mhurhangee/ep-ind-claims huggingface dataset:
Method for managing the assistance to a person in response to the emission of an alert comprising: ▪ Emitting an alert from a first mobile equipment (EQ 0) of a first user (U 0) by means of a wireless interface to a first set, ENS 1 of terminals (T1, T2, T3) of a plurality of users (U0, U1, U2, U3) each one having a call identifier, the call identifiers being recorded in a memory of the first mobile electronic equipment (EQ 0) or of a remote equipment (SERV 0); ▪ Establishing of a two-way communication (COM_1) between the first equipment (EQ 0) and a given terminal (T 3) of the first set, ENS 1, of a given user (U 3), called "assisting user"; ▪ Automatic generating of a plurality of first notifications (M 1) to a subset, ENS 2, of terminals (T1, T2, T3) of the first set ENS 1, each one of the first notifications (M 1) comprising at least one piece of data identifying the assisting user (U 3); ▪ Automatic generating of a plurality of second notifications (M 1, M 2) to terminals of the second subset, ENS 2, by an action of the assisting user or the first user, each second notification (M 2) comprising a status relative to the processing of the alert by the assisting user (U 3), at least one second notification being prerecorded and proposed to one or the other of the first individual or of the assisting user. ▪ Emitting an alert from a first mobile equipment (EQ 0) of a first user (U 0) by means of a wireless interface to a first set, ENS 1 of terminals (T1, T2, T3) of a plurality of users (U0, U1, U2, U3) each one having a call identifier, the call identifiers being recorded in a memory of the first mobile electronic equipment (EQ 0) or of a remote equipment (SERV 0); ▪ Establishing of a two-way communication (COM_1) between the first equipment (EQ 0) and a given terminal (T 3) of the first set, ENS 1, of a given user (U 3), called "assisting user"; ▪ Automatic generating of a plurality of first notifications (M 1) to a subset, ENS 2, of terminals (T1, T2, T3) of the first set ENS 1, each one of the first notifications (M 1) comprising at least one piece of data identifying the assisting user (U 3); ▪ Automatic generating of a plurality of second notifications (M 1, M 2) to terminals of the second subset, ENS 2, by an action of the assisting user or the first user, each second notification (M 2) comprising a status relative to the processing of the alert by the assisting user (U 3), at least one second notification being prerecorded and proposed to one or the other of the first individual or of the assisting user.
A shear-thinning composition comprising a therapeutic agent or a diagnostic agent, gelatin or a derivative thereof, silicate nanoparticles, and water, for use in treating cancer; wherein the therapeutic agent is selected from the group consisting of a chemotherapeutic agent and a sensitizing drug to an adjuvant therapy and the diagnostic agent is selected from a magnetic agent and an electrical agent; wherein the therapeutic agent or diagnostic agent is: (a) preloaded onto at least one surface of the shear-thinning composition prior to the treating; or (b) preloaded into the shear-thinning composition prior to the treating, wherein the gelatin derivative is methacrylated gelatin, acrylated gelatin, or thiolated gelatin. wherein the therapeutic agent is selected from the group consisting of a chemotherapeutic agent and a sensitizing drug to an adjuvant therapy and the diagnostic agent is selected from a magnetic agent and an electrical agent; wherein the therapeutic agent or diagnostic agent is: (a) preloaded onto at least one surface of the shear-thinning composition prior to the treating; or (b) preloaded into the shear-thinning composition prior to the treating, (a) preloaded onto at least one surface of the shear-thinning composition prior to the treating; or (b) preloaded into the shear-thinning composition prior to the treating, wherein the gelatin derivative is methacrylated gelatin, acrylated gelatin, or thiolated gelatin.
An upper (390, 1200) for an article of footwear comprising a traced element including: a first polymer layer (320, 420); a second polymer layer (320, 922); and a strand layer (322, 624), wherein the first polymer layer (320, 420) defines a polymer-trace path; wherein the strand layer (322, 624) comprises a material strand (322, 624) disposed along a strand-trace path and over the first polymer layer (320, 420),wherein the second polymer layer (320, 922) is disposed along at least a portion of the polymer-trace path and overlaps both the first polymer layer (320, 420) and the strand layer (322, 624) for at least the portion of the polymer-trace path; wherein the upper (390, 1200) includes a plurality of openings surrounded by the traced element, and wherein an average width of the material strand is at least 5 percent of an average width of the first polymer layer. a first polymer layer (320, 420); a second polymer layer (320, 922); and a strand layer (322, 624), wherein the first polymer layer (320, 420) defines a polymer-trace path; wherein the strand layer (322, 624) comprises a material strand (322, 624) disposed along a strand-trace path and over the first polymer layer (320, 420),wherein the second polymer layer (320, 922) is disposed along at least a portion of the polymer-trace path and overlaps both the first polymer layer (320, 420) and the strand layer (322, 624) for at least the portion of the polymer-trace path; wherein the upper (390, 1200) includes a plurality of openings surrounded by the traced element, and wherein an average width of the material strand is at least 5 percent of an average width of the first polymer layer.
An optical film for eyewear comprising an optical functional layer, characterized in that the optical functional layer includes a cholesteric liquid crystal layer, the optical film is designed so that a color tone of transmitted light from a light source of white light through the optical film has a pale tone, a L* value representing luminance is within a range between 70 and 100 inclusive by quantifying the color tone of the transmitted light based on an L*a*b* color system according to CIE 1976, a C* value representing saturation and calculated by substituting an a* value and a b* value representing chromaticity for formula below is within a range between 1 and 35 inclusive by quantifying the color tone of the transmitted light based on the L*a*b* color system according to CIE 1976: C ∗ = a ∗ 2 + b ∗ 2 1 / 2 and the white light is standard light C standardized by CIE.
A method of generating a hybrid image from a non-contrast adapted and a contrast adapted version of a scene, wherein the method comprises: capturing a non-contrast adapted image of the scene; providing the non-contrast adapted image on a screen; capturing a contrast adapted image of the scene, wherein capturing the contrast adapted image comprises capturing multiple different exposure images of the scene, compiling the multiple images together into one HDR image, adapting the HDR image to the display range of a display device and storing the HDR image as the contrast adapted image in memory; sensing selection of an area of the non-contrast adapted image; calculating a contrast adapted image weight to apply to the non-contrast adapted image within the selected area; and creating the hybrid image by altering the area of the non-contrast adapted image based on the same area of the stored contrast adapted image and the contrast adapted image weight, wherein the hybrid image is created by blending the non-contrast adapted image and the stored contrast adapted image together inside the area in proportions according to the contrast adapted image weight. capturing a non-contrast adapted image of the scene; providing the non-contrast adapted image on a screen; capturing a contrast adapted image of the scene, wherein capturing the contrast adapted image comprises capturing multiple different exposure images of the scene, compiling the multiple images together into one HDR image, adapting the HDR image to the display range of a display device and storing the HDR image as the contrast adapted image in memory; sensing selection of an area of the non-contrast adapted image; calculating a contrast adapted image weight to apply to the non-contrast adapted image within the selected area; and creating the hybrid image by altering the area of the non-contrast adapted image based on the same area of the stored contrast adapted image and the contrast adapted image weight, wherein the hybrid image is created by blending the non-contrast adapted image and the stored contrast adapted image together inside the area in proportions according to the contrast adapted image weight.
A method of decoding an encoded representation of a slice of a picture, said encoded representation comprising a slice header and slice data, said method comprising: identifying a parameter set associated with said encoded representation based on a parameter set identifier obtainable based on said slice header; parsing a slice header extension present flag present in said parameter set; parsing, if said slice header extension present flag has a predefined value, a length indicator in variable length code associated with said encoded representation and indicative of a length in bits or bytes of an extension field in said slice header; and determining, if said slice header extension present flag has said predefined value, to ignore, during decoding of said encoded representation, any value of said extension field identified based on said length indicator. identifying a parameter set associated with said encoded representation based on a parameter set identifier obtainable based on said slice header; parsing a slice header extension present flag present in said parameter set; parsing, if said slice header extension present flag has a predefined value, a length indicator in variable length code associated with said encoded representation and indicative of a length in bits or bytes of an extension field in said slice header; and determining, if said slice header extension present flag has said predefined value, to ignore, during decoding of said encoded representation, any value of said extension field identified based on said length indicator.
A clock generator for generating a clock signal from laser light, the clock generator comprising: an interferometer having an input and an output, the interferometer being in electrical or optical communication with the laser and configured to receive the laser light; a balanced photoreceiver having an input in optical or electrical communication with the output of the interferometer, the photoreceiver having an output; a frequency multiplier having an input in optical or electrical communication with the output of the photoreceiver, the frequency multiplier having an output; and a zero-cross detector having an input in optical or electrical communication with the output of the frequency multiplier, the output of the zero-crossing detector being the generated clock signal. an interferometer having an input and an output, the interferometer being in electrical or optical communication with the laser and configured to receive the laser light; a balanced photoreceiver having an input in optical or electrical communication with the output of the interferometer, the photoreceiver having an output; a frequency multiplier having an input in optical or electrical communication with the output of the photoreceiver, the frequency multiplier having an output; and a zero-cross detector having an input in optical or electrical communication with the output of the frequency multiplier, the output of the zero-crossing detector being the generated clock signal.
Method for producing a composite material (3, 4, 10), comprising the following steps: a) producing at least one spun yarn of plant fibres; b) coating said at least one spun yarn by winding fibres or filaments of a thermoplastic material so as to form a composite yarn; c) heating said composite yarn until said thermoplastic material melts. a) producing at least one spun yarn of plant fibres; b) coating said at least one spun yarn by winding fibres or filaments of a thermoplastic material so as to form a composite yarn; c) heating said composite yarn until said thermoplastic material melts.
A polypeptide that specifically binds to an autophagic cell, comprising an amino acid sequence selected from the group consisting of SEQ ID NO:1 to SEQ ID NO:4.
An immunogenic composition comprising a PSE54 antigen and optionally one or more antigens selected from the list of: a PSE44-4 antigen; a PSE10-1 antigen; a PSE21-5 antigen; a PSE27-1 antigen; a PSE52-1 antigen; a PSE53-1 antigen; PSE11-3 antigen; a PSE41-5 antigen; a PSE47A-2; PSE5-1; PSE13-2; PSE17-1; PSE18-2; PSE20-1; PSE23-1; PSE24-1; PSE25-1; PSE26-1; PSE28-2; PSE31-2; PSE33-2; PSE42-1; PSE45-2; PSE50-1; PSE51-4; PSE19-1; PSE34-1; PSE36-3; PSE38-1.
A tube clamp having: first and second opposed jaws joined by a first hinge, the first and second jaws (1012, 1014) movable between open and closed positions, the tube clamp adapted to attach to a flexible plastic tube so that the tube passes between the jaws (1012, 1014), whereby the flow of fluid through the tube is permitted when the jaws (1012, 1014) are open but is blocked when the jaws (1012, 1014) are brought together to the closed position to pinch closed the tube there-between, and locking means to effect substantially permanent and irreversible locking of the jaws (1012, 1014) in the closed position, the locking means comprising: a stud on the first jaw comprising a post and a head, the tube clamp being characterized by a corresponding aperture on the second jaw positioned and adapted to accept the stud, wherein the aperture is located in a first wall having a proximal side facing the first jaw, and wherein the head comprises two arms extending sideways from the post in opposite directions and being movable relative to the post; and the aperture is proportioned so that the head of the stud can be forced through the aperture from the proximal side by deflecting, bending or folding the two arms inwards towards the post of the stud and so that, after passing through the aperture the two arms spring irreversibly outwards and overlay the distal side of the first wall to lock the jaws together in the closed position. first and second opposed jaws joined by a first hinge, the first and second jaws (1012, 1014) movable between open and closed positions, the tube clamp adapted to attach to a flexible plastic tube so that the tube passes between the jaws (1012, 1014), whereby the flow of fluid through the tube is permitted when the jaws (1012, 1014) are open but is blocked when the jaws (1012, 1014) are brought together to the closed position to pinch closed the tube there-between, and locking means to effect substantially permanent and irreversible locking of the jaws (1012, 1014) in the closed position, the locking means comprising: a stud on the first jaw comprising a post and a head, the tube clamp being characterized by a corresponding aperture on the second jaw positioned and adapted to accept the stud, a stud on the first jaw comprising a post and a head, the tube clamp being characterized by a corresponding aperture on the second jaw positioned and adapted to accept the stud, wherein the aperture is located in a first wall having a proximal side facing the first jaw, and wherein the head comprises two arms extending sideways from the post in opposite directions and being movable relative to the post; and the aperture is proportioned so that the head of the stud can be forced through the aperture from the proximal side by deflecting, bending or folding the two arms inwards towards the post of the stud and so that, after passing through the aperture the two arms spring irreversibly outwards and overlay the distal side of the first wall to lock the jaws together in the closed position.
An organic light emitting display device comprising: an insulating film on a substrate; a first pixel area and a second pixel area on the insulating film, the first pixel area and the second pixel area each including a first electrode; a film on the insulating film and between the first electrode of the first pixel area and the first electrode of the second pixel area; a hole in the film between the first electrode of the first pixel and the first electrode of the second pixel, wherein the hole penetrates the film and extends at least partially into the insulating film; an organic light emitting layer on the first electrodes of the first pixel area and the second pixel area and the film; and a second electrode on the organic light emitting layer, characterized in that each of the first electrodes includes a reflective electrode and a transparent electrode on the reflective electrode, and wherein a height at an edge of the film is lower than a height of the transparent electrode and higher than a height of the reflective electrode. an insulating film on a substrate; a first pixel area and a second pixel area on the insulating film, the first pixel area and the second pixel area each including a first electrode; a film on the insulating film and between the first electrode of the first pixel area and the first electrode of the second pixel area; a hole in the film between the first electrode of the first pixel and the first electrode of the second pixel, wherein the hole penetrates the film and extends at least partially into the insulating film; an organic light emitting layer on the first electrodes of the first pixel area and the second pixel area and the film; and a second electrode on the organic light emitting layer, characterized in that each of the first electrodes includes a reflective electrode and a transparent electrode on the reflective electrode, and wherein a height at an edge of the film is lower than a height of the transparent electrode and higher than a height of the reflective electrode.
A method for manufacturing a component containing an iron alloy material, the method comprising the steps: - providing a pulverulent pre-alloy, the pre-alloy comprising in wt.%: 0.01 to 1 % C 0.01 to 30 % Mn ≤ 6 % Al, and 0.05 to 6.0 % Si, optionally at least one of Cr at a content of ≤ 2 %, Cu at a content of ≤ 2 %, Ti at a content of ≤ 2 %, Co at a content of ≤ 2 %, Zr at a content of ≤ 2 %, V at a content of ≤ 2 %, Nb at a content of ≤ 2 %, Ta at a content of ≤ 2 % and B at a content of ≤ 0.2 %, the remainder being Fe and usual contaminants, - mixing the pulverulent pre-alloy with elementary Ag powder, so as to produce a powder mixture containing 0.5 to 20% Ag, - applying the powder mixture onto a carrier by means of a powder application device, and - selectively irradiating electromagnetic or particle radiation onto the powder mixture applied onto the carrier by means of an irradiation device so as to generate a component from the powder mixture by an additive layer construction method. - providing a pulverulent pre-alloy, the pre-alloy comprising in wt.%: 0.01 to 1 % C 0.01 to 30 % Mn ≤ 6 % Al, and 0.05 to 6.0 % Si, optionally at least one of Cr at a content of ≤ 2 %, Cu at a content of ≤ 2 %, Ti at a content of ≤ 2 %, Co at a content of ≤ 2 %, Zr at a content of ≤ 2 %, V at a content of ≤ 2 %, Nb at a content of ≤ 2 %, Ta at a content of ≤ 2 % and B at a content of ≤ 0.2 %, the remainder being Fe and usual contaminants, 0.01 to 1 % C 0.01 to 30 % Mn ≤ 6 % Al, and 0.05 to 6.0 % Si, - mixing the pulverulent pre-alloy with elementary Ag powder, so as to produce a powder mixture containing 0.5 to 20% Ag, - applying the powder mixture onto a carrier by means of a powder application device, and - selectively irradiating electromagnetic or particle radiation onto the powder mixture applied onto the carrier by means of an irradiation device so as to generate a component from the powder mixture by an additive layer construction method.
Liquid delivery device for a motor vehicle, in particular for an internal combustion engine, - with a pump for delivering a hydraulic medium, - with an electric motor for driving the pump, - wherein a rotor of the electric motor is rotatably mounted in a rotor chamber through which a coolant can flow, - wherein the rotor chamber is separated in a fluid-tight manner from a stator of the electric motor by a can, - wherein a motor housing comprises a coolant inlet and a coolant outlet, - wherein an inner space of the motor housing that is fluidly connected to the coolant inlet and the coolant outlet is fluidly connected to the rotor chamber, - wherein power electronics for supplying electric energy to the stator are arranged such that heat can be extracted from the power electronics by means of the coolant, characterised in that - a circuit board of the power electronics carrying, on a first side, electrical components of the power electronics is directly charged with the coolant on a second side opposite the first side, or - that a circuit board of the power electronics carrying electrical components of the power electronics is hollow with the coolant flowing through it. - with a pump for delivering a hydraulic medium, - with an electric motor for driving the pump, - wherein a rotor of the electric motor is rotatably mounted in a rotor chamber through which a coolant can flow, - wherein the rotor chamber is separated in a fluid-tight manner from a stator of the electric motor by a can, - wherein a motor housing comprises a coolant inlet and a coolant outlet, - wherein an inner space of the motor housing that is fluidly connected to the coolant inlet and the coolant outlet is fluidly connected to the rotor chamber, - wherein power electronics for supplying electric energy to the stator are arranged such that heat can be extracted from the power electronics by means of the coolant, - a circuit board of the power electronics carrying, on a first side, electrical components of the power electronics is directly charged with the coolant on a second side opposite the first side, or - that a circuit board of the power electronics carrying electrical components of the power electronics is hollow with the coolant flowing through it.
A ductile iron comprising, in terms of mass ratio, carbon: 2.0 to 4.0%, silicon: 3.5 to 5.0%, manganese: not more than 1.0%, chromium: 0.1 to 1.0%, molybdenum: 0.2 to 2.0%, vanadium: 0.1 to 1.0%, magnesium: 0.02 to 0.1%, and optionally one or both of tungsten: 0.1 to 1.0% and niobium: 0.02 to 0.30%, with a remainder being composed of iron and unavoidable impurities.