An atomizer having an atomizer head configured to atomize a first fluid. The atomizer includes, in addition, a measurement module including at least one sensor configured to measure the values of at least one parameter of the atomizer, an electronic control module configured to receive the measured values, and a power supply configured to electrically supply the control module with a power supply voltage.

An atomizer having an atomizer head configured to atomize a first fluid. The atomizer includes, in addition, a measurement module including at least one sensor configured to measure the values of at least one parameter of the atomizer, an electronic control module configured to receive the measured values, and a power supply configured to electrically supply the control module with a power supply voltage.

A method is provided for monitoring and/or controlling a deployment process of a spray liquid having a defined active agent concentration at at least one spray nozzle unit of a spray device for deploying the spray liquid for agricultural purposes. The method includes: receiving at least one property signal including a piece of property information of the spray liquid detected with the aid of a sensor unit of the spray device in a through-flow area of the spray nozzle unit, an active agent concentration in the spray liquid being ascertainable using the property information; and outputting an information signal to a display unit and/or a control signal to the spray nozzle unit as a function of the received property information of the spray liquid and/or of an active agent concentration in the spray liquid ascertained using the property information, in order to monitor and/or to control the deployment process.

A controller is configured to control a liquid supply to change a landing position of a liquid on a surface of a substrate continuously by discharging the liquid toward the surface of the substrate from a first liquid discharge nozzle while moving the first liquid discharge nozzle. The controller is also configured to derive discharge position deviation information of the liquid supply by comparing first temperature information based on a spot temperature measured by a temperature measurement device when the first liquid discharge nozzle is moved along a first nozzle path and second temperature information based on the spot temperature measured by the temperature measurement device when the first liquid discharge nozzle is moved along a second nozzle path which is different from the first nozzle path.

A controller is configured to control a liquid supply to change a landing position of a liquid on a surface of a substrate continuously by discharging the liquid toward the surface of the substrate from a first liquid discharge nozzle while moving the first liquid discharge nozzle. The controller is also configured to derive discharge position deviation information of the liquid supply by comparing first temperature information based on a spot temperature measured by a temperature measurement device when the first liquid discharge nozzle is moved along a first nozzle path and second temperature information based on the spot temperature measured by the temperature measurement device when the first liquid discharge nozzle is moved along a second nozzle path which is different from the first nozzle path.

The disclosure relates to a device that saves water, energy, and money and may record the savings with a software analytics dashboard. The device allows cold water to flow out when the shower is first turned on and slows or shuts water flow once the water is heated and the shower is unoccupied. After the presence of the user is detected, the shower flow may resume.

The disclosure relates to a device that saves water, energy, and money and may record the savings with a software analytics dashboard. The device allows cold water to flow out when the shower is first turned on and slows or shuts water flow once the water is heated and the shower is unoccupied. After the presence of the user is detected, the shower flow may resume.

A method of delivering a glutinous substance to a workpiece from an end-effector comprises using the end-effector to position an applicator relative to the workpiece. The method also comprises urging the glutinous substance from the end-effector through a first channel of a body of the applicator from an inlet of the first channel toward an outlet of the first channel. The method additionally comprises selectively operating an actuator of the applicator to regulate a rate, at which the glutinous substance flows through the first channel of the body of the applicator, responsive to, at least in part, output received from a sensor of the applicator.

A method of delivering a glutinous substance to a workpiece from an end-effector comprises using the end-effector to position an applicator relative to the workpiece. The method also comprises urging the glutinous substance from the end-effector through a first channel of a body of the applicator from an inlet of the first channel toward an outlet of the first channel. The method additionally comprises selectively operating an actuator of the applicator to regulate a rate, at which the glutinous substance flows through the first channel of the body of the applicator, responsive to, at least in part, output received from a sensor of the applicator.

A multi-segment, heated hose has temperature sensors at or near the outlet of each hose segment. Each hose segment also has separate means for heating a fluid in the hose segment. A heater power controller receives temperature data from each temperature sensor and independently adjusts the power to the heater in each hose segment to obtain and maintain a preselected fluid temperature at the outlet of each hose segment.