An electrical conduit junction box (10) includes a body (12). The body (12) defines an interior (18). The body (12) includes an edge attachment formation (24) which defines a socket receiving aperture (22). The box (10) further includes a socket (26). The socket (26) includes a socket attachment formation (28). The box (10) is movable from a disassembled condition in which the socket (26) is separate to the body (12) and an assembled condition in which the socket (26) is located in the socket receiving aperture (22) and the socket attachment formation (28) engages the edge attachment formation (24) to secure the socket (26) to the body (12).

A hybrid enclosure embodies a hybrid power fiber enclosure. The hybrid enclosure includes a power distribution area, within the hybrid enclosure, configured to distribute one or more power cables. The hybrid enclosure further includes a fiber tray with a fiber access area configured to distribute one or more optical cables. The fiber tray, when in a closed position within the hybrid enclosure, prevents access to at least a portion of the power distribution area.

A junction box and an electronic device assembly system relate to the field of infrastructure technologies. The junction box includes an accommodation chamber (1) configured to accommodate a wire and a sealing cap (2) configured to seal the wire. An upper cover (11) of the accommodation chamber (1) is provided with a first through-hole (111) for wiring, a base (12) of the accommodation chamber (1) is provided with a second through-hole (121) for wiring, and a side wall (13) of the accommodation chamber (1) is provided with one or more operation windows (131). The upper cover (11) of the accommodation chamber (1) is provided with a first installation position for installing to a pole, and the base (12) of the accommodation chamber (1) is provided with a second installation position for installing to an electronic device. The sealing cap (2) includes a third through-hole (201) for wiring and a fourth through-hole (202) for wiring, the sealing cap (2) is detachably installed to the accommodation chamber (1), and the one or more operation windows (131) are shielded by the sealing cap (2) when the sealing cap (2) and the accommodation chamber (1) are in an installed state. The junction box and the electronic device assembly system can simplify an installation process of the electronic device, thereby improving work efficiency.

A lock structure includes: an engaged body; and an engaging body capable of inserting and removing the engaged body along insertion and removal directions opposite to each other. An engaged body includes first and second engaged walls disposed opposite to each other at an interval, a connection wall which connects end portions on the insertion direction side thereof, and an engaged protrusion protruding from an outer wall surface of the second engaged wall. An engaging body has first and second engaging walls in which a space between the respective inner wall surfaces is defined as an accommodation space of the engaged body, an engaging protrusion protruding from the inner wall surface of the second engaging wall and capable of locking the engaged protrusion on the removal direction side, and a third engaging wall disposed between the first and second engaging walls.

A feedthrough housing, used in the railway sector, is provided wherein the feedthrough housing has at least one plug-in interface, which has plug connector modules, wherein the plug-in interface additionally has at least two sensors, a first sensor and a second sensor, wherein the feedthrough housing has a sensor box, which has at least two sensors, a third sensor and a fourth sensor. In the method for integrated monitoring of a plurality of plug-in interfaces of the railcars of a train: a) first data from a plurality of sensors are generated by each of the plug-in interfaces, b) wherein the first data generated at each plug-in interface are transmitted to a sensor box connected for data transfer to the plug-in interface, c) wherein second data are generated by the sensors of the sensor box, d) wherein the first and the second data are transmitted together from the sensor box via a switch infrastructure to a central evaluation unit and/or to a central monitoring station, and e) wherein a digital twin of the train comprising a plurality of railcars is calculated from the first and second data by the central evaluation unit and/or by the central monitoring station.

A lighting-junction-box may have sidewalls that bound a cavity. The cavity may be configured to receive an electronic component that is configured to emit light. The sidewalls may be divided into an upper-portion and a lower-portion. The lower-portion may be substantially cylindrical in shape. The upper-portion may be substantially octagonal in shape, except that two of the eight faces may be curved, while the remaining six faces may be flat and planar. The two curved faces may be oppositely disposed from each other. The two curved faces may have holes for receiving carriage-bolts for attaching adjusting-plates to the lighting-junction-box. Below the holes of the two curved faces on the lower-portion may be external-length-gauges to assist with mounting the lighting-junction-box. The adjusting-plates may have slots for receiving the carriage-bolts and to allow for vertical adjustment of the lighting-junction-box with respect to the adjusting-plates.

A compartmentalized enclosure for controlling access to different components in a telecommunications system including a lower housing member shaped to define an outer perimeter portion and a cavity, a panel member configured to move between a closed panel position, where the panel member prevents access to equipment within the cavity, and an open panel position, where the panel member permits access to the cavity, wherein the panel member is disposed in the cavity of the lower housing member, and is shaped to define a inner perimeter portion that is configured to substantially match and fit within the outer perimeter portion of the lower housing member so as to form a substantially perimeter matching portion that prevents access to equipment within the cavity between the inner perimeter portion and the outer perimeter portion when the panel member is in the closed position.

An electrical distribution block includes a first base, a second base, and a spacer plate discrete from the first and second base. The spacer plate is positioned between first base and the second base and secures the first base to the second base. A conductor block is connected to at least one of the first base or the second base. The conductor block includes a primary tap and a secondary tap.

A distribution box for cables, the distribution box comprising a plurality of modules arranged in a stacked relationship along a longitudinal direction, the plurality of modules comprising: a base module having an inlet port for receiving one or more cables, a cap module, one or more distribution modules arranged between the base module and the cap module, each distribution module having one or more outlet ports. Attachment members are formed on each module for attaching longitudinally the stacked modules, a retaining element is provided and configured to act on the base module and the cap module to mutually urge the stacked modules along the longitudinal direction.

A power adapter configured to provide power to a load is described. The power adapter comprises a first plurality of contact elements comprising a first contact element configured to receive power and a second contact element adapted to be coupled to a load; and a surface adapted to receive a control attachment and comprising a second plurality of contact elements; wherein a third contact element of the second plurality of contact elements is configured to receive power by way of the first contact element of the first plurality of contact elements; and wherein power is applied to a load by way of the second contact element of the first plurality of contact elements.