mhurhangee/ep-ind-claims huggingface dataset:
A coated glass article comprising: a glass substrate; a color suppression interlayer deposited over the glass substrate; a coating of highly doped zinc oxide having a free electron concentration ≥1.0 x 10 21 cm -3 deposited over the color suppression interlayer; and a protective metal oxide coating deposited over the zinc oxide coating; wherein the thicknesses of the coatings (41, 42) are selected so that the coated glass article exhibits a difference between visible light transmittance (Illuminant C) and total solar energy transmittance, integrated with an air mass 1.5 on a clear glass substrate having a nominal 6 mm thickness, to provide a solar selectivity of 28 or more and an emissivity <0.15. a glass substrate; a color suppression interlayer deposited over the glass substrate; a coating of highly doped zinc oxide having a free electron concentration ≥1.0 x 10 21 cm -3 deposited over the color suppression interlayer; and a protective metal oxide coating deposited over the zinc oxide coating; wherein the thicknesses of the coatings (41, 42) are selected so that the coated glass article exhibits a difference between visible light transmittance (Illuminant C) and total solar energy transmittance, integrated with an air mass 1.5 on a clear glass substrate having a nominal 6 mm thickness, to provide a solar selectivity of 28 or more and an emissivity <0.15.
A photoacid generator for chemically amplified resist compositions which generates a sulfonic acid in response to high-energy radiation selected from UV, deep-UV, EUV, electron beam, x-ray, excimer laser, gamma-ray and synchrotron radiation, said sulfonic acid having the general formula: ROC (=O) R 1 -COOCH 2 CF 2 SO 3 - H + wherein RO is hydroxyl or a substituted or unsubstituted, straight, branched or cyclic C 1 -C 20 organoxy group, R 1 is a divalent C 1 -C 20 aliphatic group which may contain a substituent group having an oxygen atom, or may form a mono- or polycyclic structure with RO.
A gateway for a communication network comprising: a service control interaction manager, SCIM, residing in the gateway which is configured to provide management of services to a plurality of mobile nodes (410, 412) having different capabilities and management of interactions between the plurality of mobile nodes and at least one application server (420, 422) in the communication network; a call session control function, CSCF, in communication with the SCIM and residing in the gateway, which is configured to handle session initiation protocol sessions and interworking; and a computer readable medium storing filter criteria and triggers which are used to determine service changes; wherein the SCIM is configured to: receive from a mobile node a request for service to be provided by the at least one application server; modify the request for service to hide the capabilities of the mobile node from the at least one application server; forward the modified request to the at least one application server; receive a packet flow for the mobile node; and process the packet flow to provide the mobile node with the service appropriate to the capabilities of the mobile node. a service control interaction manager, SCIM, residing in the gateway which is configured to provide management of services to a plurality of mobile nodes (410, 412) having different capabilities and management of interactions between the plurality of mobile nodes and at least one application server (420, 422) in the communication network; a call session control function, CSCF, in communication with the SCIM and residing in the gateway, which is configured to handle session initiation protocol sessions and interworking; and a computer readable medium storing filter criteria and triggers which are used to determine service changes; wherein the SCIM is configured to: receive from a mobile node a request for service to be provided by the at least one application server; modify the request for service to hide the capabilities of the mobile node from the at least one application server; forward the modified request to the at least one application server; receive a packet flow for the mobile node; and process the packet flow to provide the mobile node with the service appropriate to the capabilities of the mobile node. receive from a mobile node a request for service to be provided by the at least one application server; modify the request for service to hide the capabilities of the mobile node from the at least one application server; forward the modified request to the at least one application server; receive a packet flow for the mobile node; and process the packet flow to provide the mobile node with the service appropriate to the capabilities of the mobile node.
A steering system comprising: a column jacket including a hollow outer jacket having a slit and a pair of clamped portions disposed to sandwich the slit between the clamped portions, and a tubular inner jacket fitted in the outer jacket to be slidable in an axial direction relative to the outer jacket, an elongated hole that extends in the axial direction and is a through hole or a blind hole being formed in an area of the inner jacket where the inner jacket is fitted in the outer jacket; a support member fixed to a vehicle body and including a pair of a first side plate and a second side plate that sandwiches the pair of clamped portions of the outer jacket in a lateral direction; and a clamping mechanism that holds a position of the inner jacket relative to the outer jacket by clamping the outer jacket against the inner jacket with the pair of side plates, characterized in that the elongated hole is disposed on one of a first side and a second side, in the lateral direction, of a vertical plane passing through a central axis of the inner jacket, at a position other than on a straight line that extends in a vertical direction through the central axis. a column jacket including a hollow outer jacket having a slit and a pair of clamped portions disposed to sandwich the slit between the clamped portions, and a tubular inner jacket fitted in the outer jacket to be slidable in an axial direction relative to the outer jacket, an elongated hole that extends in the axial direction and is a through hole or a blind hole being formed in an area of the inner jacket where the inner jacket is fitted in the outer jacket; a support member fixed to a vehicle body and including a pair of a first side plate and a second side plate that sandwiches the pair of clamped portions of the outer jacket in a lateral direction; and a clamping mechanism that holds a position of the inner jacket relative to the outer jacket by clamping the outer jacket against the inner jacket with the pair of side plates, characterized in that the elongated hole is disposed on one of a first side and a second side, in the lateral direction, of a vertical plane passing through a central axis of the inner jacket, at a position other than on a straight line that extends in a vertical direction through the central axis.
A method for reducing interference in Device-to-Device, D2D communication in a wireless communication system supporting D2D communication, comprising: Receiving, by a user equipment, UE, a D2D signal; Determining, by the UE, whether interference is generated from resource in which the D2D signal has been transmitted; and when it is determined that interference is generated from the resource in which the D2D signal has been transmitted, transmitting, by the UE, interference resource information for indicating that interference has been generated from the resource in which the D2D signal has been transmitted, characterized in that the D2D signal is transmitted by hopping over different resource for each period according to a hopping pattern, and when the interference resource information from a D2D signal receiving UE is received while the D2D signal is being hopped, resources for the D2D signal are reset to a start of the hopping pattern. Receiving, by a user equipment, UE, a D2D signal; Determining, by the UE, whether interference is generated from resource in which the D2D signal has been transmitted; and when it is determined that interference is generated from the resource in which the D2D signal has been transmitted, transmitting, by the UE, interference resource information for indicating that interference has been generated from the resource in which the D2D signal has been transmitted, characterized in that the D2D signal is transmitted by hopping over different resource for each period according to a hopping pattern, and when the interference resource information from a D2D signal receiving UE is received while the D2D signal is being hopped, resources for the D2D signal are reset to a start of the hopping pattern.
Boot comprising a shell, or a shell element, made of a rigid base material chosen from among polyurethane and polypropylene, characterized in that at least in a local portion of the shell (24, 25a, 25b, 26a, 26b, 27a, 27b, 28), or of the shell element, the material of the shell encloses a caprolactone-based polymer, in a proportion between 3% and 45%, preferably 10% to 25%.
An acrylic polysiloxane resin coating composition comprising: a silicone resin, a compound having one or more functional groups capable of undergoing Michael addition reaction with an unsaturated double bond in an acryloyloxy group, and having one or more alkoxy groups bonded to silicon, a trifunctional or polyfunctional aliphatic urethane acrylate oligomer having a cyclic structure, and a bifunctional acrylate monomer having no ether structures (except an ether structure in an acryloyloxy group) and no aromatic rings, the mass ratio of the total amount of the silicone resin and the compound to the total amount of any acrylate oligomer(s) and any acrylate monomer(s) (A + B:acrylate oligomer(s) + acrylate monomer(s)) being 40:60 to 70:30. a silicone resin, a compound having one or more functional groups capable of undergoing Michael addition reaction with an unsaturated double bond in an acryloyloxy group, and having one or more alkoxy groups bonded to silicon, a trifunctional or polyfunctional aliphatic urethane acrylate oligomer having a cyclic structure, and a bifunctional acrylate monomer having no ether structures (except an ether structure in an acryloyloxy group) and no aromatic rings,
Method for grinding an inorganic solid from the series of cement clinker, pozzolan and/or raw material for cement production, where a grinding additive is added before or during grinding, characterized in that the grinding additive, based on the dry mass, comprises 6% to 80% by weight of caprolactam and 1.5% to 30% by weight of aminocaproic acid, where, based in each case on the dry mass, 0.002% to 2% by weight of the grinding additive is used, based on the total inorganic solid.
A method for reducing a background in a raster image, the raster image comprising pixels having a lightness, the background indicating a deviation between a lightness value of a subset of pixels in the raster image and a maximum lightness value of raster image input values, the method comprising the steps of: - selecting a target pixel in the raster image; - determining a first average lightness value for a first number of pixels around the target pixel; - determining a second average lightness value for a second number of pixels around the target pixel; - selecting a minimum of the first and second average lightness value as a background parameter value B; - scaling the lightness value P of the target pixel using said background parameter value B to the maximum lightness value of a predetermined output range R, thereby obtaining a scaled lightness value of the target pixel P' = P * R / B, and - generating an output raster image using the scaled lightness of the target pixel, wherein said first number of pixels around the target pixel is substantially smaller than said second number of pixels around the target pixel. - selecting a target pixel in the raster image; - determining a first average lightness value for a first number of pixels around the target pixel; - determining a second average lightness value for a second number of pixels around the target pixel; - selecting a minimum of the first and second average lightness value as a background parameter value B; - scaling the lightness value P of the target pixel using said background parameter value B to the maximum lightness value of a predetermined output range R, thereby obtaining a scaled lightness value of the target pixel P' = P * R / B, and - generating an output raster image using the scaled lightness of the target pixel, wherein said first number of pixels around the target pixel is substantially smaller than said second number of pixels around the target pixel.
A multijunction solar cell having a front surface and a back surface, said solar cell comprising: a sequence of layers of semiconductor material that forms at least two cells of a multijunction solar cell, including: a via extending from the top surface (Fig. 8a) of said sequence of layers to the back surface (Fig. 8b); a back metal contact layer over the last layer of the sequence of layers; a layer of dielectric material circumferentially around the inside surface of the via and over a portion of the back metal contact layer; a conductive layer over said layer of dielectric material extending throughout the via and over a portion of the layer of dielectric material; a front metal grid on the front surface of the solar cell electrically connected to said conductive layer. a via extending from the top surface (Fig. 8a) of said sequence of layers to the back surface (Fig. 8b); a back metal contact layer over the last layer of the sequence of layers; a layer of dielectric material circumferentially around the inside surface of the via and over a portion of the back metal contact layer; a conductive layer over said layer of dielectric material extending throughout the via and over a portion of the layer of dielectric material; a front metal grid on the front surface of the solar cell electrically connected to said conductive layer.
Device for producing a foam body having a mould comprising at least two mould halves (12, 13, 30), wherein a first mould part and a second mould part can be moved between an opened and a closed position, having a first casting opening, which leads to a first mould cavity, and having a second casting opening, which leads to a separate second mould cavity, characterised in that the first mould cavity and the second mould cavity are separated from each other in the closed position by means of a wall, wherein at least one opening is formed between the mould cavities, and at least one connecting element can be positioned in the opening in such a way that it protrudes into the first mould cavity to connect the foam parts to be produced in the mould cavities, and protrudes into the second mould cavity.
A method for reducing modulator intensity modulation-induced bias error in a resonator optical gyroscope, the method comprising: (a) selecting a phase modulation amplitude M where a Bessel function J 1 of a sinusoidal phase modulation of the input light beam equals approximately zero; (b) applying the selected phase modulation amplitude to the input light, thus reducing the intensity modulation-induced bias error; (c) generating a response from a demodulated first harmonic signal of the resonator output light based on at least one of a plurality of gyro parameter values and the selected phase modulation amplitude; (d) determining a phase modulation frequency; and (e) applying the selected phase modulation amplitude and frequency to the input light of the resonator gyro, thus reducing the intensity modulation-induced bias error and increasing the gyro rate measurement sensitivity; characterized in that: determining a phase modulation frequency comprises determining a phase modulation frequency that maximizes the generated response. (a) selecting a phase modulation amplitude M where a Bessel function J 1 of a sinusoidal phase modulation of the input light beam equals approximately zero; (b) applying the selected phase modulation amplitude to the input light, thus reducing the intensity modulation-induced bias error; (c) generating a response from a demodulated first harmonic signal of the resonator output light based on at least one of a plurality of gyro parameter values and the selected phase modulation amplitude; (d) determining a phase modulation frequency; and (e) applying the selected phase modulation amplitude and frequency to the input light of the resonator gyro, thus reducing the intensity modulation-induced bias error and increasing the gyro rate measurement sensitivity;
Luminaire, in particular damp-proof luminaire, comprising an oblong housing, a gear tray that carries a multitude of semiconductor light sources as well as a trough-shaped optical covering with longitudinal legs (51a, b) that define an opening of the cover, wherein the gear tray is snapped on the cover and the cover and the housing have a tongue and groove joint (13a, 55a; 13b, 55a), characterized in that the tongue and groove joint (13a, 55a; 13b, 55a) is designed with corresponding snap-in elements (20, 64) for snapping the cover with the housing, wherein the snap-in tongue and groove joint (13a, 55a; 13b, 55a) can be released without any tool and that snap-in elements of the cover have walls (66b, 66a) that are attached respectively at their both longitudinal ends and that extend on a cross web of the respective longitudinal leg (51a, b) for configuring a recess for a respectively associated snap-in element of the housing.
A flexible, conductive film comprising a transparent substrate and a pattern constituted by a fine metal wire and disposed on one side or both sides of the transparent substrate, wherein: the fine metal wire comprises conductive metal atoms M and silicon atoms Si; the conductive metal atoms M comprise at least one or more metal elements selected from the group consisting of gold, silver, copper and aluminum; characterized in that when the maximum thickness of the fine metal wire is defined as T in STEM-EDX analysis on a cross-section of the fine metal wire perpendicular to a direction of drawing of the fine metal wire, atom% ratio Si/M 0.10-0.90 of the silicon atoms Si to the conductive metal atoms M in a thickness region from 0.10T to 0.90T from a fine metal wire interface on the transparent substrate side is 0.001 or more and 0.070 or less. the fine metal wire comprises conductive metal atoms M and silicon atoms Si; the conductive metal atoms M comprise at least one or more metal elements selected from the group consisting of gold, silver, copper and aluminum; characterized in that when the maximum thickness of the fine metal wire is defined as T in STEM-EDX analysis on a cross-section of the fine metal wire perpendicular to a direction of drawing of the fine metal wire, atom% ratio Si/M 0.10-0.90 of the silicon atoms Si to the conductive metal atoms M in a thickness region from 0.10T to 0.90T from a fine metal wire interface on the transparent substrate side is 0.001 or more and 0.070 or less.
A kit for quantitatively determining a substance to be measured in a biological sample, the kit comprising: a labeled particle that has a first binding substance capable of binding to the substance to be measured, and a first blocking agent; and a substrate that has a detection region having a second binding substance capable of binding to any one of the substance to be measured and the first binding substance, and a second blocking agent, wherein the first blocking agent and the second blocking agent are different from each other, the first blocking agent is one of albumins and an immunoglobulin other than an immunoglobulin capable of binding to the substances to be measured, and the second blocking agent is another one of albumins and an immunoglobulin other than an immunoglobulin capable of binding to the substances to be measured, and the labeled particle is a latex particle and does not contain an emulsifier. a labeled particle that has a first binding substance capable of binding to the substance to be measured, and a first blocking agent; and a substrate that has a detection region having a second binding substance capable of binding to any one of the substance to be measured and the first binding substance, and a second blocking agent, wherein the first blocking agent and the second blocking agent are different from each other, the first blocking agent is one of albumins and an immunoglobulin other than an immunoglobulin capable of binding to the substances to be measured, and the second blocking agent is another one of albumins and an immunoglobulin other than an immunoglobulin capable of binding to the substances to be measured, and the labeled particle is a latex particle and does not contain an emulsifier.
A relay node, RN, for relaying data between a donor eNB and a user equipment, UE, the relay node comprising: a communications controller and a transceiver, wherein the communications controller is operable: to control the transceiver to transmit, using sub-frames, RN-UE transmissions to the UE and receive eNB-RN transmissions from the donor eNB, wherein the RN-UE transmission timings are controlled to allow the relay node to receive eNB-RN transmissions from the donor eNB in accordance with a slot structure in which eNB-to-RN transmissions are restricted to a subset of symbols, and wherein the RN-UE transmissions comprise physical downlink control channel, PDCCH transmissions in an initial subset of symbols and the eNB-RN transmissions comprise relay PDCCH transmissions in a further subset of symbols; and to decode, on reception of a relay PDCCH transmission for the relay node in a given subframe, a corresponding physical downlink shared channel, PDSCH, in the same subframe, wherein a set comprising a total number, having value N, of resource blocks is configured for the relay PDCCH transmission, and wherein the controller is operable to identify each resource block forming part of a resource block allocation for the relay PDCCH based on the value of N. a communications controller and a transceiver, wherein the communications controller is operable: to control the transceiver to transmit, using sub-frames, RN-UE transmissions to the UE and receive eNB-RN transmissions from the donor eNB, wherein the RN-UE transmission timings are controlled to allow the relay node to receive eNB-RN transmissions from the donor eNB in accordance with a slot structure in which eNB-to-RN transmissions are restricted to a subset of symbols, and wherein the RN-UE transmissions comprise physical downlink control channel, PDCCH transmissions in an initial subset of symbols and the eNB-RN transmissions comprise relay PDCCH transmissions in a further subset of symbols; and to control the transceiver to transmit, using sub-frames, RN-UE transmissions to the UE and receive eNB-RN transmissions from the donor eNB, wherein the RN-UE transmission timings are controlled to allow the relay node to receive eNB-RN transmissions from the donor eNB in accordance with a slot structure in which eNB-to-RN transmissions are restricted to a subset of symbols, and wherein the RN-UE transmissions comprise physical downlink control channel, PDCCH transmissions in an initial subset of symbols and the eNB-RN transmissions comprise relay PDCCH transmissions in a further subset of symbols; and to decode, on reception of a relay PDCCH transmission for the relay node in a given subframe, a corresponding physical downlink shared channel, PDSCH, in the same subframe, wherein a set comprising a total number, having value N, of resource blocks is configured for the relay PDCCH transmission, and wherein the controller is operable to identify each resource block forming part of a resource block allocation for the relay PDCCH based on the value of N.