Abstract: Disclosed is an approach for generating interactive visualizations for multi-nodal transfers that may involve terminal nodes and multiple transitional nodes by using various protocols to acquire data from computing systems or devices associated with each node. A first visualization layer comprising a set of geographic or physical indicators in a multi-nodal transfer route (which comprises a set of three or more nodes) may be generated. API protocols (and/or non-API protocols) corresponding to each node in the transfer route may be identified. The protocols may be executed to obtain, from computing systems and devices associated with the nodes, data packets used to generate a second visualization layer, which may comprise graphics that visually depict details of a transfer along the transfer route. An overlay of visualization layers may be displayed such that the graphics are displayed in association with multiple nodes.

Abstract: Disclosed is a system including a content receiver and an antenna coupled to the content receiver. A camera is mounted on the antenna. The content receiver includes a processor and a memory storing instructions that, when executed by the processor, cause the content receiver to: output a control signal to the camera mounted on the antenna, receive image data from the camera mounted on the antenna, determine that the image data received from the camera mounted on the antenna indicates a potential or actual obstruction of the antenna or movement of the antenna, and output a message indicating that the potential or actual obstruction of the antenna or movement of the antenna device has been detected, in response to determining that the image data received from the camera mounted on the antenna indicates the potential or actual obstruction of the antenna or movement of the antenna.

Abstract: Disclosed is a system including a content receiver and an antenna coupled to the content receiver. A camera is mounted on the antenna. The content receiver includes a processor and a memory storing instructions that, when executed by the processor, cause the content receiver to: output a control signal to the camera mounted on the antenna, receive image data from the camera mounted on the antenna, determine that the image data received from the camera mounted on the antenna indicates a potential or actual obstruction of the antenna or movement of the antenna, and output a message indicating that the potential or actual obstruction of the antenna or movement of the antenna device has been detected, in response to determining that the image data received from the camera mounted on the antenna indicates the potential or actual obstruction of the antenna or movement of the antenna.

Abstract: Low-density, thermoplastic foams comprising: (a) thermoplastic polymer cells comprising cell walls comprising polyethylene furanoate, wherein at least about 50% by volume of the cells are closed cells; and (b) at least HFO-1234ze(E) contained in said closed cells.

Abstract: Software development kit (“SDK”) applications may be implemented with user data on an enterprise end-user or shared device subsequent to a single check-out process on the device. A user profile and a context ID for a user can be accessed based on user provided credentials. An agent application can set a value of an agent context ID to a server context ID corresponding to the context ID for the user profile. A status of a local context ID (“LCID”) of an SDK application can be determined in response to an application launch. Using the LCD, a context ID comparison can be performed on the device with a value of a context ID from one of the SDK application, the server, and the agent application based on the LCID status. The SDK application can be implemented with user specific user data obtained from one of the SDK application and the agent application based on a result of the context ID comparison.

Abstract: Software development kit (“SDK”) applications may be implemented with user data on an enterprise end-user or shared device subsequent to a single check-out process on the device. A user profile and a context ID for a user can be accessed based on user provided credentials. An SDK application can be identified as one application of an application cluster including at least two applications. A status of a local context ID (“LCID”) of the SDK application can be determined, and a value for the LCID can be established based on the status and a value of a comparison context ID obtained from a server or an agent application. The LCID and a context ID for a keychain for the application cluster can be compared, and the SDK application can be implemented with user specific user data obtained from the agent application or the keychain based on a result of the comparison.

Abstract: An integrated circuit can include an amplifier coupled to receive an analog input signal, an anti-aliasing filter (AAF) coupled to an output of the amplifier, a buffer circuit coupled to an output of the AAF, a sigma-delta modulator configured to generate a digital data stream in response to an output of the buffer, and a plurality of chopping circuits nested within one another, including a first pair of chopping circuits having at least the amplifier disposed therebetween and configured to remove offset in the analog input signal, and a second pair of chopping circuit having at least the first pair of chopping circuits disposed therebetween. The amplifier, AAF, sigma-delta modulator, and chopping circuits can be formed with the same integrated circuit substrate. Corresponding methods and systems are also disclosed.

Abstract: Disclosed is a system including a content receiver and an antenna coupled to the content receiver. A camera is mounted on the antenna. The content receiver includes a processor and a memory storing instructions that, when executed by the processor, cause the content receiver to: output a control signal to the camera mounted on the antenna, receive image data from the camera mounted on the antenna, determine that the image data received from the camera mounted on the antenna indicates a potential or actual obstruction of the antenna or movement of the antenna, and output a message indicating that the potential or actual obstruction of the antenna or movement of the antenna device has been detected, in response to determining that the image data received from the camera mounted on the antenna indicates the potential or actual obstruction of the antenna or movement of the antenna.

Abstract: Implementations disclosed describe an integrated circuit (IC) having a plurality of reconfigurable analog circuits that include a finite state machine (FSM) logic circuit and further include an interface to receive an input signal. In a first IC configuration, with the plurality of reconfigurable analog circuits having a first configuration setting, the IC may process the input signal through the plurality of reconfigurable analog circuits to generate a first output value based on the input signal. Responsive to the FSM logic circuit processing the first output value, the IC may reconfigure the plurality of reconfigurable analog circuits into a second IC configuration having a second configuration setting.

Abstract: An integrated circuit can include an amplifier coupled to receive an analog input signal, an anti-aliasing filter (AAF) coupled to an output of the amplifier, a buffer circuit coupled to an output of the AAF, a sigma-delta modulator configured to generate a digital data stream in response to an output of the buffer, and a plurality of chopping circuits nested within one another, including a first pair of chopping circuits having at least the amplifier disposed therebetween and configured to remove offset in the analog input signal, and a second pair of chopping circuit having at least the first pair of chopping circuits disposed therebetween. The amplifier, AAF, sigma-delta modulator, and chopping circuits can be formed with the same integrated circuit substrate. Corresponding methods and systems are also disclosed.

Abstract: Implementations disclosed describe a programmable analog subsystem (PASS) having a plurality of reconfigurable analog circuits. The PASS may be coupled to an input/output device to receive an input signal and to an interface to communicate data with a central processing unit. In a first PASS configuration, with the plurality of reconfigurable analog circuits having a first configuration setting, the PASS may process the input signal through the plurality of reconfigurable analog circuits to generate a first output value based on the input signal. Responsive to the first output value, the PASS may reconfigure the plurality of reconfigurable analog circuits into a second PASS configuration having a second configuration setting, such that the second configuration setting is different than the first configuration setting.

Abstract: An integrated circuit can include an amplifier coupled to receive an analog input signal, an anti-aliasing filter (AAF) coupled to an output of the amplifier, a buffer circuit coupled to an output of the AAF, a sigma-delta modulator configured to generate a digital data stream in response to an output of the buffer, and a plurality of chopping circuits nested within one another, including a first pair of chopping circuits having at least the amplifier disposed therebetween and configured to remove offset in the analog input signal, and a second pair of chopping circuit having at least the first pair of chopping circuits disposed therebetween. The amplifier, AAF, sigma-delta modulator, and chopping circuits can be formed with the same integrated circuit substrate. Corresponding methods and systems are also disclosed.

Abstract: A method can include modulating an amplified analog signal into a digital data stream, filtering the digital data stream with a first filter, generating gain control values associated with amplified analog signal based on the filtered data stream with the first filter and filtering the digital data stream with a second filter, and generating output digital values associated with the amplified analog signal based on the filtered data stream with the second filter. Corresponding systems and devices are also disclosed.

Abstract: An integrated circuit can include an amplifier coupled to receive an analog input signal, an anti-aliasing filter (AAF) coupled to an output of the amplifier, a buffer circuit coupled to an output of the AAF, a sigma-delta modulator configured to generate a digital data stream in response to an output of the buffer, and a plurality of chopping circuits nested within one another, including a first pair of chopping circuits having at least the amplifier disposed therebetween and configured to remove offset in the analog input signal, and a second pair of chopping circuit having at least the first pair of chopping circuits disposed therebetween. The amplifier, AAF, sigma-delta modulator, and chopping circuits can be formed with the same integrated circuit substrate. Corresponding methods and systems are also disclosed.

Abstract: A method can include modulating an amplified analog signal into a digital data stream, filtering the digital data stream with a first filter, generating gain control values associated with amplified analog signal based on the filtered data stream with the first filter and filtering the digital data stream with a second filter, and generating output digital values associated with the amplified analog signal based on the filtered data stream with the second filter. Corresponding systems and devices are also disclosed.

Abstract: Aspects of providing single sign on (SSO) sessions are described. An access interval key is generated using an access code as a seed to a key derivative function. The access interval key is encrypted using a public key of an SSO-enabled application to generate an encrypted access interval key for a sign on session. The sign on session is established by storing the encrypted access interval key in a memory location of an SSO session map shared by SSO-enabled applications.

Abstract: Software development kit (“SDK”) applications may be implemented with user data on an enterprise end-user or shared device subsequent to a single check-out process on the device. A user profile and a context ID for a user can be accessed based on user provided credentials. An SDK application can be identified as one application of an application cluster including at least two applications. A status of a local context ID (“LCID”) of the SDK application can be determined, and a value for the LCID can be established based on the status and a value of a comparison context ID obtained from a server or an agent application. The LCID and a context ID for a keychain for the application cluster can be compared, and the SDK application can be implemented with user specific user data obtained from the agent application or the keychain based on a result of the comparison.

Abstract: Software development kit (“SDK”) applications may be implemented with user data on an enterprise end-user or shared device subsequent to a single check-out process on the device. A user profile and a context ID for a user can be accessed based on user provided credentials. An agent application can set a value of an agent context ID to a server context ID corresponding to the context ID for the user profile. A status of a local context ID (“LCID”) of an SDK application can be determined in response to an application launch. Using the LCD, a context ID comparison can be performed on the device with a value of a context ID from one of the SDK application, the server, and the agent application based on the LCID status. The SDK application can be implemented with user specific user data obtained from one of the SDK application and the agent application based on a result of the context ID comparison.

Abstract: Software development kit (“SDK”) applications may be implemented with user data on an enterprise end-user or shared device subsequent to a single check-out process on the device. A user profile and a context ID for a user can be accessed based on user provided credentials. An SDK application can be identified as one application of an application cluster including at least two applications. A status of a local context ID (“LCID”) of the SDK application can be determined, and a value for the LCID can be established based on the status and a value of a comparison context ID obtained from a server or an agent application. The LCID and a context ID for a keychain for the application cluster can be compared, and the SDK application can be implemented with user specific user data obtained from the agent application or the keychain based on a result of the comparison.

Abstract: Software development kit (“SDK”) applications may be implemented with user data on an enterprise end-user or shared device subsequent to a single check-out process on the device. A user profile and a context ID for a user can be accessed based on user provided credentials. An agent application can set a value of an agent context ID to a server context ID corresponding to the context ID for the user profile. A status of a local context ID (“LCID”) of an SDK application can be determined in response to an application launch. Using the LCD, a context ID comparison can be performed on the device with a value of a context ID from one of the SDK application, the server, and the agent application based on the LCID status. The SDK application can be implemented with user specific user data obtained from one of the SDK application and the agent application based on a result of the context ID comparison.