mhurhangee/ep-ind-claims huggingface dataset:
A humanized antibody which has a binding activity to free human IgE, membrane-bound IgEs on B lymphocytes, and CD23-bound IgE but is incapable of binding to FcεRI-bound IgE, wherein said humanized antibody comprises a heavy chain variable region (V H) and a light chain variable region (V L), wherein the heavy chain variable region (V H) comprises an amino acid sequence that is identical to SEQ ID NO:2; and wherein the light chain variable region (V L) comprises an amino acid sequence that is identical to SEQ ID NO:4.
A hearing device for being worn at least partly within an ear canal of a user of the hearing device, the hearing device comprising a shell made of metal with a wall and a face plate, the wall comprising an opening and a rim at the opening, wherein the wall excluding at least a part at the rim has a mean thickness of less than 0.4 mm characterised in that the wall is thickened along at least part of the rim, wherein the rim features a bonding surface, the face plate being bonded to the shell at said bonding surface by means of an adhesive.
Method for measuring and controlling the EGR rate in a combustion engine system, the system comprising at least an EGR cooler, an EGR valve and a turbine, the method comprising determining an EGR mass flow (dm EGR) from the difference between a total exhaust gas mass flow (dm Tot) across the engine cylinders, and a turbine mass flow (dm Turb) across the turbine; the total exhaust gas mass flow (dm Tot) being calculated through a model by: - a total gas charge in a cylinder per stroke, calculated using boost air pressure and boost air temperature at the engine inlet; - together with the engine speed, calculating an actual gas mass flow from a gas charge; - obtaining said total exhaust gas mass flow (dmTot) as the sum of the total gas mass flow and the fuel mass flow; the method comprising an adaptation step to adjust the total exhaust gas mass flow (dm Tot) to be equal to the turbine mass flow (dm Turb) when the EGR valve is closed. - a total gas charge in a cylinder per stroke, calculated using boost air pressure and boost air temperature at the engine inlet; - together with the engine speed, calculating an actual gas mass flow from a gas charge; - obtaining said total exhaust gas mass flow (dmTot) as the sum of the total gas mass flow and the fuel mass flow;
Method for producing a plastic part reinforced with natural fibers, wherein as starting material 5 to 120 mm long loose natural fibers as bulk material, a thermoplast or thermoset present in the form of a micro-granular compound having a diameter of 1 to 3 mm, in a weight distribution having a lubricant for pelletizing a pelletization matrix are applied and pelletized unextruded to long fiber pellets by cold forming in a temperature range of 25 °C to 85 °C and the long fiber pellets are applied afterwards for processing to an injection molding machine for spraying the plastic part.
A steering lock device comprising: a lock member (7, 8) that is slidable between a locking position and an unlocking position and biased from the locking position to the unlocking position by a biasing member, the locking position being a position where the lock member (7, 8) is engaged with a steering shaft and blocks rotation of the steering shaft, the unlocking position being a position where the lock member (7, 8) is away from the steering shaft and allows the rotation of the steering shaft; and a sliding member arranged slidably in a direction perpendicular to a sliding direction of the lock member (7, 8), wherein at least any one of the lock member (7, 8) and the sliding member includes a displacement portion (64c, 71 a) inclined along the sliding direction of the sliding member and toward the steering shaft, and the lock member (7, 8) is displaced between the locking position and the unlocking position in conformity to inclination of the displacement portion (64c, 71 a) in conjunction with slide of the sliding member, characterized in that the lock member is formed by coupling a hanger member with a lock body; a compression reaction force of the biasing member biases the hanger member from the locking position toward the unlocking position of the lock member (7, 8); a coil spring is compressed and held between the lock body and the hanger member, such that a compression reaction force of the coil spring biases and retains the lock body toward the steering shaft from the unlocking position side to the locking position side of the lock member. a lock member (7, 8) that is slidable between a locking position and an unlocking position and biased from the locking position to the unlocking position by a biasing member, the locking position being a position where the lock member (7, 8) is engaged with a steering shaft and blocks rotation of the steering shaft, the unlocking position being a position where the lock member (7, 8) is away from the steering shaft and allows the rotation of the steering shaft; and a sliding member arranged slidably in a direction perpendicular to a sliding direction of the lock member (7, 8), wherein at least any one of the lock member (7, 8) and the sliding member includes a displacement portion (64c, 71 a) inclined along the sliding direction of the sliding member and toward the steering shaft, and the lock member (7, 8) is displaced between the locking position and the unlocking position in conformity to inclination of the displacement portion (64c, 71 a) in conjunction with slide of the sliding member, characterized in that the lock member is formed by coupling a hanger member with a lock body; a compression reaction force of the biasing member biases the hanger member from the locking position toward the unlocking position of the lock member (7, 8); a coil spring is compressed and held between the lock body and the hanger member, such that a compression reaction force of the coil spring biases and retains the lock body toward the steering shaft from the unlocking position side to the locking position side of the lock member.
Method for making a semiconductor on insulator structure, comprising: a) forming, on the surface of a semiconductor substrate, called the final substrate, a semiconducting layer, doped at a concentration greater than 10 18 at.cm -3 with elements from columns III and/or V of the Periodic Table so as to form a ground plane, b) forming a dielectric layer: - either on a surface made from a semiconducting material of a second substrate, called the source substrate, which is made from a semiconducting material or includes a superficial layer made from a semiconducting material, - or on the final substrate and in contact with the ground plane, c) then assembling, by direct adhesion of the source substrate, on the final substrate, the layer forming the ground plane being between the final substrate and the source substrate, the dielectric layer being between the source substrate and the ground plane, d) then thinning the source substrate, leaving, on the surface of the semiconductor structure, a film made from a semiconducting material, method in which a layer made from silicon carbide and acting as a barrier against diffusion is deposited on the substrate before making the ground plane. a) forming, on the surface of a semiconductor substrate, called the final substrate, a semiconducting layer, doped at a concentration greater than 10 18 at.cm -3 with elements from columns III and/or V of the Periodic Table so as to form a ground plane, b) forming a dielectric layer: - either on a surface made from a semiconducting material of a second substrate, called the source substrate, which is made from a semiconducting material or includes a superficial layer made from a semiconducting material, - or on the final substrate and in contact with the ground plane, - either on a surface made from a semiconducting material of a second substrate, called the source substrate, which is made from a semiconducting material or includes a superficial layer made from a semiconducting material, - or on the final substrate and in contact with the ground plane, c) then assembling, by direct adhesion of the source substrate, on the final substrate, the layer forming the ground plane being between the final substrate and the source substrate, the dielectric layer being between the source substrate and the ground plane, d) then thinning the source substrate, leaving, on the surface of the semiconductor structure, a film made from a semiconducting material, method in which a layer made from silicon carbide and acting as a barrier against diffusion is deposited on the substrate before making the ground plane.
A method for optimized object searching on a communications device, comprising: initiating a request for a first data set; transmitting a location of the communications device; and receiving, at the communications device, the first data set, characterized in that the first data set includes data representing each of one or more objects within a first search area proximate to the location of the communications device. initiating a request for a first data set; transmitting a location of the communications device; and receiving, at the communications device, the first data set, characterized in that the first data set includes data representing each of one or more objects within a first search area proximate to the location of the communications device.
An apparatus for shaping plastics material pre-forms into plastics material containers, with at least one blow mould, wherein the blow mould comprises a first mould part and a second mould part, wherein the first mould part and the second mould part are movable with respect to each other between a closed setting and an opened setting by means of a first drive device, and wherein the blow mould comprises a base part which is movable with respect to the mould parts (4, 6) along a lifting direction extending parallel to the longitudinal axis of the mould parts (4, 6), in order to close off a cavity, in the closed setting, in the lifting direction, and wherein a plastics material pre-form is capable of being directly acted upon with pressure by a gaseous medium inside the cavity, wherein at least one second drive device which is designed in the form of an electric linear drive and which is set up and provided to move the base part relative to the mould parts (4, 6) in the lifting direction is provided, characterized in that the second drive device comprises at least one stator positioned in a stationary manner relative to a common axis of rotation of the mould parts (4, 6), and one rotor capable of being conveyed along and/or inside the stator, wherein the base part is positioned in a releasable or non-releasable manner on an end of the rotor facing the mould parts (4, 6), and wherein the rotor is movable continuously in a reciprocation manner along and/or inside the stator.
A data interface arrangement for vehicle sensor data analysis by an external analysis device, the data interface arrangement comprising a first data connection arranged to transport sampled sensor signal data and a second data connection arranged to transport electronic control unit, ECU, status data, wherein the ECU comprises a plurality of signal processing functions, such as filtering and tracking functions, wherein the sampled sensor signal data comprises sampled radar or lidar signal data, and the sampled sensor signal data comprises a noise component, wherein the second data connection is configured to transport synchronization segments interleaved with the ECU status data, wherein the synchronization segments correspond to respective segments of the sampled sensor signal data, thereby enabling time synchronization between the sampled sensor signal data and the ECU status data by the external device based on the interleaved synchronization segments.
An animal feeder comprising: a hopper for storing feed, and a trough from which an animal can feed disposed beneath the hopper and communicable with the hopper to receive feed from the hopper characterised in that the trough is at ground level to present feed to an animal in a natural ground-level grazing position and is recessed beneath the hopper so that the hopper overhangs the trough, the trough having a recessed feed outlet from which an animal can extract feed from the trough and a rate controlled constant feed dispenser at the feed outlet to physiologically replicate a natural continuous grazing pattern. a hopper for storing feed, and a trough from which an animal can feed disposed beneath the hopper and communicable with the hopper to receive feed from the hopper characterised in that the trough is at ground level to present feed to an animal in a natural ground-level grazing position and is recessed beneath the hopper so that the hopper overhangs the trough, the trough having a recessed feed outlet from which an animal can extract feed from the trough and a rate controlled constant feed dispenser at the feed outlet to physiologically replicate a natural continuous grazing pattern.
A printing device comprising: an inkjet head; a filter accommodating portion; and a filter unit configured to collect mist, configured to be accommodated in the filter accommodating portion, configured to be replaced, and extending from one end to an other end of the filter unit in a given direction, wherein the filter unit includes a filter; characterised in that: the filter unit includes a grip portion configured to allow the filter unit to be replaced by the grip portion without touching the filter by hand, so that the mist adhering to the hand at the time of filter unit replacement can be reduced, the grip portion being provided at at least one of the one end or the other end of the filter unit, wherein the grip portion includes a handle protruding from the filter unit, a recessed portion recessed inside the filter unit, or a hole. an inkjet head; a filter accommodating portion; and a filter unit configured to collect mist, configured to be accommodated in the filter accommodating portion, configured to be replaced, and extending from one end to an other end of the filter unit in a given direction, wherein the filter unit includes a filter; the filter unit includes a grip portion configured to allow the filter unit to be replaced by the grip portion without touching the filter by hand, so that the mist adhering to the hand at the time of filter unit replacement can be reduced, the grip portion being provided at at least one of the one end or the other end of the filter unit, wherein the grip portion includes a handle protruding from the filter unit, a recessed portion recessed inside the filter unit, or a hole.
A compound of Formula I wherein R1 is selected from the group consisting of C 1 -C 6 alkyl, CF 3, CH 2 CF 3, CF 2 CHF 2, C 3 -C 8 cycloalkyl, wherein said C 3 -C 8 cycloalkyl may be substituted with 1 or 2 substituents selected from the group consisting of C 1 -C 3 alkyl, F, CHF 2 and CF 3; and R2 is H, C 1 -C 6 alkyl or CF 3; or R1 and R2 combine to form C 3 -C 5 cycloalkyl optionally substituted with 1 or 2 F, CHF 2 or CF 3; and R3 is C 1 -C 3 alkyl or CH 2 O-C 1-3 alkyl, said C 1 -C 3 alkyl or CH 2 O-C 1- C 3 alkyl is substituted with C≡N, 3 F or C 3 -C 5 cycloalkyl; R4 is selected from the group consisting of OCF 3, or OCHF 2 or a pharmaceutically acceptable salt of any of these compounds. R1 is selected from the group consisting of C 1 -C 6 alkyl, CF 3, CH 2 CF 3, CF 2 CHF 2, C 3 -C 8 cycloalkyl, wherein said C 3 -C 8 cycloalkyl may be substituted with 1 or 2 substituents selected from the group consisting of C 1 -C 3 alkyl, F, CHF 2 and CF 3; and R2 is H, C 1 -C 6 alkyl or CF 3; or R1 and R2 combine to form C 3 -C 5 cycloalkyl optionally substituted with 1 or 2 F, CHF 2 or CF 3; and R3 is C 1 -C 3 alkyl or CH 2 O-C 1-3 alkyl, said C 1 -C 3 alkyl or CH 2 O-C 1- C 3 alkyl is substituted with C≡N, 3 F or C 3 -C 5 cycloalkyl; R4 is selected from the group consisting of OCF 3, or OCHF 2
System for calibrating a phase difference, referred to as "useful phase difference", between signals corresponding to a radioelectric signal emitted by an aircraft or spacecraft, referred to as "target signal", and received by a first reception chain and a second reception chain, respectively, said first reception chain and said second reception chain respectively including a first reception antenna and a second reception antenna forming a terrestrial reception base, said first and second reception antennae (32a, 32b) each including a source and a main reflector adapted for reflecting the target signal in the direction of said source, characterized in that said system comprises an emitter adapted for emitting a radioelectric signal, referred to as "calibration signal", in the direction of the reception base, by means of a terrestrial emission antenna, and in that the first reception chain and the second reception chain comprise respective receiving means, referred to as "injection means" (33a, 33b), that are distinct from the main reflectors (321a, 321b) and that are adapted for injecting the calibration signal received over-air from the emission antenna into said first reception chain and into said second reception chain of the target signal, respectively.
A method for treating a lignocellulosic biomass, comprising the steps of adsorbing at least one oxidizing agent selected from an oxygen-containing gas, hydrogen peroxide, ozone and oxidizing acids from a liquid phase of an aqueous mixture comprising water, at least one oxidizing agent and the lignocellulosic biomass, onto the lignocellulosic biomass under conditions at which substantially no oxidative depolymerization of lignocellulosic biomass will occur in order to produce an aqueous mixture with the liquid phase having a reduced content of the oxidizing agent and the lignocellulosic biomass having oxidizing agent adsorbed on a surface thereof; and heating the aqueous mixture produced in the adsorbing step to a temperature and for a sufficient time to oxidatively depolymerize and solubilize at least a portion of the lignocellulosic biomass, wherein the adsorbing step is carried out at a temperature below 220 °C, or below about 210 °C, or below about 200 °C, or below about 190 °C, or below about 180 °C, or below about 170 °C, or below about 160 °C, or below about 150 °C, or below about 140 °C, or below about 130 °C, or below about 120 °C; wherein the adsorbing step is carried out for a period of less than about 1 hour, or less than about 50 minutes, or less than about 40 minutes, or less than about 30 minutes, or less than about 20 minutes, or less than about 10 minutes, or less than about 8 minutes, or less than about 5 minutes; wherein the absorbing step is conducted for at least 1 minute; and wherein the heating step is carried out at a temperature higher than a temperature of the adsorbing step and less than 250 °C for a period of less than 4 hours, and wherein the products of the heating step have an O/C molar ratio that is from 30% to 200% higher than the O/C molar ratio of the lignocellulosic biomass.
A method for repairing a polymeric container, comprising the steps of: a) providing a polymeric container, an exterior surface of which is scratched or scuffed; b) adding at least one fluid into the polymeric container to form a filled container, wherein the filled container is at least partially filled with the fluid; and c) applying heat from at least one heat source to an exterior surface of the filled container to form a repaired polymeric container, wherein the at least one heat source comprises a flame, a flame torch, convected hot air, a plasma arc, electromagnetic induction, infrared radiation, a laser, a maser, a short-pulse high intensity UV flash lamp, a hot tool, or combinations thereof, and wherein the heat source is applied continuously or pulsed. a) providing a polymeric container, an exterior surface of which is scratched or scuffed; b) adding at least one fluid into the polymeric container to form a filled container, wherein the filled container is at least partially filled with the fluid; and c) applying heat from at least one heat source to an exterior surface of the filled container to form a repaired polymeric container, wherein the at least one heat source comprises a flame, a flame torch, convected hot air, a plasma arc, electromagnetic induction, infrared radiation, a laser, a maser, a short-pulse high intensity UV flash lamp, a hot tool, or combinations thereof, and wherein the heat source is applied continuously or pulsed.
Apparatus for cleaning a soiled substrate using solid particulate material, the apparatus comprising a cleaning volume; a collecting volume; a pumping device having a pump inlet; a circulation pathway by which solid particulate material and a transporting fluid can be transferred from the collecting volume to the cleaning volume via said pumping device; the apparatus further comprising a flow regulating device (50, 150) disposed in the collecting volume and comprising a flow through enclosure (54, 154) defined by at least one wall (52, 152), an enclosure outlet in communication with the pump inlet, at least one particle inlet orifice disposed at an underside of the enclosure and configured to admit both solid particulate material and transporting fluid to the enclosure (54, 154) and an enclosure roof portion (53, 153) of the at least one wall (52, 152) through which solid particulate material cannot be admitted to the enclosure (54, 154), characterized in that the flow regulating device (50, 150) comprises at least one relatively smaller fluid inlet orifice configured only to admit transporting fluid to the flow through enclosure (54, 154) and at least one relatively larger particle inlet orifice disposed at an underside of the flow through enclosure (54, 154) and configured to admit both solid particulate material and transporting fluid to the flow through enclosure (54, 154).