Csem Centre Suisse D'electronique Et De Microtechnique Sa

Rodenstock Gmbh

Mesa Imaging Ag

Hamamatsu-photonics K.k.

Mtu Aero Engines Gmbh

Csem Centre Suisse D'electronique Et De Microtechnique Sa Recherche Et Developpement

Other

Leica Geosystems Ag

Philip Morris Products S.a.

Csem Centre Suisse D'electronique Et De Microtechnique Sa - Recherche Et Developpment

Novel Gmbh

Heliotis Ag

Csem Centre Suisse D'electronique Et Microtechinique Sa

Heptagon Micro Optics Pte. Ltd.

Peter Seitz

Gregor Esser

Markus Tiemann

Anne Seidemann

Adam Muschielok

Rolf Kaufmann

Christian Lotto

Katsumi Shibayama

Helmut Altheimer

Takashi Kasahara

Andrea Welk

Wolfgang Becken

Michael Lehmann

Werner Mueller

Helmut Teichmann

Rainer Sessner

Stephan Trumm

Thomas Ammer

Felix Lustenberger

St&eacute;phane Bourquin

Alexandru Rusu

Wolfgang Hauk

Jürg Hinderling

Michel Bessant

Roland Huttner

Jacques Robert

Karl-Heinz Dusel

Martin Stalder

Bernhard Büttgen

Martin Winistörfer

Simon Neukom

Riccardo Riva Reggiori

Andreas Durandi

Johannes Schubart

Ren&eacute;-Paul Salathe

Nicolas Blanc

Graham K Lang

Robert Lange

Stephan Beer

Leo Schmid

Ahmad Dahrouj

Killian Perani

Thomas Spirig

Martin WINISTÖRFER

Bernhard Buttgen

Provided is a control device for controlling a Fabry-Perot interference filter having a pair of mirror parts and a pair of driving electrodes. The control device includes: a first driving source that is controlled by using a current as a control parameter, and changes the distance between the pair of mirror parts; a second driving source that is controlled by using a voltage as a control parameter, and changes the distance; and a control unit that controls the first driving source and the second driving source in such a way that the distance is changed by a first driving source in a first region and the distance is changed by the second driving source in at least one part of an region other than the first region when an region including a maximum of the voltage is defined as the first region.

Control device, optical filter system, and control method

The present invention relates to an aerosol-generating device that is configured for generating an inhalable aerosol by heating an aerosol-forming substrate. The device comprises a device housing for receiving the aerosol-forming substrate and a pyrometer for determining a temperature of a heated target surface within the device housing. The invention further relates to an aerosol-generating system comprising such an aerosol-generating device and an aerosol-generating article for use with the device including an aerosol-forming substrate.

Aerosol-generating device and system comprising a pyrometer

Embodiments relate to a monolithic arrangement comprising one or more electrochemically responsive electrodes that are configured to generate a signal relating to a characteristic of a fluid sample; and one or more electronic circuits for processing signals generated by the at least one electrode. Optionally, the monolithic arrangement comprises a plurality of electrodes configured to implement potentiostat and/or galvanostat measurement techniques. Optionally, at least two of the plurality of electrodes have different electrochemical material layers to obtain correspondingly different electrode functionalization.

Chip-based multi-channel electrochemical transducer and method of use thereof

An optical filter system includes a Fabry-Perot interference filter, and a controller that controls the Fabry-Perot interference filter. The Fabry-Perot interference filter includes a first mirror portion, a second mirror portion, a first driving electrode and a first monitor electrode provided with the first mirror portion, and a second driving electrode and a second monitor electrode provided with the second mirror portion. The controller includes a control unit that calculates an electrostatic capacitance between the first mirror portion and the second mirror portion based on an alternating voltage generated between the first monitor electrode and the second monitor electrode while an alternating current is applied between the first monitor electrode and the second monitor electrode.

Optical filter system

A light receiver designed to determine a position or orientation relative to a reference light wherein the light receiver comprises an elongated rod-shaped light receptor with two ends, a light coupler, a light guide, and light detection means at both ends and a signal processor to process the electric signals of the detection means and to determine the relative position and/or orientation by a comparative evaluation of the electric signals. The light guide serves as a light propagation path of defined length for light coupled into the light guide by the light coupler and the signal processor determines the position and/or orientation based on light propagation speed of the reference light propagating in the light guide.

Light receiver

A light receiver designed to determine a position or orientation relative to a reference light wherein the light receiver comprises an elongated rod-shaped light receptor with two ends, a light coupler, a light guide, and light detection means at one or both ends for detection of guided reference light and a signal processor to process the at least one detection signal of the detection means and to determine the position by an evaluation of the detection signal. The light coupler comprises light absorbing and emitting material like fluorescent or phosphorescent material.

Light receiver for position referencing

In a method for determining 3D coordinates of at least one predetermined point of an object, the object is arranged in a measurement region and a variable illumination source projects a variable pattern onto the object arranged in the measurement region. An image recording apparatus which is arranged in a previously known relationship with respect to the illumination source records an image of at least one section of the object illuminated by the variable illumination source. The at least one predetermined point is detected in the recorded image. The 3D coordinates of the at least one predetermined point are determined from the recorded image, taking into account the previously known relationship of the image recording apparatus with respect to the illumination source, if a check of the recorded image reveals that the at least one predetermined point is marked in the recorded image by a feature of the variable pattern.

Method and apparatus for determining 3D coordinates of at least one predetermined point of an object

An optical system for measuring a distance to an object furnished with a plane mirror is disclosed. The optical distance measuring system includes a coherent light source projecting a laser beam, optical elements, and a one-dimensional photosensor. The optical elements split the laser beam into two laser beams and spread out the laser beam into a sheet of light whose orientation is perpendicular to a plane created by the propagation directions of the laser beams. The laser beams are reflected by the mirror and back to the photosensor. The photosensor detects incident light intensity distribution of the reflected laser beams with two local maxima, whose position can be employed to calculate the distance of the mirror and its momentary tilt angle.

Optical distance measuring system

A device for determining the distance of an eye of a user from the image capturing device is disclosed. The device includes a lighting device that is arranged at a specified position relative to the image capturing device and is designed to generate at least one specular light reflection, which has a linear portion, on the cornea of the eye of the user. The device also includes an image capturing device designed to capture at least one image of the specular light reflection in the region of the cornea of the at least one eye of the user. A distance determining device is designed to ascertain data relating to the distance between two specified points of the light reflection and the curvature of the at least one linear portion of the light reflection in the captured image and the distance of the eye from the image capturing device.

Device and method for distance determination and/or centering using corneal reflections

The invention relates to a method for highly accurate determining of a pupil diameter of an eye, using a camera system for spatial capturing of objects, the method including: imaging stereoscopic capturing of an eye region, wherein for an eye of the eye region a first and a second stereoscopic image arise. For each of the two stereoscopic images the method further includes: Transferring of the captured eye region into a color space. Determining of a region, within the captured eye region, as a region within a pupil of the captured eye region. Determining of a closed outer edge of the region within the pupil. Iterative determining of a closed outer pupil edge. The invention further relates to a corresponding device.

Method for determining the pupil diameter of an eye with high accuracy, and corresponding apparatus

An apparatus for determining optical parameters of a user with spectacles arranged in the use position on the head of the user includes at least one projection device designed and arranged for marking a partial region of the head of the user and/or of the spectacles of the user with a light projection; at least one image recording device designed and arranged for generating image data at least from the marked partial region of the head of the user and/or of the spectacles of the user; and a data processing device with a user data determining device, which is designed to determine user data from the marked partial region of the head and/or of the spectacles on the basis of the generated image data, wherein the user data comprise spatial information in the three-dimensional space of points of the partial region of the head and/or of the spectacles, and a parameter determining device, which is designed to determine optical parameters of the user on the basis of the user data.

Apparatus and method for determining optical parameters

In a method for providing optotypes for determining distance visual acuity, a test subject position is provided for a test subject and a display surface at a display position. An individual test distance between the test subject position and the display position is, for example, detected automatically. An individual target variable is determined for optotypes which are matched to the detected individual test distance according to a predetermined role. Digital optotype image data are provided which contain optotypes scaled to the individual target variable. The digital optotype image data are displayed on the display surface.

Method for determining visual acuity

A sensor for electrically measuring a force distributed unevenly across a measurement surface of the sensor includes a spring device between a measurement surface and a counter-surface. A first measuring element is arranged in or on the measurement surface and a second measuring element is arranged in or on the counter-surface, the elements substantially completely covering these surfaces in each case. The measuring elements include capacitor plates, and are designed such that the measuring signal can be generated from a distance between the measuring elements. The spring device has a large number of elastically designed spring members which are arranged spaced apart from each other by gaps so that each spring member upon loading by the force can deform into the gaps. This arrangement makes it is possible to measure unevenly distributed forces between bodies which may be of very different forms.

Sensor for electrically measuring a force having a spring unit arranged in-between surfaces

Adjustment of an eyeglass lens or a pair of eyeglasses by means of an individual brightness-dependent centering of an eyeglass lens. In particular, a method for adjusting an individual eyeglass lens for at least one eye of an eyeglass wearer, including: defining an individual usage situation which comprises at least one target brightness value for the light to be captured by the at least one eye; determining a position of the pupil in at least one direction of view of the at least one eye which occurs or is expected at the at least one target brightness value; determining a reference point of the eyeglass lens, in which the eyeglass lens effects a required correction of individual refraction data for the at least one direction of view; on the basis of the determined individual value of the pupil position, providing and arranging the eyeglass lens in such a manner that the at least one reference point of the eyeglass lens is arranged in front of the at least one eye of the eyeglass wearer.

Brightness-dependent adjustment of a spectacle lens

A method of determining of user data for the production of an eyeglass lens for a selected eyeglass frame for a user. The method includes providing an eyeglass frame image data set of the selected eyeglass frame; gathering user image data at least of one portion of the user's head, together with at least one part of the selected eyeglass frame worn by the user; finding the pupils of the user in the user image data, and determining a pupil data set, said pupil data set comprising the size and/or the shape and/or the relative distance between the pupils of the user; and determining contour points of the rim of the eyeglass lens to be produced in the user image data, based on the eyeglass frame image data set and the pupil data set.

Determining user data based on image data of a selected eyeglass frame

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Urdorf, Switzerland

Peter Seitz