mhurhangee/patent-ind-claim-en huggingface dataset:
Hair coloring process with an aqueous composition comprising one or more direct dye(s) as the sole dyeing components wherein prior to application onto hair the said aqueous composition is first applied onto a sheet , which is made of cellulosic wood free paper weighing 140 g/m 2 , comprising two or more areas having each different natural hair color to visualize the color of hair at the end of the coloring process and applied the said composition onto hair and after processing 1 to 45 min rinsed off from hair, hair is optionally shampooed and optionally dried.
A method performed by a user equipment , the method comprising: executing a first application associated with a first requested quality-of-service level ; selecting a first machine-learning architecture based on the first requested quality-of-service level ; transmitting , to a network-slice manager of a wireless network, a first machine-learning architecture request message to request permission to use the first machine-learning architecture; receiving , from the network-slice manager , a first machine-learning architecture response message that grants permission to use the first machine-learning architecture based on a first network slice , the first machine-learning architecture forming a portion of at least one first end-to-end machine-learning architecture associated with the first network slice , the at least one first end-to-end machine-learning architecture being a distributed machine-learning architecture that is configured to process wireless communication signals and is formed by the first machine-learning architecture implemented by the user equipment , a machine-learning architecture implemented by a base station , and a machine-learning architecture implemented by an entity of a core network ; and wirelessly communicating data for the first application using the first machine-learning architecture, the first machine-learning architecture being configured to compute an output based on an input using coefficients determined by the user equipment . executing a first application associated with a first requested quality-of-service level ; selecting a first machine-learning architecture based on the first requested quality-of-service level ; transmitting , to a network-slice manager of a wireless network, a first machine-learning architecture request message to request permission to use the first machine-learning architecture; receiving , from the network-slice manager , a first machine-learning architecture response message that grants permission to use the first machine-learning architecture based on a first network slice , the first machine-learning architecture forming a portion of at least one first end-to-end machine-learning architecture associated with the first network slice , the at least one first end-to-end machine-learning architecture being a distributed machine-learning architecture that is configured to process wireless communication signals and is formed by the first machine-learning architecture implemented by the user equipment , a machine-learning architecture implemented by a base station , and a machine-learning architecture implemented by an entity of a core network ; and wirelessly communicating data for the first application using the first machine-learning architecture, the first machine-learning architecture being configured to compute an output based on an input using coefficients determined by the user equipment .
A method for cleaning a substrate which is or comprises a textile, the method comprising agitating the substrate in the presence of a cleaning composition comprising: i. cleaning particles comprising a thermoplastic polyamide and a particulate inorganic filler having a density of at least 2.5g/cm 3 , said cleaning particles having an average particle size of from 1 to 100 mm, wherein the cleaning particles have an average density of at least 1.65g/cm 3 ; and ii. a liquid medium; and separating the cleaning particles from the cleaned substrate. i. cleaning particles comprising a thermoplastic polyamide and a particulate inorganic filler having a density of at least 2.5g/cm 3 , said cleaning particles having an average particle size of from 1 to 100 mm, wherein the cleaning particles have an average density of at least 1.65g/cm 3 ; and ii. a liquid medium; and
A projection apparatus, comprising: an image device (330A/330B/330C), configured to convert a first illumination (IL1) beam into an image beam (ML); a lens module ; and an illumination system (350A/350B/350C) comprising: a first illumination light source ; a diffusion device ; a light uniform device ; an aperture stop ; a collimating lens set ; and a prism module (359A/359B/359C), wherein the first illumination light source provides the first illumination beam (IL 1), wherein the image beam (ML) leaves the projection apparatus and is configured to converge at a stop (ST) through the lens module , the stop (ST) is located outside the projection apparatus, and wherein the diffusion device is configured to allow the image beam (ML) to have an energy intensity distribution, where a peak value M1 and a valley value M2 are included, a uniformity M equals (M1 - M2) / (M1 + M2) × 100%, and the peak value M1 is greater than the valley value M2, in a reference direction of the stop (ST), wherein the aperture stop is disposed between the diffusion device and the light uniform device , and wherein the first illumination beam (IL1) is transmitted to the image device (330A/330B/330C) through the collimating lens set , the diffusion device , the aperture stop , the light uniform device and the prism module (359A/359B/359C) sequentially. an image device (330A/330B/330C), configured to convert a first illumination (IL1) beam into an image beam (ML); a lens module ; and an illumination system (350A/350B/350C) comprising: a first illumination light source ; a diffusion device ; a light uniform device ; an aperture stop ; a collimating lens set ; and a prism module (359A/359B/359C), a first illumination light source ; a diffusion device ; a light uniform device ; an aperture stop ; a collimating lens set ; and a prism module (359A/359B/359C), wherein the first illumination light source provides the first illumination beam (IL 1), wherein the image beam (ML) leaves the projection apparatus and is configured to converge at a stop (ST) through the lens module , the stop (ST) is located outside the projection apparatus, and wherein the diffusion device is configured to allow the image beam (ML) to have an energy intensity distribution, where a peak value M1 and a valley value M2 are included, a uniformity M equals (M1 - M2) / (M1 + M2) × 100%, and the peak value M1 is greater than the valley value M2, in a reference direction of the stop (ST), wherein the aperture stop is disposed between the diffusion device and the light uniform device , and wherein the first illumination beam (IL1) is transmitted to the image device (330A/330B/330C) through the collimating lens set , the diffusion device , the aperture stop , the light uniform device and the prism module (359A/359B/359C) sequentially.
Apparatus comprising - a cylindrical element having an inner longitudinal axis (A1) and comprising a curved circumferential surface for receiving an incident electromagnetic wave, and comprising a dielectric material with an effective dielectric constant ( ε i ) so as to provide for a focusing of the incident electromagnetic wave onto a focus region (11, FP, FL), wherein the cylindrical element is configured to cause the incident electromagnetic wave, after having been received via the curved circumferential surface , to travel more or less perpendicularly to the longitudinal axis (A1) through the cylindrical element ; and - a retrodirective antenna array comprising at least two antenna elements , said antenna array being positioned with an orientation parallel to said axis (A1) at said focus region (11, FP, FL). - a cylindrical element having an inner longitudinal axis (A1) and comprising a curved circumferential surface for receiving an incident electromagnetic wave, and comprising a dielectric material with an effective dielectric constant ( ε i ) so as to provide for a focusing of the incident electromagnetic wave onto a focus region (11, FP, FL), wherein the cylindrical element is configured to cause the incident electromagnetic wave, after having been received via the curved circumferential surface , to travel more or less perpendicularly to the longitudinal axis (A1) through the cylindrical element ; and - a retrodirective antenna array comprising at least two antenna elements , said antenna array being positioned with an orientation parallel to said axis (A1) at said focus region (11, FP, FL).
A method of monitoring a payload-handling robot assembly comprising at least one robot , characterised in that an arrangement of a robot-handled payload (N) is identified (S30, S40) on the basis of a current position (TCP) of the robot assembly relative to a specified change position (P1, P2, P3, P4) of the robot assembly, wherein a payload (N1, N2, N3, { }) is identified (S40) as an arrangement of a robot-handled payload (N) when a deviation between the current position of the robot assembly and a change position which is assigned to this payload falls (S30) below a specified threshold value (Δ).
A banknote classification and recognition method based on a Lab color space, applied to financial equipment, comprising: obtaining an RGB image of a banknote to be detected; calculating gray values Gray R, Gray G and Gray B of the RGB image in red (R), green (G) and blue (B) wavebands; converting the gray values Gray R, Gray G and Gray B into gray values Gray a and Gray b in the Lab color space; and substituting a product of Gray a and Gray b and a difference between the absolute value of Gray a and the absolute value of Gray b into preset formulas to recognize a denomination of the banknote to be detected; recognizing a denomination of the banknote to be detected based on results obtained from substituting a product of Gray a and Gray b and a difference between the absolute value of Gray a and the absolute value of Gray b into preset formulas; and characterized in that : the converting Gray R, Gray G and Gray B into the gray values Gray a and Gray b in the Lab color space comprises: substituting Gray R, Gray G and Gray B into conversion formulas to obtain Gray a and Gray b, wherein the conversion formulas are: Gray a = 1.4749 ∗ 0.2213 ∗ Gray R − 0.3390 ∗ Gray G + 0.1177 ∗ Gray B + 128 , and Gray b = 0.6245 ∗ 0.1949 ∗ Gray R + 0.6057 ∗ Gray G − 0.8006 ∗ Gray B + 128 . obtaining an RGB image of a banknote to be detected; calculating gray values Gray R, Gray G and Gray B of the RGB image in red (R), green (G) and blue (B) wavebands; converting the gray values Gray R, Gray G and Gray B into gray values Gray a and Gray b in the Lab color space; and substituting a product of Gray a and Gray b and a difference between the absolute value of Gray a and the absolute value of Gray b into preset formulas to recognize a denomination of the banknote to be detected; recognizing a denomination of the banknote to be detected based on results obtained from substituting a product of Gray a and Gray b and a difference between the absolute value of Gray a and the absolute value of Gray b into preset formulas; and characterized in that : the converting Gray R, Gray G and Gray B into the gray values Gray a and Gray b in the Lab color space comprises: substituting Gray R, Gray G and Gray B into conversion formulas to obtain Gray a and Gray b, wherein the conversion formulas are: Gray a = 1.4749 ∗ 0.2213 ∗ Gray R − 0.3390 ∗ Gray G + 0.1177 ∗ Gray B + 128 , and Gray b = 0.6245 ∗ 0.1949 ∗ Gray R + 0.6057 ∗ Gray G − 0.8006 ∗ Gray B + 128 .
A method for providing information in an information processing system, the method comprising: acquiring (S203), via a network (NT), biological gas information; outputting (S206,S207) information related to stress of a user to an information terminal; characterized by the biological gas information representing a concentration of benzothiazole in biological gas released from a skin surface of the user measured with a sensor for detecting benzothiazole released from the skin surface of the user; and obtaining reference information representing an upper limit of a normal range of the concentration of benzothiazole, using a memory storing the reference information representing the upper limit of the normal range, wherein the information related to stress is output (S206, S207) after it is determined (S204,S205) that a frequency with which the concentration of benzothiazole of the user is more than the upper limit of the normal range tends to increase, wherein the biological gas information is acquired in a pregnancy period of the user. acquiring (S203), via a network (NT), biological gas information; outputting (S206,S207) information related to stress of a user to an information terminal; characterized by the biological gas information representing a concentration of benzothiazole in biological gas released from a skin surface of the user measured with a sensor for detecting benzothiazole released from the skin surface of the user; and obtaining reference information representing an upper limit of a normal range of the concentration of benzothiazole, using a memory storing the reference information representing the upper limit of the normal range, wherein the information related to stress is output (S206, S207) after it is determined (S204,S205) that a frequency with which the concentration of benzothiazole of the user is more than the upper limit of the normal range tends to increase, wherein the biological gas information is acquired in a pregnancy period of the user.
An aryl amine substituted quinoxaline which is represented by Formula I(b) wherein R 2 and R 3 are same or different substituted phenyl groups and the substituted phenyl group each is
Value or security document with an electric circuit , wherein the value or security document is formed from at least three document layers which are arranged in a document layer stack and are connected together face-to-face by a joining method, of which a first document layer is formed from a circuit carrier layer which supports the electric circuit , at least one second document layer is formed by a respective compensation layer which comprises at least one opening and/or recess, and at least one third document layer is formed by a respective cover layer , characterised in that the first and the at least one second and the at least one third document layer are formed from a fibre composite material, which is formed from a thermoset, reinforced with a glass fibre fabric and based on an epoxy resin.
An agent for use in the therapeutic and/or prophylactic treatment of a cancer(s), the agent comprising as an effective ingredient any one of the polypeptides (a) or (b) below, said polypeptide having cytotoxicity-inducing activity of inducing cytotoxic activity against tumor cells in vitro in T cells stimulated with the polypeptide, or a recombinant vector which comprises a polynucleotide encoding said polypeptide and is capable of expressing said polypeptide in vivo: (a) a polypeptide consisting of the amino acid sequence shown in SEQ ID NO: 39 or 41 in SEQUENCE LISTING; and (b) a polypeptide having a sequence identity of not less than 95% to the polypeptide (a). (a) a polypeptide consisting of the amino acid sequence shown in SEQ ID NO: 39 or 41 in SEQUENCE LISTING; and (b) a polypeptide having a sequence identity of not less than 95% to the polypeptide (a).
Lighting system for a motor vehicle (VP), including a pair of headlamps, each headlamp comprising a main lighting module arranged to emit a dipped beam, a plurality of adjacent additional lighting modules , arranged to each emit a light beam corresponding to a main beam portion, at least one image sensor (CAM) carried by the carrier vehicle (VP) able to detect obstacles (VTn) present in the field of vision of the image sensor (CAM), a unit for controlling additional lighting modules , and means for adjusting in site and in azimuth of the lighting modules , with the system being such that the additional modules are able to be controlled separately in azimuth according to the position of the obstacles detected and each comprise a plurality of light sources capable of generating, respectively, segments of main beams, the additional modules being arranged and controlled by the control unit to illuminate areas in addition to the dipped beam by using the beam segments depending on the detection of one or more obstacles (VTn) located in the field of vision of the image sensor (CAM) so as to produce additional lighting in the areas not covered by the dipped beam and/or to create one or more dark areas (DZn) between the carrier vehicle (VP) and the detected obstacle or obstacles (VTn) by switching off corresponding beam segments.
A mask plate, comprising a slit-like light-transparent region and lightproof regions, edges of the slit-like light-transparent region being in a curve shape and having each two ends, the curve shape being a zigzag shape or a wave-like shape, such that each edge defines concave and protruding sections, wherein the concave sections of each edge are opposed to the concave sections of the other edge and the protruding sections of each edge are opposed to the protruding sections of the other edge, and wherein the two ends of each of the edges of the slit-like light-transparent region are convex or concave, wherein when the two ends of each of the edges of the slit-like light-transparent region are convex, a distance between the opposed concave sections nearest to either end of two edges of the slit-like light-transparent region is smaller than a distance between opposed concave sections in a middle portion of the two edges of the slit-like light-transparent region; or a distance between any opposed concave sections of the slit-like light-transparent region is equal, and a distance between the opposed protruding sections nearest to either end of two edges of the slit-like light-transparent region is smaller than a distance between opposed protruding sections in a middle portion of the edges of the slit-like light-transparent region.
Apparatus for forming plastic preforms into plastic containers , wherein the apparatus has a transport means for transporting the plastic preforms , wherein the transport means has a movable carrier on which a plurality of forming stations are arranged, wherein the forming stations each form a cavity (H) and comprise forming moulds, which are suitable and intended to receive the plastic preforms , the plastic preforms being formable into the plastic containers within this cavity (H) of the forming station , in that the plastic preforms are acted upon by a flowable medium and expanded, wherein the forming stations further comprise an application means , which acts upon the plastic preforms with the flowable medium, and at least one connecting line , which is intended to guide the flowable medium to the application means , wherein the apparatus has a sterilization device , whereby at least a section of this connecting line can be at least temporarily pressurized with a sterilization medium, characterized in that the forming stations have a closing means , which has a movable and pivotable closing element , whereby the application means can be closed during a sterilization process, wherein the closing element seals the application means in such a way that a sterilization medium cannot escape from it and does not get into the plastic preforms or into other areas of the apparatus . wherein the apparatus has a sterilization device , whereby at least a section of this connecting line can be at least temporarily pressurized with a sterilization medium, characterized in that the forming stations have a closing means , which has a movable and pivotable closing element , whereby the application means can be closed during a sterilization process, wherein the closing element seals the application means in such a way that a sterilization medium cannot escape from it and does not get into the plastic preforms or into other areas of the apparatus .
A combustor of a gas turbine engine , the combustor comprising: a shell with a multiple of impingement flow passages fluidly coupled to an impingement cavity ; a liner panel mounted to the shell , the liner panel including a rail , the rail including a notch which faces toward the impingement cavity , the rail interfacing with the shell , to define the impingement cavity therebetween; a seal within the notch , the seal contacting the shell ; and a multiple of effusion flow passages though the liner panel , wherein the combustor is configured so that air directed through the shell and the liner panel form a pressure drop across the shell that is less than about 80% and greater than about 50% of a pressure drop across the combustor , and so that a pressure drop across the liner panel is greater than about 20% and less than about 50% of the pressure drop across the combustor , wherein the rail includes an interface surface at least partially in contact with the shell , the rail surrounds the impingement cavity , and the rail extends from a cold side of the liner panel , wherein the multiple of impingement flow passages are though the support shell , wherein the seal surrounds the impingement cavity . a shell with a multiple of impingement flow passages fluidly coupled to an impingement cavity ; a liner panel mounted to the shell , the liner panel including a rail , the rail including a notch which faces toward the impingement cavity , the rail interfacing with the shell , to define the impingement cavity therebetween; a seal within the notch , the seal contacting the shell ; and a multiple of effusion flow passages though the liner panel , wherein the combustor is configured so that air directed through the shell and the liner panel form a pressure drop across the shell that is less than about 80% and greater than about 50% of a pressure drop across the combustor , and so that a pressure drop across the liner panel is greater than about 20% and less than about 50% of the pressure drop across the combustor , wherein the rail includes an interface surface at least partially in contact with the shell , the rail surrounds the impingement cavity , and the rail extends from a cold side of the liner panel , wherein the multiple of impingement flow passages are though the support shell , wherein the seal surrounds the impingement cavity .
A method of determining characteristics of a specimen container , comprising: providing a specimen container ; and characterized in further comprising capturing images of the specimen container at different exposures times and at different spectra having different nominal wavelengths; selecting optimally-exposed pixels from the images at different exposure times at each spectrum; generating optimally-exposed image data for each spectrum, based on said selected optimally-exposed pixels; classifying the optimally-exposed pixels as at least being one of tube , label or cap ; and identifying a width (W), height (HT), or width (W) and height (HT) of the specimen container based upon the optimally-exposed image data for each spectrum. providing a specimen container ; and characterized in further comprising capturing images of the specimen container at different exposures times and at different spectra having different nominal wavelengths; selecting optimally-exposed pixels from the images at different exposure times at each spectrum; generating optimally-exposed image data for each spectrum, based on said selected optimally-exposed pixels; classifying the optimally-exposed pixels as at least being one of tube , label or cap ; and identifying a width (W), height (HT), or width (W) and height (HT) of the specimen container based upon the optimally-exposed image data for each spectrum.