Abstract: A system that may be used for deploying optical cables, the system may include a track having an outer edge and a surface, the track having a track gear disposed proximate the outer edge and a plurality of track grooves disposed on the surface of the track. The system may also include a spool having a first outer edge and a second outer edge. The spool may include a first wheel disposed on the first outer edge, a second wheel disposed on the second outer edge, a spool gear disposed on the first wheel and interfacing with the track gear, plurality of spool grooves, and a plurality of guides interfacing with the track to align the track grooves with the spool grooves.

Abstract: An electronically-managed optical fiber connection system is provided. A smart ferrule carrier comprises a plurality of ferrule bays configured to accept a tagged optical ferrule assembly. Each tagged optical ferrule assembly comprises an identification (ID) tag storing identification information for the optical ferrule assembly. A smart carrier board comprising a carrier controller is configured to read and/or write information to/from the ID tag of each tagged optical ferrule assembly. A smart carrier adapter is configured to accept a plurality of smart ferrule carriers, the smart carrier adapter including an adapter controller system. The adapter controller system includes an adapter controller configured to communicate with the carrier controller of each installed smart ferrule carrier and a system controller.

Abstract: Products, compositions, systems, and methods for modifying a target structure which mediates or is associated with a biological activity, including treatment of conditions, disorders, or diseases mediated by or associated with a target structure, such as a virus, cell, subcellular structure or extracellular structure. The methods may be performed in situ in a non-invasive manner by placing a nanoparticle having a metallic shell on at least a fraction of a surface in a vicinity of a target structure in a subject and applying an initiation energy to a subject thus producing an effect on or change to the target structure directly or via a modulation agent. The nanoparticle is configured, upon exposure to a first wavelength ?1, to generate a second wavelength ?2 of radiation having a higher energy than the first wavelength ?1.

Abstract: An edge-attachable (EA) optical connector includes an optical connector housing for an optical connector. The optical connector housing includes a slot that aligns with a module board edge finger electrical connector, such that the optical connector housing can be slid over a module board edge finger electrical connector and attached to the module board edge. An optical connector on one end of an optical fiber bundle or ribbon fits within the optical connector housing. When the optical connector housing is attached to the module board edge, the optical connector blind mates with a host optical connector supported by a bracket to which a host electrical connector is attached. An optical connector on another end of the optical fiber bundle or ribbon mates with a module board optical connector. The module board optical connector may include an optical socket mounted on an opto-electronic chip disposed on the module board.

Abstract: A housing-attachable (HA) optical connector is removably attached to a housing that is initially designed for an electrical interface with a base electrical connector on a system board. An optical fiber terminates at one end to a chip optical connector and terminates at another end to the HA optical connector. The HA optical connector is positioned with respect to the housing such that when a portion of the printed circuit board of a removable module extending outside the housing comes into contact with a base electrical connector on a system board, the HA optical connector blind mates with a base-attachable (BA) optical connector on the system board. In this manner, electrical connectivity and optical connectivity are provided between the removable module and the system board.

Abstract: A utility pole monitoring device comprising a body adapted to couple to a utility pole, a vibration device arranged on the body and configured to generate vibrations on or in the utility pole, a sensor arranged on the body for measuring the vibrations within the utility pole generated by the vibration device, and a controller for providing an initialization signal to the vibration device, and receive measured data from the sensor.

Abstract: Example implementations relate to a security system having an electronic lock including latch and security modules, to control access to electronic devices. The latch module includes a receiver, a handle, and a torque member rotatably coupled to the receiver and handle. The receiver includes a first recess, a second recess, and a lobe to releasably engage the electronic device within the first recess. The security module includes a tension spring, an actuator, and a lock member having a first pin and a second pin. The tension spring is coupled to the lock member to engage the first pin to second recess when the latch module is in a latched configuration, and hold the security module in a lock-in position. The actuator is releasably engaged to the second pin for rotating the lock member to disengage the first pin from second recess, and release the security module from the lock-in position.

Abstract: A method of operating a multicopter comprising a body and n thrusters, each thruster independently actuated to vector thrust angularly relative to the body about at least a first axis, the method comprising modelling dynamics of the multicoptor with a mathematical model comprising coupled, non-linear combinations of thruster variables, decoupling the mathematical model into linear combinations of thruster control variables, sensing at least one characteristic of multicopter dynamics, comparing the sensed data with corresponding target characteristic(s), computing adjustments in thruster control variables for reducing the difference between the sensed data and the target characteristic(s) according to a control algorithm, and actuating each thruster according to the computed thruster control variables to converge the multicopter towards the target characteristic(s), wherein the control algorithm is based on the decoupled mathematical model such that each thruster control variable can be adjusted independently.

Abstract: A module, comprising: a printed circuit board (PCB); a power and management connector disposed on the PCB to connect to a computing device via a first cable; a data connector disposed on the PCB to connect to the computing device via a second cable; and a memory slot, to accept a memory device, disposed on the PCB and connected to the power and management connector and the data connector.

Abstract: An example apparatus comprises a drive carrier assembly which may include a memory device, and an energy storage device having at least a portion thereof encased in a housing. In some examples, the apparatus may include a printed circuit assembly to detect a power failure of a host computing device. The printed circuit assembly, may have a first portion coupled to the energy storage device and a second portion coupled to a backplane of the host computing device.

Abstract: A system manages communication between a host device and an end device. The system includes a programmable input/output (I/O) port associated with the host device. The host device is connectable through the programmable I/O port and a cable to a plurality of different types of end devices that are respectively associated with different types of protocols. The system further includes a port manager to detect a signal from an end device interface associated with the end device and determine a type of the end device based on the detected signal. The port manager directs the programmable I/O port to present signals that correspond to a protocol associated with the determined type of the end device to allow the host device to communicate with the end device.

Abstract: A computer-implemented low-code development platform is provided including a user interface and having access to a library of step macros configured for user configuration and interconnection via the user interface to generate executable code. Each step macro includes a step configuration generator and an execution code generator. The step configuration generator is configured to generate a step configuration file based on user-configurable data points configurable via the user interface. The execution code generator is configured to generate executable code in the form of a compiled step file configured for storage in memory and execution by a processor of a computing system. The execution code generator receives and inputs the step configuration file into a metaprogramming component configured to interpret the user-configurable data points of the step configuration file and to generate and output the compiled step file.

Abstract: One example of a system includes a system board including first contacts, a cage attached to the system board over the first contacts, and a removable transceiver module including second contacts. The transceiver module is installable in the cage in response to a lateral movement of the transceiver module with respect to the cage to align the second contacts with the first contacts and a vertical movement of the transceiver module with respect to the cage to electrically connect the first contacts to the second contacts.

Abstract: A modular compute platform including an enclosure, a first module including an application specific integrated circuit, the first module being disposed in the enclosure, a second module including an input/output device, the second module being disposed in the enclosure, the input/output device connected to the first module through a first cable, and a third module including a media device disposed in the enclosure, the media device connected to the first module through a second cable.

Abstract: A reconfigurable optical ferrule (ROF) carrier mating system is provided. The ROF carrier mating system comprising a reconfigurable carrier adapter comprising an adapter mid-wall comprising a plurality of ferrule mating sleeves, with a first carrier receptacle on a first side of the adapter mid-wall and a second carrier receptacle on a second side of the adapter mid-wall. Each ROF carrier can take on either a serial orientation or a parallel orientation based on the alignment of a plurality of duplex ferrule connectors disposed within each ROF carrier. The plurality of ferrules of the ROF carriers inserted into the first carrier receptacle are configured to mate with the plurality of ferrules of the ROF carriers inserted into the second ferrule carrier receptacle.

Abstract: An example block assembly for optical signal filtering is provided herein. The block assembly includes a base with at least one aperture to receive a mandrel in a plurality of adjustable positions and orientations relative to an axis of the base. The block assembly also includes a first member and a second member extending from the base.

Abstract: A module, comprising: a door disposed on a front face of the module; a tray is accessible through the door, the tray including a slot to accept a memory module, wherein the memory module includes a plurality of slots for memory devices and wherein the tray is extendable from a recessed position within the module to a position extended from the module, to allow insertion of the memory module in the tray; and an interface to connect the memory module to a host.

Abstract: One or more stacking cabled I/O slots may be installed in a stacked arrangement on a computing device, such as in an I/O expansion socket of a computing device motherboard. Slot detection and population logic associated with each of the one or more stacking cabled I/O slots enables signaling from each installed stacking cabled I/O slot, in order for its presence and location relative to any other installed stacking cabled I/O slot to be identified to and recognized by the computing device. High speed data signals through an installed stacking cabled I/O slot are coupled to the computing device via a cable, while power and logic signals are exchanged between the computing device and the one or more stacking cabled I/O slots via connections to the I/O expansion socket.

Abstract: Thermal control is provided for external light sources for silicon photonics based pluggable modules. In one embodiment, an apparatus comprises a first circuit board; a light source disposed upon the first circuit board; a silicon photonics modulator; a connector comprising a first portion and a second portion, wherein: the first and second portions are physically matable and separable; mating the first and second portions of the connector optically couples the first and second portions, the first portion is disposed upon the first circuit board, and is optically coupled to an output of the light source, and the second portion is optically coupled to an input of the silicon photonics modulator; and a thermal controller to control a temperature of the light source. Some embodiments disable the light source when the connector is separated.

Abstract: Apparatus including an elongated body to couple with a surface mount connector to reduce or prevent deformation of the surface mount connector during soldering of the surface mount connector to a substrate, the surface mount connector including a connector housing having a first end portion and a second end portion. In one implementation, the elongated body may include: a first body end portion forming a first tab insertable into a first portion of a socket defined by the first housing end portion; and a second body end portion forming a second tab insertable into a second portion of the socket defined by the second housing end portion.