Abstract: A configurable data center platform includes an enclosure configured to affix to a support structure, the enclosure configured for housing one or more processing systems that form a data center, one or more transceivers configured to enable the one or more processing systems to communicate with one or more remote devices, one or more sensors; and an electrical power distribution subsystem configured to condition a received electrical current to one or more conditioned electrical currents that power the one or more processing systems and the one or more sensors, wherein the enclosure comprises a cooling system that removes heat from the one or more processing systems and the one or more sensors.

Abstract: A configurable data center platform includes an enclosure configured to affix to a support structure, the enclosure configured for housing one or more processing systems that form a data center, one or more transceivers configured to enable the one or more processing systems to communicate with one or more remote devices, one or more sensors; and an electrical power distribution subsystem configured to condition a received electrical current to one or more conditioned electrical currents that power the one or more processing systems and the one or more sensors, wherein the enclosure comprises a cooling system that removes heat from the one or more processing systems and the one or more sensors.

Abstract: An unmanned aerial vehicle (UAV) includes a body that supports one or more rotors, the one or more rotors each driven by a motor and configured to provide lift to the body. The UAV further includes a parts handler coupled to the body, the parts handler configured to grasp a payload, and rotate the payload with respect to an external structure to couple the payload to, or decouple the payload from, the external structure. The UAV includes a stabilizing mechanism extending from the body, the stabilizing mechanism configured to contact the external structure without transferring entire weight of the UAV to the external structure and prevent rotation of the body when the part-handler rotates the payload.

Abstract: There is disclosed in one example a multi-core computing system configured to provide a hot-swappable CPU0, including: a first CPU in a first CPU socket and a second CPU in a second CPU socket; a switch including a first media interface to the first CPU socket and a second media interface to the second CPU socket; and one or more mediums including non-transitory instructions to detect a hot swap event of the first CPU, designate the second CPU as CPU0, determine that a new CPU has replaced the first CPU, operate the switch to communicatively couple the new CPU to a backup initialization code store via the first media interface, initialize the new CPU, and designate the new CPU as CPUN, wherein N?0.

Abstract: Systems, apparatuses and methods may provide for technology that handles failures in memory hardware (e.g., dynamic random access memory (DRAM)) via runtime post package repair. Such technology may include operations to perform a runtime post package repair in response to a memory hardware failure detected in the memory. In such an example, the runtime post package repair may be done after power up boot operations have been completed.

Abstract: An example apparatus to monitor memory includes an error manager to compare a first memory location of a first error in the memory to a plurality of memory locations in an error history log, the plurality of memory locations previously identified in the error history log based on errors detected in the memory locations, ones of the memory locations associated with corresponding counters that track the errors detected in the memory locations, and update a first one of the counters corresponding to the first memory location when a first address of the first memory location matches a second address of one of the memory locations in the error history log. The example apparatus further includes a command generator to transmit a command to an error corrector to perform error correction on the first memory location when the first one of the counters satisfies a threshold.

Abstract: There is disclosed in one example a multi-core computing system configured to provide a hot-swappable CPU0, including: a first CPU in a first CPU socket and a second CPU in a second CPU socket; a switch including a first media interface to the first CPU socket and a second media interface to the second CPU socket; and one or more mediums including non-transitory instructions to detect a hot swap event of the first CPU, designate the second CPU as CPU0, determine that a new CPU has replaced the first CPU, operate the switch to communicatively couple the new CPU to a backup initialization code store via the first media interface, initialize the new CPU, and designate the new CPU as CPUN, wherein N?0.

Abstract: A streetlight system includes a streetlight housing that houses a light source and a driver device. The driver device includes a driver circuit for driving the light source in the streetlight housing. The driver device is exterior to the streetlight housing. The streetlight housing is coupled to the driver device by a connector configured to electrically connect the driver circuit to the light source. The driver circuit is configured to receive electrical power through the connector from a power source in the streetlight housing.

Abstract: A streetlight system includes a streetlight housing that houses a light source and a driver device. The driver device includes a driver circuit for driving the light source in the streetlight housing. The driver device is exterior to the streetlight housing. The streetlight housing is coupled to the driver device by a connector configured to electrically connect the driver circuit to the light source. The driver circuit is configured to receive electrical power through the connector from a power source in the streetlight housing.

Abstract: An unmanned aerial vehicle (UAV) includes a body that supports one or more rotors, the one or more rotors each driven by a motor and configured to provide lift to the body. The UAV further includes a parts handler coupled to the body, the parts handler configured to grasp a payload, and rotate the payload with respect to an external structure to couple the payload to, or decouple the payload from, the external structure. The UAV includes a stabilizing mechanism extending from the body, the stabilizing mechanism configured to contact the external structure without transferring entire weight of the UAV to the external structure and prevent rotation of the body when the part-handler rotates the payload.

Abstract: An unmanned aerial vehicle (UAV) includes a body that supports one or more rotors, the one or more rotors each driven by a motor and configured to provide lift to the body. The UAV further includes a parts handler coupled to the body, the parts handler configured to grasp a payload, and rotate the payload with respect to an external structure to couple the payload to, or decouple the payload from, the external structure. The UAV includes a stabilizing mechanism extending from the body, the stabilizing mechanism configured to contact the external structure without transferring entire weight of the UAV to the external structure and prevent rotation of the body when the part-handler rotates the payload.

Abstract: An example apparatus to monitor memory includes an error manager to compare a first memory location of a first error in the memory to a plurality of memory locations in an error history log, the plurality of memory locations previously identified in the error history log based on errors detected in the memory locations, ones of the memory locations associated with corresponding counters that track the errors detected in the memory locations, and update a first one of the counters corresponding to the first memory location when a first address of the first memory location matches a second address of one of the memory locations in the error history log. The example apparatus further includes a command generator to transmit a command to an error corrector to perform error correction on the first memory location when the first one of the counters satisfies a threshold.

Abstract: A method of controlling streetlights by a centralized streetlight management system is described. The method includes receiving, from a user device, information corresponding to a request for assistance and determining, based on the information, a location of the user device. The method also includes sending, from the centralized streetlight management system, information corresponding to the location of the user device to one or more computing devices associated with an assistance-providing authority, and receiving, from the one or more computing devices associated with the assistance-providing authority, information indicating dispatch of assistance to the location of the user device. The method also includes, responsive to receiving the information indicating dispatch of assistance to the location of the user device, transmitting, from the centralized streetlight management system, one or more control signals to at least one streetlight at the location of the user device.

Abstract: An unmanned aerial vehicle (UAV) includes a body that supports one or more rotors, the one or more rotors each driven by a motor and configured to provide lift to the body. The UAV further includes a parts handler coupled to the body, the parts handler configured to grasp a payload, and rotate the payload with respect to an external structure to couple the payload to, or decouple the payload from, the external structure. The UAV includes a stabilizing mechanism extending from the body, the stabilizing mechanism configured to contact the external structure without transferring entire weight of the UAV to the external structure and prevent rotation of the body when the part-handler rotates the payload.

Abstract: A method of controlling streetlights by a centralized streetlight management system is described. The method includes receiving, from a user device, information corresponding to a request for assistance and determining, based on the information, a location of the user device. The method also includes sending, from the centralized streetlight management system, information corresponding to the location of the user device to one or more computing devices associated with an assistance-providing authority, and receiving, from the one or more computing devices associated with the assistance-providing authority, information indicating dispatch of assistance to the location of the user device. The method also includes, responsive to receiving the information indicating dispatch of assistance to the location of the user device, transmitting, from the centralized streetlight management system, one or more control signals to at least one streetlight at the location of the user device.

Abstract: A configurable data center platform includes an enclosure configured to affix to a support structure, the enclosure configured for housing one or more processing systems that form a data center, one or more transceivers configured to enable the one or more processing systems to communicate with one or more remote devices, one or more sensors; and an electrical power distribution subsystem configured to condition a received electrical current to one or more conditioned electrical currents that power the one or more processing systems and the one or more sensors, wherein the enclosure comprises a cooling system that removes heat from the one or more processing systems and the one or more sensors.

Abstract: This disclosure describes systems and techniques for managing streetlights. The subject matter included in this document is embodied in a method that includes receiving, at a computing device, information representative of a location and status of a streetlight included in a network of streetlights. The method also includes presenting a representation of the streetlight in a graphical user-interface in accordance with the received location and status information, and receiving information representing a selection of the streetlight for inclusion in a group of streetlights from the network. The method further includes initiating delivery of one or more control signals to the group of streetlights.

Abstract: The technology described in this document is embodied in a sensor platform that includes an enclosure for housing one or more sensors, the enclosure configured to be deployed between a streetlight and a streetlight controller that manages operations of the streetlight. The sensor platform also includes an electrical receptacle for receiving the streetlight controller in a substantially secure configuration. The sensor platform also includes an electrical connector for connecting the enclosure to the streetlight. The sensor platform also includes at least one pass-through connector disposed within the enclosure to provide an electrical connection between the electrical connector and the electrical receptacle.

Abstract: A configurable data center platform includes an enclosure configured to affix to a support structure, the enclosure configured for housing one or more processing systems that form a data center, one or more transceivers configured to enable the one or more processing systems to communicate with one or more remote devices, one or more sensors; and an electrical power distribution subsystem configured to condition a received electrical current to one or more conditioned electrical currents that power the one or more processing systems and the one or more sensors, wherein the enclosure comprises a cooling system that removes heat from the one or more processing systems and the one or more sensors.

Abstract: A method of controlling streetlights by a centralized streetlight management system is described. The method includes receiving, from a user device, information corresponding to a request for assistance and determining, based on the information, a location of the user device. The method also includes sending, from the centralized streetlight management system, information corresponding to the location of the user device to one or more computing devices associated with an assistance-providing authority, and receiving, from the one or more computing devices associated with the assistance-providing authority, information indicating dispatch of assistance to the location of the user device. The method also includes, responsive to receiving the information indicating dispatch of assistance to the location of the user device, transmitting, from the centralized streetlight management system, one or more control signals to at least one streetlight at the location of the user device.