A system and method for calculating an accurate distance from an aerial device to an intended target using a laser probe. A control system can further include a sensor system and at least one camera for measuring additional operational parameters and viewing surrounding obstacles. Sensors may include an inclinometer and a weight sensor.

A system and method for calculating an accurate distance from an aerial device to an intended target using a laser probe. A control system can further include a sensor system and at least one camera for measuring additional operational parameters and viewing surrounding obstacles. Sensors may include an inclinometer and a weight sensor.

A method for compensating for a temperature drift of an accelerometer for measuring the lateral tilt of a motorbike. When the vehicle is in the “bike upright” condition, and the temperature of the accelerometer is at least 30° C. above its reference temperature, a reading is taken of the acceleration values. These values are then processed in order to identify the coefficient of the slope of the straight line for correcting the offset of each axis of the accelerometer. A processing operation involves verifying the strict monotony of the coefficients in at least two successive readings and ensuring that the mean value thereof is included between determined limits. The mean coefficient that is finally obtained then can be used to correct the temperature of accelerations read over the entire operating range of the accelerometer. Thus, the computation of the tilt angle of the motorbike is more precise.

A vessel load measurement system includes a laser measurement system configured to measure distances and angles by directing a laser of the laser measurement system onto remote laser targets and a controller configured to use the laser measurement system to measure a height of a first laser target placed at a known location on a vessel, obtain pitch and roll measurements of the vessel, and compute at least one vessel corner height based on the measured height of the first laser target at the known location on the vessel, the pitch and roll measurements of the vessel, and known dimensions of the vessel. The first laser target may be part of a jig that can be placed at a known location on the vessel. The jig may include at least one tilt sensor. An additional laser target may be used to measure the water level.

A vessel load measurement system includes a laser measurement system configured to measure distances and angles by directing a laser of the laser measurement system onto remote laser targets and a controller configured to use the laser measurement system to measure a height of a first laser target placed at a known location on a vessel, obtain pitch and roll measurements of the vessel, and compute at least one vessel corner height based on the measured height of the first laser target at the known location on the vessel, the pitch and roll measurements of the vessel, and known dimensions of the vessel. The first laser target may be part of a jig that can be placed at a known location on the vessel. The jig may include at least one tilt sensor. An additional laser target may be used to measure the water level.

The present invention relates generally to the field of alcohol consumption monitoring. More specifically, the present invention relates to a consumption tracking beverage container which allows a user to track the amount of wine or alcohol that they consume over time from said container. Further, the container may be wirelessly paired to a mobile application on a smart device to allow the user to analyze his or her alcohol consumption trends and patterns over time.

A smart pool skimmer is disclosed. In one embodiment, the pool skimmer includes a body housing having electronics and sensors extending from the body housing to monitor pool conditions. The sensors detect a plurality of pool condition, including but not limited to pH, ORP, temperature, water level, water movement, chlorine levels, and salt concentration. The smart pool skimmer receives data from the sensors and sends the information to a user computing device or a cloud-based analytics server, which tracks conditions of the pool water. A solar panel may be provided on the housing to enable the smart skimmer to run on renewable energy. Additionally, visual light indicators can be mounted on top of the cover plate to provide visual indications of pool conditions.

A smart pool skimmer is disclosed. In one embodiment, the pool skimmer includes a body housing having electronics and sensors extending from the body housing to monitor pool conditions. The sensors detect a plurality of pool condition, including but not limited to pH, ORP, temperature, water level, water movement, chlorine levels, and salt concentration. The smart pool skimmer receives data from the sensors and sends the information to a user computing device or a cloud-based analytics server, which tracks conditions of the pool water. A solar panel may be provided on the housing to enable the smart skimmer to run on renewable energy. Additionally, visual light indicators can be mounted on top of the cover plate to provide visual indications of pool conditions.

A measurement data acquisition section acquires the measurement data indicating at least one from among the position, the orientation, the velocity, the acceleration, the angular velocity, and the angular acceleration measured by the sensor. A measurement-data-with-settings generation section generates measurement data with settings including the measurement data and coordinate system setting data indicating settings for a coordinate system used for expressing at least one from among the position, the orientation, the velocity, the acceleration, the angular velocity, and the angular acceleration indicated by the measurement data. A measurement-data-with-settings output section outputs the measurement data with settings.

A measurement data acquisition section acquires the measurement data indicating at least one from among the position, the orientation, the velocity, the acceleration, the angular velocity, and the angular acceleration measured by the sensor. A measurement-data-with-settings generation section generates measurement data with settings including the measurement data and coordinate system setting data indicating settings for a coordinate system used for expressing at least one from among the position, the orientation, the velocity, the acceleration, the angular velocity, and the angular acceleration indicated by the measurement data. A measurement-data-with-settings output section outputs the measurement data with settings.