mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for the additive production of three-dimensional objects by successive layer-by-layer selective exposure and associated successive layer-by-layer selective solidification of building material layers from an energy beam solidifiable building material , comprising: - an exposure device which is set up for the generation of an energy beam for successive layer-wise selective exposure and associated successive layer-wise selective solidification of building material layers from a means of energy beam solidifying building material , and - a measuring device designed as a themography camera for measuring a temperature, a temperature control device which forms part of a control unit, wherein the temperature control device comprises a temperature control or heating device , characterised in that the control unit is designed to measure by means of the measuring device , at least two measuring points (P) a temperature locally and temporally multiple times, wherein the measuring points (P) at least two at least partially formed of solidified building material three-dimensional objects or at least two resulting in the additive production of an additively produced object are assigned, wherein the control unit is designed to indicate a temperature measured at the at least two measuring points (P)and local and/or temporal temperature gradients of the objects on one of the device associated display device , wherein the control unit for controlling the temperature control device is designed such that the temperature at one or more measuring or room points can be changed depending on the measured/average temperatures measured by the measuring device . - an exposure device which is set up for the generation of an energy beam for successive layer-wise selective exposure and associated successive layer-wise selective solidification of building material layers from a means of energy beam solidifying building material , and - a measuring device designed as a themography camera for measuring a temperature,
An elevator operating panel comprising: a touch panel provided in at least one of a hall and a car of an elevator; and a display controller for causing an operation screen of the elevator to be displayed in a display part of the touch panel , characterized in that the touch panel has a scanner function and takes in a fingerprint of a user by means of the scanner function when a finger of the user touches the display part and wherein the display controller performs fingerprint identification based on the user's fingerprint taken in by the touch panel and causes the operation screen of the elevator according to the user specified by the fingerprint identification to be displayed in the display part of the touch panel . a touch panel provided in at least one of a hall and a car of an elevator; and a display controller for causing an operation screen of the elevator to be displayed in a display part of the touch panel , characterized in that the touch panel has a scanner function and takes in a fingerprint of a user by means of the scanner function when a finger of the user touches the display part and wherein the display controller performs fingerprint identification based on the user's fingerprint taken in by the touch panel and causes the operation screen of the elevator according to the user specified by the fingerprint identification to be displayed in the display part of the touch panel .
A method of processing left-and-right stereoscopic images for display on a single screen of a width Ls, to a viewer with an interocular distance Io and at a distance Ds of said single screen, said left-and-right stereoscopic images taken using parallel-axis left and right cameras each having an image sensor of width Lc and focal length F, said method comprising using the width Ls of said single screen, the interocular distance Io for said viewer and the distance Ds to position and to scale said left-and-right stereoscopic images so that each scaled stereoscopic image has a ratio Ds/Lse of the distance Ds to the screen over the width Lse of the image presented on the screen identical to the ratio F / Lc, wherein, when said left-and-right stereoscopic images as scaled for said screen have a width larger than lo+Ls, said left-and-right scaled stereoscopic images are cropped, and when said left-and-right stereoscopic images as scaled for said screen have a width smaller than lo+Ls, a border is provided for said left-and-right scaled stereoscopic images, thereby generating left-and-right scaled and cropped-or-bordered stereoscopic images having a width of lo+Ls, the method further comprising cropping said left-and-right scaled and cropped-or-bordered stereoscopic images for said single screen by at least cutting a left portion of the left scaled and cropped-or-bordered stereoscopic image corresponding to a proportion of lo/(Ls + Io) of the left scaled and cropped-or-bordered stereoscopic_image and cutting a right portion of the right scaled and cropped-or-bordered stereoscopic_image corresponding to a proportion of lo/(Ls + Io) of the right scaled and cropped-or-bordered stereoscopic image.
Method for secure connection of devices (12-16) to a cloud , with the following steps: a device (12-16) connects itself to a concierge service of the cloud and transfers to the concierge service information relating to the security functions provided by the device (12-16), characterised in that the concierge service , on the basis of information transferred by the device (12-16) about its security functions, establishes an appropriate security profile for the requesting device (12-16) and that the concierge service connects the requesting device (12-16) to a communication channel (26-30) appropriate to the security profile established from a group of communication channels (26-30) for the communication with the cloud . a device (12-16) connects itself to a concierge service of the cloud and transfers to the concierge service information relating to the security functions provided by the device (12-16), characterised in that the concierge service , on the basis of information transferred by the device (12-16) about its security functions, establishes an appropriate security profile for the requesting device (12-16) and that the concierge service connects the requesting device (12-16) to a communication channel (26-30) appropriate to the security profile established from a group of communication channels (26-30) for the communication with the cloud .
A surface temperature control system , comprising: - at least one flexible plastic pipe , the outside of which is at least partly covered by a first element of a hook-and-loop connection; - a support sheet , wherein a second element of the hook-and-loop connection is arranged on a side of the support sheet such that the flexible plastic pipe(s) can be releasably fixed to the support sheet to form the hook-and-loop connection; and - a dimensionally stable, flat support , on one side of which the support sheet is arranged; characterized in that the dimensionally stable, flat support is designed as a multiwall sheet made of a plastic material. - at least one flexible plastic pipe , the outside of which is at least partly covered by a first element of a hook-and-loop connection; - a support sheet , wherein a second element of the hook-and-loop connection is arranged on a side of the support sheet such that the flexible plastic pipe(s) can be releasably fixed to the support sheet to form the hook-and-loop connection; and - a dimensionally stable, flat support , on one side of which the support sheet is arranged;
A thermal insulation board (IB) comprising at least two insulating layers (A), wherein the at least two insulating layers (A) are bonded together and wherein at least one of the at least two insulating layers (A) comprises at least one aerogel composite material comprising at least the following components (a1) to (a3) (a1) at least one silica aerogel, (a2) at least one polymer foam and (a3) at least one flame retardant wherein the at least one aerogel composite material comprised in at least one of the at least two insulating layers (A) comprises 10 to 94 % by weight of the at least one silica aerogel (a1), 1 to 20 % by weight of the at least one polymer foam (a2) and 5 to 70 % by weight of the at least one flame retardant (a3), based in each case on the total weight of the at least one aerogel composite material. (a1) at least one silica aerogel, (a2) at least one polymer foam and (a3) at least one flame retardant wherein the at least one aerogel composite material comprised in at least one of the at least two insulating layers (A) comprises 10 to 94 % by weight of the at least one silica aerogel (a1), 1 to 20 % by weight of the at least one polymer foam (a2) and 5 to 70 % by weight of the at least one flame retardant (a3), based in each case on the total weight of the at least one aerogel composite material.
A method for selecting an Augmented Reality, AR, object on a head mounted device, HMD comprising: defining a Region-of-Interest, ROI, based on a first gesture formed by a shape by at least one hand of a user providing at least a partial outline of the ROI; displaying to the user a shape on the HMD, wherein the shape outlines the ROI; displaying to the user a plurality of AR objects , each of the plurality of AR objects being associated with one of a plurality of targets inside the ROI; reducing the size of the ROI based on a second gesture to form a reduced-sized ROI, the second gesture performed by a first movement of the at least one hand of the user; and selecting a specific AR object from the plurality of AR objects, the specific AR object associated with a first target of a plurality of targets within the reduced-sized ROI. defining a Region-of-Interest, ROI, based on a first gesture formed by a shape by at least one hand of a user providing at least a partial outline of the ROI; displaying to the user a shape on the HMD, wherein the shape outlines the ROI; displaying to the user a plurality of AR objects , each of the plurality of AR objects being associated with one of a plurality of targets inside the ROI; reducing the size of the ROI based on a second gesture to form a reduced-sized ROI, the second gesture performed by a first movement of the at least one hand of the user; and selecting a specific AR object from the plurality of AR objects, the specific AR object associated with a first target of a plurality of targets within the reduced-sized ROI.
A method of performing a sidelink communication, by a first user equipment, UE, in a wireless communication system, the method comprising: selecting candidate resources for transmission of a sidelink signal configured with a first priority from a predetermined resource pool; and obtaining, from a second UE, scheduling information on a reserved resource scheduled to be used for transmission of data by the second UE and a second priority related to the data from the second UE; and performing a reselection for the candidate resources based on the reserved resource overlapping with the candidate resources and the second priority being higher than the first priority. selecting candidate resources for transmission of a sidelink signal configured with a first priority from a predetermined resource pool; and obtaining, from a second UE, scheduling information on a reserved resource scheduled to be used for transmission of data by the second UE and a second priority related to the data from the second UE; and performing a reselection for the candidate resources based on the reserved resource overlapping with the candidate resources and the second priority being higher than the first priority.
An apparatus for optical detection of ultrasound, the apparatus comprising: a first array of multiple optical resonators - OR - , configured to modulate respective carrier frequencies of optical signals indicative of US waves impinging thereon; a second array of multiple optical passive-demodulation interferometers - OPDI - , implemented in one or more photonic integrated circuits (PIC), wherein each OPDI is configured to demodulate the optical signal output by the respective OR, so as to generate a respective intensity-modulated optical signal, the OPDI comprising: an interferometer having imbalanced arms that are recombined using a 90-degree optical hybrid ; and a third array of multiple electro-optical readout circuits - EORC , wherein each EORC is configured to measure the intensity demodulated optical signal produced by the respective OPDI, and to output a respective electrical signal, wherein the multiple OR are implemented in the one or more PIC and/or wherein the multiple EORC are implemented in the one or more PIC. a first array of multiple optical resonators - OR - , configured to modulate respective carrier frequencies of optical signals indicative of US waves impinging thereon; a second array of multiple optical passive-demodulation interferometers - OPDI - , implemented in one or more photonic integrated circuits (PIC), wherein each OPDI is configured to demodulate the optical signal output by the respective OR, so as to generate a respective intensity-modulated optical signal, the OPDI comprising: an interferometer having imbalanced arms that are recombined using a 90-degree optical hybrid ; and a third array of multiple electro-optical readout circuits - EORC , wherein each EORC is configured to measure the intensity demodulated optical signal produced by the respective OPDI, and to output a respective electrical signal, wherein the multiple OR are implemented in the one or more PIC and/or wherein the multiple EORC are implemented in the one or more PIC.
Method for controlling a measuring system comprising at least one mass spectrometer, wherein a database is provided, comprising information regarding at least a part of the measurement objects to be measured, and regarding at least a part of the measurement data (d 1 , d 2 , d 3 ) that can be recorded during measurement experiments carried out by the measuring system, and comprising information regarding relationships between at least a part of the measurement data (d 1 , d 2 , d 3 ); during the course of a measurement experiment over time, - recorded measurement data (d 1 , d 2 , d 3 ) are automatically evaluated, wherein the evaluation comprises a determination of relationships between at least a part of the recorded measurement data (d 1 , d 2 , d 3 ); - at least one query is made to the database in order to obtain information regarding recorded measurement objects using the determined relationships; and - the measuring system is controlled according to the information regarding recorded measurement objects and/or measurement data (d 1 , d 2 , d 3 ); wherein the measurement objects to be measured comprise biopolymers and/or the derivatives thereof and wherein at least a part of the masses of biopolymer fragments of a fragment spectrum and at least a part of the mass differences between the biopolymer fragments are used as query parameters when the query is made to the database, wherein, by means of the query to the database, possible candidates for unelucidated sequence portions of the biopolymers are determined that result from mass-spectrometric fragmentation, wherein, depending on the determined unelucidated sequence portions, - precursors for further fragmentation are identified, - fragmentation methods are selected and/or varied and/or - fragmentation parameters are adjusted and/or varied. - recorded measurement data (d 1 , d 2 , d 3 ) are automatically evaluated, wherein the evaluation comprises a determination of relationships between at least a part of the recorded measurement data (d 1 , d 2 , d 3 ); - at least one query is made to the database in order to obtain information regarding recorded measurement objects using the determined relationships; and - the measuring system is controlled according to the information regarding recorded measurement objects and/or measurement data (d 1 , d 2 , d 3 ); wherein the measurement objects to be measured comprise biopolymers and/or the derivatives thereof and wherein at least a part of the masses of biopolymer fragments of a fragment spectrum and at least a part of the mass differences between the biopolymer fragments are used as query parameters when the query is made to the database, - precursors for further fragmentation are identified, - fragmentation methods are selected and/or varied and/or - fragmentation parameters are adjusted and/or varied.
Use of aromatic and araliphatic carboxylic acids in aqueous basecoat materials for the purpose of improving the adhesion of these coating materials to overbaked clearcoat materials.
Electric hob with a retaining device for a control of the electric hob on the electric hob, wherein the retaining device has a base body , wherein - a retaining body is arranged on the base body so as to be movable relative thereto and is held thereon, - the control is arranged on the retaining body and is arranged so as to be resiliently movable relative to the base body , - the base body has a cutout or an opening in which the retaining body is arranged, and - the retaining body is at least partially surrounded by the base body , characterized in that - a plurality of spring means (20a-20d, 120a-120d) are provided for a retaining connection between the base body and the retaining body and for retaining the retaining body on the base body, - only the spring means (20a-20d, 120a-120d) are provided for this retention, and - the base body and the retaining body together with the spring means (20a-20d, 120a-120d) are manufactured in one piece and in a single operation by plastic injection molding. - a retaining body is arranged on the base body so as to be movable relative thereto and is held thereon, - the control is arranged on the retaining body and is arranged so as to be resiliently movable relative to the base body , - the base body has a cutout or an opening in which the retaining body is arranged, and - the retaining body is at least partially surrounded by the base body , - a plurality of spring means (20a-20d, 120a-120d) are provided for a retaining connection between the base body and the retaining body and for retaining the retaining body on the base body, - only the spring means (20a-20d, 120a-120d) are provided for this retention, and - the base body and the retaining body together with the spring means (20a-20d, 120a-120d) are manufactured in one piece and in a single operation by plastic injection molding.
A lumbar support belt (10; 110) comprising: - a support belt body (12; 112) for surrounding at least one part of a user's torso, - at least one first sensor capable of measuring the pressure exerted by the belt (10; 110) on a user or the elongation of the support belt body (12; 112), and - at least one second sensor adapted to measure at least one parameter relating to the actimetry of the user, characterized in that the lumbar support belt (10; 110) comprises a module (16; 116) comprising the at least one second sensor , the module (16; 116) being removably attached to a second location of the support belt body (12; 112). - a support belt body (12; 112) for surrounding at least one part of a user's torso, - at least one first sensor capable of measuring the pressure exerted by the belt (10; 110) on a user or the elongation of the support belt body (12; 112), and - at least one second sensor adapted to measure at least one parameter relating to the actimetry of the user,
An analysis chip for setting into an analysis instrument for being employed in the analysis of a sample , the analysis chip comprising: a first unit that comprises a sample introduction portion into which the sample can be introduced; and a second unit that is configured to house the first unit , the second unit being formed in a cuboidal box shape that has a length direction aligned with a length direction of the first unit , wherein an end face of the second unit opens so as to provide an insertion port , through which the first unit can be inserted into the second unit , the first unit being formed so as to be moveable from a first state in which the sample introduction portion is positioned outside the second unit , to a second state in which the sample introduction portion is positioned inside the second unit , and the second unit comprising two side faces which serve as guide portions , the inner sides of the guide portions being configured to contact the respective side edges of the first unit for guiding the first unit from the first state to the second state, the analysis chip being characterized in that a bottom face of the second unit comprises a measurement port that is an opening, wherein an edge portion of the bottom face of the second unit that surrounds the measurement port provides a support edge onto which the first unit can be mounted, and in that , in the second state, a predetermined operation, such as radiation of measurement light or the like, can be performed through the measurement port in the bottom face of the second unit . a first unit that comprises a sample introduction portion into which the sample can be introduced; and a second unit that is configured to house the first unit , the second unit being formed in a cuboidal box shape that has a length direction aligned with a length direction of the first unit , wherein an end face of the second unit opens so as to provide an insertion port , through which the first unit can be inserted into the second unit , the first unit being formed so as to be moveable from a first state in which the sample introduction portion is positioned outside the second unit , to a second state in which the sample introduction portion is positioned inside the second unit , and the second unit comprising two side faces which serve as guide portions , the inner sides of the guide portions being configured to contact the respective side edges of the first unit for guiding the first unit from the first state to the second state, the analysis chip being characterized in that a bottom face of the second unit comprises a measurement port that is an opening, wherein an edge portion of the bottom face of the second unit that surrounds the measurement port provides a support edge onto which the first unit can be mounted, and in that , in the second state, a predetermined operation, such as radiation of measurement light or the like, can be performed through the measurement port in the bottom face of the second unit .
A manifold for securing to one side of a print bar of an indirect inkjet printing system for introducing gas into a gap between a print head secured to an opposite side of the print bar and an intermediate transfer member (ITM) that is movable relative to the print head and spaced therefrom by a gap, the manifold having a first gas flow path terminating in a first discharge mouth configured to direct a continuous low speed gas stream along the gap in the direction of movement of the ITM, and a second separate gas flow path terminating in a second discharge mouth, spaced from the first discharge mouth in a direction normal to the first gas stream, and configured to direct a high speed gas stream along the gap intermittently, at times when no jetting of ink is taking place.