mhurhangee/patent-ind-claim-en huggingface dataset:
Light guide element , which extends along a longitudinal direction (L) and is designed to emit light, which is coupled into the light guide element at a narrow side of said light guide element that forms a light in-coupling surface , via a flat side which is oriented perpendicular to the light in-coupling surface and forms a light emitting surface of the light guide element , wherein, on a rear side of the light guide element opposite to the light emitting surface , outcoupling structures are formed, which deflect incident light such that said light leaves the light emitting surface with an asymmetrical light distribution relative to a plane (E) which is oriented perpendicularly to the light emitting surface and preferably in parallel to the longitudinal direction (L), wherein the light outcoupling structures are formed by recesses , characterized in that the light outcoupling structures are one behind the other distributed along the longitudinal direction (L) of the light guide element , wherein the recesses have a conical shape, which is inclined with respect to the plane (E) relative to which the asymmetrical light distribution exists, and wherein a longitudinal side opposite to the light in-coupling surface is designed to reflect incident light.
A composition for use in treating dystrophic epidermolysis bullosa comprising a synthetic RNA molecule, wherein the synthetic RNA molecule is suitable for delivering to a subject's keratinocytes, wherein the synthetic RNA molecule encodes a gene-editing protein that targets a COL7 gene, wherein the gene editing protein edits the COL7 gene, and wherein the gene-editing protein comprises a DNA-binding domain and a nuclease domain, the gene editing protein causing a single- or double-strand break in the COL7 gene of the subject's keratinocytes.
A floor scrubber and a self-cleaning device matched with the same, the floor scrubber comprises a housing connected to a handle , a motor is arranged in the housing , and a scrubbing disc is arranged below the housing and is driven by the motor to rotate; the self-cleaning device comprises a barrel , the barrel is connected to a support member used for supporting the floor scrubber, and a wiper member is arranged in the barrel ; when the floor scrubber is placed in the barrel to be dried, the support member supports the floor scrubber, and the wiper member abuts against the scrubbing disc ; and when the scrubbing disc rotates or the wiper member moves, water and/or dirt on the scrubbing disc are/is wiped off by the wiper member , characterized in that the wiper member is a roller which is rotatably arranged in the barrel with a self axis as a rotation axis.
A method of operating a shape sensing apparatus, the method comprising: receiving first shape data from a first shape sensor section including a first elongated optical fiber section extending between a first location (A) coupled to a reference fixture and a second location (B) coupled to a first target; receiving second shape data from a second shape sensor section including a second elongated optical fiber section extending between a third location (C) coupled to the reference fixture and a fourth location (D) coupled to the first target, wherein the first elongated optical fiber section between the first location and the second location has a different length than the second elongated optical fiber section between the third location and the fourth location; and determining a position of an end portion of the first shape sensor section using the second shape data from the second shape sensor section by adjusting the second shape data based upon a distance between the first and third locations and a distance between the second and fourth locations. receiving first shape data from a first shape sensor section including a first elongated optical fiber section extending between a first location (A) coupled to a reference fixture and a second location (B) coupled to a first target; receiving second shape data from a second shape sensor section including a second elongated optical fiber section extending between a third location (C) coupled to the reference fixture and a fourth location (D) coupled to the first target, wherein the first elongated optical fiber section between the first location and the second location has a different length than the second elongated optical fiber section between the third location and the fourth location; and determining a position of an end portion of the first shape sensor section using the second shape data from the second shape sensor section by adjusting the second shape data based upon a distance between the first and third locations and a distance between the second and fourth locations.
A sea-island composite fiber in which island components are interspersed in a sea component on a fiber cross-section, wherein each of the island components has a composite structure formed with two or more different polymers joined together, the variation of diameter of island component is 1.0 to 20.0% in the island component with two or more different polymers joined together and the ratio (L/D) of the length (L) of the joint section of the island component and the diameter (D) of the composite island component is 0.1 to 10.0, wherein the ratio (S/I) of the viscosity (I) of the island component polymer and the viscosity (S) of the sea component polymer is 0.3 to 0.8; where viscosity is measured according to the method of the description (Method A and where the viscosity of the island component polymer is the highest melt viscosity of the melt viscosities of two or more island component polymers.
Multicomponent microparticles for use in a formulation for inhalation, each microparticle comprising a combination of beclometasone dipropionate, formoterol fumarate, and glycopyrronium bromide, as active ingredients, in a ratio comprised between 35:10:55 and 94:1:5 w/w/w, whereby said microparticles are characterized by a shape factor comprised between 0.95 and 1.05 determined according to the following equation: SF = 1 / RN wherein RN indicates the roundness of the particle and is calculated by applying the following formula: RN = p 2 / 4 ⁢ πA wherein p and A are the mean perimeter and area values, respectively, of at least ten spherical particles as measured from Scanning electron microscopy (SEM) images, and wherein said microparticles are obtained by a process comprising the steps of: a) preparing a solution of the three active ingredients in a pre-determined ratio in a solvent consisting of a mixture of ethanol:water in a ratio of from 85:15 to 95:5 v/v; b) generating an aerosol from the solution of said three active ingredients; and c) drying the atomized droplets to yield the microparticles. a) preparing a solution of the three active ingredients in a pre-determined ratio in a solvent consisting of a mixture of ethanol:water in a ratio of from 85:15 to 95:5 v/v; b) generating an aerosol from the solution of said three active ingredients; and c) drying the atomized droplets to yield the microparticles.
A transfection reagent composition comprising: (a) 40 MOL% of 1,17-bis(2-octylcyclopropyl)heptadecan-9-yl-4-(dimethylamino)butanoate, or a pharmaceutically acceptable salt thereof; (b) 10-40 MOL% 1,2-dioleoyl-sn-glycero-3-phosphoethanolamine (DOPE); (c) 10-20 MOL% cholesterol; and (d) 2.5MOL% stabilizing agent. (a) 40 MOL% of 1,17-bis(2-octylcyclopropyl)heptadecan-9-yl-4-(dimethylamino)butanoate, or a pharmaceutically acceptable salt thereof; (b) 10-40 MOL% 1,2-dioleoyl-sn-glycero-3-phosphoethanolamine (DOPE); (c) 10-20 MOL% cholesterol; and (d) 2.5MOL% stabilizing agent.
A computer-implemented method for operating a printer comprising: providing a controller , an edge detector , and one or more inline slitters attached to a slitter bracket associated with the printer ; characterised in that the method further comprises the steps of using the edge detector to determine a lateral position of a print medium along a transport path of the printer ; using the controller to move the one or more inline slitters attached to the slitter bracket to an appropriate position for a desired cut; and using the edge detector to make calibration adjustments in real-time. providing a controller , an edge detector , and one or more inline slitters attached to a slitter bracket associated with the printer ; characterised in that the method further comprises the steps of using the edge detector to determine a lateral position of a print medium along a transport path of the printer ; using the controller to move the one or more inline slitters attached to the slitter bracket to an appropriate position for a desired cut; and using the edge detector to make calibration adjustments in real-time.
A subtitle encoding device comprising: controller circuitry configured to: receive a Portable Network Graphics, PNG, file, wherein, the PNG file comprises image data chunks and a palette table including a colour look-up table; convert the colour look up table into a Digital Video Broadcasting, DVB, colour look-up table definition segment, the conversion comprising deriving parameters of luminance, Y, and colour components, Cr and Cb, from RGB values; remove headers from the image data chunks and concatenate and store the remaining image data of the image data chunks with the headers removed as a pixel data block in a DVB object data segment, the object data segment indicating a progressive type scan object coding method; and encode the colour look-up table definition segment and the pixel data block for embedding in a DVB signal as a subtitle in an image, the pixel data block being encoded using a progressive type scan; wherein the PNG file is for progressive type scan and uses an indexed colour mode with a colour type of 3, has a bit depth of 8, is filtered with filter type 0 and is compressed using a DEFLATE algorithm receive a Portable Network Graphics, PNG, file, wherein, the PNG file comprises image data chunks and a palette table including a colour look-up table; convert the colour look up table into a Digital Video Broadcasting, DVB, colour look-up table definition segment, the conversion comprising deriving parameters of luminance, Y, and colour components, Cr and Cb, from RGB values; remove headers from the image data chunks and concatenate and store the remaining image data of the image data chunks with the headers removed as a pixel data block in a DVB object data segment, the object data segment indicating a progressive type scan object coding method; and encode the colour look-up table definition segment and the pixel data block for embedding in a DVB signal as a subtitle in an image, the pixel data block being encoded using a progressive type scan; wherein the PNG file is for progressive type scan and uses an indexed colour mode with a colour type of 3, has a bit depth of 8, is filtered with filter type 0 and is compressed using a DEFLATE algorithm
An air conditioner indoor unit, comprising: a chassis , an air duct assembly detachably connected with the chassis ; a face frame provided with an installation opening and a detachment opening that is configured to allow the air duct assembly to pass through for disassembling the air duct assembly; a first panel configured to open or close the detachment opening, and comprising an air outlet communicated with the air duct assembly which forms an air duct; and a second panel configured to cooperate with the first panel to cover a surface of the face frame , wherein the air conditioner indoor unit further comprises: a grille assembly comprising a grille member and a filter arranged on the grille member , an air guiding assembly that is installed on the first panel , characterized in that the grille member is detachably mounted on the installation opening. a chassis , an air duct assembly detachably connected with the chassis ; a face frame provided with an installation opening and a detachment opening that is configured to allow the air duct assembly to pass through for disassembling the air duct assembly; a first panel configured to open or close the detachment opening, and comprising an air outlet communicated with the air duct assembly which forms an air duct; and a second panel configured to cooperate with the first panel to cover a surface of the face frame , wherein the air conditioner indoor unit further comprises: a grille assembly comprising a grille member and a filter arranged on the grille member , an air guiding assembly that is installed on the first panel , characterized in that the grille member is detachably mounted on the installation opening. a grille assembly comprising a grille member and a filter arranged on the grille member , an air guiding assembly that is installed on the first panel , characterized in that the grille member is detachably mounted on the installation opening.
Folding or rotating gate with two of more gate wings comprising: - a post ; - a first gate wing which is hingeably connected to the post ; - a second gate wing which is hingeably connected to the first gate wing ; - drive means configured to fold the first and second gate wing open or shut, wherein the drive means comprise a first drivable hinge configured to drive the first gate wing and a second drivable hinge configured to drive the second gate wing , characterized in that the drive means furthermore comprise a first positioning sensor which is configured to determine the position of the first gate wing with respect to the post , and a second positioning sensor which is configured to determine the position of the second gate wing with respect to the first gate wing , wherein the folding or rotating gate comprises a processing unit which is configured to drive the first and second hinge on the basis of the signals of the first and second positioning sensors, in order to fold the first and second gate wing open or shut synchronously in a controlled manner. - a post ; - a first gate wing which is hingeably connected to the post ; - a second gate wing which is hingeably connected to the first gate wing ; - drive means configured to fold the first and second gate wing open or shut, wherein the drive means comprise a first drivable hinge configured to drive the first gate wing and a second drivable hinge configured to drive the second gate wing ,
A method of wireless communication by a user equipment, UE , comprising: identifying a channel state information, CSI, reporting configuration for each of a plurality of CSI reporting groups, wherein each CSI reporting group comprises a plurality of component carriers from a set of component carriers in a carrier aggregation configuration of the UE ; determining a reference component carrier for each of the CSI reporting groups, wherein the reference component carrier cycles among the plurality of component carriers in a CSI reporting group; identifying a CSI parameter for each reference component carrier; calculating a set of CSI delta values corresponding to respective component carriers of the set of component carriers, wherein the CSI delta value for a component carrier is based on the CSI parameter for the reference component carrier of the corresponding CSI reporting group; generating a combined report for each of the plurality of CSI reporting groups based at least in part on the corresponding CSI reporting configuration, wherein each of the combined reports comprises the CSI parameter for the reference component carrier and the calculated CSI delta values for the plurality of component carriers in the corresponding CSI reporting group; and transmitting one or more of the combined reports. identifying a channel state information, CSI, reporting configuration for each of a plurality of CSI reporting groups, wherein each CSI reporting group comprises a plurality of component carriers from a set of component carriers in a carrier aggregation configuration of the UE ; determining a reference component carrier for each of the CSI reporting groups, wherein the reference component carrier cycles among the plurality of component carriers in a CSI reporting group; identifying a CSI parameter for each reference component carrier; calculating a set of CSI delta values corresponding to respective component carriers of the set of component carriers, wherein the CSI delta value for a component carrier is based on the CSI parameter for the reference component carrier of the corresponding CSI reporting group; generating a combined report for each of the plurality of CSI reporting groups based at least in part on the corresponding CSI reporting configuration, wherein each of the combined reports comprises the CSI parameter for the reference component carrier and the calculated CSI delta values for the plurality of component carriers in the corresponding CSI reporting group; and transmitting one or more of the combined reports.
A vehicle spoiler, an aircraft wing, an aircraft flap, an aircraft rudder, a helicopter blade, a wind turbine blade, a windmill blade, a fluid mixing apparatus, an industrial static mixer, an industrial dynamic mixer, a mixing paddle, or a fence comprising a fluid flow modification apparatus having a surface over which a fluid can flow in use, the surface having an edge of length Y over or past which a fluid flowing over the surface can flow in use, the edge having a first virtual boundary of length X such that at least a first portion of the apparatus within the first virtual boundary comprises an opening and such that at least a second portion of the apparatus comprises a projection which extends beyond the first virtual boundary to provide the edge, where Y is greater than X, the edge being multi-scale and being formed by the first portion and the second portion being on opposite sides of the first virtual boundary , and the first projection and the first opening defining in part a second virtual boundary having a length greater than the length of the first virtual boundary and less than the length Y of the edge, characterised by : the first projection and the first opening each having a second projection extending from said part of the second virtual boundary and a second opening within said part of the second virtual boundary , the edge being formed by the second projection and the second opening being part of a third virtual boundary having a length greater than the length of the second virtual boundary and less than the length Y of the edge , and by a third projection extending from said part of the third virtual boundary and a third opening within said part of the third virtual boundary , wherein: the first projection and the first opening are on a first scale, the second projection and the second opening are on a second scale different to the first scale, and the third projection and the third opening are on a third scale different to the first and second scales.
A peptide comprising a fragment of SEQ ID NO: 8, wherein the fragment comprises at least 8 consecutive amino acids of SEQ ID NO: 8, including at least one of positions 121 and 135 of SEQ ID NO: 8, wherein the peptide is capable of inducing an immune response against a TGFβR2 -1a frameshift mutant protein.
A gel matrix composition, comprising: a vacancy-engineered (VE)-ZnO nanocomposite including inter-connected vacancy-engineered nanoparticles of zinc oxide (ZnO), zinc peroxide (ZnO 2 ) or a combination thereof, wherein the vacancy-engineered nanoparticles have surface defects associated with oxygen vacancies, wherein the nanoparticles have a diameter of 3 to 8 nm, wherein the vacancy-engineered nanoparticles include a coating of a surface capping agent having a carboxyl group and a hydroxyl group as Zn ion chelating functional groups. a vacancy-engineered (VE)-ZnO nanocomposite including inter-connected vacancy-engineered nanoparticles of zinc oxide (ZnO), zinc peroxide (ZnO 2 ) or a combination thereof, wherein the vacancy-engineered nanoparticles have surface defects associated with oxygen vacancies, wherein the nanoparticles have a diameter of 3 to 8 nm, wherein the vacancy-engineered nanoparticles include a coating of a surface capping agent having a carboxyl group and a hydroxyl group as Zn ion chelating functional groups.
Clamping device for variably positioning an angular setting of at least one shelf on a load transport trolley for transporting loads, preferably toolboxes, comprising - a clamping lever for reversibly setting the clamping device in a clamped or released position, - a pull rod which can be reversibly moved by the clamping lever into a first or second position, wherein the clamping device is in the clamped position when the pull rod is set into the first position, and the clamping device is in the released position when the pull rod is set into the second position; - an attachment element for connecting the shelf to the clamping device ; and - a first and second connecting element for connecting the clamping device to a frame of the load transport trolley , characterized in that the attachment element is configured in the form of a cylindrical tube which is arranged around the pull rod . - a clamping lever for reversibly setting the clamping device in a clamped or released position, - a pull rod which can be reversibly moved by the clamping lever into a first or second position, wherein the clamping device is in the clamped position when the pull rod is set into the first position, and the clamping device is in the released position when the pull rod is set into the second position; - an attachment element for connecting the shelf to the clamping device ; and - a first and second connecting element for connecting the clamping device to a frame of the load transport trolley ,
A computer-implemented method executed by an integrated circuit design tool for modeling resistance of a gate terminal of a transistor for implementation on an integrated circuit, the transistor having at least one channel region, the method including: specifying a structure of the gate terminal in a data structure in memory using a three-dimensional, 3D, coordinate system; for each of a plurality of volume elements in the specified structure, determining an Elmore delay time, EDT, and storing the EDT in a database in the memory; for those volume elements in the plurality of volume elements that are located on a surface of the gate terminal which faces the channel region, determining an average EDT, aEDT, based on the EDT and storing the aEDT in the database in the memory; and executing a program of instructions to generate point-to-point resistance values of the gate terminal as a function of the aEDT and a capacitance of the gate terminal; wherein the point-to-point resistance values are used for building or improving an integrated circuit device design to develop or improve a fabrication process for conductors in the integrated circuit. specifying a structure of the gate terminal in a data structure in memory using a three-dimensional, 3D, coordinate system; for each of a plurality of volume elements in the specified structure, determining an Elmore delay time, EDT, and storing the EDT in a database in the memory; for those volume elements in the plurality of volume elements that are located on a surface of the gate terminal which faces the channel region, determining an average EDT, aEDT, based on the EDT and storing the aEDT in the database in the memory; and executing a program of instructions to generate point-to-point resistance values of the gate terminal as a function of the aEDT and a capacitance of the gate terminal; wherein the point-to-point resistance values are used for building or improving an integrated circuit device design to develop or improve a fabrication process for conductors in the integrated circuit.