Abstract: An assembly for a steering column assembly including an engagement plate and a telescope plate at least partially disposed within the engagement plate. The engagement plate may be adapted to be located between a column tube of a steering column assembly and the telescope plate. The engagement plate and the telescope plate have one or more features for engaging with or contacting each other to provide energy absorption during an impact exceeding a threshold load. These features may include one or more projections or protrusions, one or more slots, one or more ribs, or a combination.

Abstract: A method for proximity detection and ranging with neighboring devices is described here. The method includes identifying, by a processor of a first tag, a second tag from a group of tags within a predefined range of the first tag. The method further comprises initiating, by the processor, transmission of a packet to the second tag in the group of tags identified within the predefined range. The method further comprises, in response to the transmission of the packet, receiving, by the processor, a response packet from the second tag. The method includes in response to receiving the response packet, determining a tag distance between the first tag and second tag. The method includes determining that the tag distance associated with the second tag is less than a predefined distance, generating, by the processor, an alarm or notification to the first tag indicating that the predefined distance is crossed.

Abstract: Method, apparatuses, and computer program products for automatically configuring one or more rotation angles for one or more associated locator units. An example method comprising receiving, from the one or more locator units, one or more dimensional values pertaining to the orientation of the one or more locator units; determining, based at least in part on the one or more received dimensional values for each of the one or more locator units and a configuration table pertaining to the locator unit type, one or more rotation angles for each of the one or more locator units; storing the one or more rotation angles for the each of the one or more locator units in an associated memory; and determining a location for one or more objects in an environment based at least upon the one or more rotation angles for each of the one or more locator units.

Abstract: A method for proximity detection and ranging with neighboring devices is described here. The method includes identifying, by a processor of a first tag, a second tag from a group of tags within a predefined range of the first tag. The method further comprises initiating, by the processor, transmission of a packet to the second tag in the group of tags identified within the predefined range. The method further comprises, in response to the transmission of the packet, receiving, by the processor, a response packet from the second tag. The method includes in response to receiving the response packet, determining a tag distance between the first tag and second tag. The method includes determining that the tag distance associated with the second tag is less than a predefined distance, generating, by the processor, an alarm or notification to the first tag indicating that the predefined distance is crossed.

Abstract: Method, apparatuses, and computer program products for automatically configuring one or more rotation angles for one or more associated locator units. An example method comprising receiving, from the one or more locator units, one or more dimensional values pertaining to the orientation of the one or more locator units; determining, based at least in part on the one or more received dimensional values for each of the one or more locator units and a configuration table pertaining to the locator unit type, one or more rotation angles for each of the one or more locator units; storing the one or more rotation angles for the each of the one or more locator units in an associated memory; and determining a location for one or more objects in an environment based at least upon the one or more rotation angles for each of the one or more locator units.

Abstract: An assembly for a steering column assembly including an engagement plate and a telescope plate at least partially disposed within the engagement plate. The engagement plate may be adapted to be located between a column tube of a steering column assembly and the telescope plate. The engagement plate and the telescope plate have one or more features for engaging with or contacting each other to provide energy absorption during an impact exceeding a threshold load. These features may include one or more projections or protrusions, one or more slots, one or more ribs, or a combination.

Abstract: An assembly for a steering column assembly including an engagement plate and a telescope plate at least partially disposed within the engagement plate. The engagement plate may be adapted to be located between a column tube of a steering column assembly and the telescope plate. The engagement plate and the telescope plate have one or more features for engaging with or contacting each other to provide energy absorption during an impact exceeding a threshold load. These features may include one or more projections or protrusions, one or more slots, one or more ribs, or a combination.

Abstract: Method, apparatuses, and computer program products for automatically configuring one or more rotation angles for one or more associated locator units. An example method comprising receiving, from the one or more locator units, one or more dimensional values pertaining to the orientation of the one or more locator units; determining, based at least in part on the one or more received dimensional values for each of the one or more locator units and a configuration table pertaining to the locator unit type, one or more rotation angles for each of the one or more locator units; storing the one or more rotation angles for the each of the one or more locator units in an associated memory; and determining a location for one or more objects in an environment based at least upon the one or more rotation angles for each of the one or more locator units.

Abstract: A security client can efficiently authenticate an application during I/O request handling by maintaining a white list that identifies processes that have been created for authenticated applications. The security client can register to be notified when a process is being created. When such a notification is received, the security client can authenticate the application for which the process is being created and then add an entry to the white list that includes the process identifier of the process being created. Then, when the process subsequently generates I/O requests, the security client can use the white list to quickly determine that the process pertains to an authenticated application and allow the I/O requests to modify protected artifacts.

Abstract: An adjustment subassembly for a steering column assembly including a telescope plate (40) adapted to be secured to a column tube (20) of the steering column assembly; a locking pin (70) having one or more features (78) at one end that are adapted to engage with the telescope plate (40); a preload plate (50) adapted to receive at least a portion of the locking pin (70) at an opposing end of the locking pin (70); and a user operating device (34) for causing engagement and disengagement of the locking pin (70) and the telescope plate (40) through contact with the preload plate (50).

Abstract: An adjustment subassembly for a steering column assembly including a telescope plate (40) adapted to be secured to a column tube (20) of the steering column assembly; a locking pin (70) having one or more features (78) at one end that are adapted to engage with the telescope plate (40); a preload plate (50) adapted to receive at least a portion of the locking pin (70) at an opposing end of the locking pin (70); and a user operating device (34) for causing engagement and disengagement of the locking pin (70) and the telescope plate (40) through contact with the preload plate (50).

Abstract: A method for proximity detection and ranging with neighboring devices is described here. The method includes identifying, by a processor of a first tag, a second tag from a group of tags within a predefined range of the first tag. The method further comprises initiating, by the processor, transmission of a packet to the second tag in the group of tags identified within the predefined range. The method further comprises, in response to the transmission of the packet, receiving, by the processor, a response packet from the second tag. The method includes in response to receiving the response packet, determining a tag distance between the first tag and second tag. The method includes determining that the tag distance associated with the second tag is less than a predefined distance, generating, by the processor, an alarm or notification to the first tag indicating that the predefined distance is crossed.

Abstract: An assembly for a steering column assembly including an engagement plate and a telescope plate at least partially disposed within the engagement plate. The engagement plate may be adapted to be located between a column tube of a steering column assembly and the telescope plate. The engagement plate and the telescope plate have one or more features for engaging with or contacting each other to provide energy absorption during an impact exceeding a threshold load. These features may include one or more projections or protrusions, one or more slots, one or more ribs, or a combination.

Abstract: Embodiments relate generally to systems and methods for communicating data from a flame detector. A method may comprise detecting, by the flame detector, data related to a fire event; communicating, by the flame detector, the fire event data to a wireless device; forwarding, by the wireless device, the fire event data to a cloud database; accessing the fire event data, via the cloud database, by a central server controlled by an operator of the flame detector; analyzing, by the central server, the fire event data; automatically generating a report based on the analysis of the fire event data, by the central server; and communicating the generated report to a customer employing the flame detector.

Abstract: A security client can provide security features in write filter environments. To prevent improper modifications to a protected volume, the security client can be employed to differentiate between direct I/O requests and reparsed I/O requests that are directed to a shadow volume and to block any direct I/O requests. Alternatively or additionally, the security client can be configured to determine whether an I/O request that is directed to the shadow volume targets an artifact in the write filter's exclusion list, and if not, block the I/O request. Alternatively or additionally, the security client can be configured to monitor registry operations to determine whether a modifying registry operation targets the write filter's persistent shadow registry hive, and if so, allow the modifying registry operation only if it targets a registry key in the write filter's exclusion list.

Abstract: A security client can efficiently authenticate an application during I/O request handling by maintaining a white list that identifies processes that have been created for authenticated applications. The security client can register to be notified when a process is being created. When such a notification is received, the security client can authenticate the application for which the process is being created and then add an entry to the white list that includes the process identifier of the process being created. Then, when the process subsequently generates I/O requests, the security client can use the white list to quickly determine that the process pertains to an authenticated application and allow the I/O requests to modify protected artifacts.

Abstract: A security client can provide security features in write filter environments. To prevent improper modifications to a protected volume, the security client can be employed to differentiate between direct I/O requests and reparsed I/O requests that are directed to a shadow volume and to block any direct I/O requests. Alternatively or additionally, the security client can be configured to determine whether an I/O request that is directed to the shadow volume targets an artifact in the write filter's exclusion list, and if not, block the I/O request. Alternatively or additionally, the security client can be configured to monitor registry operations to determine whether a modifying registry operation targets the write filter's persistent shadow registry hive, and if so, allow the modifying registry operation only if it targets a registry key in the write filter's exclusion list.

Abstract: Embodiments relate generally to systems and methods for communicating data from a flame detector. A method may comprise detecting, by the flame detector, data related to a fire event; communicating, by the flame detector, the fire event data to a wireless device; forwarding, by the wireless device, the fire event data to a cloud database; accessing the fire event data, via the cloud database, by a central server controlled by an operator of the flame detector; analyzing, by the central server, the fire event data; automatically generating a report based on the analysis of the fire event data, by the central server; and communicating the generated report to a customer employing the flame detector.

Abstract: Embodiments relate generally to systems and methods for communicating data from a flame detector. A method may comprise detecting, by the flame detector, data related to a fire event; communicating, by the flame detector, the fire event data to a wireless device; forwarding, by the wireless device, the fire event data to a cloud database; accessing the fire event data, via the cloud database, by a central server controlled by an operator of the flame detector; analyzing, by the central server, the fire event data; automatically generating a report based on the analysis of the fire event data, by the central server; and communicating the generated report to a customer employing the flame detector.

Abstract: A device comprises a flame detector, a camera, a mounting device, and a network connection device. The camera has a first field of view that overlaps a second field of view of the flame detector. The mounting device comprises one or more motors to change the first field of view and the second field of view, and the network connection device is configured to provide communication between an output of the flame detector, an output of the camera, and a remote device.