26results about "Stackable modules" patented technology

An electronic casing includes a box including a first part and a second part, each part forming a distinct container, such that a first electronic board is housed in the first part and such that a second electronic board is housed in the second part, the two parts being integral with one another by a conduit shaped to form an air circulation channel, the casing comprising at least one first connector linked to the first electronic board and at least one second connector linked to the second electronic board, the two connectors being in contact with one another through the conduit.

A power supply module is provided for powering an integrated circuit chip located at a first side of a first carrier board, including: a first-stage power supply unit; and a second-stage power supply unit, where one or more power input terminals of the second-stage power supply unit is electrically connected with one or more corresponding power output terminals of the first-stage power supply unit through a second carrier board; the second carrier board is configured to transmit power from the first-stage power supply unit to the second-stage power supply unit, and the second-stage power supply unit further supplies the power to the integrated circuit chip; one or more power output terminals of the second-stage power supply unit is electrically connected with one or more corresponding power terminals of the integrated circuit chip.

A modular surgical system is disclosed. The modular surgical system can include a control module, a first surgical module, and a second surgical module that are arrangeable in a stack. The control module can include a pulse generator to generate a clock pulse signals. Each of the first and second surgical modules can include a timing circuit and a delay circuit. Each timing circuit can receive the clock pulse signal and start a timer. A first delay circuit of the first surgical module can also receive the clock pulse signal and transmit a first delayed sequence signal to the timing circuit of the first module. A second delay circuit of the second surgical can also receive the first delayed sequence signal from the first delay circuit and transmit a second delayed sequence signal to the clock timer of the second surgical module.

The approaches presented here involve connecting network devices by routing network cable harnesses using layered transceiver panel structures and modular guides. Network cables can be connected to layered transceiver panels to transmit communications between external devices and a network switch. Modular guides can route the network cables from the layered transceiver panels, for example, in a plane perpendicular to the layer of the layered transceiver panels. The network cables connected to the layered transceiver panels and routed through the modular guides can then be connected to the network switch. The network switch can be liquid-cooled and / or air-cooled, with the airflow passing through the openings of the modular guides.

A vehicle includes an inverter having a power module. The power module includes a high side bus, a low side bus and an alternating current (AC) output bus. The high side bus includes a first switch, wherein a high side current is configured to flow through the first switch in a first direction. The high side bus is disposed in a plane. The low side bus includes a second switch, wherein a low side current is configured to flow through the second switch in the first direction. The low side bus is parallel to the high side bus. The alternating current (AC) output bus is parallel to the high side bus and the low side bus, wherein an output current flows through the AC output bus in a second direction opposite to the first direction.

The invention relates to a method for connecting an electrical device (3) comprising the steps: - Providing an enclosed housing (1) accessible via an opening (2); - Providing a cable connection (4) to a board (5); - mechanically connecting the plate (5) to the housing (1) by closing the opening (2) with the plate (5); - Connecting the electrical device (3) to the cable connection (4) As well as a device for connecting an electrical device (3) to at least one electronic component (10) arranged in an enclosed housing (1), comprising a plate (5) with a front (8) and a back (9) and connecting elements (7) for mechanical connection to the housing (1), wherein the front (8) has a cable connection (4). Finally, the invention relates to a system comprising, among other things, such a device.

A modular arrangement is provided for housing electronic equipment and associated cooling structure in a data center environment. The modular units provide cooling air on an as-needed basis to individual pieces of equipment by way of individual plenums and associated valves. The units can be interconnected by vertical stacking, in side-to-side arrangements, and back-to-back arrangements. A number of units can be interconnected to form a cell. The cells can be interconnected to form larger units. In this manner, data centers can be configured in any desired arrangement without requiring complicated cooling design.

The embodiment of the present application provides an integrated assembly, a motor controller and a power assembly. The integrated assembly comprises an integrated shell and a capacitor core body, the integrated shell is used for accommodating the capacitor core body, the integrated shell comprises a first surface and a second surface opposite to each other along a first direction, the first surface comprises two rows of fixing columns and two rows of supporting columns, each row of fixing columns comprises a plurality of fixing columns, and each row of supporting columns comprises a plurality of supporting columns. Along a second direction, the plurality of fixing columns in each row of fixing columns are arranged at intervals, and the plurality of supporting columns in each row of supporting columns are arranged at intervals. Along a third direction, the two rows of supporting columns are arranged at intervals, and the two rows of fixing columns are arranged at intervals between the two rows of supporting columns. The integrated assembly provided by the present application has high integration and strong compactness, can reduce the parts of the motor controller, and reduces the volume of the motor controller.

A vertical power supply system includes a system board, a substrate, a chip unit, a plurality of first capacitors, a plurality of connection boards, a plurality of third capacitors, and a power unit. The system board includes a first surface and a second surface which are opposite to each other. The substrate includes a third surface and a fourth surface which are opposite to each other, and the third surface is located between the fourth surface and the second surface. Each of the connection boards includes a first end, a second end and a side wall. The first end and the second end are opposite to each other. The first end is electrically connected to the second surface of the system board. The second end is electrically connected to the third surface of the substrate. The chip unit is disposed on the first surface.

Approaches presented herein provide for the connection of networking devices by routing network cable harnesses using layered transceiver panel structures and modular guides. Network cables can be connected to layered transceiver panels for transferring communications between external devices and a network switch. Modular guides can route the network cables from the layered transceiver panels, such as in a plane perpendicular to the plane of the layered transceiver panels. The network cables, connected to layered transceiver panels and routed through the modular guides, can then be connected to the network switch. The network switch can be liquid-cooled and / or air-cooled, with airflow passing through openings of the modular guides.

To provide a device, equipped with three or more circuit members overlapping one another, whose height can be reduced.SOLUTION: A device 10 comprises a first circuit member 40, a second circuit member 50, and a third circuit member 60. The first circuit member 40 has: a first main part 41 in which a main electrode 422 is formed; and a first flexible substrate 46 in which a first collective electrode part 47 is formed. The second circuit member 50 has: a second main part 51 in which a second conductive pattern is formed; and a second flexible substrate 56 in which a second collective electrode part 57 is formed. The third circuit member 60 has: a third main part 61 in which a third conductive pattern is formed; and a third flexible substrate 66 in which a third collective electrode part 67 is formed. The first collective electrode part 47, the second collective electrode part 57, and the third collective electrode part 67 overlap one another in the vertical direction. The first main part 41, the second main part 51, and the third main part 61 are separated from one another when viewed along the vertical direction.SELECTED DRAWING: Figure 4

The invention relates to an electrical equipment support (100) comprising a body (110) equipped with sliding means (130) and a movable plate (150) received by said sliding means, having a through opening (120) for attaching said electrical equipment support to a receiving element. According to the invention, the body includes a housing (140) receiving said movable plate, in which are provided said sliding means allowing the plate mounted inside the housing to slide, and said electrical equipment support further includes elastic return means (160) acting between the plate and the body to return said plate to a predetermined rest position. The invention also relates to electrical equipment comprising such an electrical equipment support and an electrical equipment mechanism mounted on said electrical equipment support.

The data logger (100, 3100) includes a sensor interface for connecting at least one sensor or actuator to the data logger (100, 3100), an accessible memory (SD card) for storing data received from the at least one sensor or actuator, and a controller (3199) for controlling the operation of the data logger (100, 3100), the data logger (100, 3100) including a plurality of modules (110, 120; 3110, 3120), each module being connected to a housing of an adjacent module. The data logger has a housing electrically and mechanically connectable to the data logger, at least one module (120) functions as a logging and / or actuation module (LAM120, 3120) including a sensor interface and at least a portion of an accessible memory (SD card), and at least one module (110, 3110) connected to the at least one LAM (120, 3120) functions as a control and communications module (CCM) and includes a controller (3199) that controls internal and external communications of the data logger (100, 3100).

The invention relates to a modularly constructed control unit (100) that is specifically adaptable with regard to interface functions for an electric motor selected from a predetermined set i of electric motors, in particular electric motors of the same power class, wherein the control unit (100) has at least two printed circuit boards (L1, L2) selected from a set of N different printed circuit boards (L1, L2, ..., LN) on which interface functions, electrical components, electronic components or control units for the operation of the electric motor are located.

Embodiments of this application provide an integrated component, a motor controller, and a powertrain. The integrated component includes an integrated housing and a capacitor core. The integrated housing is configured to accommodate the capacitor core. The integrated housing includes a first surface and a second surface that are opposite to each other in a first direction. The first surface includes two rows of fastening columns and two rows of supporting columns. Each row of the fastening columns includes a plurality of fastening columns, and each row of the supporting columns includes a plurality of supporting columns. The integrated component provided in this application has high integration and high compactness, and can reduce components and parts of the motor controller, so that a size of the motor controller is reduced.

An energy module connectable to a surgical instrument is disclosed. The energy module can include a circuit, which can include a first amplifier and a second amplifier coupled to a port of the energy module to which a surgical instrument is connectable. The first amplifier can be configured to generate a first drive signal at a first frequency range and the second amplifier can be configured to generate a second drive signal at a second frequency range. The circuit can be configured to control the amplifiers to deliver the first drive signal, the second drive signal, and / or a combination of the first and second drive signals to a surgical instrument connected to the port.

The invention relates to the field of electronic products, in particular to a digital individual soldier device, which comprises a shell assembly, which is composed of a front shell and a rear shell through a waterproof sealing structure and is internally provided with a cavity, and a battery compartment is arranged in the cavity; the layered circuit board group comprises a first circuit board, a second circuit board and a third circuit board which are arranged in the cavity in parallel from top to bottom, the first circuit board is arranged close to the inner wall of the front shell, and the area of the first circuit board covers the projection surface of the whole equipment; the area of the second circuit board and the third circuit board is 50-60% of that of the first circuit board, and the second circuit board and the third circuit board are staggered along the long axis direction of the equipment; and the battery is arranged in the battery compartment, and the thickness of the battery is equal to the superposed thickness of the second circuit board and the third circuit board. And due to the stacking design of the second circuit board and the third circuit board and the accurate matching with the thickness of the battery, more functional modules can be integrated while the compact size of the equipment is kept, and the problems of thickness redundancy and single-side weighting of the traditional stacking design are avoided.

A method of operating a modular surgical system including a control module, a first surgical module, and a second surgical module is disclosed. The method includes detachably connecting the first surgical module to the control module by stacking the first surgical module with the control module in a stack configuration, detachably connecting the second surgical module to the first surgical module by stacking the second surgical module with the control module and the first surgical module in the stack configuration, powering up the modular surgical system, and monitoring distribution of power from a power supply of the control module to the first surgical module and the second surgical module.

A device comprises a first circuit member (40), a second circuit member (50) and a third circuit member (60). The first circuit member comprises a first body (41) for performing the function of the first circuit member and a first flexible board (44) formed with a first integrated-electrode portion (46) including first electrodes (462). The second circuit member comprises a second body (51) for performing the function of the second circuit member and a second flexible board (54) formed with a second integrated-electrode portion (56) including second electrodes (562). The third circuit member comprises a third body (61) for performing the function of the third circuit member and a third flexible board (64) formed with a third integrated-electrode portion (66) including third electrodes (662). The first integrated-electrode portion, the second integrated-electrode portion and the third integrated-electrode portion lie over each other in an upper-lower direction. The first body, second body and the third body are apart from each other when seen along the upper-lower direction.

A data logger (100, 3100) comprising a sensor interface for connecting at least one sensor or actuator to the data logger (100, 3100); an accessible memory (SD card) for storing data received from said at least one sensor or actuator; and a controller (3199) for controlling operation of the data logger (100, 3100) wherein said data logger (100, 3100) comprises a plurality of modules (110, 120; 3110, 3120), each module having a housing electrically and mechanically connectable to a housing of an adjacent module; and wherein at least one module (120) comprises the sensor interface and acts as a logging and / or actuation module (LAM 120, 3120) including at least a portion of said accessible memory (SD card); and at least one module (110, 3110) connected to said at least one LAM (120, 3120) acts as a control and communications module (CCM) and comprises the controller (3199) that controls communications within and external to the data logger (100, 3100).

The invention relates to an electrical switchgear support (100) comprising: - a body (110) including a frame (112) delimited by, on the one hand, an internal peripheral edge (111) defining a receiving opening (115) for receiving an electrical switchgear mechanism (20), and, on the other hand, an external peripheral edge (113) defining at least one recess (140) formed in said frame, and - at least one mounting element (150) received in said recess for fixing said electrical switchgear support to a receiving element. According to the invention, said recess includes sliding means (130) allowing said mounting element to slide within the recess, in translation along a transverse direction (Y1) generally perpendicular to the portion of the internal peripheral edge closest to said recess.

The present disclosure relates to an electronic device (2). The electronic device (1) can include a device body (11), a control main board (12), and at least one function module (13) mounted in the device body (11). The control main board (12) of the electronic device (1) is provided with a pad group (122) and a flexible printed circuit board (123), such that each pad group (122) is electrically connected to the corresponding function module (13) by the flexible printed circuit board (123). The first connecting terminal (1231) of the flexible printed circuit board (123) is electrically connected to the function module (13), and the pins (1232a) of the second connecting terminal (1232) of the flexible printed circuit board (123) correspond to and electrically cooperate with the pads (1221) of the pad group (122).

The present invention is a submodule. The exterior of the submodule (10) of the present invention may be formed by a housing (20). A first opening (25) may be formed on one side (24) of the housing (20). A heat sink (30) may be installed in the first opening (25). An inner surface of the heat sink (30) may face the inside of the housing (20), and an outer surface of the heat sink (30) may form one outer surface of the housing (20). A heat generating element such as a power semiconductor (32) or a control board may be installed on the heat sink (30). An inlet (34) and an outlet (36) may be formed on one side edge of the heat sink (30) to communicate with a flow path formed inside to allow a cooling fluid to enter and exit.

The application discloses a module fixing device and an information processing system. The module fixing device is used for fixing a functional module when the functional module is plugged into a circuit board. The module fixing device comprises a clamping piece and an elastic piece. The clamping piece is movably connected to the circuit board along a first direction and a second direction opposite to the first direction, and the clamping piece comprises a first clamping part used for clamping the functional module. The elastic piece is connected to the clamping piece, and the elastic piece has a restoring force along the first direction and can drive the clamping piece to move along the first direction so that the first clamping part clamps the functional module. The module fixing device drives the clamping piece to move along the first direction by the elastic piece, so that the first clamping part clamps the functional module, and the structure is compact and can be applied to a scene with a narrow space.

A mounting arrangement (200; 202; 204; 206; 208; 300; 400; 402; 504), consisting of: a holder (100; 102) configured to hold one or more electrical connectors of an information processing device, wherein the holder (100; 102) comprises a first part which includes: a first segment (112) with a first assembly opening (114); a second segment (122) with a second mounting opening (124); and one or more connection openings (150, 152) which are at least partially bounded by the first (112) and second (114) segment and are configured to receive the electrical connections; and a pair of rails (310, 330) configured to be arranged in and attached to a chassis (404) of the information processing device and capable of receiving and supporting removable component cards installed in the information processing device, wherein the pair of rails (310, 330) comprises the following: a first rail (310) having a first tab projecting from a first end of the first rail (310), the first tab having a first notch on a top surface of the first tab; and a second rail (330) having a second tab extending from a second end of the second rail (330), the second tab having a second notch on a top side of the first tab; wherein the bracket (100; 102) is configured to be attached to the rail pair (310, 300) by inserting the first and second tabs through the first (114) and second (124) mounting openings respectively, and then sliding the bracket (100; 102) downwards so that an edge of the first mounting opening (114) rests in the first notch and an edge of the second mounting opening (124) rests in the second notch, and wherein in a state in which the holder (100; 102) is attached to the rail pair (310, 330) and the electrical connectors are mounted on the holder (100; 102), the electrical connectors are positioned to match the removable component cards inserted into the rail pair (310, 330).

A vertical power supply system and a manufacturing method of a connection board are provided. The vertical power supply system includes a system board, a substrate, a chip unit, a plurality of first capacitors, a plurality of second capacitors, a plurality of conductive portions and a power unit. The system board includes a first surface and a second surface which are opposite to each other. The substrate includes a third surface and a fourth surface which are opposite to each other, and the third surface is located between the fourth surface and the second surface. The chip unit is disposed on the first surface. The first capacitors are disposed on the second surface. The second capacitors are disposed on the third surface. The third surface and the second surface are electrically connected through the conductive portions. The power unit is disposed on the fourth surface.