Abstract: A camera apparatus includes a flexible carrier medium formed as a light guide and on which an input coupling region and an output region are disposed. Light, which is incident on the input coupling region from the surroundings, can be input into the carrier medium via the input coupling region. Internal reflection allows the light to be transmitted through the carrier medium from the input coupling region to the output coupling region. At the output coupling region, the transmitted light can be output from the carrier medium and be captured by an image capture device, which is disposed adjacent to the output coupling region.

Abstract: Cost-effective, spatially representative image data is recording in a stereoscopic or photogrammetric image of an environment by a camera apparatus having three holographic-optical elements arranged as coupling regions at different positions on a carrier medium to capture the environment from different perspectives. Light from the environment is coupled by the coupling regions into the carrier medium which provides a light guide that transfers the light to an additional holographic-optical element which provides a decoupling region to decouple the light from the carrier medium. An image capture device captures the decoupled light and produces image data therefrom. A separating device produces the spatially representative image data from the image data by capturing the light incident on the coupling regions in a manner separated temporally or by color.

Abstract: A 3D printing apparatus includes a synthetic resin bath for a photosensitive synthetic resin and a lifting apparatus. The photosensitive synthetic resin at the lifting apparatus is polymerizable by light of a specified wavelength. The 3D printing apparatus further includes a carrier medium having a coupling-in region and a coupling-out region, and an illumination apparatus to emit light onto the coupling-in region. The coupling-in region includes a coupling-in deflection structure to couple light of the specified wavelength incident on the coupling-in deflection structure from the illumination apparatus, into the carrier medium in a direction of the coupling-out region, and the coupling-out region is disposed below the synthetic resin bath and includes a coupling-out deflection structure configured to couple the light of the specified wavelength that is incident on the coupling-out deflection structure, as an exposure pattern, out of the carrier medium onto the photosensitive synthetic resin.

Abstract: A method controls a display function of a display apparatus by any input object by a touchscreen. A camera of a recording apparatus creates an image sequence of a user-facing screen surface of the display apparatus. In images of the image sequence, a computing unit of the recording apparatus tracks when the input object is tilted, inclined or rolled away relative to the screen surface. The computing unit searches for a pattern comprising a depth profile in a surface structure of the input object and evaluates a change in the image values relating to a contrast, the definition of the pattern, or, additionally or alternatively, a visible portion of the surface structure in the image sequence. From the change in the pattern or in the portion of the surface structure visible to the camera, the computing unit determines a motion vector of the input object to control the display function.

Abstract: The invention relates to an image sensor apparatus of a camera for detecting light.

Abstract: A camera apparatus records only those objects in a surround which are situated in a predetermined object plane at a distance from the camera apparatus. To this end, the camera apparatus includes an illumination device for illuminating the desired object with an illumination light and an image capture device (for capturing the illumination light reflected by the object. For recording that is dependent on the object plane, the camera apparatus additionally comprises a control device for driving the illumination device to provide the illumination light in the form of light pulses and for controlling the image capture device to capture the reflected illumination light within recording intervals assigned to the light pulses. To avoid interference effects on a resultant image representation, provision is additionally made for a deflection unit for deflecting the respective illumination light between the surround and the illumination device and the image capture device.

Abstract: An apparatus for color-dependent detection of image contents includes a light input coupling apparatus, carrier medium, measuring region, output coupling region, and camera apparatus. The light input coupling apparatus includes a light source to emit light at a first wavelength. The carrier medium receives the light and transmits the light by internal reflection to the measuring region. The measuring region includes a first diffraction structure that outputs light at the first wavelength. The first diffraction structure is formed as a multiplex diffraction structure to input light in a second wavelength range. The output coupling region includes a second diffraction structure formed as a multiplex diffraction structure that outputs light at the first wavelength and the second wavelength range. The camera apparatus captures light output from the carrier medium to the camera apparatus, and provides the light in a form of image data which correlates with the light.

Abstract: A volume hologram is arranged inside a transparent portion of a pane of a display device for a vehicle. The display device further includes a light source by which light is coupled into the volume hologram. An image appearing three-dimensional to a human observer can be generated by use of the volume hologram. A camera includes a light-sensitive image sensor to acquire images via an optical unit which is at least partially formed by the transparent portion of the pane.

Abstract: An apparatus for color-dependent detection of image contents includes a light input coupling apparatus, carrier medium, measuring region, output coupling region, and camera apparatus. The light input coupling apparatus includes a light source to emit light at a first wavelength. The carrier medium receives the light and transmits the light by internal reflection to the measuring region. The measuring region includes a first diffraction structure that outputs light at the first wavelength. The first diffraction structure is formed as a multiplex diffraction structure to input light in a second wavelength range. The output coupling region includes a second diffraction structure formed as a multiplex diffraction structure that outputs light at the first wavelength and the second wavelength range. The camera apparatus captures light output from the carrier medium to the camera apparatus, and provides the light in a form of image data which correlates with the light.

Abstract: A first display surface of a first display device in a first space displays a second section of a second space in which a second display device is located. An eye position of a user in the first space is recorded by at least one first recording apparatus. The second section of the second space is determined in dependence on the eye position of the user in the first space and is recorded by at least one second recording apparatus.

Abstract: Cost-effective, spatially representative image data is recording in a stereoscopic or photogrammetric image of an environment by a camera apparatus having three holographic-optical elements arranged as coupling regions at different positions on a carrier medium to capture the environment from different perspectives. Light from the environment is coupled by the coupling regions into the carrier medium which provides a light guide that transfers the light to an additional holographic-optical element which provides a decoupling region to decouple the light from the carrier medium. An image capture device captures the decoupled light and produces image data therefrom. A separating device produces the spatially representative image data from the image data by capturing the light incident on the coupling regions in a manner separated temporally or by color.

Abstract: A camera apparatus includes a flexible carrier medium formed as a light guide and on which an input coupling region and an output region are disposed. Light, which is incident on the input coupling region from the surroundings, can be input into the carrier medium via the input coupling region. Internal reflection allows the light to be transmitted through the carrier medium from the input coupling region to the output coupling region. At the output coupling region, the transmitted light can be output from the carrier medium and be captured by an image capture device, which is disposed adjacent to the output coupling region.

Abstract: A carrier medium is designed as a waveguide on which a coupling region and a decoupling region are provided. The coupling region is designed to couple light, which has been emitted from a light source and reflected on an object in the surroundings, into the carrier medium. The coupled reflected light is then transmitted to the decoupling region by internal reflection, and the reflected light is decoupled again at the decoupling region and is transmitted to the at least one sensor device, which is designed as a time-of-flight camera device. The sensor device provides the detected light in the form of sensor data, describing the propagation time of the light reflected on the object, to an analysis device that obtains object data, which describes the position of the object.

Abstract: An object recognition system includes a two-dimensional carrier medium which can be disposed on a component in a vehicle interior. The carrier medium is configured as a light guide, and a coupling-in region and a coupling-out region are disposed on the carrier medium. Light from a surrounding area is coupled into the carrier medium via the coupling-in region, is transmitted to the coupling-out region by internal reflection, and is coupled out of the carrier medium. The object recognition system further includes an image capturing device to capture the light that is coupled out and provides the light coupled out of the carrier medium in a form of image data. The object recognition system further includes an evaluation device to capture an object in the surrounding area based on the image data, to recognize the object based on an object recognition criterion, and to provide object data describing the object.

Abstract: A carrier medium embodied as a light guide has an input coupling region and an output coupling region, each of which are embodied as a holographic element. The carrier medium forms a cover plate for an image display region of a screen and the input coupling region is at least one partial region of the cover plate surface. Light incident on the input coupling region from the surroundings is coupled into the carrier medium, transmitted to the output coupling region by internal reflection and is in turn coupled out from the output coupling region. The coupled-out light is captured by an image capturing device and used to generate image data correlated with the captured light.

Abstract: A spectrometry device includes a carrier medium, or waveguide, for transmitting light by internal reflection, and a transceiver device that has at least one light source and a detection device. A transceiver deflection structure couples at least the light emitted by the light source into the carrier medium. A measurement deflection structure, arranged at a distance from the transceiver deflection structure, decouples the light out of the carrier medium onto a measuring surface of the carrier medium so that the biological tissue can reflect the light back to the carrier medium. The reflected light is transmitted back onto the detection device via the measurement deflection structure, the carrier medium and the transceiver deflection structure. The detection device determines an intensity signal of the reflected light which is used by an analysis device to determine a pulse frequency signal and/or a pulse curve signal as a medical characteristic value.

Abstract: A 3D printing apparatus includes a synthetic resin bath for a photosensitive synthetic resin and a lifting apparatus. The photosensitive synthetic resin at the lifting apparatus is polymerizable by light of a specified wavelength. The 3D printing apparatus further includes a carrier medium having a coupling-in region and a coupling-out region, and an illumination apparatus to emit light onto the coupling-in region. The coupling-in region includes a coupling-in deflection structure to couple light of the specified wavelength incident on the coupling-in deflection structure from the illumination apparatus, into the carrier medium in a direction of the coupling-out region, and the coupling-out region is disposed below the synthetic resin bath and includes a coupling-out deflection structure configured to couple the light of the specified wavelength that is incident on the coupling-out deflection structure, as an exposure pattern, out of the carrier medium onto the photosensitive synthetic resin.

Abstract: A light source emits light of a predefined wavelength onto a coupling-in region which has a coupling-in diffraction structure and couples the light into a carrier medium in the direction of a measurement region. The measurement region is a combination of an emission diffraction structure and a receiving diffraction structure. The emission diffraction structure extracts light which has been coupled into a measurement volume to be monitored for reflection at an object outside the carrier medium. The receiving diffraction structure couples the reflected light, which is incident on the receiving diffraction structure from outside the carrier medium, into the carrier medium in the direction of a detector region. The detector region has a detector diffraction structure that routes the light onto a detector apparatus. Then the detector apparatus determines a distance to the object from a time of flight of the light from the light source to the detector apparatus.

Abstract: A detection device provides a voice signal of a person and includes a light source, a first planar carrier medium, a second planar carrier medium, a sensor device, and an evaluation device. The first planar carrier medium includes an input coupling region and an output coupling region. The second planar carrier medium includes a light input coupling region and a light output coupling region. Light from the light source is emitted into the second planar carrier medium and output in the direction of a front neck region of the person, and the light reflected on the neck region is input into the first planar carrier medium and output out of the first planar carrier medium. The output light is detected by the sensor device which provides sensor data to the evaluation device which converts the sensor data into vibrational data and provides the voice signal.

Abstract: A design screen and at least one detection device with an image capturing device and a carrier medium are provided in an external lighting device for a motor vehicle. The carrier medium is a flat waveguide on which a coupling region and a decoupling region are provided. The carrier medium is adapted to the surface shape of the design screen. The coupling region and the decoupling region are each a holographic element. Light incident on the external lighting device from the surroundings is coupled into the carrier medium via the coupling region, is transported to the decoupling region by internal reflection in the waveguide, and is decoupled at the decoupling region. The image capturing device detects the decoupled light and provides image data which correlates to the detected light.