mhurhangee/patent-ind-claim-en huggingface dataset:
An image processing device comprising: a demosaicing unit configured to use a pixel signal of a target pixel of a polarized image including pixels for each of a plurality of polarization components and, for each of the plurality of polarization components, a pixel signal of pixels of that polarization component located near the target pixel, to calculate a pixel signal for each particular polarization component different from the polarization component of the polarized image in the target pixel, wherein the demosaicing unit calculates the pixel signal for each particular polarization component different from the polarization component of the polarized image in the target pixel position on a basis of a low frequency component for the particular polarization component and component information indicating a relationship between the low frequency component of the polarization component of the polarized image and the pixel signal of the target pixel, the low frequency component for the particular polarization component being calculated by using the pixel signal of pixels of the polarized image of the particular polarization component located near the target pixel. a demosaicing unit configured to use a pixel signal of a target pixel of a polarized image including pixels for each of a plurality of polarization components and, for each of the plurality of polarization components, a pixel signal of pixels of that polarization component located near the target pixel, to calculate a pixel signal for each particular polarization component different from the polarization component of the polarized image in the target pixel, wherein the demosaicing unit calculates the pixel signal for each particular polarization component different from the polarization component of the polarized image in the target pixel position on a basis of a low frequency component for the particular polarization component and component information indicating a relationship between the low frequency component of the polarization component of the polarized image and the pixel signal of the target pixel, the low frequency component for the particular polarization component being calculated by using the pixel signal of pixels of the polarized image of the particular polarization component located near the target pixel.
A drive system for a motorcycle with a drive machine which can be selectively connected by means of a wet-running disconnect clutch to a transmission input shaft of a shiftable motorcycle transmission which has at least one unsynchronised gear, and with a transmission gear wheel and a coupling means which is set up to produce a form-locking connection with the transmission gear wheel , wherein in a first operating state either the coupling means or the transmission gear wheel is coupled kinematically with the transmission input shaft , and in a second operating state both are, wherein the drive system has a braking means for contact-free transmission of a braking force in this first operating state from a first part to a second part of the braking means, wherein the first part of the braking means can be coupled kinematically with the transmission input shaft and the second part with the transmission gear wheel , and wherein the braking means is designed as an eddy-current brake, characterised in that the first part of the eddy-current brake is connected non-rotationally with the transmission input shaft and the second part is connected non-rotationally with the transmission gear wheel .
Method for treating tools used for collecting, sampling, storing, transporting and isolating of microvesicles, nanovesicles and exosomes from mammal blood, said method comprising the steps of: - Selecting a tool from a plurality of tools comprising needles, blood tubing, blood bags, catheters, Eppendorf tubes, pipettes, or blood bags; - Providing said tool from said plurality of tools, wherein said tool is made from a polymeric material; - Providing a source of highly ionized gas of positively and negatively charged particles of high density; - Treating a polymeric surface of said tool by applying short pulses of said source of particles next to or on said surface of said tool to assure surface modification of said surface by said positively and negatively charged particles of high density by guiding the source of particles along the surface of the tool to be treated in order to increase roughness of the surface; - wherein said treating step is performed in a dry state under atmospheric pressure; - wherein said source provides a density of charged particles next to or on the surface between 10 16 m -3 and 10 20 m -3 , or between 1x10 17 m -3 and 1x10 19 m -3 , or between 3x10 17 m -3 and 3x10 18 m -3 ; and - wherein said source provides short pulses of time span between 1 and 1000 ns, or between 10 and 100 ns, or 30 ns. - Selecting a tool from a plurality of tools comprising needles, blood tubing, blood bags, catheters, Eppendorf tubes, pipettes, or blood bags; - Providing said tool from said plurality of tools, wherein said tool is made from a polymeric material; - Providing a source of highly ionized gas of positively and negatively charged particles of high density; - Treating a polymeric surface of said tool by applying short pulses of said source of particles next to or on said surface of said tool to assure surface modification of said surface by said positively and negatively charged particles of high density by guiding the source of particles along the surface of the tool to be treated in order to increase roughness of the surface; - wherein said treating step is performed in a dry state under atmospheric pressure; - wherein said source provides a density of charged particles next to or on the surface between 10 16 m -3 and 10 20 m -3 , or between 1x10 17 m -3 and 1x10 19 m -3 , or between 3x10 17 m -3 and 3x10 18 m -3 ; and - wherein said source provides short pulses of time span between 1 and 1000 ns, or between 10 and 100 ns, or 30 ns. - wherein said treating step is performed in a dry state under atmospheric pressure; - wherein said source provides a density of charged particles next to or on the surface between 10 16 m -3 and 10 20 m -3 , or between 1x10 17 m -3 and 1x10 19 m -3 , or between 3x10 17 m -3 and 3x10 18 m -3 ; and - wherein said source provides short pulses of time span between 1 and 1000 ns, or between 10 and 100 ns, or 30 ns.
A method for producing a blank from a ceramic material, in particular a blank to be used for the production of a dental restoration, wherein at least two layers of ceramic materials of different compositions are filled in pourable condition layer-by-layer into a die and thereafter they are pressed and then sintered, characterized in that after filling of a first layer of a first ceramic material in pourable condition, surface of the first layer is structured in such a way that the first layer when viewed across its surface differs from region to region in its height in such a way, that elevations and depressions or valleys are formed, and then as a second layer , a layer of a second ceramic material in pourable condition with a composition that is different from that of the first layer is filled into the die.
A connector for butt-joining two components , in particular two chipboards, comprising two connector parts which, mutually rotated through 90°, can be pushed together, into one another, into a locked assembly position and are in the form of U-shaped brackets having two outer bracket arms , which respectively have a rear plug-in portion for insertion into a circular drill hole of one component and an expandable front plug-in portion , forming the free bracket end, for insertion into a circular drill hole of the other component , a middle bracket arm for expansion of the two front plug-in portions of the respectively other bracket in the assembly position, and at least one locking portion (10, 11; 18, 19) for the mutual locking of the two brackets in the assembly position, characterized in that the outer sides of the rear plug-in portions are each configured as partial cylindrical surfaces of the same circular cylinder or, at least approximately, as partial cylindrical surfaces of the same circular cylinder. two connector parts which, mutually rotated through 90°, can be pushed together, into one another, into a locked assembly position and are in the form of U-shaped brackets having two outer bracket arms , which respectively have a rear plug-in portion for insertion into a circular drill hole of one component and an expandable front plug-in portion , forming the free bracket end, for insertion into a circular drill hole of the other component , a middle bracket arm for expansion of the two front plug-in portions of the respectively other bracket in the assembly position, and at least one locking portion (10, 11; 18, 19) for the mutual locking of the two brackets in the assembly position, characterized in that the outer sides of the rear plug-in portions are each configured as partial cylindrical surfaces of the same circular cylinder or, at least approximately, as partial cylindrical surfaces of the same circular cylinder.
Auxiliary power unit system of an aircraft comprising: - an auxiliary power unit (APU) , - a cooling unit for the auxiliary power unit (APU) comprising at least a heat exchanger , - an air inlet in fluid communication with the auxiliary power unit (APU) and with the cooling unit, - an air inlet door unit located at the air inlet to allow an air flow from outside the aircraft to enter the air inlet , - a first duct configured for drawing air into the auxiliary power unit (APU) and having an entrance in fluid communication with the air inlet , - a second duct having an entrance in fluid communication with the air inlet , the heat exchanger being at least partially located within the second duct , the auxiliary power unit system being characterised in that it comprises: - an air turbine located within the second duct downstream the heat exchanger , and - an electrical generator coupled to the air turbine so that the air turbine and the electrical generator are configured to convert energy of an air flow in the second duct into electrical energy. - an auxiliary power unit (APU) , - a cooling unit for the auxiliary power unit (APU) comprising at least a heat exchanger , - an air inlet in fluid communication with the auxiliary power unit (APU) and with the cooling unit, - an air inlet door unit located at the air inlet to allow an air flow from outside the aircraft to enter the air inlet , - a first duct configured for drawing air into the auxiliary power unit (APU) and having an entrance in fluid communication with the air inlet , - a second duct having an entrance in fluid communication with the air inlet , the heat exchanger being at least partially located within the second duct , - an air turbine located within the second duct downstream the heat exchanger , and - an electrical generator coupled to the air turbine so that the air turbine and the electrical generator are configured to convert energy of an air flow in the second duct into electrical energy.
A Process comprising the steps of: - Providing a toothing , having a plurality of teeth with tooth flanks ; - measuring two or more teeth of the toothing , wherein for each of the two or more teeth the following steps are performed: - measuring a segment of at least one tooth flank of the tooth , wherein the measuring is performed optically by means of an optical measuring device , - extrapolating the measured segment to an extrapolated segment ; - analysing deviations of the extrapolated segments of the two or more teeth wherein - the segment has a section of a profile line of the tooth flank or consists of a section of a profile line of the tooth flank and - the extrapolation of the measured segment to the extrapolated segment comprises an extrapolation of the section of the profile line to an extrapolated profile line characterised in that , - that a length (L1) of the section of the profile line measured at the tooth flank is shorter than a tooth height (H1) of the tooth , - wherein a length (L2) of the extrapolated profile line is greater than the length (L1) of the measured section of the profile line from which the extrapolated profile line has been extrapolated. - Providing a toothing , having a plurality of teeth with tooth flanks ; - measuring two or more teeth of the toothing , wherein for each of the two or more teeth the following steps are performed: - measuring a segment of at least one tooth flank of the tooth , wherein the measuring is performed optically by means of an optical measuring device , - extrapolating the measured segment to an extrapolated segment ; - measuring a segment of at least one tooth flank of the tooth , wherein the measuring is performed optically by means of an optical measuring device , - extrapolating the measured segment to an extrapolated segment ; - analysing deviations of the extrapolated segments of the two or more teeth wherein - the segment has a section of a profile line of the tooth flank or consists of a section of a profile line of the tooth flank and - the extrapolation of the measured segment to the extrapolated segment comprises an extrapolation of the section of the profile line to an extrapolated profile line characterised in that , - that a length (L1) of the section of the profile line measured at the tooth flank is shorter than a tooth height (H1) of the tooth , - wherein a length (L2) of the extrapolated profile line is greater than the length (L1) of the measured section of the profile line from which the extrapolated profile line has been extrapolated.
A method for performing, by a first device, wireless communication, the method comprising: receiving, from a base station, information representing a number of transmissions of sidelink synchronization signal blocks, S-SSBs, transmitted within a S-SSB period; and performing one or more transmissions of S-SSBs including a sidelink primary synchronization signal, S-PSS, a sidelink secondary synchronization signal, S-SSS, and a physical sidelink broadcast channel, PSBCH, within the S-SSB period, based on the received information representing the number of transmissions of the S-SSBs, wherein one or more sets of values are configured for selecting the number of transmissions of the S-SSBs within the S-SSB period, wherein the received information is a value selected from the one or more values included in each of the one or more sets, wherein each of the one or more values represents a number of transmissions of S-SSBs that is allowed to be transmitted within the S-SSB period, wherein the each of the one or more sets is configured to be different from each other based on a sub-carrier spacing, SCS, and based on a frequency range, FR, and wherein the FR includes a first FR and a second FR, and wherein the first FR is a frequency range lower than the second FR, and wherein a maximum value of a set when a first SCS is used is greater than a maximum value of a set when a second SCS is used, based on the first SCS being greater than the second SCS. receiving, from a base station, information representing a number of transmissions of sidelink synchronization signal blocks, S-SSBs, transmitted within a S-SSB period; and performing one or more transmissions of S-SSBs including a sidelink primary synchronization signal, S-PSS, a sidelink secondary synchronization signal, S-SSS, and a physical sidelink broadcast channel, PSBCH, within the S-SSB period, based on the received information representing the number of transmissions of the S-SSBs, wherein one or more sets of values are configured for selecting the number of transmissions of the S-SSBs within the S-SSB period, wherein the received information is a value selected from the one or more values included in each of the one or more sets, wherein each of the one or more values represents a number of transmissions of S-SSBs that is allowed to be transmitted within the S-SSB period, wherein the each of the one or more sets is configured to be different from each other based on a sub-carrier spacing, SCS, and based on a frequency range, FR, and wherein the FR includes a first FR and a second FR, and wherein the first FR is a frequency range lower than the second FR, and wherein a maximum value of a set when a first SCS is used is greater than a maximum value of a set when a second SCS is used, based on the first SCS being greater than the second SCS.
An image capturing system for determining the position of an embossed structure on a sheet element moved through a viewing area , comprising a camera adapted for capturing a line image of the surface of the sheet element in the viewing area , and an illumination unit with a plurality of light sources (20, 21, ...) each adapted for illuminating the viewing area , the light sources (20, 21, ...) being arranged at different inclinations with respect to the viewing area , and an image evaluation unit configured for determining an inclination-related parameter for each location of the surface of the sheet element in the viewing area across the viewing area , wherein the image capturing system is configured for determining an intensity of reflected light for each light source (20,21,...) at every location, resulting in an intensity profile per location, characterised in that the image evaluation unit is configured to determine a reflectivity type by analyzing the intensity profile and to determine the position of the maximum of the intensity profile, and configured to use the reflectivity type and the position of the maximum in the computation of the inclination-related parameter.
A void-containing layer comprising: nanoparticles, surfaces of which being modified with an alkoxysilane derivative, wherein the void-containing layer has a void fraction of 35 vol% or more, the void-containing layer has an open-cell structure in which pores are interconnected with each other, and the alkoxysilane derivative comprises a fluoroalkyl group having 5 to 17 fluorine atoms. nanoparticles, surfaces of which being modified with an alkoxysilane derivative, wherein the void-containing layer has a void fraction of 35 vol% or more, the void-containing layer has an open-cell structure in which pores are interconnected with each other, and the alkoxysilane derivative comprises a fluoroalkyl group having 5 to 17 fluorine atoms.
Locking device with a lock cylinder and with a key , whereby the lock cylinder comprises an insertion area for insertion of a RFID transponder on the key that can be read by a reader device in the lock cylinder, whereby the reader device for reading the RFID transponder comprises two electrically interconnected coils , which are located on both sides of an insertion level of the RFID transponder , whereby the windings of each coil each wrap around a coil axis , characterised in that the coils each extend through a partially cylindrical plane and that the coil axes pass through a plane perpendicular or mostly perpendicular to the insertion level of the RFID transponder .
A process for producing a non-pyruvylated non-lipidated ORF2086 polypeptide comprising expressing a nucleotide sequence encoding a polypeptide having the amino acid sequence selected from the group consisting of SEQ ID NO: 13 and SEQ ID NO: 21, wherein the cysteine at position 1 is deleted and wherein the nucleotide sequence is operatively linked to an expression system that is capable of being expressed in a bacterial cell.
A system for controlling equipment of a controlled vehicle, comprising: an imaging system including an image sensor configured to acquire images of a scene external of the controlled vehicle and to generate image data corresponding to the acquired images; and a controller in communication with said imaging system , said controller configured to receive and analyze the image data to detect an aim point within the image data based on a position of at least one object detected in the acquired images, to generate a control signal that is used to control the equipment , and to automatically aim said image sensor , wherein said controller determines a stability state for the aim of said image sensor by selecting from at least three states based upon a duration at which the aim has not been adjusted, wherein the imaging system is configured to automatically adjust the aim of the image sensor based upon detection of particular objects in the imaged scene, and wherein the control signal includes an aim stability indication which is used to control the equipment . an imaging system including an image sensor configured to acquire images of a scene external of the controlled vehicle and to generate image data corresponding to the acquired images; and a controller in communication with said imaging system , said controller configured to receive and analyze the image data to detect an aim point within the image data based on a position of at least one object detected in the acquired images, to generate a control signal that is used to control the equipment , and to automatically aim said image sensor , wherein said controller determines a stability state for the aim of said image sensor by selecting from at least three states based upon a duration at which the aim has not been adjusted, wherein the imaging system is configured to automatically adjust the aim of the image sensor based upon detection of particular objects in the imaged scene, and wherein the control signal includes an aim stability indication which is used to control the equipment .