Abstract: In some embodiments, an interconnectable circuit board may include one or more of the following features: (a) a first electrically conductive pad located on a top of the circuit board, (b) a plated through hole on the conductive pad which passes through the circuit board, (c) a second electrically conductive pad coupled to the plated through hole; the second conductive pad capable of being electrically connected to a third electrically conductive pad attached to a top of a second interconnectable circuit board, (d) cut marks indicating safe locations for separating the circuit board, and (e) a second cut mark adjacent to the first cut mark where the area between the first and second cut mark can be utilized to make a safe cut through the circuit board.

Abstract: A mortise lock includes: a first printed circuit board; a contact pad arranged on the first printed circuit board; a second printed circuit board; a printed circuit board connector arranged on the second printed circuit board, the printed circuit board connector being configured to connect the first printed circuit board to the second printed circuit board; and a plug contact arranged on the second printed circuit board. The plug contact is configured to be accessible from outside of the mortise lock.

Abstract: A semiconductor socket including a substrate with a plurality of through holes extending from a first surface to a second surface. A plurality of discrete contact members are located in the plurality of the through holes. The plurality of contact members each include a proximal end accessible from the second surface, and a distal end extending above the first surface. At least one dielectric layer is bonded to the second surface of the substrate with recesses corresponding to target circuit geometry. A conductive material deposited in at least a portion of the recesses to form conductive traces redistributing terminal pitch of the proximal ends of the contact members.

Abstract: A thin connector comprises a first connector having a flat plate shape and a second connector having a flat plate shape superimposed on and fitted with each other, the first connector including first contacts arrayed in a direction, each first contact being provided with a first contact portion, the second connector including second contacts arrayed in a same direction as the direction in which the first contacts are arrayed, each second contact being provided with a second contact portion, each first contact having a spring portion which extends in a direction obliquely crossing the direction in which the first contacts are arrayed and on which the first contact portion is formed.

Abstract: A thin connector comprises a first connector having a flat plate shape and a second connector having a flat plate shape superimposed on and fitted with each other, the first connector including first contacts arrayed in a direction, each first contact having a spring portion composed of a first metal member in a flat plate shape, a projection portion formed on the spring portion so as to protrude in a perpendicular direction to the plane of the first metal member, and a first contact portion formed on a side surface of the projection portion, the second connector including second contacts arrayed in a same direction as the direction in which the first contacts are arrayed, each second contact being composed of a second metal member in a flat plate shape and having a second contact portion formed on a side surface of the second metal member.

Abstract: A control system for a motor includes a pulse-width modulation module, a pulse skip determination module, and a duty cycle adjustment module. The pulse-width modulation module generates three duty cycle values based on three voltage requests, respectively. A plurality of solid-state switches control three phases of the motor in response to the three duty cycle values, respectively. The pulse skip determination module generates a pulse skip signal. The duty cycle adjustment module selectively prevents the plurality of solid-state switches from switching during intervals specified by the pulse skip signal.

Abstract: A battery connector for a battery of a portable electronic device includes an insulation body and a plurality of elastic pins. Each elastic pin includes a mounting portion, a buffering portion, and a contacting portion connected to each other. The mounting portion is secured on the insulation body, the contacting portion is perpendicularly connected to the buffering portion. The elastic pins are positioned on the insulation body, and the contacting portions correspondingly are assembled in the grooves.

Abstract: After passing through respective contact insertion holes 3A to 3E of a guide connector 3 and penetrating the substrate 110, the contacts 120 are inserted into a female housing 10. After the electrical connection between the contacts 120 and female contacts 20 are respectively established, a slider 1 is pressed down, which causes pressing pins 4 and 5 to press a first movable body 50 and a second movable body 60. With this, a lower stage 50L of the first movable body 50 and a lower stage 60L of the second movable body 60 detach from restriction beams 84 and 85. This allows springs 141 and 142 to extend, to move the first movable body 50 and the second movable body 60 away from the contacts 120.

Abstract: A guide connector includes a first movable body, a second movable body, a box-like body capable of accommodating the movable bodies, and a lid. The guide connector is positioned below a substrate. Contacts are inserted into a female connector after passing through contact insertion holes to of the guide connector and penetrating the substrate. After the electrical connection between the contacts and female contacts are respectively established, a slider is pressed down, which causes pressing pins and to press the first movable body and the second movable body. With this, a lower stage of the first movable body and a lower stage of the second movable body detach from restriction beams. This allows springs to extend, to move the first movable body and the second movable body away from the contacts.

Abstract: It is an object of the present invention to prevent damages to a contact. A contact 130 having penetrated the substrate 110 is inserted into the female housing 30, and is electrically connected to a female contact 40. When the slider 1 is pressed down ward during this state, the first movable body 70 and the second movable body 80 are pressed down by the slider 1. This causes a lower stage 73 of the first movable body 70 and a lower stage 83 of the second movable body 80 to move below an upper wall 94 of the housing 90, and outer surfaces of the lower stages 73 and 83 no longer contact the upper wall 94. Then, expansion of a spring 120 moves the first movable body 70 and the second movable body 80 away from the contact 130.

Abstract: A programmable logic controller (PLC) assembly includes a bottom housing with a base, a first plurality of elongate alignment features extending from the bottom housing transverse to the base, and a first connection feature. The PLC assembly includes a central processing unit with a circuit board and at least two receptacles therethrough configured to engage and slide along at least two of the first plurality of alignment features. The at least two of the first plurality of alignment features are positioned asymmetrically with respect to the base. The PLC assembly includes an upper housing with a second connection feature configured to slidably couple with the first connection feature and a second plurality of elongate alignment features configured to slidably engage at least two of the first plurality of alignment features, which are positioned asymmetrically with respect to the base.

Abstract: An electronic component carrier and method for mounting the electronic component to a circuit board includes a frame including a header having opposing attachment arms extending outwardly therefrom for seating an electronic component within the frame. A latching mechanism of the frame includes latching members at a distal end of each of the attachment arms for releasably seating the electronic component between the attachment members. The attachment members are resiliently flexible such that the latching members bend to a release position and resiliently return to a grasping position. Handling levers extend upwardly from the header through an outer casing housing the circuit board when in an open position for manually removing the electronic component from the connector, and the handling levers are substantially parallel with a top surface of the header when in a closed position when the electronic component is mated to the connector.

Abstract: Contact pads on structures such as printed circuits may be coupled to each other using printed circuit connectors such as board-to-board connectors. A printed circuit connector may have interlocking metal frame structures. The metal frame structures may be soldered to traces on the printed circuits. Rectangular openings in the metal frame structures may receive a rectangular contact array structure that is separate from the metal frame structures. The contact array structure may include a dielectric carrier structure and an array of conductive contacts. The dielectric carrier structure may align the contacts with respect to pads on the printed circuits to which the metal frame structures are soldered. The contacts may be formed from metal spring structures or conductive elastomeric structures that are compressed between respective printed circuit contact pads when the metal frame structures of a printed circuit connector are attached to each other.

Abstract: Provided are an inter-board connection terminal with which electrical connection between two boards can be simplified, the operability and productivity thereof can be enhanced, and reliability of electrical connection can also be ensured, as well as an inverter and an electric compressor employing the same. An inter-board connection terminal includes a group of numerous metal terminals which is inserted, individually at both tips thereof, into through-holes in boards to electrically connect two boards, wherein paired resin linking members are provided, which have a predetermined space therebetween with respect to the group of metal terminals and which join the group of metal terminals into a single unit by linking the terminals in the form of a row at both tips thereof near the bases of portions to be inserted into the through-holes in the boards.

Abstract: A wireless module includes a wireless signal transceiver and a transferring unit. The wireless module is assembled to a connector unit after the wireless signal transceiver is assembled to the transferring unit. Therefore, the connector unit transmits and receives wireless signals through the wireless module.

Abstract: Embodiments related to integrated circuit (IC) connectors are described. In some embodiments, an IC assembly may include an IC package substrate, an intermediate member, and a male connector. The IC package substrate may have first signal contacts on a top or bottom surface, and the bottom surface may have second signal contacts for coupling with a socket on a circuit board. The intermediate member may have a first end coupled to the first signal contacts and a second end extending beyond the side surface. The male connector may be disposed at the second end of the intermediate member, and may have signal contacts coupled to the signal contacts of the intermediate member. The male connector may be mateable with a female connector when the female connector is brought into engagement in a direction parallel to the axis of the intermediate member. Other embodiments may be disclosed and/or claimed.

Abstract: A leg unit used for a connector housing, the leg unit being inserted into a fixing hole formed through a printed circuit board from a first surface towards a second surface of the printed circuit board, the leg unit including a first projection having elasticity, a second projection, and a contact portion making contact with the first surface when the leg unit is inserted into the fixing hole, the first and second projections being spaced away from each other and facing each other, a distance between an outer surface of the first projection and an outer surface of the second projection being greater within a predetermined range than an inner diameter of the fixing hole, the first projection including a unit for preventing the leg unit from being released out of the fixing hole after the leg unit has been inserted into the fixing hole.

Abstract: An electronic apparatus 1 includes a flat cable 70, an end 70a of which is bonded to the front surface of a sub-board 30 through an anisotropic conductive film 79, engaged portions 74A and 74B formed in the flat cable 70, and an intermediate frame 40 that engages with the engaged portions 74A and 74B to restrain the movement of the engaged portions 74A and 74B in a direction away from the electrode on the sub-board 30. Consequently, it is possible to realize a reduction in costs while maintaining connection stability between a flat cable and a circuit board.

Abstract: An inter-terminal connection structure includes a circuit board terminal to be mounted on a circuit board; and a connection connector for connecting the circuit board terminal. The circuit board terminal includes a base portion, a pair of contact pieces extending from the base portion, and a pair of locking pieces extending from the base portion. Each contact pieces includes an elastic arm portion, and each locking pieces includes a locking portion having a locking protrusion. The connection connector includes a connection terminal having a plate shape portion sandwiched between the contact pieces and the locking pieces, and a housing that holds the connection terminal. The plate shape portion includes a locked portion, so that the locking protrusion is situated in the locked portion with a play to be movable when the connection connector is attached to the circuit board terminal.

Abstract: A method of manufacturing a micro structure, includes the steps of: preparing separate first and second substrates, the first substrate having a first surface on which a first structural body having a first height and a second structural body having a second height greater than the first height of the first structural body are arranged, the second substrate having a second surface; then placing the first and second substrates to cause the first and second surfaces to face each other across the first and second structural bodies; and then bonding the first and second substrates to each other while compressing the second structural body in a height direction thereof between the first and second surfaces to cause the second structural body to have a height defined by the first structural body.

Abstract: An interface card assembly of a bus extension system for coupling a solid state drive to a host bus adaptor of a host computer includes a printed circuit board having an edge connector with a plurality of pins and a plurality of first conducting traces. The interface card also includes a plurality of first serially aligned plated holes disposed along a first center-line having a first end and a second and being disposed perpendicularly to the edge connector and a slot. The slot is milled in the printed circuit board so that the slot is parallel and adjacent to the first center-line and extends beyond the first and second ends thereby leaving each of the first plated holes in a semi-circular shape.

Abstract: The connector housing includes a terminal housing in which at least one connector terminal electrically connecting two printed circuit boards to each other is housed, the terminal housing including a holder for holding the connector terminal therewith, the holder being elastically deformable in accordance with a displacement of the connector terminal.

Abstract: In some embodiments, an interconnectable circuit board may include one or more of the following features: (a) a first electrically conductive pad located on a top of the circuit board, (b) a plated through hole on the conductive pad which passes through the circuit board, (c) a second electrically conductive pad coupled to the plated through hole; the second conductive pad capable of being electrically connected to a third electrically conductive pad attached to a top of a second interconnectable circuit board, (d) cut marks indicating safe locations for separating the circuit board, and (e) a second cut mark adjacent to the first cut mark where the area between the first and second cut mark can be utilized to make a safe cut through the circuit board.

Abstract: A circuit-terminal connecting device comprising a first connector having a first housing fixed to a main circuit board and first contacts supported by the first housing to be connected with first circuit-terminals provided on the main circuit board and a second connector having a second housing attached to a flat circuit member and second contacts supported by the second housing to be connected with second circuit-terminals provided on the flat circuit member. The first housing of the first connector fits into a hole formed in the second housing of the second connector so as to create an electrical piling connection between the main circuit board and the flat circuit member wherein the flat circuit member is laid on top of the main circuit board and the first circuit-terminals are electrically connected with the second circuit-terminals through the first and second connectors.

Abstract: A connector for electrically connecting a first printed circuit board (PCB) with a second PCB wherein, in one example, the connector includes a housing having a keyed feature adapted to mate with a correspondingly keyed feature provided to each of the first and second PCBs and at least one connecting terminal carried by the housing having at least partially exposed opposed ends each of which electrically engages a contact pad formed on an underside of the respective PCBs. The connecting terminal may be arranged to accept a conductor and to thereby electrically couple the conductor to the first and second PCBs.

Abstract: Inertial measurement unit apparatus for use with guidance systems are disclosed herein. An example guidance system includes an inertial measurement unit removably coupled in a cavity of a guidance wafer via an access port of the guidance wafer defining a port axis that is non-parallel relative to a longitudinal axis of the guidance wafer.

Abstract: An electrical connector is to be connected to a mating connector. The electrical connector includes a circuit board member formed of an insulation plate member; and a holding member for holding the circuit board member. The circuit board member includes a connecting portion to be connected with a mating connector of the mating connector. The connecting portion includes a pair of conductive band portions and a first insulation region disposed between the conductive band portions.

Abstract: A circuit-terminal connecting device comprising an electrical connector having an insulated housing mounted on a main circuit board and a plurality of resilient contacts arranged on the insulated housing, and a flat circuit member having a reinforced portion attached to a reinforcing board member operative to engage with the insulated housing of the electrical connector, wherein each of the resilient contacts has a board connecting portion provided to be connected to a first circuit-terminal provided on the main circuit board, a fixable portion provided to be fixed to the insulated housing, and a resilient arm portion extending from the fixable portion and provided with a contact point for coming into press-contact with a second circuit-terminal provided on the reinforced portion of the flat circuit member and a locking portion for engaging with the reinforcing board member to lock the same.

Abstract: A cable connector assembly comprises: a first connector module comprising an insulative housing with a plurality of receiving rooms, a plurality of first connectors respectively received into the receiving rooms, a first PCB electrically connected to the plurality of first connectors and a metallic shell enclosing the insulative housing; and a second connector module comprising a second PCB formed therein; a flat wire electrically connecting to the first connector module and the second connector module. One end of the flat wire is electrically connected to the first PCB, and the other end of the flat wire is electrically connected to the second PCB.

Abstract: In exemplary implementations of this invention, electrical connections are fabricated between two orthogonal surfaces by electroplating. The two surfaces are separated (except for the electrical connections) by a gap of not more than 100 micrometers. Multiple electrical connections may be fabricated across the gap. In preparatory steps, conductive pads on the two surfaces may be separately electroplated to build up “bumps” that make it easier to bridge the remainder of the gap in a final plating step. Alternately, electroless deposition may be used instead of electroplating. In exemplary implementations, a 3D probe array may be assembled by inserting array structures into an orthogonal base plate. The array structures may be aligned and held in place, relative to the base plate, by mechanical means, including side hooks, stabilizers, bottom hooks, alignment parts and a back plate.

Abstract: An electrical connector for being surface-mounted to a Printed Circuit Board (PCB) and electrically connected with a complementary connector, includes an insulative housing, a number of conductive contacts received in the insulative housing, and a fixing spacer. The insulative housing includes a front main portion defining a receiving space for accommodating the complementary connector. Each conductive contact includes a contacting portion partially exposed into the receiving space for electrically connecting with the complementary connector, and a termination portion extending along a direction parallel to the PCB. The fixing spacer is insert-molded with the conductive contacts.

Abstract: The present invention discloses a spring plate type connector for use in backlight module, which includes a retention base and a plurality of connection bodies. The plurality of connection bodies is integrally formed on the retention base. The retention base includes a corresponding structure of a component contained in the backlight module. The connection body includes: a connection section, which is connected to the retention base; and an engagement section, which extends from the connection section and is connected to a solder pad inside the backlight module. Practicing the spring plate type connector for use in backlight module simplifies the manufacture process of the connector, realizes expanded range of application, and allows of application to connection with backlight modules of various models, thereby improving sharability of the connector and making the backlight module compact and light-weighted.

Abstract: An all-in-one (AIO) computer with a fixed and simple connection includes a panel, a motherboard, and a connector. The connector includes a male connector and a female connector. The male connector is mounted on the motherboard and the female connector is mounted on the panel. The panel communicates with the motherboard through the connector.

Abstract: A power distribution device and a server rack system are provided. The server rack system includes a rack and at least one apparatus disposed therein. The power distribution device distributes electrical power to the apparatus. The power supply device includes a first conducting plate, an insulation layer and a second conducting plate that are sequentially superimposed, and a first and a second power columns inserted in the first and the second plates. The insulation layer is disposed between the first and the second conducting plates. The first and the second power columns are connected to a power supply unit in the rack to obtain electric power therefrom. Each output pin pair includes a first and a second output pins inserted in the first and the second conducting plates. The output pin pairs are connected to the apparatus in the rack to transfer electric power to the apparatus.

Abstract: The present invention can facilitate the coupling between electrical components and a circuit board after the circuit board is inserted into a housing of an electronic device. An electrical component can be integrated with a flexible circuit of another electrical component. The flexible circuit can be electrically and mechanically coupled to the circuit board after the circuit board is inserted into the housing. Alternatively, electrical contacts can be disposed on a body of the electrical component and a complementary set of electrical contacts can be disposed on the circuit board. When the circuit board is disposed within a receptacle of the electrical component, the electrical contacts on the electrical component are coupled directly to the electrical contacts on the circuit board.

Abstract: A substrate connection structure includes: a first substrate having stiffness with a first connector mounted on a front face; a second substrate having stiffness with a second connector detachably attached to the first connector mounted on a front face facing the front face of the first substrate; and a restricting member including a projection portion, the restricting member including a plate-like member and being detachably attachable to the first substrate by being moved along a planar surface of the first substrate, the projection portion projecting from the front face of the first substrate and regulating a position of the second substrate relative to the first substrate in a state in which the restricting member is attached to the first substrate, and limiting a direction in which the second substrate is detached when the second connector mounted on the second substrate is detached from the first connector on the first substrate.

Abstract: A connecting element for electrically conductively connecting two component parts to a conductor, the conductor having at least two conductor elements which are movable relative to one another in the connection direction, wherein a relative movement of the conductor elements results in a radial deformation of at least one of the conductor elements.

Abstract: The power supply includes a first power connector, a power conversion circuit, a control unit and a detection circuit. The first power connector includes a plurality of power terminals and a first detecting terminal. The power conversion circuit is coupled to the power terminals of the first power connector for converting an input voltage into an output voltage. The control unit is coupled to the power conversion circuit for controlling an operation of the power conversion circuit. The detection circuit is coupled to the control unit and the first detecting terminal of the first power connector for detecting if the first detecting terminal is connected or disconnected with a predetermined voltage terminal and correspondingly generating a power transmission status signal to the control unit.

Abstract: A movable contact includes a contact base and a contact body upstanding from an end of the contact base. The holder includes a first holding portion constructed to hold the contact base such that the first holding portion is in contact with one surface of the contact base, the surface being opposite an other surface of the contact base from which the movable contact upstands, a second holding portion constructed to hold the contact base such that the second holding portion is in contact with the other surface of the contact base at a distal end of the contact base with reference to the contact body, and a disengagement-prevention portion provided at a proximal end of the contact base with reference to the contact body, on the one side of the contact base, and spaced away from the contact base, and constructed to prevent the movable contact from being detached from the holder.

Abstract: The present invention relates to an electrical connector (7) designed to be fastened on a daughterboard (5) and to be plugged into a motherboard (3) in a plugging direction (X), comprising: a plurality of contacts (43) including a first end (61) in the plugging direction designed to be in contact with the motherboard, and a second end (63) opposite the first end in the plugging direction and designed to be in contact with the daughterboard, and at least one insulator (33, 35). The connector comprises at least one single-piece fastening device (37, 39, 41), including: a fastening base (67) on which the insulator is mounted, and one or the other, or both, of a fastening tip (65) designed to be fastened on the daughterboard, and a guide tip (69) protruding from the insulator in the plugging direction to be used as a guide during plugging of the connector into the motherboard. The invention also relates to an assembly including the daughterboard and the connector.

Abstract: Board-to-board connectors that may provide a durable and reliable connection, save board space, may be easy to manufacture, and may be simple to use during device assembly. One example may include a receptacle including a number of contacts forming electrical connections with traces or planes in or on a printed circuit board. A boss may be included as part of the receptacle and the boss may be connected to the printed circuit board. An insert may be mated to the receptacle. Contacts in the insert may form electrical connections with traces or planes in a second or flexible circuit board. A cowling may be placed over the flexible circuit board to act as a stiffener. A fastener, such as a screw, may be placed through openings in the cowling, second or flexible circuit board, and insert, and into the boss.

Abstract: A connector assembly includes a housing having a body and a head extending outward from the body. The housing is coupled to an LED circuit board with the head mounted to a front side of the LED circuit board and with the body extending through an opening of the LED circuit board to a rear side of the LED circuit board. The housing has driver card slot in the body configured to receive a driver card from the rear side of the LED circuit board. The housing has a contact channel open to the driver card slot with a contact therein. The contact has a mating interface configured to engage and be electrically connected to the driver card. The contact has a mounting leg extending from the head that is configured to be mounted to the front side of the LED circuit board.

Abstract: Embodiments of the present invention are directed to a modular jack or modular connector mountable on a patch panel and having two openings. A first opening may receive a standard modular plug and a second opening may enable access to the resilient part of the conductive contacts inside the jack by a conductive element. The conductive element may electrically connect the connector to a second connector. The connector may be disconnected from the second connector when a communication plug is inserted into the first opening of the connector.

Abstract: An electrical connector is to be connected to a mating electrical connector in a connecting direction. The electrical connector includes a terminal; and a housing for holding the terminal. The terminal includes a board connecting portion to be connected to a board; a holding portion fixed to the housing; a contact region for contacting a mating contact portion of the mating electrical connector; a contact piece capable of elastically deforming; and a contact portion formed at a distal end portion of the contact piece. The housing includes an inner piece portion and an outer piece portion. The contact piece is disposed between the inner piece portion and the outer piece portion. The outer piece portion includes inner piece holding portions at both sides thereof. The inner piece holding portions are away from each other by a distance greater than a width of the inner piece portion.

Abstract: Stacked flex cable assemblies and their manufacture are described. One assembly includes a first flex cable and a second flex cable electrically coupled to the first flex cable. The assembly also includes a connector electrically coupled to the first flex cable. The first flex cable is positioned between the connector and the second flex cable. Other embodiments are described and claimed.

Abstract: A cable module that utilizes a plurality of multi-wire cables to provide connections between two sets of connectors is disclosed. The module has a first set of connectors intended to mate with mating connectors disposed on a mother board and a second set of connectors intended to mate with a plurality of opposing connectors disposed on a plurality of daughter boards. The mother board generally lies in the same plane as the base of the module, while the daughter boards are oriented generally transverse to the module base. The two sets of connectors are capable of limited movement in the horizontal and vertical directions to give the module assembly blind mate functionality. The second set of connectors is restricted from movement in the depth direction, while the first set of connectors is capable of such movement.

Abstract: A board-to-board connector includes a receptacle connector and a plug connector. The receptacle connector includes a plurality of beam parts having a metal plate and an insulating layer formed on the metal plate and a plurality of conductive patterns formed on the insulating layer of the plurality of beam parts. The plug connector includes a beam contact part having a metal plate and an insulating layer formed on the metal plate and a plurality of conductive patterns formed on the insulating layer of the beam contact part. A beam projection is formed between the adjacent conductive patterns of the plug connector, and the beam projection is inserted between the adjacent beam parts of the receptacle connector when the receptacle connector and the plug connector are mated.

Abstract: A straddle mount electrical connector with fusible elements is provided. The electrical connector can include a connector housing including a housing body that supports element support members that define a receptacle configured to receive a complementary electrical component therein. Each element support member can support a respective plurality of fusible elements, and each fusible element can be connected to a respective electrical contact supported by the connector housing. The pluralities of fusible elements can define a mounting interface of the electrical connector. The mounting interface can be configured to receive printed circuit boards of varying thicknesses.

Abstract: A broadside coupled connector assembly has two sets of conductors, each separate planes. By providing the same path lengths, there is no skew between the conductors of the differential pair and the impedance of those conductors is identical. The conductor sets are formed by embedding the first set of conductors in an insulated housing having a top surface with channels. The second set of conductors is placed within the channels so that no air gaps form between the two sets of conductors. A second insulated housing is filled over the second set of conductors and into the channels to form a completed wafer. The ends of the first and second sets of conductors and the blades are jogged in both an x- and y-coordinate to reduce crosstalk and improve electrical performance.

Abstract: Computational enclosures may be designed to distribute power from power supplies to load units (e.g., processors, storage devices, or network routers). The architecture may affect the efficiency, cost, modularity, accessibility, and space utilization of the components within the enclosure. Presented herein are power distribution architectures involving a distribution board oriented along a first (e.g., vertical) axis within the enclosure, comprising a power interconnect configured to distribute power among a set of load boards oriented along a second (e.g., lateral) axis and respectively connecting with a set of load units oriented along a third (e.g., sagittal) axis, and a set of power supplies also oriented along the third axis. This orientation may compactly and proximately position the loads near the power supplies in the distribution system, and result in a comparatively low local current that enables the use of printed circuit boards for the distribution board and load boards.