Abstract: Certain aspects direct to systems and methods for distributing segmented media content to digital signage devices in a private network. In certain embodiments, the system includes a Media Content Distribution System (MCDS). Upon receiving an instruction to distribute an item of media content, the MCDS retrieves and segments the item from a storage server, and stores the segments in the storage server. When a first digital signage device requests for a segment, the MCDS transmits a storage link of the requested segment to the first digital signage device. Thus, the first digital signage device may retrieve the requested segment from the storage server, and send an address identifying a storage location of the requested segment stored in the private network back to the MCDS. When a second digital signage device also requests for the same segment, the MCDS transmits the address to the second digital signage device.

Abstract: Disclosed herein are systems, computer-implemented methods, and non-transitory computer-readable media for media content management and deployment. A data store stores available timeslot information data and signage device information data. A demographic information server obtains observation demographic data; generates, based on the observation demographic data, prediction demographic data; receives a demographic request; examines the prediction demographic data; and returns locations and future timeslots that have the predicted demographics satisfying the demographic request. A deployment module obtains campaign parameters for building a campaign and including time parameters, location parameters, and demographic parameters; requests the demographic information server to obtain locations and future timeslots satisfying the demographic parameters; and examines the signage device information data and the available timeslot information data to select candidate timeslots and signage devices.

Abstract: A guest operating system is provided with access to sensor data indicative of a rotation event from sensors associated with a computing device including a processor executing a host operating system. The guest operating system is launched as a virtual operating system and is executed as a guest of the host operating system. Responsive to changed sensor data indicative of the rotation event detected by at least one sensor associated with the computing device, the changed sensor data is sent to a first application associated with the host operating system via at least one driver executing within a kernel of the host operating system. The changed sensor data is sent from the first application to an application framework associated with the guest operating system. The application framework calculates rotation of the computing device based on the changed sensor data. The calculated rotation is sent to a second application associated with the guest operating system.

Abstract: A dual touchpad system is provided. The dual touchpad system includes a first touchpad and a second touchpad. The dual touchpad system also includes an input detection unit coupled to the first and second touchpads and configured to monitor the first and second touchpads for user contact thereon. The dual touchpad system also includes a gesture recognition unit configured to control an electronic device in response to receiving input from the input detection unit indicative of detected contact on the first and/or second touchpads to control the electronic device. The first touchpad is spaced apart from and is non-concentric with the second touchpad in embodiments.

Abstract: Certain aspects of the present disclosure relates to a system having a virtual desktop server (VDS), which may be electrically powered by an electric power supply and an uninterruptable power supply (UPS). The VDS has a processor, a memory, and a storage device storing computer executable code. When executed at processor, the computer executable code is configured to: allocate a portion of storage device to create a data store, allocate a portion of memory to create a random access memory (RAM) disk, detect power status of the VDS, and perform write through cache operations based on the detected power status. In certain embodiments, the write through cache operations include: disabling data write through from RAM disk to data store, when VDS is powered by the EPS and the UPS; and enabling data write through from RAM disk to data store when VDS is electrically powered by UPS only.

Abstract: Systems and methods for processing a financial transaction are provided. A representative system of processing a financial transaction comprises a product dispensing device that encodes and outputs public transaction data related to a purchasable item. A portable computing device receives the public transaction data and encodes a payment data with the received public transaction data. A payment processing server receives and processes the encoded data, and determines whether a transaction can be completed based on the encoded data. Responsive to determining that the transaction is completed, the payment processing server generates and transmits an authentication data based on the encoded data. The portable computing device receives and outputs the authentication data. The product dispensing device receives the authentication data, verifies payment based on the received authentication data, and provides the purchasable item to a customer who is operating the portable computing device.

Abstract: In certain aspects, a media content management and deployment system is provided. A data store stores data specifying available timeslots and locations of signage devices. A front end server sends a user input interface to a remote computing device. The user input interface receives campaign parameters from a user for building a campaign. A deployment module receives the campaign parameters, and examines data in the data store to select candidate signage devices and candidate timeslots of the candidate signage devices from the available timeslots. The user input interface then obtains and displays the candidate timeslots of candidate signage devices for displaying media content, and receives an instruction from the user to claim all of the candidate timeslots for the campaign. Upon receiving a request to claim all of the candidate timeslots, the deployment module generates campaign deployment plan data including data specifying the candidate timeslots and the candidate signage devices.

Abstract: A system includes at least one service device. Each service device has one or more processors, a service email application, and at least one service. The service email application, when executed at the one or more processors of the service device, is configured to retrieve a command email containing at least one command and having an email identifier associated with the service, extract the command from the command email, and send the extracted command to the service such that the service performs a corresponding function based on the extracted first command.

Abstract: A system includes at least one first service device. Each first service device has one or more processors, a service instant messaging (IM) application, and at least one first service. The service IM application, when executed at the one or more processors of the at least one first service device, is configured to receive at least one command instant message, where the at least one command instant message comprises at least one first command associated with the at least one first service, extract the at least one first command from the at least one command instant message, and send the extracted first command to the at least one first service such that the at least one first service performs a corresponding first function based on the extracted first command.

Abstract: In certain aspects, a media content management and deployment system is provided. A data store stores content metadata associated with media content items and specifying a target demographic of each of the media content items. A demographic information server obtains first demographic data specifying a first demographic in a first timeslot at a location of a first signage device, predicts a second demographic in a second timeslot at the location based on the first demographic data, wherein the second timeslot is subsequent to the first timeslot, and generates second demographic data specifying the second demographic. When a deployment module obtains the second demographic data, the deployment module compares the content metadata with the second demographic data, selects a media content item from the plurality of media content items based on the comparison, and sends a media item identification identifying the selected media content to the first signage device.

Abstract: A firmware setup utility executing on a computing system is configured to display a two-dimensional barcode, such as a Quick Response (“QR”) code. The two-dimensional barcode may be encoded with data about the computing system and/or a hyperlink specifying a location from which additional information may be retrieved. Another device, such as a mobile device, may be utilized to scan the two-dimensional barcode, decode the information contained therein, and present the data. If a hyperlink is encoded in the two-dimensional barcode, the device may retrieve the additional information from the specified location and present the retrieved data.

Abstract: Certain aspects direct to systems and methods for providing internal system interface-based bridging support in a server management device. The system includes a server management device and a satellite controller. The server management device has an Intelligent Platform Management Interface (IPMI) stack and a management service module. The management service module, when executed, provides a corresponding management service. Further, a satellite communication is established between the IPMI stack and the satellite controller through a satellite control interface, such as an IPMB interface. In operation, the server management device defines an internal system interface, and configures the internal system interface to establish an inter-process communication (IPC) channel between the IPMI stack and the management service using the internal system interface.

Abstract: Certain aspects direct a distributed Intelligent Platform Management Interface (D-IPMI) system. The system includes a computing device and a distributed management device. The distributed management device includes a first management device and at least one second management device physically separated from each other. A stack interface connects the first management device and the second management device to perform an internal communication between the first management device and the second management device. The first management device may be used to perform time critical functions related to the computing device, and the second management device may be used to perform non-critical functions. For example, the first management device may perform system power control of the computing device, monitor system components and obtaining system information of the computing device, and perform system communication with the computing device.

Abstract: Systems and methods providing a downloadable custom light emitting diode (LED) blinking pattern for a controller, which performs backplane or enclosure management. The controller has a memory, which stores data of a standard LED blinking pattern. When no custom LED blinking pattern data is available in the memory, the controller controls the LEDs to perform a standard blinking pattern based on the standard LED blinking pattern data to indicate the of the storage drives. A user may generate a custom pattern file, which contains custom LED blinking pattern data, and then use a downloading tool to download the custom pattern file to the controller, such that the memory of the controller may store the custom LED blinking pattern data. Instead of using the standard LED blinking pattern, the controller may then control the LEDs to perform a custom blinking pattern based on the custom LED blinking pattern data.

Abstract: Aspects of the disclosure relate to systems and methods for performing communications between a management device and a host computer through a device independent universal serial bus (USB) interface. The system includes a management device communicatively connected to a computing device through a first communication link. In operation, the management device emulates a mass storage device to the computing device through the first communication link, and then identifies the emulated mass storage device as an unsupported mass storage device to the computing device, such that the emulated mass storage device is accessible by the computing device as a bulk-only device. Thus, Intelligent Platform Management Interface (IPMI) communications between the management device and the computing device may be performed using the bulk-only device mechanism.

Abstract: Aspects of the disclosure relate to systems and methods for performing a universal Intelligent Platform Management Interface (IPMI) host-to-baseboard management controller (BMC) communication. The system includes a management device communicatively connected to a computing device through a communication link, such as a universal serial bus (USB) interface. In operation, the management device identifies itself to the computing device as a generic human interface device (HID) pipe device. Thus, a HID channel is established between the management device and the computing device through the USB interface. When the management device receives a first message from the computing device directed toward the generic HID pipe device through the HID channel, the management device may determine whether the message is an IPMI message intended for communicating with the management device. When the message is the IPMI message, the management device processes the IPMI message.

Abstract: Certain aspects direct to a computing device, which include a processor, a microcontroller, a random access memory (RAM) having a frame buffer, a video controller configured to read video data from the frame buffer, and a non-volatile memory. The processor, the microcontroller, the RAM, the video controller, and the non-volatile memory are in communication with each other. The non-volatile memory stores an operating system, a media player, and first video data. The processor is configured to load the operating system to the RAM and execute the operating system. While the processor is loading the operating system, the microcontroller is configured to load and execute the media player into the RAM. The media player, when executed by the microcontroller, is configured to read the first video data from the non-volatile memory, and write second video data representing the first video data to the frame buffer.

Abstract: A system firmware is disclosed that includes a pre-extensible firmware interface initialization (PEI) boot mode module that can determine the presence of a customizable manufacturing mode variable. If the PEI determines that the manufacturing mode variable exists, the computing system may be booted into a manufacturing mode of operation. A computing system booted into a manufacturing mode of operation may be in one of several manufacturing mode states.

Abstract: Certain aspects of present disclosure are directed the present disclosure relates to a baseboard management controller (BMC) implemented method of installation of operating system (OS) on a host computer using virtual storage of BMC. The method includes: (a) receiving a device request from the host computer to access a storage device, (b) simulating the storage device to host computer according to the device request, (c) receiving a data request command from host computer, (d) transferring requested data to the host computer according to the data request command, (e) receiving a data storage command from host computer directed to the simulated storage device and writing a status file at request of the data storage command, (f) determining if the status file exists in the simulated storage, and (g) stopping emulating the storage device to the host computer through the first communication interface if it is determined that the status file exists.

Abstract: Certain aspects direct to systems and methods for performing virtual machine (VM) management to provide efficient user login and minimize resource usage. The system includes a virtual machine server storing a hypervisor and multiple VMs, and a virtual desktop controller. The virtual desktop controller is configured to control the virtual machine server to execute the hypervisor, and to execute at least (M+S) instances of the VMs on the executed hypervisor. When the virtual desktop controller detects a current number X of the executed VMs on the executed hypervisor, the virtual desktop controller determines whether X is greater than M. If X is greater than M, the virtual desktop controller controls the virtual machine server to execute some instances unexecuted VMs as the spare VMs on the hypervisor, such that S instances of the spare VMs are available to provide efficient user login.