Abstract: The systems and methods described herein are directed to techniques for improving battery life performance of end devices in resource monitoring systems which transmit data using low-power, wide area network (LPWAN) technologies. Further, the techniques include providing sensor interfaces in the end devices configured to communicate with multiple types of metrology sensors. Additionally, the systems and methods include techniques for reducing the size of a concentrator of a gateway device which receives resource measurement data from end devices. The reduced size of the concentrator results in smaller, more compact gateway devices that consume less energy and reduce heat dissipation experienced in gateway devices. The concentrator may comply with modular interface standards, and include two radios configured for transmitting 1-watt signals.

Abstract: Methods of controlling a resource demand system are disclosed. One method includes obtaining weather data from at least one data source that collects weather data at a plurality of areas. A weather value for a target location is calculated from the weather data. A weather value is sensed for the target location. The calculated weather value is compared with the sensed weather value to validate at least one of the calculated weather value and the sensed weather value, and a control value is calculated based on at least one of the calculated weather value and the sensed weather value.

Abstract: A method of method of calculating an ET value for an irrigation area is disclosed. The method includes a weather parameter measurement system collecting at least one weather parameter of a weather parameter area, the at least one weather parameter of the weather parameter area providing a representation of weather outside of the irrigation area. An irrigation area weather parameter is calculated providing a representation of the weather within the irrigation area from the at least one weather parameter of the weather parameter area. The ET value for the irrigation area is calculated from an N-dimensional continuous function using the at least one irrigation area weather parameter, wherein the N-dimensions includes at least a 3-dimensional spatial cube.

Abstract: A system for providing irrigation control is provided. The system includes a number of non-local data sources for providing data, a processor and an irrigation system. The processor is configured to receive data from one or more of the non-local data sources and calculate an evapotranspiration (ET) value for an irrigation area that is non-local with respect to the non-local data sources. The irrigation system is located in the irrigation area and configured to receive the ET value from the processor and provide appropriate irrigation control for the irrigation area using the ET value.

Abstract: A system for providing irrigation control is provided. The system includes a number of non-local data sources for providing data, a processor and an irrigation system. The processor is configured to receive data from one or more of the non-local data sources and calculate an evapotranspiration (ET) value for an irrigation area that is non-local with respect to the non-local data sources. The irrigation system is located in the irrigation area and configured to receive the ET value from the processor and provide appropriate irrigation control for the irrigation area using the ET value.

Abstract: A system for providing irrigation control is provided. The system includes a processor configured to calculate an offset to an evapotranspiration (ET) value and an irrigation system configured to receive the offset from the processor and provide appropriate irrigation adjustment based on the offset. The offset is calculated based on the ET value and the ET value has been previously provided to the irrigation system.

Abstract: A system for providing irrigation control is provided. The system includes a number of non-local data sources for providing data, a processor and an irrigation system. The processor is configured to receive data from one or more of the non-local data sources and calculate an evapotranspiration (ET) value for an irrigation area that is non-local with respect to the non-local data sources. The processor is further configured to create or alter an irrigation program based on the ET value. The irrigation system is configured to receive the irrigation program from the processor and provide appropriate irrigation control for the irrigation area using the irrigation program.

Abstract: A system for providing reliable communications between components of an irrigation system is provided. The system includes a central control, a number of communication systems each representing a transmission channel, an irrigation controller having a receiver that is configured to receive signals from the communication systems, and one or more valves controlled by the irrigation controller to provide irrigation. According to one aspect of the system, in order to direct the irrigation controller to take certain actions, the central control first generates a message. The message is then delivered to the communication systems. In one instance, the message is transmitted by the communication systems in a rotating manner, i.e., the communication systems take turn in transmitting the message in a predetermined cycle. To ensure proper reception of the message, the irrigation controller conforms to the rotational transmission schedule of the communication systems and monitors the incoming signals accordingly.

Abstract: A system for providing irrigation control is provided. The system includes a number of non-local data sources for providing data, a processor and an irrigation system. The processor is configured to receive data from one or more of the non-local data sources and calculate an evapotranspiration (ET) value for an irrigation area that is non-local with respect to the non-local data sources. The processor is further configured to create or alter an irrigation program based on the ET value. The irrigation system is configured to receive the irrigation program from the processor and provide appropriate irrigation control for the irrigation area using the irrigation program.

Abstract: A system for providing irrigation control is provided. The system includes a number of non-local data sources for providing data, a processor and an irrigation system. The processor is configured to receive data from one or more of the non-local data sources and calculate an evapotranspiration (ET) value for an irrigation area that is non-local with respect to the non-local data sources. The irrigation system is located in the irrigation area and configured to receive the ET value from the processor and provide appropriate irrigation control for the irrigation area using the ET value.

Abstract: A system for providing irrigation control is provided. The system includes a processor configured to calculate an offset to an evapotranspiration (ET) value and an irrigation system configured to receive the offset from the processor and provide appropriate irrigation adjustment based on the offset. The offset is calculated based on the ET value and the ET value has been previously provided to the irrigation system.