mhurhangee/ep-ind-claims huggingface dataset:
Nozzle assembly (20, 30) for a metal casting apparatus selected from a sliding gate and a tube exchange device, said nozzle assembly comprising: - a first refractory element comprising a first coupling surface which includes a first bore aperture, and - a second refractory element comprising a second coupling surface, which includes a second bore aperture, the first and second elements being coupled to one another in a sliding translation relationship through their respective first and second coupling surfaces such that the first and second bore apertures can be brought into and out of registry to define, when in registry, a continuous bore (3,13) for discharging molten metal from a molten metal inlet to a molten metal outlet of said nozzle assembly, - a sealing member provided between the first and second coupling surfaces of the first and second elements, characterized in that, the sealing member comprises a thermally Intumescent material. - a first refractory element comprising a first coupling surface which includes a first bore aperture, and - a second refractory element comprising a second coupling surface, which includes a second bore aperture, the first and second elements being coupled to one another in a sliding translation relationship through their respective first and second coupling surfaces such that the first and second bore apertures can be brought into and out of registry to define, when in registry, a continuous bore (3,13) for discharging molten metal from a molten metal inlet to a molten metal outlet of said nozzle assembly, - a sealing member provided between the first and second coupling surfaces of the first and second elements, characterized in that, the sealing member comprises a thermally Intumescent material.
Monobloc device for therapeutic action comprising a polymer matrix topical application carrier and an active agent for inducing relieving muscle and/or joint pain in an human or animal subject, said active agent comprises methyl salicylate brought in by wintergreen essential oil and at least one auxiliary essential oil, the said devices being a collar, bracelet or patch, wherein the polymer matrix, in which the active agent is incorporated, represents 80 to 90% by weight of the device, and the active agent comprises 52 to 85% by weight of methyl salicylate, the rate of transport of the methyl salicylate through the skin being increased by virtue of at least one essential oil chosen from rosemary essential oil ( Rosmarinus officinalis) or Ceylan citronella essential oil.
An aerosol-generating system comprising: a nicotine source; a volatile delivery enhancing compound source, wherein the volatile delivery enhancing compound comprises an acid; and a heating means for heating one or both of the nicotine source and the volatile delivery enhancing compound source, wherein one or both of the nicotine source and the volatile delivery enhancing compound source is encapsulated in a cylindrical polymeric capsule comprising a thermally conductive material having a thermal conductivity of at least about 10 W/(m•K), wherein the thermally conductive material is included in one or both of: one or more walls of the cylindrical polymeric capsule; and a polymeric coating provided on at least part of the interior surface of the cylindrical polymeric capsule. a nicotine source; a volatile delivery enhancing compound source, wherein the volatile delivery enhancing compound comprises an acid; and a heating means for heating one or both of the nicotine source and the volatile delivery enhancing compound source, wherein one or both of the nicotine source and the volatile delivery enhancing compound source is encapsulated in a cylindrical polymeric capsule comprising a thermally conductive material having a thermal conductivity of at least about 10 W/(m•K), wherein the thermally conductive material is included in one or both of: one or more walls of the cylindrical polymeric capsule; and a polymeric coating provided on at least part of the interior surface of the cylindrical polymeric capsule.
An apparatus comprising: a memory controller to receive legitimate and illegitimate memory access commands to access a partition included in a plurality of partitions of a memory array; and partition control circuitry to: receive a clock signal to enable execution of a legitimate memory access command; indicate, via an active/idle signal, an active state while the legitimate memory access command is executed; and indicate, via the active/idle signal, an idle state responsive to completion of execution of the legitimate memory access command, wherein the memory controller is configured to receive the active/idle signal from the partition control circuitry, and to control the clock signal for the partition control circuitry based on the active/idle signal. a memory controller to receive legitimate and illegitimate memory access commands to access a partition included in a plurality of partitions of a memory array; and partition control circuitry to: receive a clock signal to enable execution of a legitimate memory access command; indicate, via an active/idle signal, an active state while the legitimate memory access command is executed; and indicate, via the active/idle signal, an idle state responsive to completion of execution of the legitimate memory access command, receive a clock signal to enable execution of a legitimate memory access command; indicate, via an active/idle signal, an active state while the legitimate memory access command is executed; and indicate, via the active/idle signal, an idle state responsive to completion of execution of the legitimate memory access command, wherein the memory controller is configured to receive the active/idle signal from the partition control circuitry, and to control the clock signal for the partition control circuitry based on the active/idle signal.
A backlight device comprising: a plurality of light sources arranged in a shape of a matrix; a reflective sheet having partition walls arranged to surround each of the plurality of light sources in four directions and reflecting light emitted from the plurality of light sources, each region surrounded by partition walls in four directions being a light-emitting region of the reflective sheet; a luminance uniformity plate located above the reflective sheet and uniforming luminance of the light emitted from the plurality of light sources and light reflected by the reflective sheet, the luminance uniformity plate being a reflective plate with a plurality of holes that corresponds to the light distribution of the light sources by a decreasing size of the holes in each light-emitting region with decreasing distance of the holes to the light source of the respective light-emitting region in planar view; and a diffuser panel located above the luminance uniformity plate and diffusing light exiting from the luminance uniformity plate, characterized in that a gap L1 between an upper end of the partition walls and the luminance uniformity plate is 5% to 30% of a distance L3 between an upper surface of the light-emitting regions of the reflective sheet and the diffuser panel, and a gap L2 between the luminance uniformity plate and the diffuser panel is not greater than 50% of the distance L3. a plurality of light sources arranged in a shape of a matrix; a reflective sheet having partition walls arranged to surround each of the plurality of light sources in four directions and reflecting light emitted from the plurality of light sources, each region surrounded by partition walls in four directions being a light-emitting region of the reflective sheet; a luminance uniformity plate located above the reflective sheet and uniforming luminance of the light emitted from the plurality of light sources and light reflected by the reflective sheet, the luminance uniformity plate being a reflective plate with a plurality of holes that corresponds to the light distribution of the light sources by a decreasing size of the holes in each light-emitting region with decreasing distance of the holes to the light source of the respective light-emitting region in planar view; and a diffuser panel located above the luminance uniformity plate and diffusing light exiting from the luminance uniformity plate, characterized in that a gap L1 between an upper end of the partition walls and the luminance uniformity plate is 5% to 30% of a distance L3 between an upper surface of the light-emitting regions of the reflective sheet and the diffuser panel, and a gap L2 between the luminance uniformity plate and the diffuser panel is not greater than 50% of the distance L3.
A baler comprising: a compression system for forming a bale; a feed system having a pack mode for accumulating the crop in a pre-compression chamber and a lift mode for conveying the crop to the compression system; a sensor arrangement including at least one sensor (94, 98, 99 108) generating a signal, the at least one sensor (94, 98, 99 108) being coupled to the feed system, wherein the signal corresponds to a crop load on the feed system (94, 98, 99 108); and a control unit configured to receive the signal from the sensor arrangement and initiate the lift mode based on at least the signal, the feed system including a loading fork, wherein the sensor arrangement is coupled to the loading fork, and wherein the signal corresponds to a crop load on the loading fork; and wherein the feed system further comprises the pre-compression chamber, wherein the pre-compression chamber includes an upstream half and a downstream half relative to the direction of crop movement downstream toward the compression system, characterized in that the loading fork is mounted for movement along a first path in the pack mode and along a second path in the lift mode, wherein the control unit is configured to initiate the lift mode based on at least the signal from the loading fork when the loading fork is in the upstream half of the pre-compression chamber. a compression system for forming a bale; a feed system having a pack mode for accumulating the crop in a pre-compression chamber and a lift mode for conveying the crop to the compression system; a sensor arrangement including at least one sensor (94, 98, 99 108) generating a signal, the at least one sensor (94, 98, 99 108) being coupled to the feed system, wherein the signal corresponds to a crop load on the feed system (94, 98, 99 108); and a control unit configured to receive the signal from the sensor arrangement and initiate the lift mode based on at least the signal, the feed system including a loading fork, wherein the sensor arrangement is coupled to the loading fork, and wherein the signal corresponds to a crop load on the loading fork; and wherein the feed system further comprises the pre-compression chamber, wherein the pre-compression chamber includes an upstream half and a downstream half relative to the direction of crop movement downstream toward the compression system, characterized in that the loading fork is mounted for movement along a first path in the pack mode and along a second path in the lift mode, wherein the control unit is configured to initiate the lift mode based on at least the signal from the loading fork when the loading fork is in the upstream half of the pre-compression chamber.
Method for ventilating, heating and/or cooling buildings, in particular rooms, wherein external air is supplied to the respective room for ventilation purposes and the external air, which serves as feed air, is heated or cooled as required and when ventilation is not required the room air is only heated or cooled down as required, and firstly the ventilation and secondly the temperature control are performed by separate devices, characterized in that the drawn fresh air is blown as feed air into an intake chamber of the device for temperature control, which device is designed as an air-treatment device, by the device for ventilation which is designed as a ventilation device and is drawn out of the intake chamber by a fan of the air-treatment device, and the intake chamber, by way of its intake openings, serves for air distribution when the ventilation device, but not the air-treatment device, is in operation, wherein the intake openings of the intake chamber then serve as feed-air outlet openings on or above the air-treatment device.
An apparatus for a holographic volumetric display comprising a programmable patterned lighting means and a passive holographic screen, wherein said screen comprises a set of spatially sampled holographic interference patterns, or sub-holograms, which is spatially interleaved with other sub-holograms across the screen; where each sub-hologram in the set of spatially sampled holographic interference patterns is capable of holographically reconstructing a volumetric element, in three dimensional space outside the plane of the holographic screen, when these respective sub-holograms are selectively illuminated by the programmable patterned lighting means and other sub-holograms are capable of holographically reconstructing different volumetric elements, in three dimensional space outside the plane of the holographic screen, when those respective sub-holograms are selectively illuminated by the programmable patterned lighting means.
A device for coating an organic material onto an OLED substrate, the device comprising a vapor deposition source, a vacuum chamber enclosing the substrate, the vapor deposition source comprising: a) A manifold including side and bottom walls defining a chamber for receiving organic material and an aperture plate disposed between the side walls, the aperture plate having a plurality of spaced apart apertures for emitting vaporized organic material wherein the manifold has a series of manifold apertures that are coaxial with the apertures and are wider and longer than the apertures; b) The aperture plate including conductive material which in response to an electrical current produces heat; c) Means for heating the organic material to a temperature which causes its vaporization, and heating the side walls of the manifold; and d) An electrical insulator coupling the aperture plate to the side walls with insulator apertures that are substantially the same size and aligned with the manifold apertures for concentrating heat in the unsupported region of the aperture plate adjacent to the apertures, whereby the distance between the aperture plate and the substrate can be reduced to provide high coating thickness uniformity on the substrate. a) A manifold including side and bottom walls defining a chamber for receiving organic material and an aperture plate disposed between the side walls, the aperture plate having a plurality of spaced apart apertures for emitting vaporized organic material wherein the manifold has a series of manifold apertures that are coaxial with the apertures and are wider and longer than the apertures; b) The aperture plate including conductive material which in response to an electrical current produces heat; c) Means for heating the organic material to a temperature which causes its vaporization, and heating the side walls of the manifold; and d) An electrical insulator coupling the aperture plate to the side walls with insulator apertures that are substantially the same size and aligned with the manifold apertures for concentrating heat in the unsupported region of the aperture plate adjacent to the apertures, whereby the distance between the aperture plate and the substrate can be reduced to provide high coating thickness uniformity on the substrate.
A tree shears gripper comprising a clamp designed for gripping tree trunks, a cutting device designed to cut a trunk and a supporting structure for the clamp and the cutting device, wherein the clamp is movable between a first operating position and a second operating position, in which it has different inclinations relative to the supporting structure, characterised in that it comprises means (13, 40, 41, 42, 43) for moving the clamp designed to move the clamp between the first and second operating positions by means of a roto-translational movement.
A process for preparing 2-alkenals of the formula I in which R 1 is selected from hydrogen and C 1 -C 4 -alkyl; and R 2 is selected from hydrogen, C 1 -C 12 -alkyl, C 2 -C 12 -alkenyl, C 4 -C 8 -cycloalkyl and C 6 -C 10 -aryl, wherein C 1 -C 12 -alkyl and C 1 -C 12 -alkenyl may be substituted with C 5 -C 7 -cycloalkyl or C 5 -C 7 -cylcoalkenyl; comprising dehydrogenating an alkenol of the formula II, an alkenol of the formula III or a mixture thereof, wherein R 1 and R 2 are each as defined above, wherein the alkenol II, the alkenol III or a mixture thereof is brought into contact with a catalytic system comprising at least one ligand and a metal compound selected from ruthenium compounds and iridium(l) compounds, and wherein the hydrogen formed during the dehydrogenation is removed from the reaction mixture by: i) reaction with a reoxidant selected from C 3 -C 12 -alkanones, C 4 -C 9 -cycoalkanones, benzaldehyde and mixtures thereof; and/or ii) purely physical means. R 1 is selected from hydrogen and C 1 -C 4 -alkyl; and R 2 is selected from hydrogen, C 1 -C 12 -alkyl, C 2 -C 12 -alkenyl, C 4 -C 8 -cycloalkyl and C 6 -C 10 -aryl, wherein C 1 -C 12 -alkyl and C 1 -C 12 -alkenyl may be substituted with C 5 -C 7 -cycloalkyl or C 5 -C 7 -cylcoalkenyl; i) reaction with a reoxidant selected from C 3 -C 12 -alkanones, C 4 -C 9 -cycoalkanones, benzaldehyde and mixtures thereof; and/or ii) purely physical means.
A computer-implemented method of determining model parameters for monitoring a volume of a body part associated with volumetric data of a predetermined anatomical feature, the method comprising: identifying a predetermined anatomical feature as being present in field of view data of a depth sensing camera apparatus; upon identification of the predetermined anatomical feature being present in the field of view data of the depth camera apparatus, determining model parameters associated with volumetric data of one or more anatomical features present in the field of view data of the depth sensing camera apparatus by processing said volumetric data of the one or more anatomical features in dependence on a three- dimensional representation of the predetermined anatomical feature; adjusting the model parameters to match the volumetric data of one of the one or more anatomical features with the identified predetermined anatomical feature; and outputting the model parameters for monitoring a volume of a body part associated with volumetric data of the predetermined anatomical feature. identifying a predetermined anatomical feature as being present in field of view data of a depth sensing camera apparatus; upon identification of the predetermined anatomical feature being present in the field of view data of the depth camera apparatus, determining model parameters associated with volumetric data of one or more anatomical features present in the field of view data of the depth sensing camera apparatus by processing said volumetric data of the one or more anatomical features in dependence on a three- dimensional representation of the predetermined anatomical feature; adjusting the model parameters to match the volumetric data of one of the one or more anatomical features with the identified predetermined anatomical feature; and outputting the model parameters for monitoring a volume of a body part associated with volumetric data of the predetermined anatomical feature.
Method for calibrating a balancing machine in a correction run k for rotors manufactured in a series process, in which a rotor to be corrected is rotatably mounted in bearings and accelerated by means of a drive unit, comprising the following steps: a. in which at least one measuring sensor determines an initial vibration of the rotor prior to the imbalance correction and transmits it to an evaluation device, which stores the measured value as vibration vector s 0, b. in which an imbalance on the rotor is corrected in an imbalance correction step, wherein the imbalance is calculated with the use of an existing process calibration matrix K, c. in which a residual vibration of the rotor is measured by the measuring sensor, is transmitted to the evaluation unit and is stored as vibration vector s 1, d. in which the difference δ s = s 1 - s 0 and the corrected imbalance for the correction run k is stored as δ s k and u k by the evaluation unit, e. in which a process calibration matrix K is determined from measurement data by solving the equation system S = UK T, wherein matrix S contains a line for every imbalance correction step having a transposed vibration vector S k = δ s k T for the correction step and that matrix contains in every line the transposed imbalance vector of step k and the process calibration matrix is calculated by transposing K T and f. in which the process calibration matrix according to step e. is stored as a calibration matrix in the evaluation unit and is used to calculate an unknown imbalance vector of a subsequent rotor. a. in which at least one measuring sensor determines an initial vibration of the rotor prior to the imbalance correction and transmits it to an evaluation device, which stores the measured value as vibration vector s 0, b. in which an imbalance on the rotor is corrected in an imbalance correction step, wherein the imbalance is calculated with the use of an existing process calibration matrix K, c. in which a residual vibration of the rotor is measured by the measuring sensor, is transmitted to the evaluation unit and is stored as vibration vector s 1, d. in which the difference δ s = s 1 - s 0 and the corrected imbalance for the correction run k is stored as δ s k and u k by the evaluation unit, e. in which a process calibration matrix K is determined from measurement data by solving the equation system S = UK T, wherein matrix S contains a line for every imbalance correction step having a transposed vibration vector S k = δ s k T for the correction step and that matrix contains in every line the transposed imbalance vector of step k and the process calibration matrix is calculated by transposing K T and f. in which the process calibration matrix according to step e. is stored as a calibration matrix in the evaluation unit and is used to calculate an unknown imbalance vector of a subsequent rotor.
An isolated CBH2 polypeptide variant comprising an amino acid sequence that is at least 85% identical to wild type Streptomyces sp CBH2 (SEQ ID NO:4) and having a substitution of the amino acid residue corresponding to position L201, wherein the amino acid position is determined by optimal alignment with SEQ ID NO:4, and wherein the substitution is L201R, L201F or L201M.