mhurhangee/patent-ind-claim-en huggingface dataset:
A sound-absorbing material nonwoven fabric comprising: 30 to 80 mass% of short fibers A having a fineness of 0.4 to 0.9 dtex; and 20 to 70 mass% of short fibers B having a fineness of 1.1 to 20.0 dtex, characterized in that a carding passage coefficient of the short fibers A calculated from following equation being in a range of 15 to 260, carding passage coefficient = (fineness × tensile strenght × √elongation elongation percentage × √number of crimps × √crimping degree) / (fiber length) <fineness (dtex), tensile strength (cN/dtex), tensile elongation percentage (%), number of crimps (peaks/25 mm), crimping degree (%), fiber length (cm)>, wherein the mass% is measured in accordance with the method specified in JIS L 1030-1: 2006 "Testing methods for quantitative analysis of fibre mixtures - Part 1: Testing methods for fibre identification" and JIS L 1030-2: 2005 "Testing methods for quantitative analysis of fibre mixtures of textiles - Part 2: Testing methods for quantitative analysis of fibre mixtures", the fineness is measured in accordance with the method specified in JIS L 1030-2: 2005, the tensile strength and the elongation percentage are measured in accordance with the method specified in JIS L 1015 8.7.1, the number of crimps and the crimping degree is measured in accordance with the method specified in JIS L 1015-8-12-1 and 2 (2010 revised edition), and the fiber length is measured by the direct method (Method C) specified in JIS L 1015: 2010 8.4.1. 30 to 80 mass% of short fibers A having a fineness of 0.4 to 0.9 dtex; and 20 to 70 mass% of short fibers B having a fineness of 1.1 to 20.0 dtex, characterized in that a carding passage coefficient of the short fibers A calculated from following equation being in a range of 15 to 260, carding passage coefficient = (fineness × tensile strenght × √elongation elongation percentage × √number of crimps × √crimping degree) / (fiber length) <fineness (dtex), tensile strength (cN/dtex), tensile elongation percentage (%), number of crimps (peaks/25 mm), crimping degree (%), fiber length (cm)>, wherein the mass% is measured in accordance with the method specified in JIS L 1030-1: 2006 "Testing methods for quantitative analysis of fibre mixtures - Part 1: Testing methods for fibre identification" and JIS L 1030-2: 2005 "Testing methods for quantitative analysis of fibre mixtures of textiles - Part 2: Testing methods for quantitative analysis of fibre mixtures", the fineness is measured in accordance with the method specified in JIS L 1030-2: 2005, the tensile strength and the elongation percentage are measured in accordance with the method specified in JIS L 1015 8.7.1, the number of crimps and the crimping degree is measured in accordance with the method specified in JIS L 1015-8-12-1 and 2 (2010 revised edition), and the fiber length is measured by the direct method (Method C) specified in JIS L 1015: 2010 8.4.1.
A beam steering device comprising: a light source emitting light; a substrate ; and a two-dimensional matrix array disposed on the substrate , the two-dimensional matrix array comprising a plurality of antenna layers , a plurality of dielectric layers , a plurality of refractive index changing layers and a plurality of electrode layers ; the antenna layers being disposed on the substrate ; the dielectric layers being disposed on the antenna layers and covering the antenna layers; the refractive index changing layers being disposed on the dielectric layers; and the electrode layers being disposed on the refractive index changing layers; wherein the substrate is transparent with respect to the light emitted from the light source ; and wherein the substrate and the antenna layers are disposed such that the light emitted from the light source is incident on the substrate, is transmitted through the substrate and is incident on the antenna layers, wherein the antenna layers are configured to reflect the incident light via localized surface plasmon resonance, and a reflection angle of the light reflected by the antenna layers is variable according to the refractive index of the refractive index changing layers , and wherein the substrate and the antenna layers are disposed such that the light reflected by the antenna layers is transmitted through the substrate. a light source emitting light; a substrate ; and a two-dimensional matrix array disposed on the substrate , the two-dimensional matrix array comprising a plurality of antenna layers , a plurality of dielectric layers , a plurality of refractive index changing layers and a plurality of electrode layers ; the antenna layers being disposed on the substrate ; the dielectric layers being disposed on the antenna layers and covering the antenna layers; the refractive index changing layers being disposed on the dielectric layers; and the electrode layers being disposed on the refractive index changing layers; wherein the substrate is transparent with respect to the light emitted from the light source ; and wherein the substrate and the antenna layers are disposed such that the light emitted from the light source is incident on the substrate, is transmitted through the substrate and is incident on the antenna layers, wherein the antenna layers are configured to reflect the incident light via localized surface plasmon resonance, and a reflection angle of the light reflected by the antenna layers is variable according to the refractive index of the refractive index changing layers , and wherein the substrate and the antenna layers are disposed such that the light reflected by the antenna layers is transmitted through the substrate.
An in vitro method for detecting the progression of arteriosclerosis, the method comprising determining a level of an antibody against SH3BP5 protein or a part thereof in a body fluid sample which has been collected from a biological body, wherein the antibody binds to the part of the protein according to SEQ ID NO: 5, and wherein a higher level of said antibody in said body fluid sample compared to a reference value is indicative for a progression of arteriosclerosis. wherein the antibody binds to the part of the protein according to SEQ ID NO: 5, and wherein a higher level of said antibody in said body fluid sample compared to a reference value is indicative for a progression of arteriosclerosis.
A method for estimating the achievable total braking forces (F Ges ) for the automated deceleration of a utility vehicle or of a vehicle combination having a plurality of axles , wherein partial braking forces (F B1 , F B2 , F B3 , F B4 ) are set by means of a manipulated variable (P, I) at the respective wheel brake , wherein brake units consisting of at least one of the wheel brakes in estimation braking operations at least partially apply a braking force (F A ) required for deceleration, each as the only active brake unit , the current delay (b) being determined from measurement values and a braking parameter (C L1 , C L2 , C L3 , C L4 ) of the active brake unit which represents the ratio of the partial braking forces (F B1 , F B2 , F B3 , F B4 ) and the manipulated variable (P, I) set therefore, in consideration of the current deceleration (b) as well as a determined or predefined total mass (m tot ) of the utility vehicle or of the vehicle combination , and wherein a conclusion about the partial braking forces (F B1 , F B2 , F B3 , F B4 ) achievable by the respective brake unit is drawn from the determined braking parameter (C L1 , C L2 , C L3 , C L4 ) and the achievable total braking forces (F Ges ) are estimated as a sum of the achievable partial braking forces (F B1 , F B2 , F B3 , F B4 ), characterized in that , during the estimation braking operations application pressure (PA) is set for one of the brake units at the activation systems of the remaining brake wheels .
A conductive composition for electrodes, comprising: a conductive material containing carbon black and multi-walled carbon nanotubes; an active material; a binder; and a dispersant, wherein the multi-walled carbon nanotubes satisfy the following conditions to : a powder resistivity of 0.035 Ω·cm or less, as measured under a load of 9.8 MPa; a volume-converted median diameter D50 value of from 0.3 to 8 μm, as measured in accordance with JIS Z 8825; and a content of from 3 to 50% by mass in the conductive material. a powder resistivity of 0.035 Ω·cm or less, as measured under a load of 9.8 MPa; a volume-converted median diameter D50 value of from 0.3 to 8 μm, as measured in accordance with JIS Z 8825; and a content of from 3 to 50% by mass in the conductive material.
A self-lubricating fabric wherein warp yarns or weft yarns of the fabric are composite yarns formed from fluorinated resin yarns and other yarns, and wherein the ratio of the section diameter of the other yarns to the section diameter of the fluorinated resin yarns in the composite yarns is 0.12 to 0.80, characterized in that , the surface area of the other yarns on one surface of the fabric takes up 2 to 30% of the total surface area of the composite yarns, measured by a method as set out in the description.
A method for an operation of a mobile station, MS, (432; 500; 600; 700) for use in a wireless communication network comprising a plurality of base stations, BSs, (400, 410; 510; 610; 710) capable of communicating with the MS (432; 500; 600; 700) and other MSs , wherein at least some of the BSs are femto cell BSs, FBSs, (410; 510; 610; 710) and at least some of the BSs are macro cell BSs, MBSs, the method comprising: detecting an interference from at least one inaccessible FBS (410; 510; 610; 710) to which the MS is unauthorized to access; and transmitting (528; 632; 732), to the at least one inaccessible FBS, a ranging request message comprising a ranging purpose indication for requesting an interference mitigation for the interference, wherein the interference mitigation is performed by the at least one inaccessible FBS based on information regarding the MS in response to receiving the ranging request message. detecting an interference from at least one inaccessible FBS (410; 510; 610; 710) to which the MS is unauthorized to access; and transmitting (528; 632; 732), to the at least one inaccessible FBS, a ranging request message comprising a ranging purpose indication for requesting an interference mitigation for the interference, wherein the interference mitigation is performed by the at least one inaccessible FBS based on information regarding the MS in response to receiving the ranging request message.
A method for tone mapping, the method comprising: configuring, by at least one processor, at least one tone mapping function based on a measure of a distribution of luminance values within video data, the measure representing a luminance level at which a predetermined percentage of pixels of the video data have luminance values satisfying a threshold condition , wherein the configured at least one tone mapping function comprises at least one of a low tone mapping function or a high tone mapping function within a luminance range determined with respect to the measure, wherein the configured at least one tone mapping function further comprises a predetermined function outside of the determined luminance range, and wherein the predetermined function is different from the at least one of the low tone mapping function or the high tone mapping function ; and generating a tone mapped video by applying at least one of the low tone mapping function or the high tone mapping function to the video data within the determined luminance range and applying the predetermined function to the video data outside of the determined luminance range. configuring, by at least one processor, at least one tone mapping function based on a measure of a distribution of luminance values within video data, the measure representing a luminance level at which a predetermined percentage of pixels of the video data have luminance values satisfying a threshold condition , wherein the configured at least one tone mapping function comprises at least one of a low tone mapping function or a high tone mapping function within a luminance range determined with respect to the measure, wherein the configured at least one tone mapping function further comprises a predetermined function outside of the determined luminance range, and wherein the predetermined function is different from the at least one of the low tone mapping function or the high tone mapping function ; and generating a tone mapped video by applying at least one of the low tone mapping function or the high tone mapping function to the video data within the determined luminance range and applying the predetermined function to the video data outside of the determined luminance range.
A method performed by a network entity associated with a wireless communication system for selecting a neural network formation configuration, the method comprising: determining, by the network entity, a set of downlink deep neural network reference signals to send on a physical channel for measuring performance of deep neural networks in the wireless communication system; determining a set of downlink neural network formation configurations, each downlink neural network formation configuration corresponding to a respective downlink deep neural network reference signal of the set of downlink deep neural network reference signals; communicating, to a user equipment, a first indication of the set of downlink deep neural network reference signals and a second indication of the set of downlink neural network formation configurations to direct the user equipment to form a set of downlink deep neural networks, using the set of downlink neural network formation configurations, for processing the set of downlink deep neural network reference signals; and initiating transmission of the set of downlink deep neural network reference signals using the physical channel to direct the user equipment to process the set of downlink deep neural network reference signals with the set of downlink deep neural networks and select one of the set of downlink neural network formation configurations based on a performance of the set of downlink deep neural networks. determining, by the network entity, a set of downlink deep neural network reference signals to send on a physical channel for measuring performance of deep neural networks in the wireless communication system; determining a set of downlink neural network formation configurations, each downlink neural network formation configuration corresponding to a respective downlink deep neural network reference signal of the set of downlink deep neural network reference signals; communicating, to a user equipment, a first indication of the set of downlink deep neural network reference signals and a second indication of the set of downlink neural network formation configurations to direct the user equipment to form a set of downlink deep neural networks, using the set of downlink neural network formation configurations, for processing the set of downlink deep neural network reference signals; and initiating transmission of the set of downlink deep neural network reference signals using the physical channel to direct the user equipment to process the set of downlink deep neural network reference signals with the set of downlink deep neural networks and select one of the set of downlink neural network formation configurations based on a performance of the set of downlink deep neural networks.
An aerial display apparatus comprising: a first display device which includes a display surface on which a first image is displayed, and which is configured to emit display light from the display surface; a mirror device which is disposed obliquely with respect to the display surface of the first display device , which is configured to reflect the display light that has been emitted from the first display device to form an aerial image at a position that is plane-symmetrical to the first display device ; and a second display device which is disposed between the mirror device and the aerial image , which is configured to allow the display light that has been reflected by the mirror device to be transmitted therethrough, and which is configured to display a second image characterized in that the second display device is separate from the mirror device , and the aerial image is formed in front of the second image as viewed from an observer on a side closer to the observer than the mirror device . a first display device which includes a display surface on which a first image is displayed, and which is configured to emit display light from the display surface; a mirror device which is disposed obliquely with respect to the display surface of the first display device , which is configured to reflect the display light that has been emitted from the first display device to form an aerial image at a position that is plane-symmetrical to the first display device ; and a second display device which is disposed between the mirror device and the aerial image , which is configured to allow the display light that has been reflected by the mirror device to be transmitted therethrough, and which is configured to display a second image characterized in that the second display device is separate from the mirror device , and the aerial image is formed in front of the second image as viewed from an observer on a side closer to the observer than the mirror device .
Handheld power tool, in particular cutting device , having a motor , an in particular rechargeable battery , which supplies the motor with energy, a voltage monitoring device, which monitors the voltage of the battery , and a control or regulating device , which monitors or controls the supply of power from the battery to the motor , characterized in that the control or regulating device is provided to carry out a functional check of the handheld power tool when it is connected to a charging device or is separated from a charging device.
A flow sensor comprising: a flow channel configured to transport a fluid therethrough, the flow channel being disposed along a first axis; a heating element disposed nearby the flow channel , wherein the heating element is configured to release a predetermined amount of thermal energy, a center of the heating element being disposed along a second axis at least substantially perpendicular to the first axis; one or more first thermal sensing elements disposed along the first axis a first distance from the center of the heating element, wherein changes in a first voltage differential between an inlet and an outlet of the one or more first thermal sensing elements are indicative of changes in a temperature at the one or more first thermal sensing elements ; and one or more second thermal sensing elements disposed along the first axis a second distance from the center of the heating element, the second distance being greater than the first distance, wherein changes in a second voltage differential between an inlet and an outlet of the one or more second thermal sensing elements are indicative of changes in the temperature at the one or more second thermal sensing elements , characterised in that the flow sensor is configured to determine a flow rate of the fluid through the flow channel based upon an association between a sum of the first and second voltage differentials and the flow rate of fluids through the flow channel . a flow channel configured to transport a fluid therethrough, the flow channel being disposed along a first axis; a heating element disposed nearby the flow channel , wherein the heating element is configured to release a predetermined amount of thermal energy, a center of the heating element being disposed along a second axis at least substantially perpendicular to the first axis; one or more first thermal sensing elements disposed along the first axis a first distance from the center of the heating element, wherein changes in a first voltage differential between an inlet and an outlet of the one or more first thermal sensing elements are indicative of changes in a temperature at the one or more first thermal sensing elements ; and one or more second thermal sensing elements disposed along the first axis a second distance from the center of the heating element, the second distance being greater than the first distance, wherein changes in a second voltage differential between an inlet and an outlet of the one or more second thermal sensing elements are indicative of changes in the temperature at the one or more second thermal sensing elements , characterised in that the flow sensor is configured to determine a flow rate of the fluid through the flow channel based upon an association between a sum of the first and second voltage differentials and the flow rate of fluids through the flow channel .
A head assembly for a dermaplaning device, the assembly comprising: a head having a housing with a elongate end and a blade extending along one side of the elongate end ; the assembly further comprising a removable cap which is fitted onto the head so as to cover the blade , the cap comprising a blade cover which covers the blade and has a means for removable attachment to the head , characterised in that the cap comprises a frangible tab connected to the blade cover by one or more frangible portions , the tab comprising a latching mechanism for attachment to the head , the latching mechanism being configured such that the cap cannot be removed from the head unless at least one frangible portion is irreversibly deformed, the means for removable attachment to the head being positioned such that it continues to function to retain the blade cover on the head following the irreversible deformation of the frangible portion . a head having a housing with a elongate end and a blade extending along one side of the elongate end ; the assembly further comprising a removable cap which is fitted onto the head so as to cover the blade , the cap comprising a blade cover which covers the blade and has a means for removable attachment to the head , characterised in that the cap comprises a frangible tab connected to the blade cover by one or more frangible portions , the tab comprising a latching mechanism for attachment to the head , the latching mechanism being configured such that the cap cannot be removed from the head unless at least one frangible portion is irreversibly deformed, the means for removable attachment to the head being positioned such that it continues to function to retain the blade cover on the head following the irreversible deformation of the frangible portion .
Optical signalling and/or lighting unit for a motor vehicle comprising a frame , an optical module mounted on the said frame and comprising at least one luminous device capable of performing at least one photometric function, and a mask fixed to the said frame by means of fixing means and being capable of concealing part of the said optical module from the view of an observer, the said mask being designed to be mounted on the said frame , as well as a mask fixed to said frame by means of fixing means and being capable of concealing part of said optical module from the view of an observer, said fixing means between the mask and the frame comprising at least one shaft carried by said mask ; said shaft being provided with a hole in which a screw is screwed having previously passed through a corresponding orifice made in a wall carried by said frame , said optical block comprising retaining means provided on said mask or on said frame and capable of cooperating when said mask is placed on said frame , with complementary means provided on the other of these elements so as to prevent said barrel from moving away from said wall during the screwing of said screw into said bore of the barrel , characterized in that said retaining means comprise an elastically deformable tongue capable of cooperating in abutment with a stop , in that said tongue is carried by said frame while said stop is carried by said mask , and in that said stop is constituted by the end of a tab extending in a plane perpendicular to the axis of said shaft and on which the base of this shaft takes root.