mhurhangee/ep-ind-claims huggingface dataset:
A computing device (120; 500; 600) for supporting an Augmented-Reality, AR, software application, the computing device comprising processing means being operative to: for each one of at least two candidate physical locations (131, 132; 231, 232) for placing a current virtual object (104; 204), where the current virtual object appears to be placed when overlaid onto a video sequence capturing a physical scene (100; 200) in the surroundings of a user of the AR software application: determine an expected physical location to which the user moves, or where the user remains, in response to displaying (123; 223) the physical scene and the overlaid current virtual object to the user, and evaluate a value of an attribute which is related to a performance of a wireless connection utilized by the AR software application, and which is spatially dependent in the surroundings of the user, at the expected physical location, and select the physical location for placing the current virtual object from the at least two candidate physical locations based on a superior performance of the wireless connection for the selected physical location. for each one of at least two candidate physical locations (131, 132; 231, 232) for placing a current virtual object (104; 204), where the current virtual object appears to be placed when overlaid onto a video sequence capturing a physical scene (100; 200) in the surroundings of a user of the AR software application: determine an expected physical location to which the user moves, or where the user remains, in response to displaying (123; 223) the physical scene and the overlaid current virtual object to the user, and evaluate a value of an attribute which is related to a performance of a wireless connection utilized by the AR software application, and which is spatially dependent in the surroundings of the user, at the expected physical location, and determine an expected physical location to which the user moves, or where the user remains, in response to displaying (123; 223) the physical scene and the overlaid current virtual object to the user, and evaluate a value of an attribute which is related to a performance of a wireless connection utilized by the AR software application, and which is spatially dependent in the surroundings of the user, at the expected physical location, and select the physical location for placing the current virtual object from the at least two candidate physical locations based on a superior performance of the wireless connection for the selected physical location.
A method of receiving, at a user equipment 'UE', a downlink signal from a base station in a wireless communication system supporting downlink multiple-input multiple-output 'MIMO' transmission, the method comprising: receiving downlink control information including a precoding information field indicating a number N of layers, 1≤N≤8, where one or two enabled codewords of a downlink MIMO transmission are mapped; receiving downlink data transmitted on the N layers and UE-specific reference signals of the N layers based on the downlink control information, and demodulating the downlink data based on the UE-specific reference signals, wherein when the precoding information field indicates a predetermined number of layers where the one or two enabled codewords are mapped according to whether one codeword is enabled or two codewords are enabled, the precoding information field further indicates information identifying the UE-specific reference signals for demodulating the downlink data according to whether the one codeword is enabled or the two codewords are enabled. receiving downlink control information including a precoding information field indicating a number N of layers, 1≤N≤8, where one or two enabled codewords of a downlink MIMO transmission are mapped; receiving downlink data transmitted on the N layers and UE-specific reference signals of the N layers based on the downlink control information, and demodulating the downlink data based on the UE-specific reference signals, wherein when the precoding information field indicates a predetermined number of layers where the one or two enabled codewords are mapped according to whether one codeword is enabled or two codewords are enabled, the precoding information field further indicates information identifying the UE-specific reference signals for demodulating the downlink data according to whether the one codeword is enabled or the two codewords are enabled.
Profile for connecting a carrier to an immobilisation mask for immobilizing a body part of a patient on the carrier, wherein the profile contains at a second side first connection means (5, 15, 21) for connecting the profile to the carrier, and at a first side opposite to the second side, second connection means for connecting the profile to the immobilisation mask, and wherein the first connection means (5, 15) are provided, in a connected state, to engage corresponding connection means of the carrier, wherein the profile comprises a swivel arm provided to cooperate with a swivel anchor point provided to the carrier, wherein the swivel arm and the swivel anchor point being provided to cooperate such that when swivelling the swivel arm around the swivel anchor point towards the carrier, the first connection means are guided to the connected state where they engage the corresponding connection means of the carrier, characterized in that the swivel arm comprises a gripping part provided to grip at least partly around the swivel anchor point.
A laying ramp for laying a pipeline on the bed of a body of water, the laying ramp comprising a frame, which extends along a longitudinal axis, is hinged to a laying vessel about an axis of rotation, characterised in that the frame is telescopic and is movable selectively, in a direction parallel to the longitudinal axis, between a withdrawn configuration and an extended configuration, depending on the contour of the bed of the body of water.
A process for producing metal colloids comprising the following steps: a) production of a composition comprising a1) at least one type of metal ion; a2) at least one organic reducing agent; a3) at least one complexing agent comprising at least one functional group which can interact with the produced metal colloids, where the reducing agent and/or the oxidized form of the reducing agent can act as a complexing agent, wherein the molar ratio between metal ions and complexing agent is between 30:1 and 1,5:1; a4) at least one solvent; b) thermal and/or photochemical activation during or after the production of the composition; c) reduction of the at least one type of metal ions to metal colloids; d) purification of the modified metal colloids. a) production of a composition comprising a1) at least one type of metal ion; a2) at least one organic reducing agent; a3) at least one complexing agent comprising at least one functional group which can interact with the produced metal colloids, where the reducing agent and/or the oxidized form of the reducing agent can act as a complexing agent, wherein the molar ratio between metal ions and complexing agent is between 30:1 and 1,5:1; a4) at least one solvent; a1) at least one type of metal ion; a2) at least one organic reducing agent; a3) at least one complexing agent comprising at least one functional group which can interact with the produced metal colloids, where the reducing agent and/or the oxidized form of the reducing agent can act as a complexing agent, wherein the molar ratio between metal ions and complexing agent is between 30:1 and 1,5:1; a4) at least one solvent; b) thermal and/or photochemical activation during or after the production of the composition; c) reduction of the at least one type of metal ions to metal colloids; d) purification of the modified metal colloids.
A composition comprising: a halide-containing polymer; and a stabilizer composition comprising compounds represented by the general formula: wherein X, Y, and Z are each independently selected from the group consisting of hydrogen, alkyl, alkenyl, alkynyl, amino, and groups having the structure wherein R 1 and R 2 are each independently selected from the group consisting of hydrogen, alkyl, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, phenyl, phenylalkyl and aryl group, A is oxygen or sulfur; wherein the dashed double line "=====" represents an optional double bond; and wherein the stabilizer composition is at least partially bound to said halide-containing polymer to thereby at least partly inhibit thermal degradation of said halide-containing polymer.
A polymerizable composition comprising a thioepoxy compound for an optical material containing 4 to 15% by weight of either or both of 2,3-epoxypropyl(2,3-epithiopropyl)sulfide and 2,3-epoxypropyl(2,3-epithiopropyl)disulfide, represented by Formula 1: wherein the compounds of Formula 1 are formed as intermediates in the preparation of the thioepoxy compound.
A method for preparing a cell producing an antibody against a target membrane protein, which method comprises the following steps: transplanting metastatic cancer cells that are modified to express the target membrane protein into a laboratory animal, wherein the laboratory animal is a mouse, and keeping the animal for 10 weeks or longer after transplantation to ensure engraftment and movement of the cancer cells expressing the target antigen into the lymph nodes or blood vessels in the animal thereby immunizing the animal with the target membrane protein, wherein said transplantation consists of transferring to and implanting in the animal the cancer cells and excludes direct administration of the cancer cells into the blood or abdominal cavity of the animal; and collecting from the immunized animal a said antibody-producing cell generated in the animal in step; immortalizing the collected antibody-producing cell; and selecting a said antibody-producing cell producing an antibody against the target membrane protein. transplanting metastatic cancer cells that are modified to express the target membrane protein into a laboratory animal, wherein the laboratory animal is a mouse, and keeping the animal for 10 weeks or longer after transplantation to ensure engraftment and movement of the cancer cells expressing the target antigen into the lymph nodes or blood vessels in the animal thereby immunizing the animal with the target membrane protein, wherein said transplantation consists of transferring to and implanting in the animal the cancer cells and excludes direct administration of the cancer cells into the blood or abdominal cavity of the animal; and collecting from the immunized animal a said antibody-producing cell generated in the animal in step; immortalizing the collected antibody-producing cell; and selecting a said antibody-producing cell producing an antibody against the target membrane protein.
A solar junction box for a solar panel having a semiconductor layer including at least one photovoltaic cell and a foil electrically connected to the at least one cell, the solar panel having a glass layer above the semiconductor layer and a back sheet below the semiconductor layer, the solar junction box comprising: a housing having walls defining a cavity, the housing being configured to be mounted at an edge of the solar panel; and a terminal received in the cavity, the terminal being configured to be terminated to the foil; characterised in that the solar junction box further comprises an edge flap extending from the housing, the edge flap having an edge seal configured to be applied to the edge of the solar panel to seal the foil at the edge of the solar panel. a housing having walls defining a cavity, the housing being configured to be mounted at an edge of the solar panel; and a terminal received in the cavity, the terminal being configured to be terminated to the foil; characterised in that the solar junction box further comprises an edge flap extending from the housing, the edge flap having an edge seal configured to be applied to the edge of the solar panel to seal the foil at the edge of the solar panel.
An illumination module for use in an imaging system having an imaging field of view for imaging a target, the illumination module comprising: a first illumination port to output a first light beam having a first illumination distribution at the target to illuminate the target; a second illumination port to output a second light beam having a second illumination distribution at the target to illuminate the target, the second illumination distribution being similar to the first illumination distribution at the target, the second illumination port being spaced apart from the first illumination port, the first and second illumination distributions being simultaneously provided to the target and overlapping at the target, wherein the illumination from the first and second ports is matched to a same rectangular aspect ratio and field of view coverage as the imaging field of view, characterised in that the illumination module comprises further a steering driver to simultaneously steer the first and second illumination ports through different fields of view. a first illumination port to output a first light beam having a first illumination distribution at the target to illuminate the target; a second illumination port to output a second light beam having a second illumination distribution at the target to illuminate the target, the second illumination distribution being similar to the first illumination distribution at the target, the second illumination port being spaced apart from the first illumination port, the first and second illumination distributions being simultaneously provided to the target and overlapping at the target, wherein the illumination from the first and second ports is matched to a same rectangular aspect ratio and field of view coverage as the imaging field of view, characterised in that the illumination module comprises further a steering driver to simultaneously steer the first and second illumination ports through different fields of view.
A liquid formulation comprising a protein and a compound which prevents oxidation of the protein in the liquid formulation, wherein the compound is selected from the group consisting of 5-hydroxy-tryptophan, 5-hydroxy indole, 7-hydroxy indole, and serotonin and wherein the protein is an antibody.
An analyte testing device with a mobile processing device having a camera with a lens, a processor for processing an image captured by the camera, the analyte testing device comprising a casing, a test strip positioner for positioning an analyte containing test strip in a position wherein the camera lens can capture an image of the analyte containing test strip; a light source disposed within the casing, the light source being positioned within the casing to illuminate the analyte containing test strip to facilitate the capture of the image of the test strip; and said processor comprises software contained within the mobile processing device for performing a quantitative analysis of at least one analyte from the captured image, and providing an output of the results of the quantitative analysis, wherein the mobile processing device is movably coupled to the casing of the analyte testing device, and wherein the mobile processing device comprises a mobile communications device.
A protective coating composition comprising: A lubricant and a binder having 30 - 60% by weight of a silicate selected from the group of organic silicates, organic polysilicates or colloidal silica and 40 to 70% by weight of an organic titanate to a total of 100% weight, in a solvent, which composition is free from metal particles. A lubricant and a binder having 30 - 60% by weight of a silicate selected from the group of organic silicates, organic polysilicates or colloidal silica and 40 to 70% by weight of an organic titanate to a total of 100% weight, in a solvent, which composition is free from metal particles.
A diode comprising: - a first and a second electrode; - a semiconducting layer comprising semiconducting particles at least partly embedded in a mixture of glycerol and cellulose based material, wherein the size of said semi-conducting particles is larger than 5 μm and less than 100 μm in at least a first direction wherein said cellulose based material is nano-fibrillated cellulose; wherein said first and second electrodes and said semiconductor layer are at least partially stacked on top of each other in a first direction; wherein the amount of glycerol present in the semiconducting layer is in the range of 5 wt% to 75 wt%, and the amount of nano-fibrillated cellulose present in the semiconducting layer is in the range of 10 wt % to 50 wt% and wherein said semiconducting particles form a single layer in said semiconducting layer and where a majority of said semiconducting particles are in direct contact with both the bottom and the top electrode. - a first and a second electrode; - a semiconducting layer comprising semiconducting particles at least partly embedded in a mixture of glycerol and cellulose based material, wherein the size of said semi-conducting particles is larger than 5 μm and less than 100 μm in at least a first direction wherein said cellulose based material is nano-fibrillated cellulose;
A strain body, comprising: a central portion; an outer peripheral portion surrounding the central portion; connecting portions connecting the central portion and the outer peripheral portion, and each comprising a first connecting portion adjacent to the outer peripheral portion and a second connecting portion adjacent to the central portion; strain sensors (S1-S32) provided on main surfaces of the connecting portions; reference resistors (RS4-RS30) provided on a main surface of the central portion, and constructing a bridge circuit with the strain sensors (S1-S32); and a strain increasing portion configured to increase strain occurring at the first connecting portion more than strain occurring at the second connecting portion, on a back surface side opposed to the main surface of the first connecting portion, characterized by two of the strain sensors (S3, S5, S11, S13, S19, S21, S27, and S29) are provided on the main surface of the first connecting portion, wherein the bridge circuit (BF2, BF4, BF6, BF8) is constructed through the two of the strain sensors (S3, S5, S11, S13, S19, S21, S27, and S29) and two of the reference resistors (RS4-RS30), and further comprises a full bridge circuit (BF1, BF3, BF5, BF7) which is provided on the main surface of the second connecting portion, in which a pair of serially connected strain sensors (S1, S2, S7, S8, S9, S10, S15, S16, S17, S18, S23, S24, S25, S26, S31, and S32) are connected in parallel. a central portion; an outer peripheral portion surrounding the central portion; connecting portions connecting the central portion and the outer peripheral portion, and each comprising a first connecting portion adjacent to the outer peripheral portion and a second connecting portion adjacent to the central portion; strain sensors (S1-S32) provided on main surfaces of the connecting portions; reference resistors (RS4-RS30) provided on a main surface of the central portion, and constructing a bridge circuit with the strain sensors (S1-S32); and a strain increasing portion configured to increase strain occurring at the first connecting portion more than strain occurring at the second connecting portion, on a back surface side opposed to the main surface of the first connecting portion, characterized by two of the strain sensors (S3, S5, S11, S13, S19, S21, S27, and S29) are provided on the main surface of the first connecting portion, wherein the bridge circuit (BF2, BF4, BF6, BF8) is constructed through the two of the strain sensors (S3, S5, S11, S13, S19, S21, S27, and S29) and two of the reference resistors (RS4-RS30), and further comprises a full bridge circuit (BF1, BF3, BF5, BF7) which is provided on the main surface of the second connecting portion, in which a pair of serially connected strain sensors (S1, S2, S7, S8, S9, S10, S15, S16, S17, S18, S23, S24, S25, S26, S31, and S32) are connected in parallel.
A multiblade centrifugal fan comprising: an impeller including a main plate, a plurality of blades disposed on an outer periphery of the main plate radially with respect to a center axis of the main plate, and a holding ring to fix an outer periphery of the plurality of blades on a side opposite to a part where the blades and the main plate are joined; and a scroll casing disposed to surround the impeller, the scroll casing including an air outlet, and a bellmouth serving as an air inlet, wherein the holding ring at least includes a holding ring first end face which is substantially perpendicular to a center axis of the impeller and is an endmost part of the impeller, a holding ring second end face which is substantially perpendicular to the center axis of the impeller and is positioned facing the holding ring first end face, a holding ring inner surface which is substantially parallel to the center axis of the impeller and connected with the blades, a holding ring outer surface which is substantially parallel to the center axis of the impeller and is an outermost periphery of the impeller, and a connection surface (6e, 6h) configured between the holding ring first end face and the holding ring inner surface, characterized in that at the side opposite to a part where the blades and the main plate are joined, the holding ring is an only member that fixes the plurality of blades to each other.