Abstract: A method for operating a laser distance measuring device, in particular a hand-held laser distance measuring device, includes determining a first distance from a first target point with a laser distance measuring unit of the laser distance measuring device by emitting a laser beam in a first distance measuring direction. The method further includes subsequently determining at least one second distance from a second intended target point. An image at least of the target environment of the second target point, captured by a camera of the laser distance measuring device, is displayed on a display of the laser distance measuring device. At least one part of a connection line is represented overlapping with the image, and the connection line connects the first target point and the second target point in the displayed image. A laser distance measuring device implements the method in one embodiment.

Abstract: The disclosure proceeds from a distance measuring device comprising at least one distance measuring unit, which is in particular suitable for a contactless distance measurement, which has at least one transmission device for emitting reference and measurement radiation and at least one sensor device for detecting reference and measurement radiation. It is proposed that, in the distance measuring device according to the disclosure, the reference radiation is embodied as at least one partial beam of divergent radiation emitted by the transmission device.

Abstract: A method for operating a laser distance measuring device, in particular a hand-held laser distance measuring device, includes determining a first distance from a first target point with a laser distance measuring unit of the laser distance measuring device by emitting a laser beam in a first distance measuring direction. The method further includes subsequently determining at least one second distance from a second intended target point. An image at least of the target environment of the second target point, captured by a camera of the laser distance measuring device, is displayed on a display of the laser distance measuring device. At least one part of a connection line is represented overlapping with the image, and the connection line connects the first target point and the second target point in the displayed image. A laser distance measuring device implements the method in one embodiment.

Abstract: A sensor unit for detecting reference and measurement radiation for a distance measurement device has a sensor element and an optical shielding device. The sensor element has a first detection region for detecting measurement radiation and a second detection region for detecting reference radiation. The optical shielding device is positioned in relation to the sensor element and fastened, and the optical shielding device optically separates the first and second detection regions from each other. The optical shielding device further comprises a first recess and a second recess which are permeable to optical radiation of a first wavelength range.

Abstract: An optical system support, especially for an optical measuring device, includes a base on which a mechanism for fixing an electro-optical transceiver system is provided. The optical system support is a ceramic optical system support.

Abstract: The disclosure proceeds from a distance measuring device comprising at least one distance measuring unit, which is in particular suitable for a contactless distance measurement, which has at least one transmission device for emitting reference and measurement radiation and at least one sensor device for detecting reference and measurement radiation. It is proposed that, in the distance measuring device according to the disclosure, the reference radiation is embodied as at least one partial beam of divergent radiation emitted by the transmission device.

Abstract: The present invention is directed to a distance measuring device (10), in particular a handheld laser distance measuring device, with a position sensor (22) for determining the spatial orientation of the distance measuring device (10). It is proposed that the position sensor (22) is connected with a signal transducer (12), whereby the signal transducer (12) is capable of being triggered by the position sensor (22) to emit a perceptible signal which depends on the spatial orientation.

Abstract: A sensor unit for detecting reference and measurement radiation for a distance measurement device has a sensor element and an optical shielding device. The sensor element has a first detection region for detecting measurement radiation and a second detection region for detecting reference radiation. The optical shielding device is positioned in relation to the sensor element and fastened, and the optical shielding device optically separates the first and second detection regions from each other. The optical shielding device further comprises a first recess and a second recess which are permeable to optical radiation of a first wavelength range.

Abstract: A measuring device, in particular a handheld measuring device, for the localization of objects enclosed in a medium, including at least one photometric sensor that obtains by way of the at least one photometric sensor a first measurement signal of the object to be examined, so that by evaluation of that measurement signal, information about an object enclosed in the medium is obtained, and at least one further sensor, for generating at least one further second measurement signal for obtaining information about the object enclosed in the medium. A method for the localization, by way of a photometric sensor, of objects enclosed in a medium.

Abstract: A mechanical support device (10) for a sensor plate (18) of a device for transmitting and/or receiving electromagnetic high-frequency signals, is designed as a winding core (24, 26) of at least one coil (32, 32?, 32?; 34, 34?, 34?; 36, 36?, 36?) in an inductive sensor.

Abstract: An optical system support, especially for an optical measuring device, includes a base on which a mechanism for fixing an electro-optical transceiver system is provided. The optical system support is a ceramic optical system support.

Abstract: The invention relates to a distance measuring unit (10) for contactless distance measurement, in particular a handheld unit, with a housing (12, 40), which has a housing front side (14), which points in the measurement direction (32), and a housing rear side (16), which faces away therefrom, wherein the housing rear side (16) forms a first reference plane (AA) for the distance measurement, and with at least one measurement stop (5) of a measurement stop element (4), which can be moved out of the housing (12). The invention proposes that the measurement stop element (46) is mounted in the housing (12, 40) in such a way that it moves automatically out of the housing (12, 40) once a locking apparatus (62, 63, 65) has been released and is optionally moved at least into a first (1) or into a second (1) measurement position.

Abstract: The invention relates to a measuring instrument, particularly a hand-held instrument (10) for measuring distances, comprising at least one transmission branch (28) for a test signal and adjustable switching means (36) for deflecting the test signal. The switching means (36) reflect at least a portion of the test signal in a first switched position (42) while unblocking the transmission branch (28) for the measuring radiation in a second switched position (42?). According to the invention, the switching means (36) reflect the measuring radiation in a diffuse manner in the first switched position (42). Also disclosed is a method for producing such a measuring instrument.

Abstract: A locating device, in particular a handheld locating device, for detecting objects enclosed in a medium, includes a first device for detecting objects enclosed in a medium, and having a control and evaluation unit for measurement signals of the locating device. The device has a second detection device that makes it possible to detect a predeterminable distance d of the locating device from a surface of a medium. In addition, a method for calibrating a measurement device, in particular for calibrating a handheld locating device for detecting objects enclosed in a medium, a reference measurement for calibrating the measurement device is carried out only after at least one measurement has been carried out of a distance d of the measurement device from a surface of a medium.

Abstract: The invention relates to a mechanical support device (10) for at least one sensor plate, for example an antenna element (18) in a device for transmitting and/or receiving electromagnetic high-frequency signals. According to the invention, the support device (10) is configured as a coil form (24, 26) of at least one winding (32, 32?, 32?; 34, 34?, 34?; 36, 36?, 36?) in an inductive sensor. In addition, the invention relates to a measuring device comprising multiple sensors, in particular a locating device (80) for detecting objects that are enclosed in a medium, said measuring device having at least one support device (10) of this type.

Abstract: A radar device is described, in particular a hand-held short-range radar for determining the location of objects enclosed in a medium, including at least one radar sensor, which generates a first, high-frequency detection signal for penetrating a medium to be tested in such a way that information about an object enclosed in the medium can be obtained by measuring and analyzing the reflected detection signal of the radar sensor. At least one additional sensor is provided for generating at least one additional, second detection signal for obtaining information about the object enclosed in the medium. The method on which this radar instrument is based is also described.

Abstract: The invention relates to measuring device, particularly a distance measuring device for contactlessly measuring distance, comprising a housing (12) made of at least one first material and with at least one electronic component (56), which is arranged inside an interior (48) of the housing (12), as well as with a second material that at least partially surrounds the housing (48). The invention provides that the second material also seals at least one opening (63) of the housing interior (48). The invention also relates to a method for producing a measuring device of the aforementioned type during which the second material is provided as a sealing element that seals at least one opening of the housing interior.

Abstract: A locating device, in particular a hand-held locating device, for detecting objects enclosed in a medium, having a housing and at least one sensor system provided in a housing, as well as an opening penetrating the device. The opening in the measuring device and penetrating the device is illuminable by at least one light source provided in the measuring device.

Abstract: A distance measuring device (10) in the form of a hand-held unit includes a path (28, 34) for a measurement signal, an adjustable signaling means (36) for changing the measurement signal, and a drive unit (40) for adjusting the signaling means (36, 70). The drive unit is equipped with a static unit (52) and a drive element (46, 76) that the static unit (52) is able to directly drive to execute a movement in relation to the static unit (52). The drive element (46, 76) has the capacity to be driven into a rotation in relation to the static unit (52).

Abstract: The invention is based on a distance-measuring device, in particular a laser distance-measuring device (10) which is in the form of a handheld device, having a printed circuit board (18) and a transmitting or receiving unit (20, 22) which is provided for transmitting or receiving a measurement signal, and comprises a housing (30, 46, 82, 96, 130) which has a base surface (32, 48, 102, 140) which faces the printed circuit board (18), a side surface and a signal surface (38, 50, 98, 142). The invention proposes that the side surface is in the form of a signal surface (38, 50, 98, 142).