Abstract: An authentication method comprising obtaining (S101) a first stored user data, SUD, part provided by a user; obtaining (S102) a second SUD part from a storage location (152; 752); combining (S103) the first SUD part and the second SUD part to obtain a combined SUD; obtaining (S104) live user data (154; 756) from the user; comparing (S105) the live user data and the combined SUD; and, determining whether to authenticate (S105) based on the comparison

Abstract: It is an object of the invention to improve a user's breathing for a specific application (e.g. diagnostic imaging, falling asleep improvement (shortening sleep onset), delivery, tinnitus control therapy, CORD, blood pressure control). This object is achieved by a breathing adaptation system configured for influencing a breathing parameter of a user's breathing pattern in order to meet a goal of decreasing or increasing the influenced breathing parameter to a certain extent in a user specific manner. The breathing adaptation system comprises a sensor, configured for monitoring a current value of the influenced breathing parameter of the user. The breathing adaptation system further comprises a feedback unit configured for providing feedback to the user about a preferred value of the influenced breathing parameter, wherein the preferred value is different from the current value of the influenced breathing parameter (310).

Abstract: An animal vital signs detection system is provided which comprises at least one photoplethysmography (PPG) sensor (100) having at least one light source (110), at least one photo sensor (120) and at least one light guide unit (130) which is adapted to guide light from the light source (110) through hairs, fur or pelt to a skin of an animal (100) and light from the skin through hair, fur or pelt of the animal (1000) to the at least one photo sensor (120). By providing the light guide coupled to the light source (110) and the photo sensor (120), the PPG sensor (100) can be placed even on hair, fur or pelt of an animal (1000) while still being able to effectively direct light to the skin and detect light from the skin of an animal (1000). The ratio between a length and a diameter of the light guides is >4.

Abstract: The present invention relates to a system (34) for detecting variation of heart rate, HR, of a user (14), said system comprising an optical sensing unit (12) for measuring a heartbeat-related optical signal of said user (14) over time, a processing unit (20) for deriving an HR-variation signal from said heartbeat-related optical signal, an analyzing unit (22) for comparing said derived HR-variation signal to a reference HR range, and an initiating unit (26) for initiating a process for measuring an informative heartbeat-related signal of said user (14) depending on said comparing of said analyzing unit (22).

Abstract: A gas chromatography system comprising a sample introduction device, an oven coupled to the sample introduction device and a detector coupled to the oven is disclosed. In certain examples, the oven may be configured to receive a chromatography column in a space in the oven. In some examples, the oven may be constructed and arranged to provide a substantially constant temperature to the space during an analysis stage of the gas chromatography system.

Abstract: A gas chromatography system comprising a sample introduction device, an oven coupled to the sample introduction device and a detector coupled to the oven is disclosed. In certain examples, the oven may be configured to receive a chromatography column in a space in the oven. In some examples, the oven may be constructed and arranged to provide a substantially constant temperature to the space during an analysis stage of the gas chromatography system.

Abstract: The invention provides signal coding, wherein the signal is source coded to obtain a coded data stream, and source significance information (SSI) is included into the coded data stream, the source significance information (SSI) indicating desired protection rates of respective parts of the coded data stream. In this way, a channel encoder may obtain the source significance information (SSI) from the coded data stream, which is advantageous in presence of intermediate network layers. Preferably, the coded data stream comprises respective packets, the being included in respective headers associated with the respective packets, a given header indicating desired protection rates for respective parts (pin) of the associated packet. In order to provide easy detection of the source significance information (SSI), a first header (SSI1) is placed at a beginning of the coded data stream. Alternatively, the header (SSI1) is provided with an identifier.

Abstract: Disclosed are systems and methods that include a thermal desorption unit, a chromatographic column, and an interface device between the unit and the column. The interface device controls the fluid flowing into the column, such as by providing additional carrier gas to maintain a substantially constant gas flow or velocity, by proving a controlled temperature increase, or by venting a portion of the gas received from the thermal desorption unit, thereby removing the dependence on the thermal desorption unit for such control. In some embodiments, the interface is a chromatographic injector. In certain embodiments, a transfer line from the desorption unit is coupled to the same port of the interface device as the chromatographic column. In some of these embodiments, this is accomplished by employing a special adaptor.

Abstract: The invention concerns a holographic method with numerical reconstruction for obtaining an image of a three-dimensional object, said method employing a digitalised hologram of an object, and comprising a step A. wherein, starting from the digitalised hologram, extracting a phase image of said object corresponding to a bidimensional matrix MD of distance values; a step B. wherein a mono-dimensional subassembly SD of the distance value assembly present in matrix MD of the method step A is selected, subassembly SD containing distance values dk; a step C. wherein for each distance value dk, extracting from matrix MD a iso-level assembly IQdk corresponding to a mono-dimensional assembly of bidimensional coordinates of said object, a step D. wherein for each distance value dk, reconstructing, starting from the digitalised hologram, a bidimensional matrix IMdk of intensity values relevant to said object; a step E.

Abstract: An ion optical system including an ionizer for ionizing one or more compounds, the ionizer including a plurality of components, a mass separator for separating ions of the one or more compounds, the mass separator including a plurality of components, and a detector for identifying the one or more compounds, the detector including a plurality of components. At least one of the plurality of components of at least one of the ionizer, mass separator and detector includes a composition of zirconium oxide and aluminum oxide.

Abstract: Disclosed are systems and methods that include a thermal desorption unit, a chromatographic column, and an interface device between the unit and the column. The interface device controls the fluid flowing into the column, such as by providing additional carrier gas to maintain a substantially constant gas flow or velocity, by proving a controlled temperature increase, or by venting a portion of the gas received from the thermal desorption unit, thereby removing the dependence on the thermal desorption unit for such control. In some embodiments, the interface is a chromatographic injector. In certain embodiments, a transfer line from the desorption unit is coupled to the same port of the interface device as the chromatographic column. In some of these embodiments, this is accomplished by employing a special adaptor.

Abstract: Disclosed are systems and methods that include a thermal desorption unit, a chromatographic column, and an interface device between the unit and the column. The interface device controls the fluid flowing into the column, such as by providing additional carrier gas to maintain a substantially constant gas flow or velocity, by proving a controlled temperature increase, or by venting a portion of the gas received from the thermal desorption unit, thereby removing the dependence on the thermal desorption unit for such control. In some embodiments, the interface is a chromatographic injector. In certain embodiments, a transfer line from the desorption unit is coupled to the same port of the interface device as the chromatographic column. In some of these embodiments, this is accomplished by employing a special adaptor.

Abstract: A holographic method with numerical reconstruction for obtaining an image of a three-dimensional object, employs a digitalized hologram of an object or of a portion thereof, and includes starting from the digitalized hologram, extracting a phase image of the object corresponding to a matrix MD of distance values, selecting a subassembly SD of the distance value assembly present in matrix MD, subassembly SD containing distance values dk, extracting from matrix MD an iso-level assembly IQdk of corresponding bidimensional coordinate of the object; reconstructing, for each distance value dk, a bidimensional matrix IMdk of intensity values relevant to the object; extracting, from each bidimensional matrix IMdk, a bidimensional IFdk of intensity values; and starting from the intensity values, reconstructing the three-dimensional intensity image of the object.

Abstract: A holographic method with numerical reconstruction for obtaining an image of a three-dimensional object, employs a digitalized hologram of an object or of a portion thereof, and includes starting from the digitalized hologram, extracting a phase image of the object corresponding to a matrix MD of distance values, selecting a subassembly SD of the distance value assembly present in matrix MD, subassembly SD containing distance values dk, extracting from matrix MD an iso-level assembly IQdk of corresponding bidimensional coordinate of the object; reconstructing, for each distance value dk, a bidimensional matrix IMdk of intensity values relevant to the object; extracting, from each bidimensional matrix IMdk, a bidimensional IFdk of intensity values; and starting from the intensity values, reconstructing the three-dimensional intensity image of the object.

Abstract: An ion optical system including an ionizer for ionizing one or more compounds, the ionizer including a plurality of components, a mass separator for separating ions of the one or more compounds, the mass separator including a plurality of components, and a detector for identifying the one or more compounds, the detector including a plurality of components. At least one of the plurality of components of at least one of the ionizer, mass separator and detector includes a composition of zirconium oxide and aluminum oxide.

Abstract: The invention concerns a method Method for the reconstruction of holographic images, the holographic image being detected by an image detection device (9), the holographic image being transformed in a digitized hologram (10), the digitized hologram (10) being comprised of a number Vr of elementary pixels, the size of which being equal to the holographic image sampling intervals, and of the Vr values (51) respectively associated to the elementary pixels, the method comprising a first step (11,12) of processing the digitized hologram array, and a second step (13,15,16,17,18) of hologram reconstruction in the observation plane starting from the digitized hologram processed in the first step, the method being characterised in that the second step is carried out through discrete Fresnel Transform applied on an array of Ve values corresponding to pixels having size equal to that of said elementary pixels, wherein said array of Ve values (50, 51) includes said array of Vr values and an integer number p=Ve?Vr>0 of

Abstract: Interferometric system for the simultaneous measurement of the index of refraction and of the thickness of transparent materials with a single measurement operation. The system employs an interferometer as a “shear interferometer” with the advantage of varying the wavelength of the luminous source. The index of refraction and the thickness are determined in two phases. Firstly it is determined the optical path analyzing the displacement of interferometric signal obtained by orthogonal incidence; successively, by means of phase recovery techniques and the previously determined optical path value, it is possible to obtain the index of refraction of the material. From the knowledge of the index and of the optical path it is obtained the material thickness.