mhurhangee/ep-ind-claims huggingface dataset:
Filter for radiofrequency waves, comprising: - a guide unit for spin waves comprising a magnetic material, the guide unit being spatially arranged to generate a spatially modulated magnetostatic potential, the magnetostatic potential allowing the propagation of spin waves having a frequency belonging to a first set of frequencies and preventing the propagation of spin waves having a frequency belonging to a second set of frequencies, the second set of frequencies being distinct from the first set of frequencies, a transmission rate being defined for the guide unit, the transmission rate being equal to the ratio of the second amplitude of the wave at the output of the guide unit and the first amplitude of the wave at the input of the guide unit, - an input element of the guide unit, the input element being capable of converting, with a first efficiency, a radiofrequency electromagnetic wave into a spin wave, - an output element of the guide unit, the output element being capable of converting, with a second efficiency, a spin wave into a radiofrequency output signal, - a generating unit for generating at least one electrical control signal, and - a control member, characterised in that the control member is capable of modifying at least one of the first efficiency, the second efficiency and the transmission rate in response to the electrical control signal that the generating unit is capable of generating, the control member comprising a layer (102, 105, 110) in contact with the guide unit and two electrodes (85, 90) configured to allow the transmission of the electrical control signal through said layer (102, 105, 110) in contact with the guide unit. - a guide unit for spin waves comprising a magnetic material, the guide unit being spatially arranged to generate a spatially modulated magnetostatic potential, the magnetostatic potential allowing the propagation of spin waves having a frequency belonging to a first set of frequencies and preventing the propagation of spin waves having a frequency belonging to a second set of frequencies, the second set of frequencies being distinct from the first set of frequencies, a transmission rate being defined for the guide unit, the transmission rate being equal to the ratio of the second amplitude of the wave at the output of the guide unit and the first amplitude of the wave at the input of the guide unit, - an input element of the guide unit, the input element being capable of converting, with a first efficiency, a radiofrequency electromagnetic wave into a spin wave, - an output element of the guide unit, the output element being capable of converting, with a second efficiency, a spin wave into a radiofrequency output signal, - a generating unit for generating at least one electrical control signal, and - a control member,
A cabinless construction vehicle, with a roll bar, comprising a pair of vertical supports arranged in a rear region of an operator platform of the construction vehicle, each vertical support having in each case a side beam fixedly arranged on the construction vehicle and a pivoting beam, which are connected to one another via first articulated connections and are adjustable relative to one another between a protection position and a transport position of the roll bar, a weather protection device with a roof cover for the operator platform being arranged on the roll bar, the roof cover of the weather protection device being movably mounted on the roll bar in such a manner that it is adjustable together with the roll bar between a deployed weather protection position when the roll bar is in the protection position and a storage position when the roll bar is in the transport position, characterized in that the roof cover is adjustable into a rear-side position below the operator platform by releasing a first arrest of an actuator of the first articulated connections, and wherein the roof cover is arrestable in its storage position in an angular position almost parallel to the pair of pivoting beams.
A water heating apparatus, comprising: a combustion chamber; a burner assembly located within the combustion chamber; a variable flow premix low range blower assembly communicated with the burner assembly for supplying premixed fuel and air to the burner assembly, the low range blower assembly being operable over a low flow rate range extending from a low range low end to a low range high end; a control system operably associated with the low range blower system; characterized in that the water heating apparatus further comprises a variable flow premix high range blower assembly communicated with the burner assembly for supplying premixed fuel and air to the burner assembly, the high range blower assembly being operable over a high flow rate range extending from a high range low end to a high range high end, wherein the high range high end is greater than the low range high end; the control system operably associated with the low range blower assembly is also operably associated with the high range blower assembly to selectively operate one or both of the blower assemblies (52,54) as needed in response to heat demand on the water heating apparatus. a combustion chamber; a burner assembly located within the combustion chamber; a variable flow premix low range blower assembly communicated with the burner assembly for supplying premixed fuel and air to the burner assembly, the low range blower assembly being operable over a low flow rate range extending from a low range low end to a low range high end; a control system operably associated with the low range blower system; characterized in that the water heating apparatus further comprises a variable flow premix high range blower assembly communicated with the burner assembly for supplying premixed fuel and air to the burner assembly, the high range blower assembly being operable over a high flow rate range extending from a high range low end to a high range high end, wherein the high range high end is greater than the low range high end; the control system operably associated with the low range blower assembly is also operably associated with the high range blower assembly to selectively operate one or both of the blower assemblies (52,54) as needed in response to heat demand on the water heating apparatus.
Process for preparing a diammonium dicarboxylate granulate salt material comprising: - spraying of an aqueous solution comprising a diamine, or a mixture of diamines, and a dicarboxylic acid, or a mixture of dicarboxylic acids dissolved in an aqueous medium, or - spraying an aqueous slurry comprising a diammonium dicarboxylate salt dispersed in an aqueous medium directly obtained from an aqueous solution comprising a diamine and a dicarboxylic acid dissolved in an aqueous medium, wherein the aqueous solution or aqueous slurry is sprayed onto or in a fluidized bed of diammonium dicarboxylate salt particles, and wherein a preheated gaseous medium is led through the fluidized bed, while evaporating the aqueous medium, thereby forming the granulate salt material. - spraying of an aqueous solution comprising a diamine, or a mixture of diamines, and a dicarboxylic acid, or a mixture of dicarboxylic acids dissolved in an aqueous medium, or - spraying an aqueous slurry comprising a diammonium dicarboxylate salt dispersed in an aqueous medium directly obtained from an aqueous solution comprising a diamine and a dicarboxylic acid dissolved in an aqueous medium,
A crystal pulling system for growing a monocrystalline ingot from a silicon melt, the system having a pull axis (Y 10) and comprising: a housing defining a growth chamber; a crucible assembly disposed within the growth chamber for containing the silicon melt; a heat shield that defines a central passage through which an ingot passes during ingot growth; and a cover member that is moveable within the heat shield along the pull axis (Y 10), the cover member comprising: a first plate having a first plate axis that is parallel to the pull axis (Y 10), the first plate comprising a hub, the hub having a hub opening; a second plate having a second plate axis that is parallel to the pull axis (Y 10), the second plate being disposed above the first plate, the first plate and second plate forming a cover member chamber; an insulation layer being disposed between the first plate and the second plate and contacting the first plate and the second plate, the insulation layer being made of felt, the insulation layer being disposed within the cover member chamber; and a shaft having an elongated portion and a collar that extends radially outward from the elongated portion, the shaft extending through the hub opening, the first plate resting on the collar. a housing defining a growth chamber; a crucible assembly disposed within the growth chamber for containing the silicon melt; a heat shield that defines a central passage through which an ingot passes during ingot growth; and a cover member that is moveable within the heat shield along the pull axis (Y 10), the cover member comprising: a first plate having a first plate axis that is parallel to the pull axis (Y 10), the first plate comprising a hub, the hub having a hub opening; a second plate having a second plate axis that is parallel to the pull axis (Y 10), the second plate being disposed above the first plate, the first plate and second plate forming a cover member chamber; an insulation layer being disposed between the first plate and the second plate and contacting the first plate and the second plate, the insulation layer being made of felt, the insulation layer being disposed within the cover member chamber; and a shaft having an elongated portion and a collar that extends radially outward from the elongated portion, the shaft extending through the hub opening, the first plate resting on the collar. a first plate having a first plate axis that is parallel to the pull axis (Y 10), the first plate comprising a hub, the hub having a hub opening; a second plate having a second plate axis that is parallel to the pull axis (Y 10), the second plate being disposed above the first plate, the first plate and second plate forming a cover member chamber; an insulation layer being disposed between the first plate and the second plate and contacting the first plate and the second plate, the insulation layer being made of felt, the insulation layer being disposed within the cover member chamber; and a shaft having an elongated portion and a collar that extends radially outward from the elongated portion, the shaft extending through the hub opening, the first plate resting on the collar.
Arrangement of a set of two protective sheaths (50A, 50B) connecting the bodyshell of a vehicle to an opening leaf of said vehicle articulated to said bodyshell by means of at least two hinges (10A, 10B) arranges some distance apart on the bodyshell, with each one of the sheaths (50A, 50B) including a flexible central part (51A, 51B) respectively connecting the first and second ends (53A, 54A, 53B, 54B) of each one of the sheaths (50A, 50B); with the ends (54A, 54B) of the sheaths (50A, 50B) fixed to the bodyshell being adjacent to one another, aligned on the axis of pivoting (YY') of the panel on the bodyshell, passing through the two hinges (10A, 10B), and centred between the hinges (10A, 10B); with the two sheaths (50A, 50B) being identical and arranged symmetrically in relation to the vertical median plane of the vehicle, characterised in that the central part (51A, 51B) of the sheaths (50A, 50B) is formed from a stack of flat windings (52A, 52B) with a generally rectangular section, adjacent and integral with one another; with each winding (52A, 52B) being offset from its adjacent winding according to the small dimension thereof.
Lens plate optical system, preferably for lights having asymmetrical light emission, comprising, as a light source, printed circuit boards having SMD LEDs, with a lens plate that is arranged immediately in front of said LEDs and is made of transparent material, in particular plastics material, in which plate an optical lens system is arranged in front of each LED for light direction, the optical system abutting the printed circuit board, by the rear side of said system, so as to surround the LED and comprising a cavity which is divided by a lens partition, arranged laterally with respect to the LED, into a main cavity for receiving the LED and an adjacent secondary cavity, and a convex lens dome having a light-directing rib that is preferably formed integrally thereon being formed on the outer side, characterised in that the part of the LED light that enters via the free-form surface of the main cavity is directed completely towards the convex lens dome and exits therethrough into space, and in that the other part of the LED light enters via the converging lens of the lateral lens partition and exits via the opposite surface, is focused in its entirety towards the lens surface of the secondary cavity and, from there, strikes the reflection surface of the light-directing rib, is substantially completely reflected thereon and exits into space via the front lens surface of the light-directing rib.
A magnetic resonance apparatus (100, 700), comprising: a body portion comprising a cavity having first and second ends and at least one opening situated at one of the first and second ends, the cavity defining a longitudinal axis extending between the first and second ends and the cavity having an exclusion zone (Ez) having opposed ends, wherein the exclusion zone (Ez) is situated between non-exclusion zones (Nz) which are situated between an opposed end of the exclusion zone (Ez) and the adjacent opening, wherein the exclusion zone (Ez) is configured to pass a radiation beam for therapeutic purposes; at least one main magnet for generating a main magnetic field comprising a substantially homogenous magnetic field within the cavity; an annular center shim of continuous shape with a uniform thickness and with opposed edges, wherein the center shim encircles and extends along a length of the longitudinal axis of the cavity and at least a part of the center shim is situated within the exclusion zone; and a plurality of discrete shims (DSs) (112, 113), situated between the CS and at least one of the first and second ends, wherein the center shim and the plurality of discrete shims (112, 113) are configured to enhance uniformity of the main magnetic field within the cavity. a body portion comprising a cavity having first and second ends and at least one opening situated at one of the first and second ends, the cavity defining a longitudinal axis extending between the first and second ends and the cavity having an exclusion zone (Ez) having opposed ends, wherein the exclusion zone (Ez) is situated between non-exclusion zones (Nz) which are situated between an opposed end of the exclusion zone (Ez) and the adjacent opening, wherein the exclusion zone (Ez) is configured to pass a radiation beam for therapeutic purposes; at least one main magnet for generating a main magnetic field comprising a substantially homogenous magnetic field within the cavity; an annular center shim of continuous shape with a uniform thickness and with opposed edges, wherein the center shim encircles and extends along a length of the longitudinal axis of the cavity and at least a part of the center shim is situated within the exclusion zone; and a plurality of discrete shims (DSs) (112, 113), situated between the CS and at least one of the first and second ends, wherein the center shim and the plurality of discrete shims (112, 113) are configured to enhance uniformity of the main magnetic field within the cavity.
A screw distributor, in particular for distributing manure, having a distribution pipe which has a feed opening at one end, a plurality of discharge openings distributed over its length, and a screw conveyor that is situated in the distribution pipe and drivable via a drive shaft, wherein a comminution device, having at least one rotating cutting element (10, 11), is situated between the feed opening and the screw conveyor, the cutting element being rotatably fixedly coupled to the drive shaft that drives the screw conveyor, characterized in that the comminution device has a cutting plate that cooperates with the at least one rotating cutting element (10, 11), and the cutting plate is provided with a plurality of openings that represent a connection between a prechamber and a distribution chamber, the openings in the cutting plate being arranged in a spiral shape around the rotational axis of the at least one rotating cutting element (10, 11).
A process for separating monochloroacetic acid and dichloroacetic acid from one another via extractive distillation using (a) an extractive agent that is chemically stable and has a BF 3 affinity of between 65 kJ/mole and 110 kJ/mole and (b) an organic solvent that is either an acid of which the lowest pKa is between 3.0 and 6.5 or a base with a BF 3 affinity of between 40 kJ/mole and 75 kJ/mole with the proviso that said BF 3 affinity is lower than the BF 3 affinity of the extractive agent, said organic solvent being chemically stable, and having a boiling point at atmospheric pressure of at least 468 K, comprising the steps of (i) contacting a mixture comprising monochloroacetic acid and dichloroacetic acid with the extractive agent, (ii) distilling the mixture obtained in step (i) to obtain a monochloroacetic acid stream and a stream comprising dichloroacetic acid and the extractive agent, (iii) subjecting the stream comprising dichloroacetic acid and the extractive agent to a regeneration step, wherein the organic solvent is contacted with the mixture comprising monochloroacetic acid and dichloroacetic acid of step (i), or wherein the organic solvent is contacted with the mixture obtained in step (i) prior to and/or during step (ii), or wherein the organic solvent is contacted with the stream comprising dichloroacetic acid and the extractive agent obtained in step (ii) prior to or during step (iii), or any combination thereof. (i) contacting a mixture comprising monochloroacetic acid and dichloroacetic acid with the extractive agent, (ii) distilling the mixture obtained in step (i) to obtain a monochloroacetic acid stream and a stream comprising dichloroacetic acid and the extractive agent, (iii) subjecting the stream comprising dichloroacetic acid and the extractive agent to a regeneration step,
A method for detecting tampering of a target detection system, the system comprising a control unit in signal communication with a set of present sensors, each sensor of the set of present sensors being a tamper detection sensor associated with a detection member configured to detect a target in a predetermined detection area, said method comprising the steps of: - setting up of an overall sensor coordination logic, said control unit being configured to process, based on said overall logic, tamper detection data from a predetermined set of sensors comprising a plurality of tamper detection sensors, the set of present sensors being a subset of the predetermined set; characterised in that the method further comprises the steps of: - controlling, by the control unit, the operating state of each sensor of the set of the present sensors to define, in the predetermined set, a subset of present and working sensors and a subset of missing and/or non-working sensors; - defining, by the control unit, a reduced sensor coordination logic, excluding the subset of missing and/or non-working sensors from the overall logic; - acquiring a tamper detection data by each sensor of the subset of present and working sensors; - determining a tamper state of the target detection system by processing, by the control unit, the detection data acquired by the subset of present and working sensors based on the reduced logic. - setting up of an overall sensor coordination logic, said control unit being configured to process, based on said overall logic, tamper detection data from a predetermined set of sensors comprising a plurality of tamper detection sensors, the set of present sensors being a subset of the predetermined set; - controlling, by the control unit, the operating state of each sensor of the set of the present sensors to define, in the predetermined set, a subset of present and working sensors and a subset of missing and/or non-working sensors; - defining, by the control unit, a reduced sensor coordination logic, excluding the subset of missing and/or non-working sensors from the overall logic; - acquiring a tamper detection data by each sensor of the subset of present and working sensors; - determining a tamper state of the target detection system by processing, by the control unit, the detection data acquired by the subset of present and working sensors based on the reduced logic.
A haircare unit (10, 20) configured to be used when styling hair, the hair care unit comprising: a hollow body (101, 201); an air inlet (102, 202) through which air can enter the hollow body; a hair receiving portion (103, 203) on the outside of the hollow body, wherein the hair receiving portion comprises multiple air outlets (104, 204) through which air can exit the hollow body; and multiple slats (106, 206) provided between respective pairs of air outlets under an obtuse angle with the hair receiving portion, characterized in that the slats and the air outlets are positioned along a straight line (109, 320), and wherein the multiple slats have substantially rounded surfaces (111, 211)) on the outside of the hollow body such that in use an airflow is generated that moves predominantly along the hair receiving portion along the straight line. a hollow body (101, 201); an air inlet (102, 202) through which air can enter the hollow body; a hair receiving portion (103, 203) on the outside of the hollow body, wherein the hair receiving portion comprises multiple air outlets (104, 204) through which air can exit the hollow body; and multiple slats (106, 206) provided between respective pairs of air outlets under an obtuse angle with the hair receiving portion, characterized in that the slats and the air outlets are positioned along a straight line (109, 320), and wherein the multiple slats have substantially rounded surfaces (111, 211)) on the outside of the hollow body such that in use an airflow is generated that moves predominantly along the hair receiving portion along the straight line.
A method for wireless communication at a user equipment, UE, comprising: receiving, from a first base station (105-a), an indication of a set of component carriers for the UE to use to receive, from a second base station (105-b), a response to a first random access channel, RACH, transmission; wherein the set of component carriers includes quasi co-located component carriers received on a receive beam formed, by the UE, as a single beam; transmitting the first RACH transmission to the second base station; and receiving, using one or more of the set of component carriers on the receive beam, the second RACH transmission responsive to the first RACH transmission. receiving, from a first base station (105-a), an indication of a set of component carriers for the UE to use to receive, from a second base station (105-b), a response to a first random access channel, RACH, transmission; wherein the set of component carriers includes quasi co-located component carriers received on a receive beam formed, by the UE, as a single beam; transmitting the first RACH transmission to the second base station; and receiving, using one or more of the set of component carriers on the receive beam, the second RACH transmission responsive to the first RACH transmission.