Abstract: An information processing apparatus includes an interface configured to be connected with a connection apparatus, an acquisition unit configured to acquire apparatus information including a configuration or an operation specification of the connection apparatus connected with the interface, a determination unit configured to determine a control program to control the connection apparatus according to the apparatus information, and a control unit configured to use the determined control program to control the connection apparatus, wherein the connection apparatus includes an expansion connection unit and an expansion apparatus connected with the expansion connection unit, and the acquisition unit includes a first acquisition unit configured to acquire first information including a configuration or an operation specification of the expansion connection unit connected with the interface, and a second acquisition unit configured to acquire second information including a configuration or an operation specification

Abstract: A motherboard includes a platform controller hub (PCH) chip, a connector, and a switch chip. The PCH chip includes a first group of pins and a second group of pins. The switch chip is connected to either the first group of pins or the second group of pins according to a type of a card connected to the connector.

Abstract: According to one embodiment, first monitor controller of electronic circuit board recognizes free slot into which the electronic circuit board has been hot-inserted, notifies host control device of start together with slot information causes first parameter setting module to change reception parameter of first T/R circuit module. The host control device instructs switch processing board to change transmission parameter, in response to slot information and start notification. Second monitor controller of the switch processing board causes second parameter setting module to change transmission parameter of second T/R circuit module, in accordance with an instruction from the host control device.

Abstract: The present invention relates to a new design for an extensible architecture for a rack-mounted network attached storage. In one embodiment, the design employs a riser card for a rack-mounted network attached storage. The riser card provides multiple, e.g., four, eight, etc., SATA connections from a PCIe bus on the motherboard. In addition, the riser card may provide power connections and a fan controller. In addition, the riser card supports dual-power inputs from multiple power supply sources. In one embodiment, the riser card can share power from AC power from the rack and a DC input to receive power from an external power supply.

Abstract: An ExpressCard adapter able to accept a PCI-E-type or a USB-type ExpressCard in a single ExpressCard slot includes the ExpressCard slot, a PCI-E port, a data conversion unit, a switch unit, and a detection unit. The data conversion unit is connected to the PCI-E port, and converts between USB data and PCI-E data. The switch unit connects the ExpressCard slot to the PCI-E port or to the data conversion unit. The detection unit detects the type of ExpressCard which is inserted and controls the switch unit to connect the ExpressCard slot either to the PCI-E port or to the data conversion unit as required.

Abstract: Provided is an apparatus including a first storage device. The apparatus also includes an expansion slot configured to receive a removable card with a second storage device. The removable card with the second storage device is configured to provide faster read/write times to the second storage device than read/write times of the first storage device. The first and second storage devices are seen as a single storage device by a host computing device.

Abstract: A supplemental power system includes a powered component, a removable module interface with a plurality of pins, and a plurality of system connections. A system controller detects a first type removable module coupled to the removable module interface and allows signals from the system connections to be transmitted to the first type removable module through the plurality of pins. The system controller detects a second type removable module coupled to the removable module interface and allows power from the second type removable module that is received through the plurality of pins to be transmitted to the powered component while not allowing signals from the system connections to be transmitted to the second type removable module through the plurality of pins. Power that is stored in the second type removable module may be provided to the powered component in response to a detected power excursion by the powered component.

Abstract: Approaches for a non-volatile, solid-state storage system that is capable of supporting high bandwidth and/or random read/write access. The storage system may include a chassis having a bus slot and a disk bay, a master card mounted in the bus slot, and a flash memory card stacked in the disk bay and cabled to the master card. The master card enables one or more flash memory cards to be communicatively coupled to a single PCI Express bus. The master card may split a multi-lane PCI Express bus into a plurality of lanes, where one or more of the flash memory cards communicate over each of the plurality of lanes. Alternately, the master card may includes active circuitry for processing, switching, routing, reformatting, and/or converting the PCI Express bus into one or more busses for a plurality of flash memory cards. The stacked flash memory card is not in an enclosure.

Abstract: A controller and method for memory aliasing for different flash memory types are presented. In one embodiment, a controller is presented having one or more interfaces through which to communicate with a plurality of memory dies, wherein at least one of the memory dies is of a different memory type than the other memory dies. The controller also has an interface through which to communicate with a host, wherein the interface only supports commands for a single memory types. The controller further contains a processor that is configured to receive a logical address and a command from the host, determine which memory die is associated with the logical address, and translate the command received from the host to a form suitable for the memory type of the memory die associated with the logical address.

Abstract: A mounting structure for a data storage device includes a receiving member and a fastening member. The receiving member has a bottom wall and a side wall and the data storage device is located between the bottom wall and the side wall. The bottom wall has a first edge and a second edge adjacent to each other. The fastening member is disposed inside the receiving member and can rotate pivotally between the first edge and the second edge. The fastening member includes a rod member, a hook and an elastic piece. When the data storage device is enclosed in the receiving member, the rod member and the elastic piece sandwich and lean against the data storage device and the hook clasps on the data storage device. When the hook is off the data storage device, the elastic piece pushes the data storage device out from the receiving member.

Abstract: There is provided a method and apparatus for bus negotiation. One such method includes determining a configuration of a first bond pad, the first bond pad indicating whether a host is configured to communicate with a fixed data storage device or a removable data storage device. If the first bond pad indicates the host is configured to communicate with a fixed data storage device, then the method additionally includes determining the configuration of a second bond pad. The second bond pad indicates the supported bus width of the fixed data storage device.

Abstract: The embodiments of this invention relate to an electronic device (9) intended to be installed in a portable device (1), which electronic device comprises: • a microcontroller (13) configured to communicate with a first interface (5) of the portable device in accordance with a first protocol, the said first interface (5) supplying power voltage to the microcontroller, the said power voltage being standardised by the said first protocol, • a secure electronic chip component (15) configured to communicate with a second interface (7) of the portable device in accordance with a second protocol, the said second interface (7) supplying power voltage to the secure component, the said power voltage being standardised by the said second protocol, • means for communication (17) between the secure component (15) and the microcontroller (13), in which the means for communication comprise a module for voltage adaptation (19) depending on the power voltages supplied by the first and second interfaces.

Abstract: The present invention discloses a method and an apparatus for node hot-swapping, which simplify the node hot-adding procedure, and improve the operation efficiency of the hot-adding procedure. The present invention includes: obtaining, by a server from a baseboard management controller BMC of a node device to be added, static hardware information of the node device to be added, and storing it into a storage device of the server, where the static hardware information is obtained through an out-band channel by the BMC of the node device to be added; receiving, by the server, a node hot-adding command sent by a user, where the hot-adding command carries identifier information of the node device to be added; obtaining the static hardware information of the node device to be added corresponding to the identifier information from the storage device; and adding, according to the static hardware information, the node device to be added.

Abstract: Integrating removable storage devices is disclosed. A described method includes retrieving an identifier of a removable storage device connected to a computer system and matching the identifier with a device identification stored in a file of the computer system. The file includes an application identifier corresponding to the device identification. The method also includes executing an application corresponding to the application identifier associated with the device identification matched to the identifier.

Abstract: A method for configuring a maximum transmission unit (MTU) value, a terminal and a universal serial bus (USB) data card are provided. The method includes the following steps: after detecting that a connection to a USB data card is established (201), the terminal issuing a request for obtaining an MTU value to the USB data card (202); and after receiving the request, the USB data card writing the MTU value into a local registry (204). After the method is adopted, and after a USB data card connects to a computer, the computer can automatically obtain the MTU value from the USB data card, and automatically configures the value to a user registry, thereby achieving the effect that the data throughput is optimum when accessing under a specific network.

Abstract: A data accessing method, and a storage system and a controller using the same are provided. The data accessing method is suitable for a flash memory storage system having a data perturbation module. The data accessing method includes receiving a read command from a host and obtaining a logical block to be read and a page to be read from the read command. The data accessing method also includes determining whether a physical block in a data area corresponding to the logical block to be read is a new block and transmitting a predetermined data to the host when the physical block corresponding to the logical block to be read is a new block. Thereby, the host is prevented from reading garbled code from the flash memory storage system having the data perturbation module.

Abstract: According to one embodiment, a monitor/control unit of an electronic circuit board monitors the receiving state of a transmitting/receiving circuit unit and controls a parameter setting unit, causing the same to change the reception parameter of the transmitting/receiving circuit unit, and if the receiving state remains not changed to a specified state, the monitor/control unit informs a host control device of this fact. The host control device instructs the switching process board to designate a channel, thereby to change, the specified state, the receiving sate of the electronic circuit board associated with the channel informed of that fact.

Abstract: A data storage architecture extension (DAX) system and method that daisy-chains multiple SATA disk drive storage elements to allow a single host bus adapter (HBA) to view the daisy-chain as one logical SATA disk drive is disclosed. The system/method may be broadly described as comprising a pass-thru disk drive controller (PTDDC) further comprising a pass-thru input (PTI) port, disk drive interface (DDI) port, and pass-thru output (PTO) port. The PTDDC intercepts and translates PTI port input to the requirements of a SATA disk drive connected to the DDI. Each PTDDC may be daisy-chained to other PTDDCs to permit a plethora of SATA drives to be associated with a given HBA, with the first PTDDC providing a presentation interface to the HBA integrating all SATA disk drive storage connected to the PTDDCs. Rack mounting of PTDDC-enabled SATA disk drives enables creation of inexpensive dynamically expandable petabyte-class storage arrays.

Abstract: A cryptographic device may include a cryptographic module and a communications module removably coupled thereto. The cryptographic module may include a first housing, a user Local Area Network (LAN) interface carried by the first housing, and a cryptographic processor carried by the first housing and coupled to the user LAN interface. The communications module may include a second housing and a network wireless LAN interface carried by the second housing. The network wireless LAN interface may be coupled to the cryptographic processor, and it may be switchable between wireless LAN modes.

Abstract: Embodiments of the present disclosure are directed toward an automation control device including a base having a module slot, a functional module including communication and control circuitry configured to communicatively couple with the base via the module slot, a terminal block configured to communicatively couple the base and the first functional module with field wiring, a first power bus configured to transmit a first power to the functional module, and a second power bus configured to transmit a second power to the functional module.

Abstract: An external device and a transmission system and the method of the heterogeneous device can access the USB3.0 and PCI-E at the same time. The external device includes an USB3.0 socket couples to the host. The USB3.0 socket includes a plurality of first pins and a plurality of second pins. The first control module couples to the second pins. The first control module receives an operation signal via from the host. The micro control unit couples to the first control module via the first pins. The micro control unit receives an identify request via the first pins. The micro control unit generates the operating signal and sends the operating signal to the first control module.

Abstract: An electrical circuit for bi-directional power control between two devices, including a mobile communication card, an electronic device that connects to the communication card, the electronic device being either (i) a host device that operates independently of the communication card and also interoperates with the communication card, or (ii) a jacket for the communication card, wherein the jacket is a passive device that does not operate independently of the communication card, and circuitry connecting the mobile communication card with the electronic device, including a device on/off button operative to power the electronic device on and off, and a switch, wherein the circuitry uses a single connection line connecting the communication card, the electronic device, the device on/off button, and the switch, to enable the electronic device to automatically power the communication card on and off using the switch, in response to the electronic device being respectively powered on and off.

Abstract: A modular mass storage system and method that enables cableless mounting of ATA and/or similar high speed interface-based mass storage devices in a computer system. The system includes a printed circuit board, a system expansion slot interface on the printed circuit board and comprising power and data pins, a host bus controller on the printed circuit board and electrically connected to the system expansion slot interface, docking connectors connected with the host bus controller to receive power and exchange data therewith and adapted to electrically couple with industry-standard non-volatile memory devices without cabling therebetween, and features on the printed circuit board for securing the memory devices thereto once coupled to the docking connectors.

Abstract: Architectures and methods for performing big data analytics by providing an integrated storage/processing system containing non-volatile memory devices that form a large, non-volatile memory array and a graphics processing unit (GPU) configured for general purpose (GPGPU) computing. The non-volatile memory array is directly functionally coupled (local) with the GPU and optionally mounted on the same board (on-board) as the GPU.

Abstract: An expansion card includes a PCIe connector, a non-PCIe connector, a signal switching module, and a signal processing module. The signal switching module includes a signal receiving unit and a signal transmitting unit. The PCIe connector is connected to the signal receiving unit and the signal transmitting unit. The non-PCIe connector is connected to the signal receiving unit and the signal transmitting unit. The signal processing module is connected to the signal receiving unit and the signal transmitting unit. Both of the signal receiving unit and the signal transmitting unit maintain receiving a high-level signal, and the PCIe connector is connected to the signal processing module. When both of the signal receiving unit and the signal transmitting unit receive a low-level signal, the non-PCIe connector is connected to the signal processing module.

Abstract: This invention is directed to enhancement of flexibility when connecting an add-in card conforming to the PCI-Express specification. More specifically, the operation mode of the system board of a printing apparatus is configured to cope with both a root-complex and end-point. When an add-in card is inserted into an extension slot, the type of add-in card is discriminated by confirming the ON state of a detection pin. When the inserted add-in card operates as a root-complex, the system board is set to operate as an end-point. When the inserted add-in card operates as an end-point, the system board is set to operate as a root-complex.

Abstract: In execution of hot-plug processing consisting of a plurality of processing steps for connecting an I/O to a host, the hot-plug processing is temporarily stopped upon completion of predetermined processing steps in the hot-plug processing, and the hot-plug processing is resumed once it is detected that connection between the host and the I/O has been established and the host has been enabled to access the I/O.

Abstract: A data processing assembly includes one or more hosts connected to one or more I/O Expansion Drawers. Assignment state information is stored on the Expansion Drawer to convey the assignment state of Expansion Drawer(s) resources to the hosts. The host retrieves the assignment state and, from it, determines, for each Expansion Buss cable connected to the host, the number of Expansion Cards in the Expansion Drawer to configure. A change in the number of Expansion Cards in the expansion apparatus may necessitate a change in the assignment state, which can be electronically accommodated (as opposed to a manual reconfiguration). Similarly, a failure of an Expansion Buss cable is addressed by electronically reassigning resources to another host or to the same host over a different Expansion Buss cable without the need for further manual intervention. The assembly is capable of verifying correct cable connection between a host and the Expansion Drawer.

Abstract: A data transfer apparatus includes a first connection unit, a second connection unit, a first storage unit, a second storage unit and a processor. The first connection unit is connected to a network card. The second connection unit is connected to a board on which a processor and a memory are mounted. The processor obtains an identifier of the network card connected to the first connection unit. The first storage unit stores a first identifier obtained by the processor. The second storage unit stores a second identifier different from the first identifier obtained by the processor when the first identifier is stored in the first storage unit. When the second identifier is assigned to data input from the first connection unit, the processor replaces the second identifier assigned to the data with the first identifier, and outputs the data via the second connection unit.

Abstract: A system of implementing devices in a system. At least some of the illustrative embodiments are systems comprising a plurality of devices of a first type coupled to a coupling medium, and a first and second slots (where each slot enables coupling of a device of a second type to the coupling medium). The first and second slots accept second type devices one each in each slot, and the first and second slots accept a single device spanning both slots.

Abstract: The embodiments provide a backplane for a storage device that is readily extensible to accommodate a range storage media. In some embodiments, the controller is provided on a motherboard. In order to support a different numbers of bays, various management riser cards are provided on the motherboard to expand the capacity of the backplane while still using the same controller. The backplane supports a serial addressing scheme and shift registers to identify ports connected to the storage device controller to allow for different numbers of storage media to be connected to the motherboard. This allows the storage device controller to use the same addressing protocol and software for any number of drive bays.

Abstract: An adaptor for detachable connection with a first power supply unit (PSU) and a second PSU to augment the power delivered to a computer system is described. The adaptor may include a power connector configured for detachable connection with a complementary connector of the first PSU, a motherboard connector configured for detachable connection with a complementary connector of the second PSU, and a circuit between the power connector and the motherboard connector. The circuit may comprise a switch, and the circuit can be configured to, in response to an energization of the first PSU by the computer system, automatically close the switch and pass a signal through the closed switch and the motherboard connector for receipt by the second PSU for causing the second PSU to turn on to thereby augment the computer system with power from the second PSU.

Abstract: An all-in-one SATA interface storage device comprising: an interface board installed on a motherboard; a first memory card slot which is a CFast slot fixed on the interface board for installation of a CFast card; a second memory card slot fixed on the interface board and available to CF-SATA and CFEX cards for installation of either a CF-SATA card or a CFEX card. As such, the present invention facilitates applications of multiple storage devices via its SATA interfaces linking a host system, providing a user more convenient new storage devices, and creating higher value-added services by lowering costs.

Abstract: A data storage architecture extension (DAX) system and method that daisy-chains multiple SATA disk drive storage elements to allow a single host bus adapter (HBA) to view the daisy-chain as one logical SATA disk drive is disclosed. The system/method may be broadly described as comprising a pass-thru disk drive controller (PTDDC) further comprising a pass-thru input (PTI) port, disk drive interface (DDI) port, and pass-thru output (PTO) port. The PTDDC intercepts and translates PTI port input to the requirements of a SATA disk drive connected to the DDI. Each PTDDC may be daisy-chained to other PTDDCs to permit a plethora of SATA drives to be associated with a given HBA, with the first PTDDC providing a presentation interface to the HBA integrating all SATA disk drive storage connected to the PTDDCs. Rack mounting of PTDDC-enabled SATA disk drives enables creation of inexpensive dynamically expandable petabyte-class storage arrays.

Abstract: An expansion card includes a peripheral component interconnect express (PCIe) slot, a PCI expansion controller, a PCIe/serial advanced technology attachment (PCIe/SATA) converter, a hard disk drive (HDD) controller, and a storage chip. An edge connector is arranged on a bottom side of the expansion card and includes power pins, ground pins, and signal pins. The power pins are connected to power pins of the PCIe slot, the PCIe expansion controller, the PCIe/SATA converter, the HDD controller, and the storage chip. The signal pins are connected to the PCIe expansion controller. The PCIe expansion controller expands a PCI signal into PCI signals and provides the PCI signals to the PCIe slot and the PCIe/SATA converter. The PCIe/SATA converter converts the PCI signal to SATA signals and provides the SATA signals to the HDD controller. The HDD controller controls the storage chip to read or write data.

Abstract: Examples disclosed herein relate to conversion of an object for a hardware device into health control information. Examples include acquiring, from an object-oriented database, an object for a hardware device including an operational parameter value determined by the hardware device. Examples further include converting the object into health control information useable by a health controller.

Abstract: A method for setting a working mode of a multi-processor system includes: detecting, after a current board is inserted into a slot of the backplane, whether an associated board exists on the backplane; detecting, if the associated board exists, whether the associated board is in an independent working state; powering on the current board according to a slave working mode if the associated board is not in an independent working state, so as to work coordinately with the associated board; detecting, within a predetermined detection time if the associated board does not exist, whether a board is inserted into another slot of the backplane except the slot of the master board; and powering on the current board according to a master working mode if it is detected that the board is inserted, so as to work coordinately with the board in the other slot.

Abstract: A removable expansion interface device comprising: a motherboard; a system slot which is installed on and electrically connected to the motherboard and develops an accommodation space; a carrier which is a printed circuit board held in the accommodation space and electrically connected to the system slot; an expansion slot installed on and electrically connected to the carrier and develops a plug-in space. As such, the present invention relies on removable design to match an interface device to be used and realize lowered costs and spatial and economic efficiency. Furthermore, the present invention is based on a motherboard without extra cost and has significant advantages such as applications of new storage devices, expansion of other functions, time and cost efficiency, lowered complexity, and industrial applicability.

Abstract: Disclosed is a storage device interface. The storage device interface includes a plurality of PCIe device request engines. These PCIe device request engines receive I/O commands formatted for a respective one of a plurality of PCIe storage device communication standards. The storage device interface also includes a plurality of PCIe device completion engines. These PCIe device completion engines receive notifications of command completions from a plurality of PCIe storage devices that communicate using the aforementioned plurality of PCIe storage device communication standards. These notifications are validated. If an error is detected, processing of notifications of command completions associated with that device are blocked until the error is resolved. The plurality of PCIe device request engines and the PCIe device completion engines operate concurrently to process received I/O commands and received command completions.

Abstract: A high-security card slot module which is installed on a motherboard and comprises a CFEX slot and a CFEX card: the CFEX card is provided with a networking chip in which network enabling parameters are saved. As such, a user is able to successfully access a network with the CFEX card inserted in the motherboard for upgraded security protection; moreover, the CFEX card is further provided with a flash memory in which BIOS for booting as secondary backup BIOS is saved for the motherboard with redundant functions.

Abstract: In one example, a network device includes a network interface that receives a packet, a storage card that stores session data for monitored network sessions, a plurality of service processing cards that process packets of respective subsets of the network sessions, wherein each of the service processing cards comprises a respective memory to store session data for the respective subset of the network sessions processed by the corresponding service processing card, and a switch fabric coupled to the network interface, the storage card, and the plurality of service processing cards. One or more of the plurality of service cards process the received packet based on the session data stored by the storage card. The one or more of the plurality of service cards retrieve the session data for the network session to which the packet corresponds from the storage card and store the retrieved session data in the respective memory.

Abstract: An RFID card includes a smartcard controller that receives power from a host device. The RFID card also includes a small inductive device capable of inductive coupling with an RFID reader. The small inductive device is small enough to fit in the form factor of a memory card or SIM card. Enhancement circuits enhance the usable read and write distance of the RFID card.

Abstract: A motherboard assembly able to use a PCI slot either to expand system function or for the installation of additional memory includes a motherboard and a storage device. The motherboard includes a PCI expansion slot, a platform controller hub (PCH), and a power circuit. The PCI expansion slot includes a protrusion, four idle pins and first signal pins connected to the PCH, and first power pins connected to the power circuit. A control chip, a number of storage chips connected to the control chip, and a power unit are arranged on the storage device. A non-central notch is included in an edge connector arranged on a bottom edge of the storage device and the edge connector allows for power pins connected to the power unit and signal pins connected to the control chip.

Abstract: An expansion card assembly includes a first expansion card with a first circuit board, a first expansion slot, and a second expansion card with a second circuit board. A first edge connector is arranged on a bottom edge of the first circuit board and is inserted into a second expansion slot of a motherboard. A second edge connector is arranged on a top edge of the first circuit board and is inserted into the first expansion slot. A third edge connector is arranged on a bottom edge of the second circuit board and is electrically connected to pins of the first expansion slot opposite to the first expansion card.

Abstract: A connector comprising one or more circuits and/or processors is operable to determine characteristics of an attached corresponding connector, an attached cable and/or a channel established via the corresponding connector and/or cable. The characteristics are stored in a register on the connector and/or communicated via a pin connection to a host and/or upstream device. Ganged connectors may communicate via a shared pin. Sensing pins in the connector detect presence of a shield on the cable. Cable diagnostics are run on the attached corresponding connector and cable by a PHY device that may be integrated within the connector. The connector may determine characteristics such as cable length, cable grade, presence of shielding, channel characteristics and/or crosstalk on the attached corresponding connector and/or cable. Based on the determined characteristics, a data rate is determined, transmission parameters are auto-negotiated and/or data may be communicated.

Abstract: Various embodiments of a method [800] of distributing configuration information within a predefined set of conjoined blades of a blade partition are described. In one embodiment, a configuration rule at a database for a predefined set of conjoined blades of a blade partition is accessed, wherein conjoined blades within the blade partition are coupled with management processors [805]. A portion of the configuration rule is compared with a hardware configuration of the blade partition [810]. The portion of the configuration information is an identification of the conjoined blades [810]. When the portion of the configuration rule correlates with the hardware configuration, the configuration rule is provided to the management processors of the blade partition [815].

Abstract: A card adapter device includes a card slot for receiving a micro SD card therein; a SD interface for coupling electrically to a portable electronic device; a processing chip including a dynamic switch coupled electrically to the card slot and the SD interface, and a processor unit coupled electrically to the dynamic switch; and a wireless transmission/reception interface coupled electrically to the dynamic switch. Upon receiving a first signal from the wireless transmission/reception interface, the dynamic switch detects an operation mode of the SD interface and upon detecting that the SD interface is in an idle mode, the processor unit converts the dynamic switch to be coupled electrically to the wireless transmission/reception interface, thereby enabling the dynamic switch to transfer the first signal to the card slot, which, in turn, enables the wireless transmission/reception interface to access into the SD card.

Abstract: A simulation card is configured to insert into an insertion slot, and the insertion slot is connected to a main chip via an Inter-Integrated Circuit (I2C) bus. The simulation card includes a slave chip, a connecting unit, an address setting unit. The connecting unit is connected to the slave chip and the insertion slot. The address setting unit is coupled to the slave chip and configured to match an address of the slave chip with an address of the insertion slot. The slave chip is configured to be in communication with the main chip, to get signal transmission data of the I2C.

Abstract: A telecommunications chassis includes an array of mezzanine card interfaces and a carrier module coupled to the mezzanine card interfaces to control and manage mezzanine cards connected to the mezzanine card interfaces.

Abstract: A device comprising an adapter card and a motherboard interface for coupling the adapter card to a motherboard. In some embodiments, the motherboard interface may be configured to transmit data between the adapter card and the motherboard. In some embodiments, the motherboard interface may be configured to supply power from the motherboard to the adapter card. In some embodiments, the device further comprises an external interface for coupling the adapter card to an external environment of a system associated with the motherboard. In some embodiments, the external interface is a non-peripheral connect interface slot and is configured to transmit data between the external environment of the system and the adapter card.