Abstract: In one embodiment, the present disclosure includes a mobile computing device. The mobile computing device includes a communication interface, one or more sensors, a memory, and an electronic processor. The electronic processor is configured to detect a remuneration trigger event, retrieve sensor data from a sensor data repository in response to detecting the remuneration trigger event, determine whether a user of the mobile computing device intended to perform a remuneration action by applying a user intention model to the sensor data, generate remuneration credentials in response to determining that the user of the mobile computing device intended to perform the remuneration action, and control the communication interface to transmit the remuneration credentials to the terminal device to complete the remuneration action.

Abstract: Systems and methods are provided for use in distributing payment transaction notifications. One example computer-implemented method includes identifying, by a computing device, transaction data for a transaction associated with a child token and identifying, in a token data structure, a parent token, which is different than the child token and which is associated with the child token. The computer-implemented method also includes determining that the parent token is enrolled for notifications and then, based on determining that the parent token is enrolled for notifications, transmitting, by the computing device, a notification to a communication device associated with the parent token, the notification indicative of the transaction and including at least a portion of the transaction data.

Abstract: Systems and methods are provided for use in distributing payment transaction notifications. One exemplary method includes identifying, by a computing device, transaction data for a transaction associated with a child token to a group payment account and identifying, by the computing device, in a data structure, a parent token with which the child token is associated. The parent token is enrolled to receive a notification for the transaction associated with the child token. As such, the method further includes transmitting, by the computing device, a notification to a communication device of a group member associated with the parent token in response to the transaction involving the child token, where the notification includes transaction data associated with the transaction such that the transaction is thereby identified to the group member along with the associated transaction data.

Abstract: A method for distributing controlled tokens to a secondary mobile device includes: storing account profiles, each including an account identifier, set of token credentials, and an associated mobile device identifier; receiving a token distribution request from a first mobile device including a first mobile device identifier, recipient mobile device identifier, specific account identifier, and account controls; identifying a specific account profile including the specific account identifier and first mobile device identifier; generating a single use identification value and reservation identifier; transmitting the single use identification value to the first mobile device; transmitting the reservation identifier to a second mobile device associated with the recipient mobile device identifier; receiving the reservation identifier and the single use identification value from the second mobile device; verifying the reservation identifier and single use identification value received from the second mobile device;

Abstract: A method for distributing controlled tokens to a secondary mobile device includes: storing account profiles, each including an account identifier, set of token credentials, and an associated mobile device identifier; receiving a token distribution request from a first mobile device including a first mobile device identifier, recipient mobile device identifier, specific account identifier, and account controls; identifying a specific account profile including the specific account identifier and first mobile device identifier; generating a single use identification value and reservation identifier; transmitting the single use identification value to the first mobile device; transmitting the reservation identifier to a second mobile device associated with the recipient mobile device identifier; receiving the reservation identifier and the single use identification value from the second mobile device; verifying the reservation identifier and single use identification value received from the second mobile device;

Abstract: A method for distributing controlled tokens to a secondary mobile device includes: storing account profiles, each including an account identifier, set of token credentials, and an associated mobile device identifier; receiving a token distribution request from a first mobile device including a first mobile device identifier, recipient mobile device identifier, specific account identifier, and account controls; identifying a specific account profile including the specific account identifier and first mobile device identifier; generating a single use identification value and reservation identifier; transmitting the single use identification value to the first mobile device; transmitting the reservation identifier to a second mobile device associated with the recipient mobile device identifier; receiving the reservation identifier and the single use identification value from the second mobile device; verifying the reservation identifier and single use identification value received from the second mobile device;

Abstract: Systems and methods for performing multi-message transaction based performance simulations of SoC IP cores within a Network on Chip (NoC) interconnect architecture by accurately imitating full SoC behavior are described. The example implementations involve simulations to evaluate and detect NoC behavior based on execution of multiple transactions at different rates/times/intervals, wherein each transaction can contain one or more messages, with each message being associated with a source agent and a destination agent. Each message can also be associated with multiple parameters such as rate, size, value, latency, among other like parameters that can be configured to indicate the execution of the transaction by a simulator to simulate a real-time scenario for generating performance reports for the NoC interconnect.

Abstract: A vehicle display apparatus for enabling use of a wireless portable electronic device with a vehicle includes a processor, and a display, a transceiver, and memory each coupled to the processor. The memory contains program instructions that, when executed, cause the processor to receive data at the transceiver over a first wireless connection with a wireless headgear apparatus. The wireless headgear apparatus is in communication with the wireless mobile device over a second wireless connection. The program instructions are further configured to cause the processor to display information related to the wireless mobile device on the display based on the received data, to receive a user selection related to operation of the wireless mobile device via a user interface in communication with the processor, and to transmit the user selection to the wireless headgear apparatus.

Abstract: Systems and methods are provided for use in distributing payment transaction notifications. One exemplary method includes identifying, by a computing device, transaction data for a transaction associated with a child token to a group payment account and identifying, by the computing device, in a data structure, a parent token with which the child token is associated. The parent token is enrolled to receive a notification for the transaction associated with the child token. As such, the method further includes transmitting, by the computing device, a notification to a communication device of a group member associated with the parent token in response to the transaction involving the child token, where the notification includes transaction data associated with the transaction such that the transaction is thereby identified to the group member along with the associated transaction data.

Abstract: A method for distributing controlled tokens to a secondary mobile device includes: storing account profiles, each including an account identifier, set of token credentials, and an associated mobile device identifier; receiving a token distribution request from a first mobile device including a first mobile device identifier, recipient mobile device identifier, specific account identifier, and account controls; identifying a specific account profile including the specific account identifier and first mobile device identifier; generating a single use identification value and reservation identifier; transmitting the single use identification value to the first mobile device; transmitting the reservation identifier to a second mobile device associated with the recipient mobile device identifier; receiving the reservation identifier and the single use identification value from the second mobile device; verifying the reservation identifier and single use identification value received from the second mobile device;

Abstract: A vehicle display apparatus for enabling use of a wireless portable electronic device with a vehicle includes a processor, and a display, a transceiver, and memory each coupled to the processor. The memory contains program instructions that, when executed, cause the processor to receive data at the transceiver over a first wireless connection with a wireless headgear apparatus. The wireless headgear apparatus is in communication with the wireless mobile device over a second wireless connection. The program instructions are further configured to cause the processor to display information related to the wireless mobile device on the display based on the received data, to receive a user selection related to operation of the wireless mobile device via a user interface in communication with the processor, and to transmit the user selection to the wireless headgear apparatus.

Abstract: Systems and methods for performing multi-message transaction based performance simulations of SoC IP cores within a Network on Chip (NoC) interconnect architecture by accurately imitating full SoC behavior are described. The example implementations involve simulations to evaluate and detect NoC behavior based on execution of multiple transactions at different rates/times/intervals, wherein each transaction can contain one or more messages, with each message being associated with a source agent and a destination agent. Each message can also be associated with multiple parameters such as rate, size, value, latency, among other like parameters that can be configured to indicate the execution of the transaction by a simulator to simulate a real-time scenario for generating performance reports for the NoC interconnect.

Abstract: Systems and methods for performing multi-message transaction based performance simulations of SoC IP cores within a Network on Chip (NoC) interconnect architecture by accurately imitating full SoC behavior are described. The example implementations involve simulations to evaluate and detect NoC behavior based on execution of multiple transactions at different rates/times/intervals, wherein each transaction can contain one or more messages, with each message being associated with a source agent and a destination agent. Each message can also be associated with multiple parameters such as rate, size, value, latency, among other like parameters that can be configured to indicate the execution of the transaction by a simulator to simulate a real-time scenario for generating performance reports for the NoC interconnect.

Abstract: Example implementations described herein are directed to automatically determine an optimal NoC topology using heuristic based optimizations. First, an optimal orientation of ports of various hosts is determined based on the system traffic and connectivity specification. Second, the NoC routers to which the host's port are directly connected to are determined in the NoC layout. Third, an optimal set of routes are computed for the system traffic and the required routers and channels along the routes are allocated forming the full NoC topology. The three techniques can be applied in any combination to determine NoC topology, host port orientation, and router connectivity that reduces load on various NoC channels and improves latency, performance, and message transmission efficiency between the hosts.

Abstract: Example implementations described herein are directed to automatically determine an optimal NoC topology using heuristic based optimizations. First, an optimal orientation of ports of various hosts is determined based on the system traffic and connectivity specification. Second, the NoC routers to which the host's port are directly connected to are determined in the NoC layout. Third, an optimal set of routes are computed for the system traffic and the required routers and channels along the routes are allocated forming the full NoC topology. The three techniques can be applied in any combination to determine NoC topology, host port orientation, and router connectivity that reduces load on various NoC channels and improves latency, performance, and message transmission efficiency between the hosts.

Abstract: Systems and methods for performing multi-message transaction based performance simulations of SoC IP cores within a Network on Chip (NoC) interconnect architecture by accurately imitating full SoC behavior are described. The example implementations involve simulations to evaluate and detect NoC behavior based on execution of multiple transactions at different rates/times/intervals, wherein each transaction can contain one or more messages, with each message being associated with a source agent and a destination agent. Each message can also be associated with multiple parameters such as rate, size, value, latency, among other like parameters that can be configured to indicate the execution of the transaction by a simulator to simulate a real-time scenario for generating performance reports for the NoC interconnect.