Abstract: Machine learning on user equipment candidate locations provides more accurate location estimation in timing-based location estimation. For instance, timing signals from a user equipment are collected, and adjusted using calibration data, previously known for pairs of fixed-located cells. The adjusted timing data are processed into a location candidate dataset. The location candidate data set is iteratively processed using machine learning technology to eliminate candidate locations until an estimated location is determinable. The location estimation via the described technology is significantly more accurate than other timing-based methods.

Abstract: Concepts and technologies are disclosed herein for enabling access to restricted data using geofences. A system can identify a device associated with restricted data that includes network data that law prohibits the use of for commercial purposes without authorization. The system can determine use parameters associated with the device, each of the use parameters including a device identifier, a geofence, time limits, and an indication of purposes. The system can determine if the device is at a geographic location that satisfies the location that is defined by the geofence, if the time limits associated with the geofence are satisfied, and if a purpose for which the restricted data will be used matches a one of the purposes. If the system determines that the location, time limits, and purposes are satisfied, the system can use the restricted data for the purpose.

Abstract: Concepts and technologies are disclosed herein for enabling access to restricted data using geofences. A system can identify a device associated with restricted data that includes network data that law prohibits the use of for commercial purposes without authorization. The system can determine use parameters associated with the device, each of the use parameters including a device identifier, a geofence, time limits, and an indication of purposes. The system can determine if the device is at a geographic location that satisfies the location that is defined by the geofence, if the time limits associated with the geofence are satisfied, and if a purpose for which the restricted data will be used matches a one of the purposes. If the system determines that the location, time limits, and purposes are satisfied, the system can use the restricted data for the purpose.

Abstract: Concepts and technologies are disclosed herein for enabling access to restricted data using geofences. A system can identify a device associated with restricted data that includes network data that law prohibits the use of for commercial purposes without authorization. The system can determine use parameters associated with the device, each of the use parameters including a device identifier, a geofence, time limits, and an indication of purposes. The system can determine if the device is at a geographic location that satisfies the location that is defined by the geofence, if the time limits associated with the geofence are satisfied, and if a purpose for which the restricted data will be used matches a one of the purposes. If the system determines that the location, time limits, and purposes are satisfied, the system can use the restricted data for the purpose.

Abstract: Concepts and technologies are disclosed herein for enabling access to restricted data using geofences. A system can identify a device associated with restricted data that includes network data that law prohibits the use of for commercial purposes without authorization. The system can determine use parameters associated with the device, each of the use parameters including a device identifier, a geofence, time limits, and an indication of purposes. The system can determine if the device is at a geographic location that satisfies the location that is defined by the geofence, if the time limits associated with the geofence are satisfied, and if a purpose for which the restricted data will be used matches a one of the purposes. If the system determines that the location, time limits, and purposes are satisfied, the system can use the restricted data for the purpose.

Abstract: A pressure regulator utilizing a gauge having rugged internal components. In one embodiment, the gauge has a low profile and is mounted to the regulator body. In another embodiment, the gauge is integral with the regulator body. In one preferred embodiment, the gauge includes a pressure pin and a bias, such as a spring. One side of the pressure pin communicates directly with the source pressure and is urged by the source pressure to move the pressure pin in a first direction, while the other side of the pressure pin is at a known pressure, such as ambient or atmospheric pressure, and is urged by the bias to move the pressure pin in a second direction opposed to the first direction. An indication of the position of the pressure pin is sensed by a user and is used to determine the source pressure or level. In one aspect, the indicator is a pointer or indicator mounted to move in response to movement of the pressure pin and mounted so that its position is visible (i.e., sensed by sight) to the user.

Abstract: An in-plane magnetic holding field, long known to provide improved operating margins for a magnetic bubble memory during stop-start operation, is produced by a unique bias magnet design which provides a constant in-plane bias field in a manner consistent with normal bubble propagation as well as with stop-start operation.

Abstract: The transfer of a domain from one channel to another in a single-wall domain memory is effected by a transfer loop into which a domain is moved by a field from a pulsed conductor and from which a domain exits in response to a magnetic field rotating in the plane of the layer in which domains move. The transfer loop includes two "exit-entrance" positions associated with the two channels between which transfer occurs. The exit of a domain from the transfer loop may be aided by a pulsed conductor also.