Selective directional mitigation of wireless signal interference

1. A computer-implemented method, comprising:

monitoring a boundary of a wireless network for incoming wireless signals that may interfere with an ability of a first wireless computing device to connect to the wireless network within the boundary of the wireless network; and

for an incoming wireless signal determined to interfere with the ability of the first wireless computing device to connect to the wireless network within the boundary of the wireless network:

determining a minimally-invasive power level at which to emit a directional opposing outgoing wireless signal such that an amount of counteraction of the incoming wireless signal outside the boundary of the wireless network is minimized; and

emitting the directional opposing outgoing wireless signal to counteract the incoming wireless signal and to stop the incoming wireless signal from further interfering with the ability of the first wireless computing device to connect to the wireless network within the boundary of the wireless network, where emitting the directional opposing outgoing wireless signal comprises emitting an inverted directional signal that is out of phase relative to a phase of the incoming wireless signal at the determined minimally-invasive power level in a direction of a source location from which the incoming wireless signal is being generated.

2. The computer-implemented method of claim 1 , where the determined minimally-invasive power level comprises a power level equivalent to a detected power level of the incoming wireless signal at the boundary of the wireless network.

3. The computer-implemented method of claim 1 , where the determined minimally-invasive power level represents an emitted power level of the emitted directional opposing outgoing wireless signal and further comprising:

receiving, from a neighboring wireless network that emits the incoming wireless signal, a message that indicates that the emitted directional opposing outgoing wireless signal is interfering with an ability of a second neighboring wireless computing device to connect to the neighboring wireless network within a boundary of the neighboring wireless network; and

dynamically reducing, based upon the message received from the neighboring wireless network, the emitted power level of the emitted directional opposing outgoing wireless signal to reduce impacts of the emitted directional opposing outgoing wireless signal on the neighboring wireless network while still stopping the incoming wireless signal from further interfering with the ability of the first wireless computing device to connect to the wireless network within the boundary of the wireless network.

4. The computer-implemented method of claim 1 , where the determined minimally-invasive power level represents an emitted power level of the emitted directional opposing outgoing wireless signal and further comprising:

determining a location of the first wireless computing device relative to the source location of a neighboring wireless network that emits the incoming wireless signal; and

dynamically adjusting the emitted power level of the emitted directional opposing outgoing wireless signal based upon the determined location of the first wireless computing device relative to the source location of the neighboring wireless network that emits the incoming wireless signal.

5. The computer-implemented method of claim 1 , where monitoring the boundary of the wireless network for incoming wireless signals that may interfere with the ability of the first wireless computing device to connect to the wireless network within the boundary of the wireless network comprises:

instructing a plurality of boundary transceivers to scan a three-dimensional (3D) region that surrounds the boundary of the wireless network and to identify the incoming wireless signals that may interfere with the ability of the first wireless computing device to connect to the wireless network within the boundary of the wireless network.

6. The computer-implemented method of claim 1 , further comprising:

determining, based upon incoming signal information received from at least one of a plurality of boundary transceivers, a direction of propagation of the incoming wireless signal as detected by the respective at least one of the plurality of boundary transceivers, where the received incoming signal information comprises a detected power level of the incoming wireless signal at a respective location of the at least one of a plurality of boundary transceivers and a three-dimensional (3D) cancellation bearing relative to the at least one of a plurality of boundary transceivers; and

instructing, for each of the at least one boundary transceivers for which the detected direction of propagation of the incoming wireless signal is determined, the respective at least one boundary transceiver to emit the directional opposing outgoing wireless signal along the respective cancellation bearing at a respective detected power level of the incoming wireless signal to counteract the incoming wireless signal.

7. A system, comprising:

a plurality of boundary transceivers; and

at least one processor programmed to:

monitor a boundary of a wireless network for incoming wireless signals that may interfere with an ability of a first wireless computing device to connect to the wireless network within a boundary of the wireless network; and

for an incoming wireless signal determined to interfere with the ability of the first wireless computing device to connect to the wireless network within the boundary of the wireless network:

determine a minimally-invasive power level at which to emit a directional opposing outgoing wireless signal such that an amount of counteraction of the incoming wireless signal outside the boundary of the wireless network is minimized; and

emit via at least one of the plurality of boundary transceivers the directional opposing outgoing wireless signal to counteract the incoming wireless signal and to stop the incoming wireless signal from further interfering with the ability of the first wireless computing device to connect to the wireless network within the boundary of the wireless network, where, in being programmed to emit via at least one of the plurality of boundary transceivers the directional opposing outgoing wireless signal, the at least one processor is programmed to emit an inverted directional signal that is out of phase relative to a phase of the incoming wireless signal at the determined minimally-invasive power level in a direction of a source location from which the incoming wireless signal is being generated.

8. The system of claim 7 ,

where the determined minimally-invasive power level comprises a power level equivalent to a detected power level of the incoming wireless signal at the boundary of the wireless network.

9. The system of claim 7 , where the determined minimally-invasive power level represents an emitted power level of the emitted directional opposing outgoing wireless signal and where the at least one processor is further programmed to:

receive, from a neighboring wireless network that emits the incoming wireless signal, a message that indicates that the emitted directional opposing outgoing wireless signal is interfering with an ability of a second neighboring wireless computing device to connect to the neighboring wireless network within a boundary of the neighboring wireless network; and

dynamically reduce, based upon the message received from the neighboring wireless network, the emitted power level of the emitted directional opposing outgoing wireless signal to reduce impacts of the emitted directional opposing outgoing wireless signal on the neighboring wireless network while still stopping the incoming wireless signal from further interfering with the ability of the first wireless computing device to connect to the wireless network within the boundary of the wireless network.

10. The system of claim 7 , where the determined minimally-invasive power level represents an emitted power level of the emitted directional opposing outgoing wireless signal and where the at least one processor is further programmed to:

determine a location of the first wireless computing device relative to the source location of a neighboring wireless network that emits the incoming wireless signal; and

dynamically adjust the emitted power level of the emitted directional opposing outgoing wireless signal based upon the determined location of the first wireless computing device relative to the source location of the neighboring wireless network that emits the incoming wireless signal.

11. The system of claim 7 , where, in being programmed to monitor the boundary of the wireless network for incoming wireless signals that may interfere with the ability of the first wireless computing device to connect to the wireless network within the boundary of the wireless network, the at least one processor is programmed to:

instruct the plurality of boundary transceivers to scan a three-dimensional (3D) region that surrounds the boundary of the wireless network and to identify the incoming wireless signals that may interfere with the ability of the first wireless computing device to connect to the wireless network within the boundary of the wireless network.

12. The system of claim 7 , where the at least one processor is further programmed to:

determine, based upon incoming signal information received from at least one of the plurality of boundary transceivers, a direction of propagation of the incoming wireless signal as detected by the respective at least one of the plurality of boundary transceivers, where the received incoming signal information comprises a detected power level of the incoming wireless signal at a respective location of the at least one of a plurality of boundary transceivers and a three-dimensional (3D) cancellation bearing relative to the at least one of a plurality of boundary transceivers; and

instruct, for each of the at least one boundary transceivers for which the detected direction of propagation of the incoming wireless signal is determined, the respective at least one boundary transceiver to emit the directional opposing outgoing wireless signal along the respective cancellation bearing at a respective detected power level of the incoming wireless signal to counteract the incoming wireless signal.

13. A computer program product, comprising:

a computer readable storage medium having computer readable program code embodied therewith, where the computer readable storage medium is not a transitory signal per se and where the computer readable program code when executed on a computer causes the computer to:

monitor a boundary of a wireless network for incoming wireless signals that may interfere with an ability of a first wireless computing device to connect to the wireless network within the boundary of the wireless network; and

for an incoming wireless signal determined to interfere with the ability of the first wireless computing device to connect to the wireless network within the boundary of the wireless network:

determine a minimally-invasive power level at which to emit a directional opposing outgoing wireless signal such that an amount of counteraction of the incoming wireless signal outside the boundary of the wireless network is minimized; and

emit the directional opposing outgoing wireless signal to counteract the incoming wireless signal and to stop the incoming wireless signal from further interfering with the ability of the first wireless computing device to connect to the wireless network within the boundary of the wireless network, where, in causing the computer to emit the directional opposing outgoing wireless signal, the computer readable program code when executed on the computer causes the computer to emit an inverted directional signal that is out of phase relative to a phase of the incoming wireless signal at the determined minimally-invasive power level in a direction of a source location from which the incoming wireless signal is being generated.

14. The computer program product of claim 13 , where the determined minimally-invasive power level comprises a power level equivalent to a detected power level of the incoming wireless signal at the boundary of the wireless network.

15. The computer program product of claim 13 , where the determined minimally-invasive power level represents an emitted power level of the emitted directional opposing outgoing wireless signal and where the computer readable program code when executed on the computer further causes the computer to:

receive, from a neighboring wireless network that emits the incoming wireless signal, a message that indicates that the emitted directional opposing outgoing wireless signal is interfering with an ability of a second neighboring wireless computing device to connect to the neighboring wireless network within a boundary of the neighboring wireless network; and

dynamically reduce, based upon the message received from the neighboring wireless network, the emitted power level of the emitted directional opposing outgoing wireless signal to reduce impacts of the emitted directional opposing outgoing wireless signal on the neighboring wireless network while still stopping the incoming wireless signal from further interfering with the ability of the first wireless computing device to connect to the wireless network within the boundary of the wireless network.

16. The computer program product of claim 13 , where the determined minimally-invasive power level represents an emitted power level of the emitted directional opposing outgoing wireless signal and where the computer readable program code when executed on the computer further causes the computer to:

determine a location of the first wireless computing device relative to the source location of a neighboring wireless network that emits the incoming wireless signal; and

dynamically adjust the emitted power level of the emitted directional opposing outgoing wireless signal based upon the determined location of the first wireless computing device relative to the source location of the neighboring wireless network that emits the incoming wireless signal.

17. The computer program product of claim 13 , where, in causing the computer to monitor the boundary of the wireless network for incoming wireless signals that may interfere with the ability of the first wireless computing device to connect to the wireless network within the boundary of the wireless network, the computer readable program code when executed on the computer causes the computer to:

instruct a plurality of boundary transceivers to scan a three-dimensional (3D) region that surrounds the boundary of the wireless network and to identify the incoming wireless signals that may interfere with the ability of the first wireless computing device to connect to the wireless network within the boundary of the wireless network.

18. The computer program product of claim 13 , where the computer readable program code when executed on the computer further causes the computer to:

determine, based upon incoming signal information received from at least one of a plurality of boundary transceivers, a direction of propagation of the incoming wireless signal as detected by the respective at least one of the plurality of boundary transceivers, where the received incoming signal information comprises a detected power level of the incoming wireless signal at a respective location of the at least one of a plurality of boundary transceivers and a three-dimensional (3D) cancellation bearing relative to the at least one of a plurality of boundary transceivers; and

instruct, for each of the at least one boundary transceivers for which the detected direction of propagation of the incoming wireless signal is determined, the respective at least one boundary transceiver to emit the directional opposing outgoing wireless signal along the respective cancellation bearing at a respective detected power level of the incoming wireless signal to counteract the incoming wireless signal.