Abstract: Methods are provided for generating an estimated number of workflow cycles able to be executed with a remaining battery capacity of a battery in a device. A workflow cycle comprising a predefined series of tasks of a work application executed during a defined timeframe is defined. Beginning battery capacity is determined at start of work application execution. End battery capacity at completion of work application execution is determined. Battery usage estimate associated with work application is calculated from difference between beginning battery capacity and end battery capacity. The estimated number of workflow cycles able to be executed is based on the remaining battery capacity and the battery usage estimate.

Abstract: Methods are provided for generating an estimated number of workflow cycles able to be executed with a remaining battery capacity of a battery in a device. A workflow cycle comprising a predefined series of tasks of a work application executed during a defined timeframe is defined. Beginning battery capacity is determined at start of work application execution. End battery capacity at completion of work application execution is determined. Battery usage estimate associated with work application is calculated from difference between beginning battery capacity and end battery capacity. The estimated number of workflow cycles able to be executed is based on the remaining battery capacity and the battery usage estimate.

Abstract: Methods are provided for generating an estimated number of workflow cycles able to be executed with a remaining battery capacity of a battery in a device. A workflow cycle comprising a predefined series of tasks of a work application executed during a defined timeframe is defined. Beginning battery capacity is determined at start of work application execution. End battery capacity at completion of work application execution is determined. Battery usage estimate associated with work application is calculated from difference between beginning battery capacity and end battery capacity. The estimated number of workflow cycles able to be executed is based on the remaining battery capacity and the battery usage estimate.

Abstract: Methods are provided for generating an estimated number of workflow cycles able to be executed with a remaining battery capacity of a battery in a device. A workflow cycle comprising a predefined series of tasks of a work application executed during a defined timeframe is defined. Beginning battery capacity is determined at start of work application execution. End battery capacity at completion of work application execution is determined. Battery usage estimate associated with work application is calculated from difference between beginning battery capacity and end battery capacity. The estimated number of workflow cycles able to be executed is based on the remaining battery capacity and the battery usage estimate.

Abstract: A mobile device has one or more sensors that are configured to detect the presence of fog or frost on a surface of the mobile device. A battery provides power to the mobile device. An energy transfer element, when activated, removes fog or frost from a surface of the mobile device. A programmed processor, within the mobile device, is programmed to: read one or more sensors disposed in the mobile device to determine if there is a fog or frost condition; upon detecting a fog or frost condition, activating the energy transfer element to remove fog or frost; and upon detecting an absence of the fog or frost condition, deactivating the heater energy transfer element.

Abstract: Methods are provided for generating an estimated number of workflow cycles able to be executed with a remaining battery capacity of a battery in a device. A workflow cycle comprising a predefined series of tasks of a work application executed during a defined timeframe is defined. Beginning battery capacity is determined at start of work application execution. End battery capacity at completion of work application execution is determined. Battery usage estimate associated with work application is calculated from difference between beginning battery capacity and end battery capacity. The estimated number of workflow cycles able to be executed is based on the remaining battery capacity and the battery usage estimate.

Abstract: Wireless peripherals may be used by workers to facilitate communication, data entry, data visualization, safety, and security. Typically, these peripherals must communicate with a back-end system; however, direct communication is often impossible. Instead, the peripherals must communicate through an intermediary device (i.e., a base station) to reach the back-end system. To be most effective, the back-end system must be able to adapt its communication/response to a worker's identity, location, and/or peripherals. To facilitate this, the present invention embraces a peripheral hub, worn by a worker. The peripheral hub uses information regarding the worker and/or his peripherals to generate a peripheral manifest. The peripheral hub can transmit the peripheral manifest to the back-end system via the base station, and using information from the peripheral manifest, the back-end system may communicate/respond appropriately to the worker.

Abstract: Methods are provided for generating an estimated number of workflow cycles able to be executed with a remaining battery capacity of a battery in a device. A workflow cycle comprising a predefined series of tasks of a work application executed during a defined timeframe is defined. Beginning battery capacity is determined at start of work application execution. End battery capacity at completion of work application execution is determined. Battery usage estimate associated with work application is calculated from difference between beginning battery capacity and end battery capacity. The estimated number of workflow cycles able to be executed is based on the remaining battery capacity and the battery usage estimate.

Abstract: A method for managing energy usage by a mobile device is described. An environmental characteristic is monitored over environments in which the mobile device is operable. A location of the mobile device is tracked in relation to the environments. The mobile device is informed with data relating to the environmental characteristic of the environment in which the mobile device location is tracked. A characteristic of the mobile device is sensed. The data, related to the environmental characteristic of the tracked location, is compared to the sensed mobile device characteristic. An action is determined related to the energy-using operation of the mobile device based on the comparison. The energy-using operation of the mobile device is controlled, based on the determined action.

Abstract: A presentation of visual information relates to an accurate identity of a person. Visible data corresponding to the identity is rendered upon a wearable badge associated uniquely with the person. The rendered visible data are augmented dynamically. The augmentation includes adding a conspicuous indication to the rendered visible data, in real time, that an authorized security credential corresponding to the person is exceeded in relation to a presence of the person in a particular location.

Abstract: Wireless peripherals may be used by workers to facilitate communication, data entry, data visualization, safety, and security. Typically, these peripherals must communicate with a back-end system; however, direct communication is often impossible. Instead, the peripherals must communicate through an intermediary device (i.e., a base station) to reach the back-end system. To be most effective, the back-end system must be able to adapt its communication/response to a worker's identity, location, and/or peripherals. To facilitate this, the present invention embraces a peripheral hub, worn by a worker. The peripheral hub uses information regarding the worker and/or his peripherals to generate a peripheral manifest. The peripheral hub can transmit the peripheral manifest to the back-end system via the base station, and using information from the peripheral manifest, the back-end system may communicate/respond appropriately to the worker.

Abstract: Wireless peripherals may be used by workers to facilitate communication, data entry, data visualization, safety, and security. Typically, these peripherals must communicate with a back-end system; however, direct communication is often impossible. Instead, the peripherals must communicate through an intermediary device (i.e., a base station) to reach the back-end system. To be most effective, the back-end system must be able to adapt its communication/response to a worker's identity, location, and/or peripherals. To facilitate this, the present invention embraces a peripheral hub, worn by a worker. The peripheral hub uses information regarding the worker and/or his peripherals to generate a peripheral manifest. The peripheral hub can transmit the peripheral manifest to the back-end system via the base station, and using information from the peripheral manifest, the back-end system may communicate/respond appropriately to the worker.

Abstract: A mobile device has one or more sensors that are configured to detect the presence of fog or frost on a surface of the mobile device. A battery provides power to the mobile device. An energy transfer element, when activated, removes fog or frost from a surface of the mobile device. A programmed processor, within the mobile device, is programmed to: read one or more sensors disposed in the mobile device to determine if there is a fog or frost condition; upon detecting a fog or frost condition, activating the energy transfer element to remove fog or frost; and upon detecting an absence of the fog or frost condition, deactivating the heater energy transfer element.

Abstract: A method for managing energy usage by a mobile device is described. An environmental characteristic is monitored over environments in which the mobile device is operable. A location of the mobile device is tracked in relation to the environments. The mobile device is informed with data relating to the environmental characteristic of the environment in which the mobile device location is tracked. A characteristic of the mobile device is sensed. The data, related to the environmental characteristic of the tracked location, is compared to the sensed mobile device characteristic. An action is determined related to the energy-using operation of the mobile device based on the comparison. The energy-using operation of the mobile device is controlled, based on the determined action.

Abstract: A presentation of visual information relates to an accurate identity of a person. Visible data corresponding to the identity is rendered upon a wearable badge associated uniquely with the person. The rendered visible data are augmented dynamically. The augmentation includes adding a conspicuous indication to the rendered visible data, in real time, that an authorized security credential corresponding to the person is exceeded in relation to a presence of the person in a particular location.

Abstract: Wireless peripherals may be used by workers to facilitate communication, data entry, data visualization, safety, and security. Typically, these peripherals must communicate with a back-end system; however, direct communication is often impossible. Instead, the peripherals must communicate through an intermediary device (i.e., a base station) to reach the back-end system. To be most effective, the back-end system must be able to adapt its communication/response to a worker's identity, location, and/or peripherals. To facilitate this, the present invention embraces a peripheral hub, worn by a worker. The peripheral hub uses information regarding the worker and/or his peripherals to generate a peripheral manifest. The peripheral hub can transmit the peripheral manifest to the back-end system via the base station, and using information from the peripheral manifest, the back-end system may communicate/respond appropriately to the worker.