are time aligned by the given node,

wherein a correlated signal is generated based on the time aligned signals using signal processing,

wherein the correlated signal is a composite of the time aligned signals,

wherein correlation is performed as a function of respective distances of the interconnected nodes, signal processing delay at each of the interconnected nodes, and respective attenuation of the multiple transmissions,

wherein only the correlated signal is transmitted to the interconnected nodes connected to the given node,

wherein a second node is interconnected with a third node and a fourth node of the interconnected nodes, and

wherein the second node, the third node, and the fourth node are along a linear signal path.

13. The communications network of claim 12 wherein a fifth node is interconnected with a sixth node and a seventh node of the interconnected nodes, wherein the fifth node and the sixth node are connected on a first linear signal path and the fifth node and the seventh node are connected on a second linear signal path, wherein the first linear signal path and the second linear signal path are not parallel, wherein the seventh node receives multiple transmissions of the signal from the fifth node and from the sixth node, wherein the seventh node time aligns the multiple transmissions of the signal from the fifth node and from the sixth node, and wherein the seventh node correlates the multiple transmissions of the signal using signal processing into a single correlated signal.

14. The communication network of claim 12 wherein the interconnected nodes are fixed at designated geographical locations.

15. The communications network of claim 12 wherein the interconnected nodes are at known designated geographical locations, wherein those known designated geographical locations are transmitted to the other nodes of the network, and wherein distances between the given node and the other ones of the interconnected nodes are used to calculate a phase shift to time align the multiple transmissions of the signal.

16. The communications network of claim 12 wherein each of the interconnected nodes is coupled to a street lamp.

17. The communications network of claim 12 wherein each of the interconnected nodes comprises,

two or more directional electromagnetic transmitters;

two or more directional electromagnetic receivers; and

a matrix switch, wherein the matrix switch receives an optical signal via one of the receivers,

wherein the received optical signal is converted to a baseband electrical signal,

wherein the baseband electrical signal is converted to a retransmission optical signal, and

wherein the retransmission optical signal is retransmitted by one or more of the transmitters to one or more of its interconnected nodes.

18. The communications network of claim 12 wherein the signal is a physical layer signal, wherein the signal represents a portion of a plurality of network data packets, and wherein the selected ones of the nodes retransmit the signal without first storing the network data packet.

19. A communications network, comprising:

a plurality of nodes, wherein the nodes are interconnected via links, wherein the interconnected nodes are fixed at designated geographical locations, and wherein certain ones of the interconnected nodes are coupled to street lamps; and

a gateway node that transmits a signal to one or more of the nodes,

wherein the signal is a symbol-time signal having one or more bits per symbol

wherein certain ones of the nodes receives a transmission of the signal and selected ones of the nodes repeats the transmission of the signal,

wherein a given node of the interconnected nodes receives multiple transmissions of the signal from two or more other nodes of the interconnected nodes,

wherein the multiple transmissions of the signal are time aligned by the given node,

wherein distances between the given node and the other ones of the interconnected nodes are used to calculate a phase shift to time align the multiple transmissions,

wherein a correlated signal is generated based on the time aligned signals using signal processing,

wherein the correlated signal is a composite of the time aligned signals,

wherein only the correlated signal is transmitted to the interconnected nodes connected to the given node,

wherein a second node is interconnected with a third node and a fourth node of the interconnected nodes,

wherein correlation is performed as a function of respective distances of the interconnected nodes, signal processing delay at each of the interconnected nodes, and respective attenuation of the multiple transmissions,

wherein the second node, the third node, and the fourth node are along a linear signal path

wherein a fifth node is interconnected with a sixth node and a seventh node of the interconnected nodes,

wherein the fifth node and the sixth node are connected on a first linear signal path,

wherein the fifth node and the seventh node are connected on a second linear signal path,

wherein the first linear signal path and the second linear signal path are not parallel, and

wherein each of the interconnected nodes comprises,

two or more directional electromagnetic transmitters;

two or more directional electromagnetic receivers; and

a matrix switch, wherein the matrix switch receives an optical signal via one of the receivers,

wherein the received optical signal is converted to a baseband electrical signal,

wherein the baseband electrical signal is converted to a retransmission optical signal,

wherein the retransmission optical signal is retransmitted by one or more of the transmitters to one or more of its interconnected nodes,

wherein the signal represents a portion of a plurality of network data packets, and

wherein the selected ones of the nodes retransmit the signal without first storing the network data packet.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jul 7, 2026
From: CHANG, HUEI, MR.
To: APEX FRONTIER INNOVATIONS LLC
Reel/Frame 075198/0974 →
Continuity (3)
Provisional Application 61505003 · Jul 6, 2011
Provisional Application 61635243 · Apr 18, 2012
Related Publication 20130010675A1 · Jan 10, 2013