Trilite Technologies Gmbh

C Seed Technologies Gmbh

Trilife Technologies Gmbh

Franz Fidler

Joerg Reitterer

Alexander Swatek

Ferdinand Saint Julien-Wallsee

Christian Hambeck

Elmar Stoger

Gerhard Schmid

Anna Balbekova

Andreas Haas

The disclosed subject matter relates to an apparatus for projecting a light spot, comprising

Apparatus for projecting a light spot

A light-emitting module for displaying or projecting a video signal comprises at least one mirror mounted so as to be able to oscillate and at least one light-emitting element, which is directed onto the mirror and is controllable via an input, and a computation unit that is connected to the light-emitting element and is configured to output at least one sample value of the video signal, which sample value appears at the input of said computation unit at a first time within a period of the mirror, at its output as a sample value at a second time, which is different from the first, within the same period according to a mapping function that is stored in the computation unit, wherein the computation unit has a control input that can be used to scale and/or offset the stored mapping function. The invention further comprises a display or projection apparatus having a multiplicity of such light-emitting modules, and a method for calibrating the light-emitting module and the apparatus.

Display or projection apparatus for a video signal, and light-emitting module and calibration method therefor

The present invention relates to an apparatus for driving and measuring a MEMS mirror system, the MEMS mirror system having a mirror pivotable around an axis by a driving coil and exhibiting a resonance frequency, having a pulse generator and a measuring unit, each electrically connected to the coil. The pulse generator is preferably configured to feed a modulated pulse signal, comprised of pulses separated by intervals and having a modulation frequency different from the resonance frequency, to the coil. The measuring unit is preferably configured to measure a value of a signal output by the coil during an interval of the modulated pulse signal. In a further aspect of the invention a method is provided for driving and measuring the MEMS mirror system.

Apparatus and method for driving and measuring a MEMS mirror system

A display device (A) for the display of image information, which consists of at least one or a plurality of picture elements and may be modified by means of a frame rate (R), having at least one light source (L) for the generation of a picture element of the image information, characterized in that there are provided picture element modification means (VM) having movement elements (BR, BV, LI, L), which are movably arranged with at least the frame rate (R) in the display device (A) and which are adapted to selectively deflect and/or cover the light emitted by the at least one light source (L) for the viewer (LA, RA) of the display device (A) in order to generate per light source (L) of the display device (A) at least twice the number of picture elements as extension picture elements () for the display of the image information, wherein the light emitted by the at least one light source (L) is modified with at least twice the frame rate (R) as light source frequency (f).

Display device with movement elements for obtaining a high resolution and/or a 3D effect

An apparatus for projecting a picture element based on at least a first and a second sample comprises a mirror configured to pivot about two axes, at least a first and a second light generation unit, and a processor being configured to output the first sample received at a first point in time at a second point in time to the first light generation unit and the second sample received at a first point in time at a third point in time to the second light generation unit. At least one of the second and third points in time is determined such that the distance between the actual first and second positions is reduced.

Apparatus for projecting a picture element

A device for generating multiple collimated light beams includes a carrier and at least two light generation units mounted on the carrier. The light generation units are configured to emit, each from an aperture, light beams at respectively different wavelengths and being arranged, with respect to axes of the light beams, substantially parallel and substantially in a common plane. A first lens is mounted on the carrier intersectingly to the axes of the light beams and has a principal plane. The light generation units have their apertures aligned along an alignment line substantially perpendicular to the axes of the light beams and the principal plane of the first lens is non-perpendicular to the axes of the light beams and is non-parallel to the alignment line.

Device for generating multiple collimated light beams

The invention relates to a display arrangement including a foot which supports a plurality of panels, which are flexibly interconnected by means of connecting elements, a lifting device and a receiving device that can be lowered into the ground. The receiving device is designed to receive the panels, folded together, including the foot and the lifting device. The lifting device is designed to raise the panels out of the receiving device and to lower the panels into the receiving device. The panels can be folded together in a barrel shape around the foot and in particular also around the lifting device. The receiving device is designed to receive the panels folded together in a barrel shape around the foot and more particularly also around the lifting device.

Barrel-shaped foldable and lowerable display arrangement

An illumination device (A) for the illumination of illumination zones (BZ) with different light intensity and/or color temperature by means of at least one light source (L), wherein per light source (L) there is provided at least one illumination modification means (VM) in the optical path between the light source (L) and the illumination zones (BZ) having at least one movement element (BR, BV, LI, L), which is arranged movably in the illumination device (A) and which is adapted to selectively deviate and/or cover the light emitted by the at least one light source (L) by means of control means with an illumination frame rate (R) for a subsequent illumination of the illumination zones (BZ), wherein the control means are adapted to control the light intensity of each light source according to the illumination zone (BZ) currently illuminated.

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Vienna, Austria

Franz Fidler