Abstract: The present disclosure relates to a KVM appliance for preventing the passing of status information between a target computer, which is in communication with the KVM appliance, and a peripheral of a user. The KVM appliance may comprise a housing, an indicator supported on the housing, and a main processing unit (MPU) for receiving status information. The MPU monitors status information received by it and determines when the received status information is of a specific type which is used to set the indicator, which in turn apprises the user of a real time status of a feature of the peripheral. When the status information is identi fled as being of the type to set the indicator, it is then used to set the indicator to indicate the real time status of the feature to the user of the peripheral.

Abstract: A remote access appliance is disclosed for facilitating communications between a managed device and a user located remotely from the appliance and from the managed device. The appliance may have a processor adapted to facilitate the communication of keyboard, video and mouse information between the appliance and the managed device. A manageability subsystem may be incorporated for communicating with the managed device and collecting information concerning operation of the managed device, without the need to first transmit the information over a network.

Abstract: A system for monitoring and detecting identities of electronic devices, where each of the electronic devices generates unique power up signature during its power up sequence. The system may make use of a plurality of power outlets that each has a specific identification designation, with each one of the electronic devices being assigned to a specific one of the power outlets. A processor may be used which is configured to read the power up signature of a given one of the electronic devices during its power up sequence, when the given electronic device is plugged into a given one of the power outlets and is powering up. The processor may use a stored power up signature for the given power outlet, together with the power up signature read for the given electronic device, to determine if the given electronic device is using its assigned power outlet.

Abstract: A remote access appliance (“appliance”) is disclosed which includes an autosensing subsystem that automatically senses when an Ethernet device or a serial device has been connected to it. The appliance then automatically configures one or more internal components to operate with the sensed/connected Ethernet device or serial device. When a serial device connection is detected, the appliance is further able to automatically detect which one of two different, predetermined pinout configurations is being used by the serial device, and to automatically configure one or more internal components to accommodate the detected pinout configuration.

Abstract: In one aspect the present disclosure relates to a remote access appliance for facilitating communications between a managed device and a user located remotely from the managed device. The appliance may have a processor adapted to facilitate the communication of keyboard, video and mouse information between the appliance and the managed device. A rack data unit (RDU) subsystem may be used which is adapted to manage communications with, and to receive sensor data directly from, at least one remotely located sensor located at the managed device, without the need to transmit the sensor data over a network. An interface may also be used for interfacing the appliance to the managed device.

Abstract: A security monitoring system is disclosed which is adapted for use with a component having a service processor. The system may use a device configured to communicate with the component. A network may be used which is dedicated to communicating with the service processor for routing only data concerning performance or health of the component. The device may also use at least one sub-system for analyzing the data concerning health or performance of the component to determine if a security threat has affected operation of the component.

Abstract: A method is disclosed for exposing virtual disk images on a user device, which is running an HTML5 KVM/vMedia client in a Web browser, and which has established a KVM session with a KVM device associated with a remote device. A selected disk image file is initially obtained by the user device and a message sent to the remote device that the disk image file is available for use. The HTML5 KVM/vMedia client exposes the disk image file for use to the remote device, which sends a message to the HTML5 KVM/vMedia client requesting a specific portion of the disk image file. The HTML5 KVM/vMedia client receives the message and a script engine running in the Web browser creates a new file available to the Web browser of just the portion requested by the remote device, which is then transmitted to the remote device.

Abstract: An electronic device is disclosed having a touchscreen display. The electronic device may incorporate an application running on the electronic device, the application being configured to generate a field on the touchscreen display (“display”) that requires a user to enter keystroke information into the field. The application may incorporate a virtual keyboard display control subsystem (“subsystem”) configured to determine if generation of the virtual keyboard on the display will obscure the field when the field is being displayed on the display. The subsystem may also automatically scroll the field to a location on the display when the virtual keyboard is generated on the display, such that the virtual keyboard does not obscure the field as the user enters keystroke information into the field using the virtual keyboard.

Abstract: A remote access appliance (“appliance”) having a backup power subsystem for powering a digital rack interface pod (“DRIP”) that is interfacing the appliance to a remote device. The backup power subsystem may involve the use of at least one shunt regulator subsystem that is adapted to control backup power to the DRIP in the event the DRIP loses power from a USB port of the remote device while a session is in progress with the remote device. The backup power subsystem automatically applies and regulates the power available to the power pins on the RJ-45 port of the appliance to power the DRIP. In the event the DRIP is unplugged form the RJ-45 port of the appliance while backup power is being drawn by the DRIP, the backup power subsystem virtually immediately removes power being applied to the predetermined pins of the RJ-45 port of the appliance.

Abstract: A digital rack interface pod (DRIP) that is able to establish a communications link between a remote access appliance and a server having a USB port and a video port, to facilitate a keyboard/video/mouse (KVM) session between the server and the appliance. The DRIP is also able to establish a communications link between the appliance and an Ethernet port of the server that is associated with a service processor (SP) of the server. In this manner the DRIP is able to route data from the SP of the server to the appliance as well as communications from the appliance to the SP Ethernet port of the server. The DRIP is able to intelligently determine which packets of information received from the appliance are intended for the SP Ethernet port of the server and routes those packets to the SP Ethernet port of the server.

Abstract: An intelligent power control system and method adapted for use with a digital rack interface pod (DRIP). A switching regulator generates a set output voltage. If power is available from a USB port of an external device, such as an external server, then the system uses this power to power the DRIP. If DC power is detected as being received on a different input from an external power transformer, then the system may still continue to use the power being received from the USB port to power the DRIP. If power from the USB port of the external device is lost but power from the external transformer is present, then the system may use the power available from the external transformer to power the DRIP.

Abstract: A method is disclosed for forming a distributed data store using a remote access appliance associated with a data center infrastructure management (DCIM) system. Data may be generated which is associated with operation of managed device being monitored by the DCIM system. At least one remote access appliance may be used to receive the data. An element library framework may be used by the remote access appliance to generate events from the data. The remote access appliance may also be used to implement a complex event processing subsystem to analyze the events and to generate event related signals therefrom. A bus may be used to transmit the event related signals from the appliance to a common platform services (CPS) subsystem of the DCIM system. The CPS subsystem may be used to receive the event related signals and to use the event related signals to inform the user of an aspect of performance of the managed device.

Abstract: A system for identifying which equipment slots of an equipment enclosure have equipment components located in them when specific equipment components containing radio frequency identification (RFID) tags thereon are inserted into specific ones of the equipment slots. The system may use a plurality of antenna elements that wirelessly sense the presence of an RFID tag at any of the equipment slots, and which generate outputs that may be interpreted as forming a plurality of codes. Each code is uniquely associated with a specific one of the equipment slots. A decoder system may read the output signals from the antenna elements to thus obtain the code and determine which specific ones of the equipment slots that an RFID tag was sensed at.

Abstract: The present disclosure relates to a server that makes use of a host central processing unit (CPU) which accesses a production network to enable communications with a remotely located subsystem using the production network. A USB host system may be operably associated with the host CPU. A service processor may also be incorporated in the server, which is configured to communicate with an out of band network. A service processor USB system may be operably associated with the service processor and may communicate with the USB host system. This enables access to either an operating system or a hypervisor running on the host CPU via the out of band network, using an Ethernet-over-USB protocol.

Abstract: A data center infrastructure management (DCIM) system having an infrastructure control fabric (ICF) subsystem for enabling a manager component of an independent computing device to communicate directly with the DCIM system. The DCIM system, in one embodiment, may have a manageability subsystem engine for monitoring data being transmitted from the independent computing device. A domain model may be included that has an extension relating to information on the independent computing device. A services server may be used which provides a shared services infrastructure layer.

Abstract: A system for monitoring, controlling and optimizing power usage and cooling utilization within a data center infrastructure. The system may make use of a subsystem which is adapted to obtain real time information on both facility devices and information technology (IT) devices. The subsystem may be used to evaluate the real time information to provide an alert and diagnostic information with respect to at least one of the facility devices or at least one of the IT devices. The subsystem may also make use of a mechanism that provides real time control over at least one of the facility devices or at least one of the IT devices to optimize at least one of cooling utilization, power usage or performance of at least one of the facility devices or at least one of the IT devices.

Abstract: A system for monitoring and detecting identities of electronic devices, where each of the electronic devices generates unique power up signature during its power up sequence. The system may make use of a plurality of power outlets that each has a specific identification designation, with each one of the electronic devices being assigned to a specific one of the power outlets. A processor may be used which is configured to read the power up signature of a given one of the electronic devices during its power up sequence, when the given electronic device is plugged into a given one of the power outlets and is powering up. The processor may use a stored power up signature for the given power outlet, together with the power up signature read for the given electronic device, to determine if the given electronic device is using its assigned power outlet.

Abstract: A system is disclosed that forms a base platform that enables a plurality of objects to be used in forming a plurality of different domain models. The system may have a common data model repository (CDMR) having an object relational mapping layer for mapping instances of the objects to persistent storage. The instances of objects may represent information that includes connections and control capabilities for at least certain ones of the instances of objects, and the CDMR may implement the connections and control capabilities in relation to managed elements.

Abstract: The present disclosure is directed to a system for controlling a plurality of managed devices. The system may involve a manageability services module adapted to facilitate communication between the plurality of managed devices and a central user located remotely from the plurality of managed devices. The system may also involve a manageability engine module that communicates with the manageability services module. The manageability engine module may have an element library storing parameters associated with the plurality of managed devices, and may be configured to perform a number of useful operations such as: facilitating communication between the managed devices and the manageability services module; discovering a new managed device; and collecting, aggregating and providing real time analytics on the data collected from the managed devices. A database may be used to store data collected by the manageability engine module.

Abstract: An intelligent power control system and method adapted for use with a digital rack interface pod (DRIP). A switching regulator generates a set output voltage. If power is available from a USB port of an external device, such as an external server, then the system uses this power to power the DRIP. If DC power is detected as being received on a different input from an external power transformer, then the system may still continue to use the power being received from the USB port to power the DRIP. If power from the USB port of the external device is lost but power from the external transformer is present, then the system may use the power available from the external transformer to power the DRIP.