mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating an autonomous motor vehicle , in particular a safety vehicle, comprising: autonomously operating the motor vehicle ; and outputting an, in particular audible and/or visual, external signal output for an environment of the motor vehicle while the motor vehicle is autonomously operated, the external signal output being adjustable, or being adjusted, on the basis of a velocity of the motor vehicle and/or an autonomous mode of operation of the motor vehicle , characterized in that the external signal output is provided by means of a visual signalling strip of the motor vehicle , wherein the visual signalling strip : shows a conveyor belt movement in a starting direction of the motor vehicle when the motor vehicle is starting; and/or shows a conveyor belt movement in a direction of travel when there is an acceleration by the motor vehicle and/or shows a conveyor belt movement counter to the direction of travel when there is a deceleration by the motor vehicle . autonomously operating the motor vehicle ; and outputting an, in particular audible and/or visual, external signal output for an environment of the motor vehicle while the motor vehicle is autonomously operated, the external signal output being adjustable, or being adjusted, on the basis of a velocity of the motor vehicle and/or an autonomous mode of operation of the motor vehicle , characterized in that the external signal output is provided by means of a visual signalling strip of the motor vehicle , wherein the visual signalling strip : shows a conveyor belt movement in a starting direction of the motor vehicle when the motor vehicle is starting; and/or shows a conveyor belt movement in a direction of travel when there is an acceleration by the motor vehicle and/or shows a conveyor belt movement counter to the direction of travel when there is a deceleration by the motor vehicle . shows a conveyor belt movement in a starting direction of the motor vehicle when the motor vehicle is starting; and/or shows a conveyor belt movement in a direction of travel when there is an acceleration by the motor vehicle and/or shows a conveyor belt movement counter to the direction of travel when there is a deceleration by the motor vehicle .
A composition comprising a nucleotide sequence encoding a fusion peptide of 5 epitopes, wherein the nucleotide sequence encodes an amino acid sequence that has at least 90% sequence identity to the amino acid sequence of SEQ ID NO 39, wherein the composition is effective to elicit an immune response in a subject.
A focal plane phase detecting pixel sensor formed on a substrate and comprising: a pixel sensor area comprising four quadrants in cartesian coordinate space centered in the pixel sensor area; a subsurface pixel sensor coextensive with the pixel sensor area in the substrate ; a surface pixel sensor formed in the pixel sensor area of the substrate and occupying no more than two adjacent quadrants; a layer of dielectric material , formed over the surface of the substrate ; an aperture formed in the dielectric layer and aligned with the surface pixel sensor, the aperture having an inner side wall; a reflective lining layer formed on the inner side wall of the aperture and spaced apart from the surface of the substrate , the reflective lining layer being substantially fully reflective to visible light, an inner wall of the reflective lining layer having a smaller cross-sectional area than the pixel sensor area, a top edge of the inner lining wall of the reflective lining layer lying in a plane with a top surface of the layer of dielectric material ; a filler material disposed in the aperture inside of the reflective lining layer and having a top surface lying in the plane with the top surface of the layer of dielectric material , the filler material being substantially transparent to visible light; a metal layer disposed over the surface pixel sensor ; a void formed in the metal layer and positioned over the pixel sensor area; and a microlens disposed over the void in the metal layer . a pixel sensor area comprising four quadrants in cartesian coordinate space centered in the pixel sensor area; a subsurface pixel sensor coextensive with the pixel sensor area in the substrate ; a surface pixel sensor formed in the pixel sensor area of the substrate and occupying no more than two adjacent quadrants; a layer of dielectric material , formed over the surface of the substrate ; an aperture formed in the dielectric layer and aligned with the surface pixel sensor, the aperture having an inner side wall; a reflective lining layer formed on the inner side wall of the aperture and spaced apart from the surface of the substrate , the reflective lining layer being substantially fully reflective to visible light, an inner wall of the reflective lining layer having a smaller cross-sectional area than the pixel sensor area, a top edge of the inner lining wall of the reflective lining layer lying in a plane with a top surface of the layer of dielectric material ; a filler material disposed in the aperture inside of the reflective lining layer and having a top surface lying in the plane with the top surface of the layer of dielectric material , the filler material being substantially transparent to visible light; a metal layer disposed over the surface pixel sensor ; a void formed in the metal layer and positioned over the pixel sensor area; and a microlens disposed over the void in the metal layer .
A method to prepare a reactive polyisocyanate composition which contains not more than 1 wt% of monomeric starting di-isocyanate based on the total weight of said polyisocyanate composition and, determined according to the method identified in the description, having an NCO value in the range 0.1-15%, and wherein said composition comprises urethane groups and allophanate groups and wherein the ratio of allophanate groups over urethane groups is between 0.05 and 100, determined according to the methods identified in the description, said method comprising mixing at least following compounds: - An allophanate based polyisocyanate intermediate prepolymer containing ≥ 5 wt% and ≤ 20 wt% of monomeric di-isocyanate compounds based on the total weight of said prepolymer and having an NCO value in the range 5-15%, and - An isocyanate reactive composition containing isocyanate reactive compounds having a functionality between 1 and 10 and a molecular weight in the range 100-10000, and Wherein the allophanate based polyisocyanate intermediate prepolymer is the reaction product of at least one polyisocyanate compound and an isocyanate reactive compound selected from a monool having a molecular weight in the range 32-2000 g/mol, preferably 36-2000 g/mol, wherein the ratio of allophanate groups over the urethane groups is higher than 0.05. - An allophanate based polyisocyanate intermediate prepolymer containing ≥ 5 wt% and ≤ 20 wt% of monomeric di-isocyanate compounds based on the total weight of said prepolymer and having an NCO value in the range 5-15%, and - An isocyanate reactive composition containing isocyanate reactive compounds having a functionality between 1 and 10 and a molecular weight in the range 100-10000, and
A drill assembly that includes only one drill and a displacement unit , characterised in that : - the displacement unit includes a guide unit and a channel unit , where the channel unit includes a guide channel , and said guide unit includes one or more guides adapted to engage with said guide channel , said guide channel being a circumferential channel that follows a wave or wave like path; - the drill includes a drill bit and/or a drill flight attached to a central shaft , wherein the drill bit and/or drill flight co-terminate at a first terminal end of the drill ; - said first terminal end is the terminal end of the drill that is configured to enter the ground first; - the central shaft is a thin elongate member that extends between the longitudinally separated terminal ends of the drill ; and - the drill is releasably or permanently attached to the displacement unit such that when the drill is engaged with the displacement unit , interaction between the guides and the guide channel causes the drill to oscillate along its longitudinal axis. - the displacement unit includes a guide unit and a channel unit , where the channel unit includes a guide channel , and said guide unit includes one or more guides adapted to engage with said guide channel , said guide channel being a circumferential channel that follows a wave or wave like path; - the drill includes a drill bit and/or a drill flight attached to a central shaft , wherein the drill bit and/or drill flight co-terminate at a first terminal end of the drill ; - said first terminal end is the terminal end of the drill that is configured to enter the ground first; - the central shaft is a thin elongate member that extends between the longitudinally separated terminal ends of the drill ; and - the drill is releasably or permanently attached to the displacement unit such that when the drill is engaged with the displacement unit , interaction between the guides and the guide channel causes the drill to oscillate along its longitudinal axis.
An operating method of a base station in a wireless communication system, comprising: identifying a resource for transmitting at least one sequence for interference measurement of another base station, based on information received from a management device; and transmitting the at least one sequence through the resource, wherein the information received from the management device comprises information of the at least one sequence and the resource, wherein the information of the at least one sequence and the resource is generated based on a grouping result of base stations, and wherein the grouping result of the base stations is generated based on an operating frequency. identifying a resource for transmitting at least one sequence for interference measurement of another base station, based on information received from a management device; and transmitting the at least one sequence through the resource, wherein the information received from the management device comprises information of the at least one sequence and the resource, wherein the information of the at least one sequence and the resource is generated based on a grouping result of base stations, and wherein the grouping result of the base stations is generated based on an operating frequency.
Motor vehicle light module - having at least one first and one second semiconductor light source , wherein each semiconductor light source comprises a plurality of LEDs, arranged in groups (42a-42e; 54a-54e; 55a-55e), for emitting one source light segment, respectively, - having at least one first primary optics device assigned to at least one first semiconductor light source and at least one second primary optics device assigned to at least one second semiconductor light source , - and having a shared secondary optics device for the first primary optics device and the second primary optics device , for projecting the source light segments in a light beam distribution of the motor vehicle light module in such a way, that the light beam distribution comprises light beam segments (50a-50c; 51a-51e) which are overlapping one another and which are assigned to respective source light segments, characterized in that the first and the second primary optics devices are configured as optical imaging devices and which are configured in such a way that each LED (42a-42e; 54a-54e; 55a-55e) can be reproduced as a real intermediate image on an intermediate image plane, wherein an intermediate image assigned to the first semiconductor light source is overlapping with at least one intermediate image assigned to the second semiconductor light source , and that the secondary optics device is arranged in such a way that the intermediate images of source light segment-emitting LEDs (42a-42e; 54a-54e; 55a-55e) are projected as respectively assigned light beam segments of the light beam distribution . - having at least one first and one second semiconductor light source , wherein each semiconductor light source comprises a plurality of LEDs, arranged in groups (42a-42e; 54a-54e; 55a-55e), for emitting one source light segment, respectively, - having at least one first primary optics device assigned to at least one first semiconductor light source and at least one second primary optics device assigned to at least one second semiconductor light source , - and having a shared secondary optics device for the first primary optics device and the second primary optics device , for projecting the source light segments in a light beam distribution of the motor vehicle light module in such a way, that the light beam distribution comprises light beam segments (50a-50c; 51a-51e) which are overlapping one another and which are assigned to respective source light segments,
A method of manufacturing an electrode assembly , comprising: assembling an electrode stack including a plurality of electrodes stacked along a stacking axis with a respective separator portion positioned between each of the electrodes; after assembling the electrode stack, performing a primary heat press operation on the electrode stack, the primary heat press operation comprising applying heat and pressure to the electrode stack; characterized by , after the primary heat press operation, performing a pre-heating operation on the electrode stack; and after the pre-heating operation, performing a secondary heat press operation on the electrode stack, the secondary heat press operation comprising applying heat and pressure to the electrode stack, wherein the pre-heating operation includes applying heat and pressure to the electrode stack for a time period from 10 seconds to 40 seconds under a pressure condition from 0.5 MPa to 2 MPa and under a temperature condition from 50°C to 85°C, and wherein the pressure condition applied in the pre-heating operation includes applying a lower pressure than that applied in the primary heat press operation and the secondary heat press operation. assembling an electrode stack including a plurality of electrodes stacked along a stacking axis with a respective separator portion positioned between each of the electrodes; after assembling the electrode stack, performing a primary heat press operation on the electrode stack, the primary heat press operation comprising applying heat and pressure to the electrode stack; characterized by , after the primary heat press operation, performing a pre-heating operation on the electrode stack; and after the pre-heating operation, performing a secondary heat press operation on the electrode stack, the secondary heat press operation comprising applying heat and pressure to the electrode stack, wherein the pre-heating operation includes applying heat and pressure to the electrode stack for a time period from 10 seconds to 40 seconds under a pressure condition from 0.5 MPa to 2 MPa and under a temperature condition from 50°C to 85°C, and wherein the pressure condition applied in the pre-heating operation includes applying a lower pressure than that applied in the primary heat press operation and the secondary heat press operation.
An apparatus for obtaining optical coherent tomography information for detecting optical image signals associated with at least one sample, the apparatus comprising: a sample arm and a reference arm; wherein the apparatus is configured to acquire a plurality of scan lines; wherein apparatus is further configured so that the acquisition of a first one of the scan lines comprises receiving at least one first electromagnetic radiation from the at least one sample using the sample arm and at least one second electromagnetic radiation from a reference using the reference arm; and wherein the apparatus further comprises: a detector for detecting an interference between the first and the second radiation; determining means configured to determine, based on the detected interference, a distance of the sample arm from at least one portion of the at least one sample, wherein the apparatus is is further configured to scan, as a function of the determined distance and for acquiring a second one of the scan lines, an electromagnetic radiation path length of a delay line of the apparatus through which a third electromagnetic radiation is transmitted; wherein the third electromagnetic radiation is at least one of: i. at least one of transmitted to or received from the at least one sample using the sample arm, or ii. at least one of transmitted to or received from the reference using the reference arm, wherein the determining means is configured so that the determining of the distance includes a detection of a distance of the sample arm to a surface position on the at least one sample with respect to a path length delay provided by the delay line. a detector for detecting an interference between the first and the second radiation; determining means configured to determine, based on the detected interference, a distance of the sample arm from at least one portion of the at least one sample, wherein the apparatus is is further configured to scan, as a function of the determined distance and for acquiring a second one of the scan lines, an electromagnetic radiation path length of a delay line of the apparatus through which a third electromagnetic radiation is transmitted; wherein the third electromagnetic radiation is at least one of: i. at least one of transmitted to or received from the at least one sample using the sample arm, or ii. at least one of transmitted to or received from the reference using the reference arm, i. at least one of transmitted to or received from the at least one sample using the sample arm, or ii. at least one of transmitted to or received from the reference using the reference arm, wherein the determining means is configured so that the determining of the distance includes a detection of a distance of the sample arm to a surface position on the at least one sample with respect to a path length delay provided by the delay line.
A method of automatically presenting magnified viewports of an in-focus input control and a responsive output region on a graphic user interface presented on a display monitor, the method comprising the steps of: displaying a graphic user interface on the display monitor, the graphic user interface having an input control and a corresponding output region , the input control and the output region belonging to a software application, wherein content of the output region is generated responsive to an end user interaction with the input control ; intercepting messaging between an operating system and the software application, the messaging indicating the input control has focus; displaying on the monitor a primary viewport showing the input control at a first magnification level wherein the end user can interact with the input control ; intercepting messaging between the operating system and the software application indicating the content displayed in the output region has changed as a result of the end user interaction with the input control ; and responsive to detecting the change in the content of the output region , launching a secondary viewport displaying the output region , and simultaneously displaying on the monitor the primary viewport displaying the input control and the secondary viewport displaying the output region , the output region depicting the content generated responsive to the end user interaction with the input control , whereby the input control in the primary viewport remains in focus. displaying a graphic user interface on the display monitor, the graphic user interface having an input control and a corresponding output region , the input control and the output region belonging to a software application, wherein content of the output region is generated responsive to an end user interaction with the input control ; intercepting messaging between an operating system and the software application, the messaging indicating the input control has focus; displaying on the monitor a primary viewport showing the input control at a first magnification level wherein the end user can interact with the input control ; intercepting messaging between the operating system and the software application indicating the content displayed in the output region has changed as a result of the end user interaction with the input control ; and responsive to detecting the change in the content of the output region , launching a secondary viewport displaying the output region , and simultaneously displaying on the monitor the primary viewport displaying the input control and the secondary viewport displaying the output region , the output region depicting the content generated responsive to the end user interaction with the input control , whereby the input control in the primary viewport remains in focus.
An airframe for an air vehicle comprising an outer skin layer and a support layer defining a fuselage of said air vehicle, wherein said support layer is provided with a plurality of support columns extending outwardly from the support layer, the outer skin layer being both supported by the columns and magnetically coupled to the support layer thereby.
A machine-implemented method, comprising: receiving a user input in a user movement interface, said user input having at least a first bio-point and a second bio-point ; determining a center point of an input shape determined based on the first bio-point and the second bio-point; detecting a panning motion from the user input based on a center point movement of the input shape, said panning motion indicating a linear motion; calculating a radial differential representing the change of an input radius of the input shape, the input radius representing the distance between the center point and one of the first bio-point and the second bio-point ; comparing the radial differential to a differential threshold; calculating a velocity ratio of a radial velocity for the input shape to a center point velocity for the input shape; comparing the velocity ratio to a ratio threshold; if the radial differential is less than the differential threshold or the velocity ratio is less than the ratio threshold, filtering out a scaling motion from the user input, said scaling motion indicating an expanding or a contracting motion; and presenting a pan of a graphical user interface to a user on a display. receiving a user input in a user movement interface, said user input having at least a first bio-point and a second bio-point ; determining a center point of an input shape determined based on the first bio-point and the second bio-point; detecting a panning motion from the user input based on a center point movement of the input shape, said panning motion indicating a linear motion; calculating a radial differential representing the change of an input radius of the input shape, the input radius representing the distance between the center point and one of the first bio-point and the second bio-point ; comparing the radial differential to a differential threshold; calculating a velocity ratio of a radial velocity for the input shape to a center point velocity for the input shape; comparing the velocity ratio to a ratio threshold; if the radial differential is less than the differential threshold or the velocity ratio is less than the ratio threshold, filtering out a scaling motion from the user input, said scaling motion indicating an expanding or a contracting motion; and presenting a pan of a graphical user interface to a user on a display.