Abstract: The present disclosure provides a non-transitory computer readable medium having instructions tangibly stored thereon, wherein when executed by a processing entity, the instructions cause the processing entity to carry out a method of evaluating influence of an action performed by an external entity, the method comprising: receiving sensor data; determining a signal reliability factor for the received sensor data, wherein the signal reliability factor represents a statistical quality indication between the received sensor data and an expected value or an expected range of values; and associating the signal reliability factor with the received sensor data. There is also provided a system configured to communicate with an autonomous driving system.

Abstract: The present disclosure provides a light detection and ranging (LIDAR) system, which comprises: a distance measuring unit configured to emit a plurality of first pulses towards an object located in a field of view (FOV), wherein the object is associated with one or more markers; and a detector configured to receive at least one second pulse from the one or more markers of the object, wherein each of the at least one second pulse indicates object information identifying the object.

Abstract: The present disclosure relates to various embodiments of an optical component for a LIDAR Sensor System. The optical component may include an optical element having a first main surface and a second main surface opposite to the first main surface, a first lens array formed on the first main surface, and/or a second lens array formed on the second main surface. The optical element has a curved shape in a first direction of the LIDAR Sensor System.

Abstract: The present disclosure relates to different techniques of controlling an agricultural system, as for example a controlled agricultural system, an agricultural light fixture and a method for agricultural management. Furthermore, the disclosure relates to an agricultural system, which comprises a plurality of processing lines for growing plants of a given plant type, wherein a first processing line in the plurality of processing lines is configured to move a first plurality of plants through the agricultural system along a route; and apply a first growth condition to the first plurality of plants to satisfy a first active agent parameter for the first plurality of plants.

Abstract: The present disclosure relates to various embodiments of an optical component for a LIDAR Sensor System. The optical component includes a first photo diode implementing a LIDAR sensor pixel in a first semiconductor structure and configured to absorb received light in a first wavelength region, a second photo diode implementing a camera sensor pixel in a second semiconductor structure over the first semiconductor structure and configured to absorb received light in a second wavelength region, and an interconnect layer (e.g. arranged between the first semiconductor structure and the second semiconductor structure) including an electrically conductive structure configured to electrically contact the second photo diode. The received light of the second wavelength region has a shorter wavelength than the received light of the first wavelength region.

Abstract: The present disclosure relates to various embodiments of an optical package for a LIDAR sensor system having a substrate including an array of a plurality of capacitors formed in the substrate, a plurality of switches formed in the substrate, where each switch is connected between at least one laser diode and at least one capacitor of the plurality of capacitors; and at least one laser diode being mounted in close proximity to the plurality of capacitors on the substrate in order to provide small parasitic inductances and capacitances. A processor is configured to control the plurality of switches to control a first current flow to charge the plurality of capacitors, wherein the processor is configured to control the plurality of switches to control a second current flow to drive the at least one laser diode with current discharged from at least one capacitor of the plurality of capacitors.

Abstract: An optical-effect light may include a LIDAR system for detecting objects. The optical-effect light may be controlled based on one or more parameters of the detected object. The optical-effect light may include at least one radiation source configured to emit light and at least one acquisition unit configured to acquire data pertaining to the object(s). The light may be controlled based on the acquired data.

Abstract: A cover member for an in-store greenhouse is disclosed, with which radiation exiting the in-store greenhouse can be influenced or modified, so that outgoing total radiation has a white color on the Planck curve.

Abstract: A system for monitoring the irradiation of an object with light from a luminaire includes the luminaire having one or more light sources, which emit light having a spatial radiation pattern; a computing unit, connected to the luminaire and set up to acquire information about an illuminance of the light of the light sources; a first memory, connected to the computing unit and in which information about spatial positioning of the luminaire relative to a surface of the object is stored; and a second memory, connected to the computing unit and in which information about the spatial radiation pattern of the light sources is stored. The computing unit may calculate and output a local intensity of light incident at the respective position on the basis of illuminance information, the spatial radiation pattern of the light sources, and the spatial positioning of the luminaire relative to the surface of the object.

Abstract: A luminous fiber may include a flexible printed circuit board extending in a length direction of the fiber, at least one electrically conductive trace being formed on the flexible printed circuit board, at least one light emitting component being arranged on the flexible printed circuit board and being electrically connected to the trace, and a lateral strengthening structure for strengthening the luminous fiber in lateral direction perpendicular to the length direction. The lateral strengthening structure may include two frame bars, which are formed on the flexible printed circuit board and which extend in the length direction of the fiber. The lateral strengthening structure may include several lateral support elements, which are formed on the flexible printed circuit board between the frame bars and which are coupled to the frame bars.

Abstract: The present disclosure relates to various embodiments of an optical component for a LIDAR Sensor System. The optical component may include an optical element having a first main surface and a second main surface opposite to the first main surface, a first lens array formed on the first main surface, and/or a second lens array formed on the second main surface. The optical element has a curved shape in a first direction of the LIDAR Sensor System.

Abstract: A luminous fiber may include a flexible printed circuit board extending in a length direction of the fiber, at least one electrically conductive trace being formed on the flexible printed circuit board, at least one light emitting component being arranged on the flexible printed circuit board and being electrically connected to the trace, and a lateral strengthening structure for strengthening the luminous fiber in lateral direction perpendicular to the length direction. The lateral strengthening structure may include two frame bars, which are formed on the flexible printed circuit board and which extend in the length direction of the fiber. The lateral strengthening structure may include several lateral support elements, which are formed on the flexible printed circuit board between the frame bars and which are coupled to the frame bars.

Abstract: A system for monitoring the irradiation of an object with light from a luminaire includes the luminaire having one or more light sources, which emit light having a spatial radiation pattern; a computing unit, connected to the luminaire and set up to acquire information about an illuminance of the light of the light sources; a first memory, connected to the computing unit and in which information about spatial positioning of the luminaire relative to a surface of the object is stored; and a second memory, connected to the computing unit and in which information about the spatial radiation pattern of the light sources is stored. The computing unit may calculate and output a local intensity of light incident at the respective position on the basis of illuminance information, the spatial radiation pattern of the light sources, and the spatial positioning of the luminaire relative to the surface of the object.

Abstract: The present disclosure relates to different techniques of controlling an agricultural system, as for example a controlled agricultural system, an agricultural light fixture and a method for agricultural management. Furthermore, the disclosure relates to an agricultural system, which comprises a plurality of processing lines for growing plants of a given plant type, wherein a first processing line in the plurality of processing lines is configured to move a first plurality of plants through the agricultural system along a route; and apply a first growth condition to the first plurality of plants to satisfy a first active agent parameter for the first plurality of plants.

Abstract: The present disclosure relates to different techniques of controlling an agricultural system, as for example a controlled agricultural system, an agricultural light fixture and a method for agricultural management. Furthermore, the disclosure relates to an agricultural system, which comprises a plurality of processing lines for growing plants of a given plant type, wherein a first processing line in the plurality of processing lines is configured to move a first plurality of plants through the agricultural system along a route; and apply a first growth condition to the first plurality of plants to satisfy a first active agent parameter for the first plurality of plants.

Abstract: An optical-effect light may include a LIDAR system for detecting objects. The optical-effect light may be controlled based on one or more parameters of the detected object. The optical-effect light may include at least one radiation source configured to emit light and at least one acquisition unit configured to acquire data pertaining to the object(s). The light may be controlled based on the acquired data.

Abstract: The present disclosure relates to different techniques of controlling an agricultural system, as for example a controlled agricultural system, an agricultural light fixture and a method for agricultural management. Furthermore, the disclosure relates to an agricultural system, which comprises a plurality of processing lines for growing plants of a given plant type, wherein a first processing line in the plurality of processing lines is configured to move a first plurality of plants through the agricultural system along a route; and apply a first growth condition to the first plurality of plants to satisfy a first active agent parameter for the first plurality of plants.

Abstract: A road user includes a sensor with which information is acquirable for the road user from its environment, a communication circuit by means of which the information is at least one of transmittable or receivable, and a controller which has a processor by means of which the information can be evaluated, and a control apparatus by means of which the road user is fully or partially autonomously controllable depending on the information at least one of acquired by the sensor or received by the communication circuit. A control of the road user by its controller is transferable to a central controller on the basis of at least one previously defined criterion.

Abstract: A cover member for an in-store greenhouse is disclosed, with which radiation exiting the in-store greenhouse can be influenced or modified.

Abstract: Various embodiments relate to a method for setting the illumination light emitted by an illuminating unit for illuminating an object to be illuminated, wherein, from a color image of the object to be illuminated, recorded by means of a digital camera, a mean value color locus is ascertained from the respective pixel color information items for a pixel set containing at least some of the pixels of the color image, an associated white light color locus with the most similar correlated color temperature is ascertained for said mean value color locus and wherein, further, the illumination light is selected in such a way that an illumination light color locus of the illumination light substantially corresponds to the white light color locus.