mhurhangee/patent-ind-claim-en huggingface dataset:
Cavity wall socket for technical building installations, in particular electrical/electronic installation devices with a socket body formed by a base , a circumferential wall , and an installation opening opposite the base , made of plastic, with a support flange projecting in a radial direction outwards, and with means for securing the cavity wall socket (1, 1.1-1.5) in a socket hole , wherein the socket body carries on its outer casing surface, adjacent to the support flange , a ring-shaped body (15, 15.1-15.5) facing towards the base , made of an elastomer plastic material which is softer than the plastic material of the socket body , of which the encasing cylindrical casing surface exhibits a greater diameter than the adjacent casing surface of the socket body , such that the ring-shaped body (15, 15.1-15.5), when inserted into a socket cavity , comes in contact with the borehole wall of the socket cavity , characterised in that the ring-shaped body (15, 15.1-15.5) is configured in the manner of a circumferential strip with a rectangular cross-section geometry, wherein the at least one ring-shaped body (15, 15.1-15.5) is seated in a circumferential slot introduced into the wall of the socket body .
A method for authenticating a call from a call originator to a call recipient, in which the method comprises, at a server: i) monitoring a first communications path assigned to a first party; ii) monitoring a call originated by the first party over the first communications path to detect a first code entered on the call by the call recipient; iii) comparing the first code detected in the call with a second code shared between the call recipient and the server on a second communications path independent of the first communications path; and iv) where the first code detected in the call matches the second code shared between the call recipient and the server, providing to the call recipient, over the second communications path, an indication that the call originator on the call is the first party. i) monitoring a first communications path assigned to a first party; ii) monitoring a call originated by the first party over the first communications path to detect a first code entered on the call by the call recipient; iii) comparing the first code detected in the call with a second code shared between the call recipient and the server on a second communications path independent of the first communications path; and iv) where the first code detected in the call matches the second code shared between the call recipient and the server, providing to the call recipient, over the second communications path, an indication that the call originator on the call is the first party.
An optical device (100; 100-1), comprising: a substrate ; a first transparent thin film layer formed at one surface of the substrate ; a quantum dot layer formed at an upper surface of the first transparent thin film layer and consisting of quantum dot particles; a protective layer formed on both the upper surface and the bottom surface of the quantum dot layer ; a barrier member (130; 130-1) formed on the upper surface of the first transparent thin film layer for establishing an area formed with the quantum dot layer and the protective layer ; and a second transparent thin film layer formed at an extreme upper layer of the optical device (100; 100-1), characterized in that : the protective layer is formed with metallic oxide nano particles; and the second transparent thin film layer is formed in such a way that the quantum dot layer and the protective layer are airtightly sealed. a substrate ; a first transparent thin film layer formed at one surface of the substrate ; a quantum dot layer formed at an upper surface of the first transparent thin film layer and consisting of quantum dot particles; a protective layer formed on both the upper surface and the bottom surface of the quantum dot layer ; a barrier member (130; 130-1) formed on the upper surface of the first transparent thin film layer for establishing an area formed with the quantum dot layer and the protective layer ; and a second transparent thin film layer formed at an extreme upper layer of the optical device (100; 100-1), characterized in that : the protective layer is formed with metallic oxide nano particles; and the second transparent thin film layer is formed in such a way that the quantum dot layer and the protective layer are airtightly sealed. the protective layer is formed with metallic oxide nano particles; and the second transparent thin film layer is formed in such a way that the quantum dot layer and the protective layer are airtightly sealed.
A computer-implemented method of coating a workpiece , comprising: establishing electronic communication between a controller (146 a,b) having a processor and at least one robot (118 a,b) having a coating applicator (128 a); executing instructions with the processor that control the robot, the instructions written on a non-transient computer-readable medium ; determining a wet-surface time (T WET ) for each of a plurality of segments of the surface of the workpiece upon which a first layer of coating is applied; selecting at least one segment from the plurality of segments of the workpiece based at least in part on the wet-surface time for the first layer of coating wherein the selecting includes changing a size of the at least one segment to permit complete coating of the at least one segment with the first layer of coating prior to the wet-surface time of the at least one segment elapsing; applying the first layer of coating to the at least one segment of said surface of the workpiece with the at least one robot (118a,b); and, applying a second layer of coating to the at least one segment for which the wet-surface time has been determined with the at least one robot prior to the wet-surface time elapsing for the at least one segment. establishing electronic communication between a controller (146 a,b) having a processor and at least one robot (118 a,b) having a coating applicator (128 a); executing instructions with the processor that control the robot, the instructions written on a non-transient computer-readable medium ; determining a wet-surface time (T WET ) for each of a plurality of segments of the surface of the workpiece upon which a first layer of coating is applied; selecting at least one segment from the plurality of segments of the workpiece based at least in part on the wet-surface time for the first layer of coating wherein the selecting includes changing a size of the at least one segment to permit complete coating of the at least one segment with the first layer of coating prior to the wet-surface time of the at least one segment elapsing; applying the first layer of coating to the at least one segment of said surface of the workpiece with the at least one robot (118a,b); and, applying a second layer of coating to the at least one segment for which the wet-surface time has been determined with the at least one robot prior to the wet-surface time elapsing for the at least one segment.
A terminal for a secondary cell , wherein the terminal comprises - a terminal plate comprising a through-hole and an inner surface adapted to face the interior of the secondary cell , and - a terminal rivet that extends through the through-hole of the terminal plate , wherein the terminal rivet comprises a first flange that comprises a protruding portion , wherein the protruding portion of the first flange extends into the inner surface of the terminal plate in a riveted state . - a terminal plate comprising a through-hole and an inner surface adapted to face the interior of the secondary cell , and - a terminal rivet that extends through the through-hole of the terminal plate , wherein the terminal rivet comprises a first flange that comprises a protruding portion ,
An ink set comprising: an ink set A including a yellow ink, a magenta ink, a cyan ink, and a black ink; and an ink set B including at least two inks selected from among an orange ink, a green ink, a violet ink, and a blue ink, wherein of the ink set B, the orange ink contains an orange pigment having a cyclic structure and a basic moiety in the cyclic structure, wherein the green ink contains a green pigment having a copper phthalocyanine structure, wherein the violet ink contains a violet pigment having a dioxazine skeleton, and wherein each of the inks included in the ink set A and the ink set B contains, as a gellant at least one compound selected from among compounds represented by the following general formula (G1) and compounds represented by the following general formula (G2): R1-CO-R2... General Formula (G1) R3-COO-R4... General Formula (G2), wherein R1 to R4 in the general formulae (G1) and (G2) each independently represent a C 9-25 chain hydrocarbon group. an ink set A including a yellow ink, a magenta ink, a cyan ink, and a black ink; and an ink set B including at least two inks selected from among an orange ink, a green ink, a violet ink, and a blue ink, wherein of the ink set B, the orange ink contains an orange pigment having a cyclic structure and a basic moiety in the cyclic structure, wherein the green ink contains a green pigment having a copper phthalocyanine structure, wherein the violet ink contains a violet pigment having a dioxazine skeleton, and wherein each of the inks included in the ink set A and the ink set B contains, as a gellant at least one compound selected from among compounds represented by the following general formula (G1) and compounds represented by the following general formula (G2): R1-CO-R2... General Formula (G1) R3-COO-R4... General Formula (G2), wherein R1 to R4 in the general formulae (G1) and (G2) each independently represent a C 9-25 chain hydrocarbon group.
Method for manufacturing an element having magnetic poles for a rotor for an electric machine, said element having magnetic poles comprising a plurality of unit magnets , said method comprising the steps of: - providing (e1) a magnetisation block comprising a first main face and a second main face opposite to the first main face , the first main face and the second main face delimiting a thickness of the magnetisation block therebetween; - machining (e2), over only part of the thickness of the magnetisation block , a first set of initial slots starting from the first main face , such that the magnetisation block remains integral; - pouring (e3) a first connecting material into the initial slots ; characterized in that it further comprises machining (e4) a set of complementary slots forming extensions of the initial slots of the first set across the entire thickness of the magnetisation block , so as to form the plurality of unit magnets separated from each other, the unit magnets being held secured together by the first connecting material . - providing (e1) a magnetisation block comprising a first main face and a second main face opposite to the first main face , the first main face and the second main face delimiting a thickness of the magnetisation block therebetween; - machining (e2), over only part of the thickness of the magnetisation block , a first set of initial slots starting from the first main face , such that the magnetisation block remains integral; - pouring (e3) a first connecting material into the initial slots ;
An optical fiber comprised of silica-based glass, the optical fiber comprising: a core having a single-peaked and graded refractive index profile, the single-peaked profile being a profile having only one peak in a refractive index obtained by moving average using an average of refractive indices n(r) in the interval of 5 μm, the parameter r being defined as a distance from a center of the core along a radial direction; an inner cladding surrounding the core and having a refractive index lower than a maximum refractive index of the core ; and an outer cladding surrounding the inner cladding and having a refractive index lower than the maximum refractive index of the core , wherein both the core and the inner cladding contain a photosensitive material to constitute a photosensitive region , characterized in that the inner cladding has an outer diameter one time or more and two times or less a mode field diameter of an LP 01 mode in a 1310-nm wavelength band, the photosensitive region contains both Ge and B as the photosensitive material, a difference between a maximum concentration and a minimum concentration of the B in the photosensitive region is 0.3% or less in terms of a difference between a variation in relative refractive index induced by B-doping with the maximum concentration and a variation in relative refractive index induced by the B-doping with the minimum concentration, and a concentration of the Ge in an outermost region of the photosensitive region is 0.35% or more in terms of a variation in relative refractive index induced by Ge-doping. a core having a single-peaked and graded refractive index profile, the single-peaked profile being a profile having only one peak in a refractive index obtained by moving average using an average of refractive indices n(r) in the interval of 5 μm, the parameter r being defined as a distance from a center of the core along a radial direction; an inner cladding surrounding the core and having a refractive index lower than a maximum refractive index of the core ; and an outer cladding surrounding the inner cladding and having a refractive index lower than the maximum refractive index of the core , wherein both the core and the inner cladding contain a photosensitive material to constitute a photosensitive region , characterized in that the inner cladding has an outer diameter one time or more and two times or less a mode field diameter of an LP 01 mode in a 1310-nm wavelength band, the photosensitive region contains both Ge and B as the photosensitive material, a difference between a maximum concentration and a minimum concentration of the B in the photosensitive region is 0.3% or less in terms of a difference between a variation in relative refractive index induced by B-doping with the maximum concentration and a variation in relative refractive index induced by the B-doping with the minimum concentration, and a concentration of the Ge in an outermost region of the photosensitive region is 0.35% or more in terms of a variation in relative refractive index induced by Ge-doping.
Display device having a display panel and a backlight for the display panel , the backlight comprising: - a reflector with a plurality of reflectively embodied cavities ; - a multiplicity of light sources arranged in each case in the cavities ; and - support elements which are transparent to light (L) emitted by the light sources , are supported on a circuit board , have the light sources arranged thereon, and protrude at least partially into a gap between the cavities and an optical component arranged below the display panel ; characterized in that the support elements are embedded in walls of the cavities . - a reflector with a plurality of reflectively embodied cavities ; - a multiplicity of light sources arranged in each case in the cavities ; and - support elements which are transparent to light (L) emitted by the light sources , are supported on a circuit board , have the light sources arranged thereon, and protrude at least partially into a gap between the cavities and an optical component arranged below the display panel ; characterized in that the support elements are embedded in walls of the cavities .
A blended padding comprising two or more types of fibers comprising a main fiber and a functional fiber, wherein the main fiber is a polyester fiber, characterized in that the main fiber and the functional fiber are different types of fibers, a fiber diameter and a fiber length of the functional fiber are within a range between minus 10% and plus 10% (± 10%) to a fiber diameter and a fiber length of the main fiber, a specific gravity of the functional fiber is within a range between minus 10% and plus 10% (± 10%) to a specific gravity of the main fiber, and when 2 g of the blended padding is randomly sampled from each of 6 places to determine a blending ratio, a blending ratio variation, which is calculated by the formula: maximum blending ratio - minimum blending ratio, between said two or more types of fibers is 10% by mass or less.
Mechanical rudder system , in particular for an underwater vehicle, having a hydraulic circuit , in which a pump is arranged, the pump being a reversible hydraulic pump which is operated by motor, the hydraulic circuit being a closed circuit, characterized in that a compressed air motor is additionally provided in the hydraulic circuit as an auxiliary drive for the hydraulic pump .
A speaker position detection system comprising: a first speaker unit having at least one speaker ; a second speaker unit having a speaker and a plurality of microphones ; a detection unit configured to calculate position information between the first speaker unit and the second speaker unit ; wherein the detection unit is configured to cause (S103) the speaker included in the first speaker unit to output a test sound, characterised in that the detection unit is further configured to acquire (S104) a time difference (ΔT1) between times (t1L, t1R) when the microphones receive the test sound; to normalize (S105) the time difference, based on the times (t1L, t1R) taken for the test sound to reach the microphones from the speaker ; and to calculate (S109) the position information representing the position between the first speaker unit and the second speaker unit , based on the normalized difference. a first speaker unit having at least one speaker ; a second speaker unit having a speaker and a plurality of microphones ; a detection unit configured to calculate position information between the first speaker unit and the second speaker unit ; wherein the detection unit is configured to cause (S103) the speaker included in the first speaker unit to output a test sound, characterised in that the detection unit is further configured to acquire (S104) a time difference (ΔT1) between times (t1L, t1R) when the microphones receive the test sound; to normalize (S105) the time difference, based on the times (t1L, t1R) taken for the test sound to reach the microphones from the speaker ; and to calculate (S109) the position information representing the position between the first speaker unit and the second speaker unit , based on the normalized difference.
A network diagnostic system for analyzing a wireless network comprising a plurality of access points, APs, implementing roaming by way of handover of wireless devices between APs, the network diagnostic system comprising: an electronic processor ; and a non-transitory storage medium storing instructions readable and executable by the electronic processor to perform a network diagnostic method including: extracting a global handover frequency, HF, graph from counts or frequencies of handover events over an analysis time interval in the wireless network wherein each handover event comprises a source AP from which a wireless device disconnects and a destination AP to which the wireless device connects; constructing a HF network topology graph for the analysis time interval from the extracted global HF graph wherein the HF network topology graph has nodes representing at least a subset of the APs of the extracted handover events and edges connecting pairs of nodes with each edge having a weight representing a count or frequency of handover events between the APs represented by the pair of nodes connected by the edge; and performing a network diagnostic or visualization task using the HF network topology graph. an electronic processor ; and a non-transitory storage medium storing instructions readable and executable by the electronic processor to perform a network diagnostic method including: extracting a global handover frequency, HF, graph from counts or frequencies of handover events over an analysis time interval in the wireless network wherein each handover event comprises a source AP from which a wireless device disconnects and a destination AP to which the wireless device connects; constructing a HF network topology graph for the analysis time interval from the extracted global HF graph wherein the HF network topology graph has nodes representing at least a subset of the APs of the extracted handover events and edges connecting pairs of nodes with each edge having a weight representing a count or frequency of handover events between the APs represented by the pair of nodes connected by the edge; and performing a network diagnostic or visualization task using the HF network topology graph. extracting a global handover frequency, HF, graph from counts or frequencies of handover events over an analysis time interval in the wireless network wherein each handover event comprises a source AP from which a wireless device disconnects and a destination AP to which the wireless device connects; constructing a HF network topology graph for the analysis time interval from the extracted global HF graph wherein the HF network topology graph has nodes representing at least a subset of the APs of the extracted handover events and edges connecting pairs of nodes with each edge having a weight representing a count or frequency of handover events between the APs represented by the pair of nodes connected by the edge; and performing a network diagnostic or visualization task using the HF network topology graph.
A method for making superficially porous particles, comprising (i) attaching an organic surface modifier to a solid metal oxide core particle to provide a surface modified solid metal oxide core particle; prior to (ii) forming a coacervate coating on the surface modified solid metal oxide core particle, wherein the coating comprises a continuous polymeric phase bonded to the organic surface modifier and a particulate phase dispersed within the continuous polymeric phase; and (iii) removing the continuous polymeric phase from the coating to provide a superficially porous particle. (i) attaching an organic surface modifier to a solid metal oxide core particle to provide a surface modified solid metal oxide core particle; prior to (ii) forming a coacervate coating on the surface modified solid metal oxide core particle, wherein the coating comprises a continuous polymeric phase bonded to the organic surface modifier and a particulate phase dispersed within the continuous polymeric phase; and (iii) removing the continuous polymeric phase from the coating to provide a superficially porous particle.
An electric power steering apparatus of a vector control system that converts dq-axes current command values calculated based on at least a steering torque into 3-phase duty command values, driving-controls a 3-phase brushless motor by an inverter of a pulse width modulation (PWM) control, and applies an assist torque to a steering system of a vehicle, characterized in that : wherein 3-phase detection voltages are estimated based on 3-phase motor terminal voltages, loss voltages due to a dead time of said inverter are estimated from differences between 3-phase correction command voltages calculated from said 3-phase duty command values and said 3-phase detection voltages, and a dead time compensation of said inverter is performed by feeding back dead time compensation values obtained by compensating said loss voltages to said dq-axes current command values.