Abstract: Methods and program products for adjusting characteristics of photographs captured by electronic devices. The disclosed methods may include identifying a location of an electronic device at a detectable time. The electronic device may include a camera configured to capture a photograph at the location. The method may also include analyzing environmental data relating to the identified location, analyzing historical data for a collection of previously captured photographs at the identified location and providing at least one notification on the electronic device based on the analyzed environmental data and/or the analyzed historical data. Additionally, the method may include adjusting at least one camera setting for the camera of the electronic device based on the analyzed environmental data and the analyzed historical data.

Abstract: Methods and program products for adjusting characteristics of photographs captured by electronic devices. The disclosed methods may include identifying a location of an electronic device at a detectable time. The electronic device may include a camera configured to capture a photograph at the location. The method may also include analyzing environmental data relating to the identified location, analyzing historical data for a collection of previously captured photographs at the identified location and providing at least one notification on the electronic device based on the analyzed environmental data and/or the analyzed historical data. Additionally, the method may include adjusting at least one camera setting for the camera of the electronic device based on the analyzed environmental data and the analyzed historical data.

Abstract: The present invention is a system and method for optimizing power on a smart grid network. The system includes one or more units, such as a smart home, each having a control center with a historical database. The control center is in digital communication with a network component of a smart grid. Historical data including a soft window period and a hard window period representing acceptable start times for one or more flexible ADLs are stored in the historical database. The network component receives historical data for the flexible ADLs from multiple control centers. The network component, which creates a schedule based at least in part on the historical data and transfers energy to the control center according to the schedule. While scheduling, the network component manages peak load, energy tariffs, penalties, forecasting of non-ADL demand, and forecasting of supply over the scheduling horizon among other things.

Abstract: An approach to provide power from power supply devices to power consuming devices based on using priority levels for each of the power consuming and supply devices. The approach includes the steps of receiving information of a power consuming device from an energy management, including criticality information obtained from a universal appliance service system. The approach further includes receiving power supply information of one or more power supply devices associated with an electric grid, and receiving a power request from the power consuming device. The approach further includes determining that the power consuming device receives power from the power supply device, based on the criticality information and the power supply information.

Abstract: An approach to provide power from power supply devices to power consuming devices based on using priority levels for each of the power consuming and supply devices. The approach includes the steps of receiving information of a power consuming device from an energy management, including criticality information obtained from a universal appliance service system. The approach further includes receiving power supply information of one or more power supply devices associated with an electric grid, and receiving a power request from the power consuming device. The approach further includes determining that the power consuming device receives power from the power supply device, based on the criticality information and the power supply information.

Abstract: An approach to provide power from power supply devices to power consuming devices based on using priority levels for each of the power consuming and supply devices. The approach includes the steps of receiving information of a power consuming device from an energy management, including criticality information obtained from a universal appliance service system. The approach further includes receiving power supply information of one or more power supply devices associated with an electric grid, and receiving a power request from the power consuming device. The approach further includes determining that the power consuming device receives power from the power supply device, based on the criticality information and the power supply information.

Abstract: The present invention is a system and method for optimizing power on a smart grid network. The system includes one or more units, such as a smart home, each having a control center with a historical database. The control center is in digital communication with a network component of a smart grid. Historical data including a soft window period and a hard window period representing acceptable start times for one or more flexible ADLs are stored in the historical database. The network component receives historical data for the flexible ADLs from multiple control centers. The network component, which creates a schedule based at least in part on the historical data and transfers energy to the control center according to the schedule. While scheduling, the network component manages peak load, energy tariffs, penalties, forecasting of non-ADL demand, and forecasting of supply over the scheduling horizon among other things.

Abstract: An approach to provide power from power supply devices to power consuming devices based on using priority levels for each of the power consuming and supply devices. The approach includes the steps of receiving information of a power consuming device from an energy management, including criticality information obtained from a universal appliance service system. The approach further includes receiving power supply information of one or more power supply devices associated with an electric grid, and receiving a power request from the power consuming device. The approach further includes determining that the power consuming device receives power from the power supply device, based on the criticality information and the power supply information.

Abstract: An approach to provide power from power supply devices to power consuming devices based on using priority levels for each of the power consuming and supply devices. The approach includes the steps of receiving information of a power consuming device from an energy management, including criticality information obtained from a universal appliance service system. The approach further includes receiving power supply information of one or more power supply devices associated with an electric grid, and receiving a power request from the power consuming device. The approach further includes determining that the power consuming device receives power from the power supply device, based on the criticality information and the power supply information.

Abstract: An approach to provide power from power supply devices to power consuming devices based on using priority levels for each of the power consuming and supply devices. The approach includes the steps of receiving information of a power consuming device from an energy management, including criticality information obtained from a universal appliance service system. The approach further includes receiving power supply information of one or more power supply devices associated with an electric grid, and receiving a power request from the power consuming device. The approach further includes determining that the power consuming device receives power from the power supply device, based on the criticality information and the power supply information.