A power generator system, including a remaining fuel detector detecting a remaining fuel amount of each of the first generator and the second generator, an operable time calculator calculating a remaining operable time of the each of the first generator and the second generator based on the remaining fuel amount detected by the remaining fuel detector, and a signal output unit outputting a control signal for adjusting outputs of the first generator and second generator to an actuator so that the remaining operable time of the first generator and the remaining operable time of the second generator calculated by the operable time calculator is equalized while keeping a total power of the first generator and the second generator constant.

A drive circuit for a solenoid valve having a coil and a poppet configured to translate within the coil includes a drive switch operable to de-energize the coil to translate the poppet toward the closed position, a sensor configured to detect the poppet translating within the solenoid valve, and a controller configured to receive a closure signal from the sensor, determine a closing time of the solenoid valve based on the closure signal, determine a time delay between de-energizing the coil and the determined closing time, and determine a fluid flow value of fluid flowing through the solenoid valve based on the determined time delay.

Spray systems and control systems for use with spray systems are provided. A method of detecting fluid flow through a nozzle coupled in fluid communication with a solenoid valve including a solenoid coil and a poppet is provided. The method generally includes (1) dispensing fluid through the solenoid valve and the nozzle, (2) de-energizing the solenoid coil to close the solenoid valve and control a fluid flow through the nozzle, (3) determining a closing time of the solenoid valve based on a signal from a poppet measuring device, and (4) determining a fluid flow value based on a time delay between the de-energizing the solenoid coil and the closing time.

A flow rate measurement system measures, by using a flow rate measurement device, a flow rate of cleaning gas in a container storage facility including a storage rack including supporting portions; a transport device that transports a container to the supporting portions; and a gas supply device that supplies the cleaning gas to the container supported by the supporting portions. The transport device and the flow rate measurement device are connected via a power line communicatively by wire or wireless. The flow rate measurement device measures the flow rate of the cleaning gas in a state in which the transport device has transported the flow rate measurement device and the flow rate measurement device is placed on a target supporting portion.

A method, computer program product, and system for suppressing rerouting in a navigational system which includes a processor monitoring movements of a vehicle relative to a planned route generated by a navigational system, where the planned route includes a trip from a point of origin to a destination and the navigational system includes program(s) providing navigational assistance to a driver during the trip. The processor detects a first movement of the vehicle which is a deviation from the planned route. The processor determines that the deviation is based on an intentional circumstance. The processor suppresses execution of rerouting functionality of the navigational system and pauses the program(s) providing navigational assistance. The processor detects a second movement of the vehicle that includes a resumption of the planned route and resumes the program(s) providing navigational assistance.

The invention relates to a device including: at least one fluid-using apparatus; at least one movable tank capable of and intended for providing at least the fluid and connected, via pipes, to the fluid using apparatus, the movable tank containing, at the outset, a given initial amount of the gas; and a means for assessing amounts of the fluid that are used by the fluid using apparatus from the movable tank, the assessment means being rigidly connected to the fluid-using apparatus.

An apparatus for monitoring consumption of flowing substance is provided. The apparatus, connectable to the end of a pipe where fluid is flowing, includes a generator (106) configured to generate electric power from the fluid passing through the generator, sensors (112, 114) to measure the temperature of the fluid and the amount of fluid flowing in the pipe and a processing unit (116). The apparatus detects that fluid starts flowing in the pipe at a first time instant and detects that fluid stops flowing in the pipe at a second time instant and determines the temperature of the fluid and the amount of fluid that flowed through the pipe between the first and the second time instant, stores the determined values and the time elapsed between the first and the second time instants as an entry in a memory (120); and transmits the entry.

A computer apparatus and method to determine aircraft fuel mileage performance. The computer apparatus including a memory and a processor disposed in communication with the memory and configured to issue a plurality of instructions stored in the memory. The instructions issue signals to receive real-time aircraft data during aircraft flight and process the real-time data to determine real-time aircraft mass data. A calculation is performed to determine the real-time fuel mileage performance for the aircraft based upon determined real-time aircraft mass data.

A system is provided for calculating and displaying an estimated remaining runtime for a portable generator. The system may include fuel sender with capacitive sensors communicating with a control system to display the fuel level and/or remaining runtime that can be recalculated when step changes in system performance are detected.

The disclosed technology includes a method comprising detecting one or both of a rate of normal water flow and a duration of normal water flow, and calculating a maximum rate of normal water flow and a maximum duration of normal water flow. In another implementation, the method also includes calculating a minimum rate of normal water flow and a minimum duration of normal water flow. In yet another implementation, the method also includes monitoring one or both of a rate of current water flow and a duration of current water flow, determining whether a predetermined threshold is met, and adjusting a valve to close if the predetermined threshold is met.