mhurhangee/ep-ind-claims huggingface dataset:
A turbine ring assembly comprising a ring support structure and a plurality of ring sectors made of ceramic matrix composite material so as to form a turbine ring, each ring sector presenting, in a first section plane defined by an axial direction (D A) and a radial direction (D R) of the turbine ring, a portion that forms an annular base having in the radial direction (D R) of the turbine ring both an inner face defining the inside face of the turbine ring and an outer face from which there extend first and second attachment tabs (14, 16) defining between them a circumferentially-open annular cavity, the ring support structure having first and second radial tabs between which the first and second attachment tabs (14, 16) of each ring sector are held, together with at least one injection orifice for injecting a stream of cooling air into the annular cavity; the assembly being characterized in that, in a second section plane containing the axial direction (D A) of the ring and a direction (D C) orthogonal to the first section plane, said injection orifice forms a first feed angle (α1) relative to said direction (D C) that is orthogonal to the first section plane, which first feed angle (α1) lies in the range -80° to +80°.
A method for observing a biological specimen in a living state, wherein the method comprises: an adding step of adding a luminescence substrate to the biological specimen, the biological specimen containing a self-luminous fused protein that contains a luminescence enzyme and a fluorescent protein and generates chemiluminescence in cooperation with the luminescence substrate, and a luminescence control portion that is coupled with the luminescence enzyme and controls the chemiluminescence in accordance with whether or not the biological specimen is illuminated with control light that changes a state of the chemiluminescence; an illumination step of defining a known spatial radiation pattern of the control light as a first spatial pattern having a first spatial frequency component, and illuminating the biological specimen with the control light having the defined spatial radiation pattern; a detection step of detecting a second spatial pattern of chemiluminescence from the biological specimen formed by mutual effect between a spatial frequency component of the biological specimen and the first spatial frequency component of the spatial radiation pattern of the control light, the second spatial pattern having a second spatial frequency component; and a determination step of determining the spatial frequency component of the biological specimen, based on the first spatial frequency component and the second spatial frequency component. an adding step of adding a luminescence substrate to the biological specimen, the biological specimen containing a self-luminous fused protein that contains a luminescence enzyme and a fluorescent protein and generates chemiluminescence in cooperation with the luminescence substrate, and a luminescence control portion that is coupled with the luminescence enzyme and controls the chemiluminescence in accordance with whether or not the biological specimen is illuminated with control light that changes a state of the chemiluminescence; an illumination step of defining a known spatial radiation pattern of the control light as a first spatial pattern having a first spatial frequency component, and illuminating the biological specimen with the control light having the defined spatial radiation pattern; a detection step of detecting a second spatial pattern of chemiluminescence from the biological specimen formed by mutual effect between a spatial frequency component of the biological specimen and the first spatial frequency component of the spatial radiation pattern of the control light, the second spatial pattern having a second spatial frequency component; and a determination step of determining the spatial frequency component of the biological specimen, based on the first spatial frequency component and the second spatial frequency component.
A method of detecting radar cross section, the method comprising: receiving a sequence of samples at a re-visit rate of a radar antenna the sequence of samples being based at least in part on electromagnetic energy reflected from a target, wherein receiving the sequence of samples includes receiving the sequence of samples from a log amplifier of the radar antenna, the sequence of samples being a geometric quantitation of charge values generated by the radar antenna based on the electromagnetic energy reflected from the target; interpolating a model curve to the sequence of samples, wherein each sample of the sequence of samples geometrically increases in value relative to a previous sample of the sequence of samples, wherein the increase in value of each sample relative to a previous sample corresponds to a decrease in a range of the target relative to the radar antenna; comparing the model curve to a calibrated curve and determining a shift between the model curve and the calibrated curve based at least on the comparison; and detecting a radar cross section based at least in part on the shift between the model curve and the calibrated curve. receiving a sequence of samples at a re-visit rate of a radar antenna the sequence of samples being based at least in part on electromagnetic energy reflected from a target, wherein receiving the sequence of samples includes receiving the sequence of samples from a log amplifier of the radar antenna, the sequence of samples being a geometric quantitation of charge values generated by the radar antenna based on the electromagnetic energy reflected from the target; interpolating a model curve to the sequence of samples, wherein each sample of the sequence of samples geometrically increases in value relative to a previous sample of the sequence of samples, wherein the increase in value of each sample relative to a previous sample corresponds to a decrease in a range of the target relative to the radar antenna; comparing the model curve to a calibrated curve and determining a shift between the model curve and the calibrated curve based at least on the comparison; and detecting a radar cross section based at least in part on the shift between the model curve and the calibrated curve.
Use, as fluid loss control agent in an aqueous fluid injected under pressure into a subterranean formation, wherein said aqueous fluid comprises solid particles (p) and/or is brought into contact with solid particles (p) within the subterranean formation subsequent to its injection, of a block polymer comprising at least three blocks including: - at least one first block which is adsorbed, preferably irreversibly, on at least a portion of a particle (p); and - at least one second block having a composition distinct from that of the first block, having a weight-average molecular weight of greater than 10 000 g/mol, and which is soluble in the fluid; - at least one third block of type or of type; and wherein the particles (p) are particles of calcium carbonate or cement; particles of silica or sand; particles of clay; or particles of carbon black. - at least one first block which is adsorbed, preferably irreversibly, on at least a portion of a particle (p); and - at least one second block having a composition distinct from that of the first block, having a weight-average molecular weight of greater than 10 000 g/mol, and which is soluble in the fluid; - at least one third block of type or of type;
A method for processing at least one peripheral image (42, 44), said at least one peripheral image being displayed on a surface (32, 34) that extends beyond the borders of a screen onto which a central image is displayed, said at least one peripheral image corresponding to an extension of said central image, the method characterized by comprising: adapting luminance of said at least one peripheral image (42, 44) according to a reflectance level of the surface (32, 34) where is displayed the at least one peripheral image by applying a light correction function to said luminance of said at least one peripheral image, wherein the light correction function decreases said luminance of said at least one peripheral image in case of a high reflectance level of the surface, wherein the light correction function increases said luminance of said at least one peripheral image in case of a low reflectance level of the surface; and wherein adapting luminance of said peripheral image comprises increasing the luminance of a moving object in the at least one peripheral image. adapting luminance of said at least one peripheral image (42, 44) according to a reflectance level of the surface (32, 34) where is displayed the at least one peripheral image by applying a light correction function to said luminance of said at least one peripheral image, wherein the light correction function decreases said luminance of said at least one peripheral image in case of a high reflectance level of the surface, wherein the light correction function increases said luminance of said at least one peripheral image in case of a low reflectance level of the surface; and wherein adapting luminance of said peripheral image comprises increasing the luminance of a moving object in the at least one peripheral image.
The compounds according to one of the following formula: or wherein: R 1 is hydrogen, amido, amino, or aryl; and R 2 is hydrogen or alkyl. R 1 is hydrogen, amido, amino, or aryl; and R 2 is hydrogen or alkyl.
Tyre designed for running flat, provided with self-supporting sidewalls, comprising a carcass reinforcement, characterized in that the carcass reinforcement comprises at least one reinforcing element comprising at least one multifilament strand made of aramid and at least one multifilament strand made of polyester which are twisted together.
A miniature antenna filter, comprising: a plurality of dielectric layers; a first ground plane on one side of the plurality of dielectric layers; a second ground plane on an opposite side of the plurality of dielectric layers and parallel to the first ground plane; one of the first and second ground planes (98a, 98b) providing an input port and one of the first and second ground planes providing an output port; two parallel strip line resonators (102a, 102b) lying in a first plane parallel to, and between, the first and second ground planes, the two parallel strip line resonators (102a, 102b) having a gap there between; and a coupling plate in proximity to the gap, grounded at one edge and lying in a second plane, the second plane parallel to the first plane and lying between the first plane and one of the first and second ground planes (98a, 98b), the coupling plate having a center line being aligned with a center line of the gap between the two parallel strip line resonators (102a, 102b), the coupling plate configured to provide inductive coupling between the two parallel strip line resonators (102a, 102b) separated by the gap. a plurality of dielectric layers; a first ground plane on one side of the plurality of dielectric layers; a second ground plane on an opposite side of the plurality of dielectric layers and parallel to the first ground plane; one of the first and second ground planes (98a, 98b) providing an input port and one of the first and second ground planes providing an output port; two parallel strip line resonators (102a, 102b) lying in a first plane parallel to, and between, the first and second ground planes, the two parallel strip line resonators (102a, 102b) having a gap there between; and a coupling plate in proximity to the gap, grounded at one edge and lying in a second plane, the second plane parallel to the first plane and lying between the first plane and one of the first and second ground planes (98a, 98b), the coupling plate having a center line being aligned with a center line of the gap between the two parallel strip line resonators (102a, 102b), the coupling plate configured to provide inductive coupling between the two parallel strip line resonators (102a, 102b) separated by the gap.
A mixed, virtual and augmented reality headset, comprising: a front casing suitable for being secured to the head of a user; a curved holographic display located in the front portion of the headset and configured for reflecting a projected image via the display of a smartphone and simultaneously allowing the user to see through same; a housing in the front casing for receiving the smartphone facing the holographic display; at least one motorised mirror configured for being located in a withdrawn position outside the field of view of the user, or in an extended position in front of the holographic display, in the field of view of the user, for reflecting the projected image via the display of the smartphone; two motorised lenses configured for being located in a withdrawn position, outside the field of view of the user, or in an extended position in front of the pupils of the user; a mirror system configured for reflecting a real external image with respect to the headset towards a camera of the smartphone; and a control unit in charge of controlling the position of the motorised lenses and of the at least one motorised mirror, so that the motorised mirror and motorised lenses are in the withdrawn position for the mixed reality mode and in the extended position for the augmented and virtual reality modes. a front casing suitable for being secured to the head of a user; a curved holographic display located in the front portion of the headset and configured for reflecting a projected image via the display of a smartphone and simultaneously allowing the user to see through same; a housing in the front casing for receiving the smartphone facing the holographic display; at least one motorised mirror configured for being located in a withdrawn position outside the field of view of the user, or in an extended position in front of the holographic display, in the field of view of the user, for reflecting the projected image via the display of the smartphone; two motorised lenses configured for being located in a withdrawn position, outside the field of view of the user, or in an extended position in front of the pupils of the user; a mirror system configured for reflecting a real external image with respect to the headset towards a camera of the smartphone; and a control unit in charge of controlling the position of the motorised lenses and of the at least one motorised mirror, so that the motorised mirror and motorised lenses are in the withdrawn position for the mixed reality mode and in the extended position for the augmented and virtual reality modes.
An endovascular prosthesis delivery device comprising a tubular member having a distal portion and a proximal portion, the distal portion having a porous surface defined by a plurality of circumferential rings, adjacent pairs of circumferential rings being interconnected by at least one longitudinal strut, characterized in that the porous surface comprises a decreasing gradient of longitudinal strut circumferential width between longitudinal struts connected to opposed sides of a single circumferential ring in a direction from the proximal portion to the distal portion.
A multispecific antibody or fragment thereof that specifically binds: a. a first target epitope, wherein the first target epitope is an epitope of the variable delta 1 (Vδ1) chain of a γδ T cell receptor; and b. a second target epitope, wherein the second epitope is OX40. a. a first target epitope, wherein the first target epitope is an epitope of the variable delta 1 (Vδ1) chain of a γδ T cell receptor; and b. a second target epitope, wherein the second epitope is OX40.
Kitchen appliance for processing food, comprising - a housing, in or on which a drive unit is arranged for driving a processing tool for processing food, and - an actuating mechanism for actuating the drive unit, wherein the actuating mechanism has - a moveable switching element arranged outside the housing, - a switch arranged inside the housing, and - an opening passing through the housing, - the switch being switchable with the switching element for actuating the drive unit such that the switching element is moved relative to the switch, and - the kitchen appliance has a sealing element, which forms a seal while closing the opening and transfers the movement of the switching element to the switch. - a housing, in or on which a drive unit is arranged for driving a processing tool for processing food, and - an actuating mechanism for actuating the drive unit, wherein the actuating mechanism has - a moveable switching element arranged outside the housing, - a switch arranged inside the housing, and - an opening passing through the housing, - the switch being switchable with the switching element for actuating the drive unit such that the switching element is moved relative to the switch, and - the kitchen appliance has a sealing element, which forms a seal while closing the opening and transfers the movement of the switching element to the switch.
An endoprosthesis, in particular a vascular stent or a heart stent, having a longitudinal axis, comprising - at least one body part, a first cover sheet, - at least one thrombogenic fiber characterized in that the endoprosthesis further comprises at least one fixation layer which attaches, preferably permanently, the at least one thrombogenic fiber to the endoprosthesis, wherein at least one of - the at least one thrombogenic fiber, and - a support structure for the thrombogenic fiber is at least partially arranged between the fixation layer and the first cover sheet. - at least one body part, a first cover sheet, - at least one thrombogenic fiber the endoprosthesis further comprises at least one fixation layer which attaches, preferably permanently, the at least one thrombogenic fiber to the endoprosthesis, wherein at least one of - the at least one thrombogenic fiber, and - a support structure for the thrombogenic fiber is at least partially arranged between the fixation layer and the first cover sheet. - the at least one thrombogenic fiber, and - a support structure for the thrombogenic fiber is at least partially arranged between the fixation layer and the first cover sheet.
A method for selecting a virtual object rendered in a see-through head mounted display, comprising: rendering one or more virtual objects, at least one virtual object being a selectable virtual object by a user to engage a function with respect to the object; determining (1020, 1022) gaze, head position and field of view of a user, the gaze, head position and field of view determining a user focus; if the user focus intersects a selectable virtual object, determining an initial selection of the selectable virtual object; displaying a validation object proximate to the selectable virtual object in response to determining the initial selection of the selectable virtual object; and detecting whether the user focus intersects the validation object thereby initiating a selection of the selectable object, characterised in that detecting whether the user focus intersects the validation object further includes: detecting a gaze motion path corresponding to the user focus between the user's initial focus position on the selectable object and a new focus position on the validation object. rendering one or more virtual objects, at least one virtual object being a selectable virtual object by a user to engage a function with respect to the object; determining (1020, 1022) gaze, head position and field of view of a user, the gaze, head position and field of view determining a user focus; if the user focus intersects a selectable virtual object, determining an initial selection of the selectable virtual object; displaying a validation object proximate to the selectable virtual object in response to determining the initial selection of the selectable virtual object; and detecting whether the user focus intersects the validation object thereby initiating a selection of the selectable object, characterised in that detecting whether the user focus intersects the validation object further includes: detecting a gaze motion path corresponding to the user focus between the user's initial focus position on the selectable object and a new focus position on the validation object. detecting a gaze motion path corresponding to the user focus between the user's initial focus position on the selectable object and a new focus position on the validation object.
Assembly for holding or supporting a timepiece balance spring, including a balance spring stud and a stud-holder, wherein the stud-holder includes: - a base (30, 300) comprising a first stop member (32, 320) extending along a longitudinal axis of said base; - means of attaching said stud-holder to a balance-cock, characterized in that said stud-holder further includes elastic means (34, 340) provided with a second stop member (36, 360), the elastic means extending along said longitudinal axis of said base such that the second stop member is located facing the first stop member, the space between said first stop member and said second stop member forming a housing for said stud, and in that the elastic means are made to naturally exert stress on the stud when the latter is placed in the housing, the housing being capable of enlargement to release the stud by deformation of said elastic means, said elastic means including two arms extending from said base, the arms being joined to each other and having a convex shape such that the application of a stress to the two arms intended to move them closer together causes a displacement of the second stop member intended to enlarge the housing. - a base (30, 300) comprising a first stop member (32, 320) extending along a longitudinal axis of said base; - means of attaching said stud-holder to a balance-cock,
Plastics composite, characterized in that it is composed of at least two poly(meth)acrylate layers, and of a layer composed of a thermoplastic polyurethane, and in that the layer thickness of and are in each case in the range from 0.5 to 6 mm and in that the layer thickness of is in the range from 0.5 to 5 mm.
An ultrasound array for acoustic wave transmission comprising at least one capacitive micro-machined ultrasound transducer, CMUT, cell, wherein the CMUT cell comprises a substrate; a first electrode; a cell membrane opposing the substrate and having a second electrode, which opposes the first electrode with a cavity there between, wherein the membrane is arranged to vibrate upon the cell activation; and an acoustic window layer, overlaying the cell membrane thereby being in direct contact with the cell membrane, and having an inner surface opposing the cell membrane and an outer surface; wherein the acoustic window layer comprises a first layer comprising molecules of antioxidant and a polymeric material, and wherein the polymeric material consists of hydrogen and carbon atoms, and wherein said first layer has a density equal or below 0.95 g/cm 3 and an acoustic impedance equal or above 1.4 MRayl. an acoustic window layer, overlaying the cell membrane thereby being in direct contact with the cell membrane, and having an inner surface opposing the cell membrane and an outer surface; wherein the acoustic window layer comprises a first layer comprising molecules of antioxidant and a polymeric material, and wherein the polymeric material consists of hydrogen and carbon atoms, and wherein said first layer has a density equal or below 0.95 g/cm 3 and an acoustic impedance equal or above 1.4 MRayl.