A tilt detection device uses externally generated electromagnetic signal sources to detect changes in relative orientational positioning of an object. A sensor (18) monitors intensity characteristics of electromagnetic stimuli received from remotely located sources, and a controller (16) utilises changes in those characteristics to inform detection and/or measurement of a state of tilting of an object to which the sensor is mounted.

A system for monitoring a patient includes a sensor unit having a housing and sensors disposed in or around the housing; and a base having a shell and configured and arranged to be adhesively attached to skin of the patient. The sensors can be used to monitor physical therapy and rehabilitation of the patient. The sensor unit can provide information to a patient or clinician device to facilitate the monitoring. In some instances, the sensor unit and base are magnetically coupled together. In some instances, the base has an opening so a temperature sensor of the sensor unit can be exposed to the skin of the patient.

A system for monitoring a patient includes a sensor unit having a housing and sensors disposed in or around the housing; and a base having a shell and configured and arranged to be adhesively attached to skin of the patient. The sensors can be used to monitor physical therapy and rehabilitation of the patient. The sensor unit can provide information to a patient or clinician device to facilitate the monitoring. In some instances, the sensor unit and base are magnetically coupled together. In some instances, the base has an opening so a temperature sensor of the sensor unit can be exposed to the skin of the patient.

A device for monitoring and estimating parameters relating to the flight of an aircraft includes an estimation module 4 for determining an estimation of the values of the parameters relating to the flight of the aircraft and for generating residues, a detection module for determining the statuses associated with each of said sensors C1, C2, . . . , CN and with a parameter P1 corresponding to the weight of the aircraft, a transmission module for transmitting the statuses associated with each of said sensors C1, C2, . . . , CN to a user device and, on the next iteration, to the estimation module.

Sensing systems for agricultural equipment and related methods may be configured for detecting the operating state of rotating elements in agricultural implements. The sensing systems for an agricultural implement may include a rotating element and a monitoring center equipped with an alert mechanism. The sensing systems may include an inertial sensor, a microprocessor, a communication element, and a power supply. The sensing system may be a single element fixed directly to the rotating element.

Sensing systems for agricultural equipment and related methods may be configured for detecting the operating state of rotating elements in agricultural implements. The sensing systems for an agricultural implement may include a rotating element and a monitoring center equipped with an alert mechanism. The sensing systems may include an inertial sensor, a microprocessor, a communication element, and a power supply. The sensing system may be a single element fixed directly to the rotating element.

A device (100) for determining orientation of an object (101) is disclosed. The device (100) comprises of a housing (1) configured with a plurality of sensors (4), wherein the plurality of sensors (4) are provided on a surface of the housing. At least one light source (2), is fixed within the housing (1), wherein the at least one light source is configured to emit a continuous light beam (3) on at least one of the plurality of sensors (4) at an initial position (IP) of the object (101). The speed of the continuous light beam emitted by the at least one light source is less than a speed of light. The continuous slow light beam (3) is configured to momentarily impinge on one or more of the plurality of sensors (4) in the same incident ray, when the object (101) is displaced to a displaced position (DP).

A device (100) for determining orientation of an object (101) is disclosed. The device (100) comprises of a housing (1) configured with a plurality of sensors (4), wherein the plurality of sensors (4) are provided on a surface of the housing. At least one light source (2), is fixed within the housing (1), wherein the at least one light source is configured to emit a continuous light beam (3) on at least one of the plurality of sensors (4) at an initial position (IP) of the object (101). The speed of the continuous light beam emitted by the at least one light source is less than a speed of light. The continuous slow light beam (3) is configured to momentarily impinge on one or more of the plurality of sensors (4) in the same incident ray, when the object (101) is displaced to a displaced position (DP).

A survey apparatus includes: a measurement unit; an imaging unit; an attitude detecting unit being integrally provided with the imaging unit; and a calculation processing unit. The attitude detecting unit has an inclination sensor which detects horizontality and a relative inclination angle detecting portion which inclines the inclination sensor so that the inclination sensor detects horizontality and which detects an inclination angle of the measurement unit relative to the horizontality in a state where the inclination sensor detects horizontality, and the calculation processing unit executes control to ascertain a rough shape of the measurement object on the basis of the image including the measurement object having been imaged by the imaging unit and generate, on the basis of the rough shape, a scan pattern of the ranging light emitted by the measurement unit.

A survey apparatus includes: a measurement unit; an imaging unit; an attitude detecting unit being integrally provided with the imaging unit; and a calculation processing unit. The attitude detecting unit has an inclination sensor which detects horizontality and a relative inclination angle detecting portion which inclines the inclination sensor so that the inclination sensor detects horizontality and which detects an inclination angle of the measurement unit relative to the horizontality in a state where the inclination sensor detects horizontality, and the calculation processing unit executes control to ascertain a rough shape of the measurement object on the basis of the image including the measurement object having been imaged by the imaging unit and generate, on the basis of the rough shape, a scan pattern of the ranging light emitted by the measurement unit.