A modular rack system and method includes a rack having plural electrical interfaces, and plural module panels configured to mate with the electrical interfaces of the rack. The module panels have one or more of a common exterior size or a common exterior shape. At least two of the module panels have different internal electrical components configured to perform different operations. The rack is configured to be conductively coupled with a power delivery system of a vehicle and the module panels are configured to modify electric current prior to the electric current being supplied to the power delivery system of the vehicle.

An electrical power delivery system includes a module stack, a conductive bus bar, and one or more energy storage devices. The module stack includes multiple modules stacked side by side along a stack axis. Each of the modules has a respective housing and internal electrical components within the housing. The conductive bus bar is oriented along a plane parallel to the stack axis. The bus bar is mounted along a side of the module stack and electrically connected to one or more of the modules. The one or more energy storage devices are electrically connected to the bus bar and extend from a side of the bus bar facing away from the module stack such that the bus bar is disposed between the one or more energy storage devices and the module stack.

The invention relates to an assembly forming a casing for electrical equipment, said assembly comprising: a first casing for receiving at least a first electronic component of the electrical equipment; a second casing for receiving at least a second electronic component of the electrical equipment; a first wall of the first casing, known as the first interface wall, and a second wall of the second casing, known as the second interface wall, said walls being arranged to press against one another in order to form the assembly. According to the invention, the first and second casings each comprise at least one side wall, known as the first and second sidewalls respectively, said side walls extending from the first and second interface walls respectively in the opposite direction relative to the other casing; and the second side wall comprises an opening, known as the connection opening, for receiving an electrical connector, and a portion around the opening, known as the connection portion, for receiving a sealing part of the electrical connector, said first and second side walls being arranged such that the connection portion extends towards the first casing so as to face one surface of the first side wall.

An electronic apparatus includes a housing, a first substrate, and at least one substrate module. The housing includes side plates and a bottom plate. The side plates define the inside space having a bottom opening. The side plates include a first side plate and a second side plate connected to the first side plate. The first side plate has a protrusion protruding toward the inside space of the housing. The bottom plate is connected to the side plates to close the bottom opening. The first substrate is provided in the inside space to face the bottom plate. The at least one substrate module is provided on the first substrate in the inside space. The substrate connecting member is provided on the first substrate to face the second side plate and has a hole into which the protrusion of the first side plate is inserted.

A power module includes a housing, a support bracket, a sliding member and a resilient recovery member. The housing has a first surface and a second surface. The support bracket is fixed to the first surface. The support bracket has a hook to retain a first side of a support rail. The sliding member is slidably connected to the support bracket. The sliding member has a latch member to retain a second side of the support rail. The resilient recovery member has a first end connected to the support bracket and a second end connected to the sliding member. The resilient recovery member is to push the sliding member to cause the hook member and the latch member to sandwich the support rail. The sliding member has a first unlocking end for applying a force against the resilient recovery member. The first unlocking end projects beyond the second surface.

Electronic module for the mounting of electronic components comprising a housing that is bounded in a longitudinal direction by two end faces, each with an opening. The housing can be fitted via the openings with at least one first circuit board, equipped with electronic components, and with at least one second circuit board, equipped with plug and/or clamp connectors. On an inner side of one housing wall, the housing comprises at least one dome, configured in a longitudinal direction, on which the at least one first circuit board can be attached essentially transversely to the longitudinal direction. At two opposite-facing inner sides and/or two opposite-facing domes, the housing furthermore comprises a retaining groove in which to insert at least one second circuit board in a longitudinal direction. The at least one first circuit board is wirelessly electrically connected to the at least one second circuit board inside the housing for the transmission of electrical power and communication signals via plug and/or clamp connectors, wherein additional plug and/or clamp connectors are arranged on the at least one second circuit board in such a way that plug and/or clamp connectors of another electronics housing module can be wirelessly connected to the at least one second circuit board by means of plug and/or clamp connectors for the transmission of electrical power and communication signals.

A power phase module has at least one first DC terminal pair on a face of the power phase module with respective connection elements for connection to a current bar pair. The power phase module further has a first DC capacitor terminal pair on the face being spaced apart from the first DC terminal pair and connected in parallel with it and having respective connection elements for connection to an intermediate circuit capacitor module associated with the power phase module. The power phase module further has a first AC terminal on another side of the power phase module and a switching device connected with the first AC terminal and the first DC terminal pair for converting a direct voltage. The power phase module further has a cooling device to carry heat out of the power phase module. Further proposed are a converter and a rail vehicle with a converter.

An electrical converter having pluggable converter components includes a first electronic assembly having electronic parts an assembly carrier, a housing chassis and a housing cover, wherein at least one of the electronic parts is a power semiconductor switch having a wide band gap and made of GaN or of InGaN. The power semiconductor switch is operated with a reverse bias of at least 400 V and at a clock frequency of at least 40 kHz during operation of the electrical converter. The first electronic assembly is mechanically plugged into the assembly carrier by connecting elements, and the first electronic assembly together with the assembly carrier is mechanically plugged and locked by further connecting elements to the housing chassis or to the housing cover using corresponding locking elements on the housing chassis or to the housing cover, respectively.

A traction inverter system includes a capacitor module, a power module, a cold plate between and in contact with the modules, and an end plate defining an inlet and outlet. The modules and plates define a bore spanning the modules and plates, and a passageway in fluid communication with the inlet and outlet. The traction inverter system also includes a mechanical fastener occupying the bore, spanning the modules and plates, and clamping the modules and plates together.

Disclosed is a modular housing for drivers used for LED lamps. The housing includes connectors for AC in from a power source, DC out to the lamps, and also has connectors allowing for control lines to be received from a control box. The housing includes an arrangement for creating two opposite stacks of drivers. The fronts of the drivers are cooled by circulating air through the space between the stacks, and heat is also dissipated through the side walls of the housing, which acts as a heat sink. The number and specifications of the drivers in the housing are configured such that every module is able to serve a number of LED lamps.