mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for data transmission used in a wireless communication network, the apparatus comprising: a transmitter chain configured to: modulate uplink control information to be transmitted to generate modulated data; select a first resource to be used in a first time based on a function of a first time index; select a second resource to be used in a second time based on a function of a second time index; map the modulated data to the selected first resource at the first time; map the modulated data to the selected second resource at the second time, wherein the second resource is determined based on a function of the first time index and an integer value obtained by higher-layer signaling; and transmit the modulated data at each of the first time and the second time, wherein the first resource and the second resource comprise at least one of an orthogonal code and a cyclic shift of a base sequence, and wherein each of the first time and second time is defined on at least one of a symbol level and a slot level, and wherein a slot consists of at least one symbol. modulate uplink control information to be transmitted to generate modulated data; select a first resource to be used in a first time based on a function of a first time index; select a second resource to be used in a second time based on a function of a second time index; map the modulated data to the selected first resource at the first time; map the modulated data to the selected second resource at the second time, wherein the second resource is determined based on a function of the first time index and an integer value obtained by higher-layer signaling; and transmit the modulated data at each of the first time and the second time, wherein the first resource and the second resource comprise at least one of an orthogonal code and a cyclic shift of a base sequence, and wherein each of the first time and second time is defined on at least one of a symbol level and a slot level, and wherein a slot consists of at least one symbol.
A sample tube for NMR measurements, comprising a first tube closed at one end thereof, a second tube closed at one end thereof being inserted into the first tube, a reference material for NMR measurements being provided in a gap between the first tube and the second tube, characterized in that the other end of the first tube and the other end of the second tube are fused to seal said gap between the other end of the first tube and the other end of the second tube.
A method of real time camera relocalization comprising: receiving a sequence of depth map frames from a moving mobile depth camera each depth map frame comprising a plurality of image elements each having a depth value being related to a distance from the mobile depth camera to a surface in the scene captured by the mobile depth camera; tracking the position and orientation of the mobile depth camera using the depth map frames and simultaneously forming a 3D model of the environment in which the mobile depth camera is moving using the depth map frames; detecting a loop closure error; modifying the 3D model in response to detecting the loop closure error; detecting a failure in the tracking of the position and orientation of the mobile depth camera; and relocalizing the mobile depth camera by recomputing its position and orientation using a current depth map captured by the mobile depth camera, relocalizing the mobile depth camera comprising: applying a random decision forest to patches from the current depth map and from a plurality of previous depth maps obtained from the 3D model of the environment to obtain histograms of textons being texture features of a depth map and selecting a previous depth map which is similar to the current depth map in terms of the histograms. receiving a sequence of depth map frames from a moving mobile depth camera each depth map frame comprising a plurality of image elements each having a depth value being related to a distance from the mobile depth camera to a surface in the scene captured by the mobile depth camera; tracking the position and orientation of the mobile depth camera using the depth map frames and simultaneously forming a 3D model of the environment in which the mobile depth camera is moving using the depth map frames; detecting a loop closure error; modifying the 3D model in response to detecting the loop closure error; detecting a failure in the tracking of the position and orientation of the mobile depth camera; and relocalizing the mobile depth camera by recomputing its position and orientation using a current depth map captured by the mobile depth camera, relocalizing the mobile depth camera comprising: applying a random decision forest to patches from the current depth map and from a plurality of previous depth maps obtained from the 3D model of the environment to obtain histograms of textons being texture features of a depth map and selecting a previous depth map which is similar to the current depth map in terms of the histograms.
Method for determining an inflation pressure expected in an aircraft tyre provided with a pressure and temperature sensor, the method comprising the following stages: - in a preliminary stage, a pressure P 0 and a temperature T 0 of the tyre, measured at a time t 0, are recorded in a memory of the pressure and temperature sensor, - at a moment t, the internal air temperature T m of the tyre and the ambient air temperature T amb are measured and these two values are compared, - if the two temperatures are equal or substantially equal, a pressure expected at the moment t, P expected_hom, is then determined in the form P expected_hom = P 0 ∗ T m /T 0, - if the two temperatures are different, a pressure expected at the moment t, P expected_het, is then determined in the form P expected_het = F(T m, P 0, T 0 and θ) where F is a linear and/or polynomial function and θ depends on the position of the pressure and temperature sensor in the tyre at the moment t. - in a preliminary stage, a pressure P 0 and a temperature T 0 of the tyre, measured at a time t 0, are recorded in a memory of the pressure and temperature sensor, - at a moment t, the internal air temperature T m of the tyre and the ambient air temperature T amb are measured and these two values are compared, - if the two temperatures are equal or substantially equal, a pressure expected at the moment t, P expected_hom, is then determined in the form P expected_hom = P 0 ∗ T m /T 0, - if the two temperatures are different, a pressure expected at the moment t, P expected_het, is then determined in the form P expected_het = F(T m, P 0, T 0 and θ) where F is a linear and/or polynomial function and θ depends on the position of the pressure and temperature sensor in the tyre at the moment t.
A hinge mechanism for a door of a model car, comprising: a pivot element made of metal, wherein the pivot element has a pivot axis and a base that could be mounted to a body of the model car; a lever arm made of metal, wherein the lever arm could be mounted to an inner surface of the door of the model car, and wherein the lever arm has at least one slot configured to receive the pivot axis of the pivot element; and a tension plate made of metal, characterised in that the tension plate is mounted to the lever arm; the tension plate is configured to press the pivot axis of the pivot element into the at least one slot of the lever arm. a pivot element made of metal, wherein the pivot element has a pivot axis and a base that could be mounted to a body of the model car; a lever arm made of metal, wherein the lever arm could be mounted to an inner surface of the door of the model car, and wherein the lever arm has at least one slot configured to receive the pivot axis of the pivot element; and a tension plate made of metal, characterised in that the tension plate is mounted to the lever arm; the tension plate is configured to press the pivot axis of the pivot element into the at least one slot of the lever arm.
An integrally bladed rotor (62; 102) for a gas turbine engine comprising: a rotor portion with a peripheral surface; at least one airfoil including a suction side and a pressure side extending between a leading edge and a trailing edge, the at least one airfoil extending radially from the peripheral surface, the airfoil including an airfoil thickness between the pressure side and the suction side; and a patch portion disposed at a location between the airfoil and the peripheral surface that defines a boundary that prevents crack propagation into the rotor portion, on one of the suction side and the pressure side, the patch portion including a first thickness in addition to the airfoil thickness, characterized in that: the patch portion extends partway between the leading edge and the trailing edge and is spaced apart from the trailing edge and/or the leading edge. a rotor portion with a peripheral surface; at least one airfoil including a suction side and a pressure side extending between a leading edge and a trailing edge, the at least one airfoil extending radially from the peripheral surface, the airfoil including an airfoil thickness between the pressure side and the suction side; and a patch portion disposed at a location between the airfoil and the peripheral surface that defines a boundary that prevents crack propagation into the rotor portion, on one of the suction side and the pressure side, the patch portion including a first thickness in addition to the airfoil thickness, characterized in that: the patch portion extends partway between the leading edge and the trailing edge and is spaced apart from the trailing edge and/or the leading edge.
A medical delivery apparatus comprising A hollow container containing a liquid drug, which container is closed at its distal end by a pierceable membrane and open at its proximal end, A plunger mounted in the container for forward axial movement from the proximal end towards the distal end, A piston rod for moving the plunger forward, A dose injection mechanism which can be activated to move the piston rod and the plunger forward towards the distal end and by which forward movement of the plunger a pressure is build up in the liquid drug contained in the container, An injection needle insertable through the membrane to allow to the liquid drug to escape from the container whereby the pressure in the liquid drug contained in the container decreases, A resilient means which can be activated to operate from a relaxed state to a tensed state upon activation of the dose injection mechanism, characterised in that, the resilient means are being operated to its tensed state when the pressure is build up in the liquid drug by forward movement of the piston rod and the plunger and which resilient means is secured in its tensed state as long as the pressure inside the container are above a predetermined threshold value, and which resilient means operates back to its relaxed state when the pressure in the liquid drug decreases below the predetermined threshold value, and which relaxation of the resilient means provides an audible and/or tactile indication to the user that the pressure in the liquid drug contained in the container is below the predetermined threshold value.
A method of assembly characterized by: fabricating a node with at least one tooling feature; locating the node relative to an adjoining component; placing a component blank onto the node and locating the component blank with the at least one tooling feature; measuring at least one geometrical feature of the node or the adjoining component; 3D printing an assembly adjustment member onto the component blank based on the measuring; and placing the assembly adjustment member proximate at least one of the node or the adjoining component, wherein the assembly adjustment member is configured to allow relative movement between the node and the adjoining component for subsequent processing operations. fabricating a node with at least one tooling feature; locating the node relative to an adjoining component; placing a component blank onto the node and locating the component blank with the at least one tooling feature; measuring at least one geometrical feature of the node or the adjoining component; 3D printing an assembly adjustment member onto the component blank based on the measuring; and placing the assembly adjustment member proximate at least one of the node or the adjoining component,
A process for making man-made vitreous fibres (MMVF) which comprise at least 3 wt% iron oxides determined as Fe 2 O 3, comprising providing an electric furnace having molybdenum electrodes, providing mineral raw material, wherein the mineral raw material comprises (a) material that comprises metallic aluminium and (b) other mineral component, introducing the mineral raw material into the furnace, melting the mineral raw material to form a mineral melt, and forming MMVF from the mineral melt. providing an electric furnace having molybdenum electrodes, providing mineral raw material, wherein the mineral raw material comprises (a) material that comprises metallic aluminium and (b) other mineral component, introducing the mineral raw material into the furnace, melting the mineral raw material to form a mineral melt, and forming MMVF from the mineral melt.
A nitride semiconductor light-emitting device, comprising: an n-type semiconductor layer (103, 203), a light-emitting layer (104, 204), a p-type semiconductor layer (105, 205), a transparent electrode (106, 206) on the p-type semiconductor layer (105, 205), a metal film layer (107, 108, 207, 208), and a plated metal plate (110, 210), which are stacked, wherein the metal film layer (107, 108, 207, 208) and the plated metal plate (110, 210) are formed partially on the p-type semiconductor layer (105, 205), characterized in that the ratio of an area of the metal film layer (107, 108, 207,208) and the plated metal plate (110, 210) formed on the p-type semiconductor layer (105, 205) with respect to an area of a top surface of the p-type semiconductor (105, 205) is in a range of 10 to 90%, the plated metal plate (110, 210) has a thickness in a range of 10 μm to 200 μm, a plating adhesion layer (109, 209) is formed between the metal film layer (107, 108, 207, 208) and the plated metal plate (110, 210), and the plating adhesion layer (109, 209) is composed of a NiP alloy or a Cu alloy. an n-type semiconductor layer (103, 203), a light-emitting layer (104, 204), a p-type semiconductor layer (105, 205), a transparent electrode (106, 206) on the p-type semiconductor layer (105, 205), a metal film layer (107, 108, 207, 208), and a plated metal plate (110, 210), which are stacked, wherein the metal film layer (107, 108, 207, 208) and the plated metal plate (110, 210) are formed partially on the p-type semiconductor layer (105, 205), characterized in that the ratio of an area of the metal film layer (107, 108, 207,208) and the plated metal plate (110, 210) formed on the p-type semiconductor layer (105, 205) with respect to an area of a top surface of the p-type semiconductor (105, 205) is in a range of 10 to 90%, the plated metal plate (110, 210) has a thickness in a range of 10 μm to 200 μm, a plating adhesion layer (109, 209) is formed between the metal film layer (107, 108, 207, 208) and the plated metal plate (110, 210), and the plating adhesion layer (109, 209) is composed of a NiP alloy or a Cu alloy.
Method for the automatic recognition of a light control bus of DSI or DALI type by a bus controller connected thereto and able to exchange signals with the ballasts of the luminaires managed by said bus, characterized in that it consists, on startup, and after calibration of a signal form that is compatible with both types of bus by selecting physical parameters for the purpose of forming a signal form common to both formats: - in sending, on the bus in BROADCAST mode, a detection request test signal in a first bus format; - if a positive response signal is received originating from at least one ballast compatible with this first format, setting up the bus controller in operating mode in this first format; - in the absence of a response, setting up the bus controller in mixed operating mode, generating commands sequentially in both formats. - in sending, on the bus in BROADCAST mode, a detection request test signal in a first bus format; - if a positive response signal is received originating from at least one ballast compatible with this first format, setting up the bus controller in operating mode in this first format; - in the absence of a response, setting up the bus controller in mixed operating mode, generating commands sequentially in both formats.
A computer-implemented method for testing for proper functioning of a heat exchange system engageable with an indwelling heat exchange catheter to circulate working fluid therein using a pump, for implementation when the temperature of a heat exchange fluid in the heat exchange system and exchanging heat with the working fluid is not within a range of a command temperature and when the pump is stopped or in an idle mode such that the heat exchange catheter is effectively thermally decoupled from the heat exchange system; the method comprising: receiving time input at a processor; using the time input to identify when a predetermined period commencing when the pump was stopped or placed in idle mode has elapsed; and responsive to the temperature of the heat exchange fluid not being within the range at the elapse of the predetermined period, or the temperature of the heat exchange fluid not changing during the predetermined period by at least a threshold amount, returning an error indication. receiving time input at a processor; using the time input to identify when a predetermined period commencing when the pump was stopped or placed in idle mode has elapsed; and responsive to the temperature of the heat exchange fluid not being within the range at the elapse of the predetermined period, or the temperature of the heat exchange fluid not changing during the predetermined period by at least a threshold amount, returning an error indication.
An antibody which is obtained by immunization with pneumococcal F-antigen coupled to a carrier protein selected from bovine serum albumin, keyhole limpet hemocyanin, ovalbumin and an Ascaris extract characterised in that the antibody specifically recognizes a pneumococcal F-antigen, wherein the antibody has no cross-reactivity to Haemophilus influenzae and exhibits no cross-reactivity to a pneumococcal C-ps antigen.
A method of producing crosslinked hyaluronic acid microbeads, said method comprising the steps of: (a) providing an aqueous alkaline solution comprising hyaluronic acid, or a salt thereof; (b) forming microdroplets having a desired size from the mixed solution of step (a) in an oil phase to form a water in oil (W/O) emulsion, wherein the amount of oil phase used is of from 20 to less than 45 % by weight based on the sum of oil phase and water; (c) adding a solution comprising a crosslinking agent to the emulsion, whereby the reaction of hyaluronic acid with the crosslinking agent takes place to provide crosslinked hyaluronic acid microbeads; and (d) optionally working up the dispersion of crosslinked hyaluronic acid microbeads obtained in step (c), wherein in step (b) an emollient selected from the group consisting of diethylhexyl carbonate, decyl cocoate and mixtures thereof is used as oil phase. (a) providing an aqueous alkaline solution comprising hyaluronic acid, or a salt thereof; (b) forming microdroplets having a desired size from the mixed solution of step (a) in an oil phase to form a water in oil (W/O) emulsion, wherein the amount of oil phase used is of from 20 to less than 45 % by weight based on the sum of oil phase and water; (c) adding a solution comprising a crosslinking agent to the emulsion, whereby the reaction of hyaluronic acid with the crosslinking agent takes place to provide crosslinked hyaluronic acid microbeads; and (d) optionally working up the dispersion of crosslinked hyaluronic acid microbeads obtained in step (c),
A therapeutic fluid preparation device for preparing therapeutic fluid having a predetermined concentration by mixing a plurality of stock solutions, the device comprising: a mixing circuit configured to mix the plurality of stock solutions; a concentration measuring device having an electric conductivity sensor configured to measure the electric conductivity of the solution mixture in the mixing circuit and a temperature sensor configured to measure the temperature of the solution mixture, the concentration measuring device being configured to measure the concentration of the solution mixture in accordance with the measured electric conductivity by the electric conductivity sensor and the measured temperature by the temperature sensor; and electrolyte supply means configured to supply through the mixing circuit an electrolyte whose temperature and electric conductivity is known; and wherein the device further comprises a calibration means configured to direct the electrolyte supply means to supply the electrolyte having the known temperature and electric conductivity through the mixing circuit, to measure the temperature of the supplied electrolyte using the temperature sensor, and to calibrate the electric conductivity sensor based on the difference between the measured temperature and a known temperature of the electrolyte by referring to a correlation between temperature and electric conductivity. a mixing circuit configured to mix the plurality of stock solutions; a concentration measuring device having an electric conductivity sensor configured to measure the electric conductivity of the solution mixture in the mixing circuit and a temperature sensor configured to measure the temperature of the solution mixture, the concentration measuring device being configured to measure the concentration of the solution mixture in accordance with the measured electric conductivity by the electric conductivity sensor and the measured temperature by the temperature sensor; and electrolyte supply means configured to supply through the mixing circuit an electrolyte whose temperature and electric conductivity is known; and wherein the device further comprises a calibration means configured to direct the electrolyte supply means to supply the electrolyte having the known temperature and electric conductivity through the mixing circuit, to measure the temperature of the supplied electrolyte using the temperature sensor, and to calibrate the electric conductivity sensor based on the difference between the measured temperature and a known temperature of the electrolyte by referring to a correlation between temperature and electric conductivity.