Fraunhofer-gesellschaft Zur Foerderung Der Angewandten Forschung E.v.

Karlsruher Institut Fur Technologie

Thomas Längle

Robin Gruna

Uwe Hanebeck

Henning Schulte

Andreas Reimann

Matthias Hartrumpf

Simon Vogel

Johannes Meyer

Georg Maier

Eduardo Monari

Florian Pfaff

Dirk Nüssler

Dirk Seiffer

Beniamin Noack

Markus Vogelbacher

Kai-Uwe Vieth

Marcus Baum

Benjamin Noack

Michael Heizmann

Michael Kieninger

Christian Brandt

Andries KÜTER

The invention relates to a lighting device for at least one plant, comprising an artificial lighting unit for providing artificial light for lighting the plant; a sunlight unit for providing sunlight for lighting the plant; a mixing unit for generating a mixed light consisting of the artificial light and the sunlight; a distributing unit for distributing the mixed light and lighting the plant with the distributed mixed light; and an adjustment unit for adjusting a property of the mixed light. The invention provides a lighting device for at least one plant, i.e., one or more plants, wherein the device can be used in an energy-saving manner for indoor farming.

Lighting device and lighting method for at least one plant

The invention relates to a method and a device for determining at least one mechanical property of at least one object, wherein the at least one object is subjected to at least one interaction which influences a movement state of the at least one object, wherein the at least one interaction is selected such that the movement state effectuated by the interaction is a function of the at least one mechanical property, wherein the at least one object is observed using at least one camera, wherein the movement state is determined from images recorded by the at least one camera and wherein the at least one mechanical property of the at least one object is determined from the movement state thus determined.

Method for determining at least one mechanical property of at least one object

A system is provided for detecting non-metallic, non-aqueous substances in an aqueous sample, comprising a transmitter section, which emits electromagnetic radiation in the terahertz range towards the sample, a receiver section, which detects radiation components of said electromagnetic radiation which are modified by the sample and/or the substances therein and an evaluation section, which evaluates radiation components which are detected by the receiver section in order to establish whether non-metallic, non-aqueous substances are present or not in the aqueous sample, a transition of the aqueous sample from the liquid aggregate state into the solid aggregate state or vice versa taking place, radiation components which are modified respectively, for a plurality of different states of the aqueous sample, during this transition being detected by means of the receiver section, and the radiation components thus detected being evaluated by means of the evaluation section.

System for detecting non-metallic, non-aqueous substances in an aqueous sample, a corresponding unit and a corresponding method

The invention relates to an apparatus for controlling the quality of transparent objects, comprising at least one light source being adapted to illuminate the object, and at least one image capturing device, by means of which at least one image of the object can be detected, wherein the apparatus comprises further at least one reflector, wherein the reflector and the image capturing device define a beam path, wherein the reflector, the image capturing device, and the light source are arranged such that the object can be arranged between the reflector, on the one hand, and the image capturing device and the light source, on the other hand, such that a single sheet of material is located in the beam path. Furthermore, the invention relates to a corresponding method for controlling the quality of transparent objects.

Apparatus and method for controlling the quality of transparent objects

Conveying system for transporting a material flow (M) comprising a large number of individual objects (O, O, . . . ), characterized in that with the conveying system, by means of optical detection of individual objects (O, O, . . . ) in the material flow (M), for these objects (O, O, . . . ) respectively the location position (x(t),y(t)) thereof at several different times (t, t, . . . ) can be determined and by means of the location positions (x(t),y(t)) for these objects (O, O, . . . ) determined at the different times (t, t, . . . ), respectively the location (x(t),y(t)) thereof at at least one defined time (t) after the respectively latest of the different times (t, t, . . . ) can be calculated.

Conveying system, plant for sorting bulk goods having a conveying system of this type, and transport method

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Eggenstein, Germany

Thomas Längle