mhurhangee/ep-ind-claims huggingface dataset:
A piezoelectric device including: - a first electrode, - a second electrode, - elongated piezoelectric nano-objects in contact with the first electrode, the elongated piezoelectric nano-objects extending between the first electrode and the second electrode, - a first layer of a first material, the first material being electrically insulating, the first layer surrounding a first longitudinal portion of each of the elongated piezoelectric nano-objects, characterized in that: - the piezoelectric device includes a second layer of a second material, the second material being electrically insulating, the second layer surrounding a second longitudinal portion of each of the elongated piezoelectric nano-objects, - the first layer is arranged between the first electrode and the second layer, - the thickness of the first layer is strictly less than the thickness of the second layer, - the first material has a Young's modulus strictly greater than the Young's modulus of the second material. - a first electrode, - a second electrode, - elongated piezoelectric nano-objects in contact with the first electrode, the elongated piezoelectric nano-objects extending between the first electrode and the second electrode, - a first layer of a first material, the first material being electrically insulating, the first layer surrounding a first longitudinal portion of each of the elongated piezoelectric nano-objects, - the piezoelectric device includes a second layer of a second material, the second material being electrically insulating, the second layer surrounding a second longitudinal portion of each of the elongated piezoelectric nano-objects, - the first layer is arranged between the first electrode and the second layer, - the thickness of the first layer is strictly less than the thickness of the second layer, - the first material has a Young's modulus strictly greater than the Young's modulus of the second material.
Device for generating and transmitting input signals over radio signals having electromagnetic modes with orbital angular momentum, wherein said device is configured to: receive, at its input ports, a plurality of input signals from at least one signal source; generate output signals by applying a Fast Fourier Transform to said plurality of input signals by means of a Fast Fourier Transform module; provide said output signals to output ports connected to corresponding transmitting antennas, and radio transmit said output signals by said transmitting antennas so that during radio transmission the transmitted output signals have at least one orbital angular momentum due to the application of said Fast Fourier Transform; wherein the number M of the input signals applied to said input ports is smaller than the number N of said output signals produced by said device. receive, at its input ports, a plurality of input signals from at least one signal source; generate output signals by applying a Fast Fourier Transform to said plurality of input signals by means of a Fast Fourier Transform module; provide said output signals to output ports connected to corresponding transmitting antennas, and radio transmit said output signals by said transmitting antennas so that during radio transmission the transmitted output signals have at least one orbital angular momentum due to the application of said Fast Fourier Transform; wherein the number M of the input signals applied to said input ports is smaller than the number N of said output signals produced by said device.
A pressure control apparatus (10, 110) for restricting a flow of blood through or from a body part, the apparatus comprising: at least one arcuate member (2, 102) for attaching to the body part, the at least one arcuate member comprising a first end (4, 104) and an opposite second end (6, 106); a primary tightening device mounted on the at least one arcuate member for adjusting a pressure of the apparatus on the body part, wherein the primary tightening device comprises a mechanical advantage power system (8, 108); a secondary tightening device disposed on at least a portion of the arcuate member for circumferentially tightening the apparatus on the body part; and a locking device (20, 120) for closing the apparatus around the body part, the locking device (20, 120) being operatively connected to the at least one arcuate member (2, 102) characterized in that: the mechanical advantage power system (8, 108) comprises a winding cord (28, 128) and a cord retracting device (42, 142). at least one arcuate member (2, 102) for attaching to the body part, the at least one arcuate member comprising a first end (4, 104) and an opposite second end (6, 106); a primary tightening device mounted on the at least one arcuate member for adjusting a pressure of the apparatus on the body part, wherein the primary tightening device comprises a mechanical advantage power system (8, 108); a secondary tightening device disposed on at least a portion of the arcuate member for circumferentially tightening the apparatus on the body part; and a locking device (20, 120) for closing the apparatus around the body part, the locking device (20, 120) being operatively connected to the at least one arcuate member (2, 102) characterized in that: the mechanical advantage power system (8, 108) comprises a winding cord (28, 128) and a cord retracting device (42, 142). the mechanical advantage power system (8, 108) comprises a winding cord (28, 128) and a cord retracting device (42, 142).
A receiver comprising: • a receive chain configured to receive data that is formatted into a frame structure that comprises signal blocks interspersed with training sequences for assisting a receive operation; • a channel estimator configured to estimate what form a training sequence will take when it is received by the receiver; and • a subtractor configured to: ∘ subtract any part of a training sequence that is predicted by the estimate to be included in a received signal block and its adjacent training sequence from that received signal block and its adjacent training sequence to form a subtracted signal block; and ∘ zero-pad the subtracted signal block to be twice the length of the transmitted signal block and output the padded signal block for transforming into the frequency domain. • a receive chain configured to receive data that is formatted into a frame structure that comprises signal blocks interspersed with training sequences for assisting a receive operation; • a channel estimator configured to estimate what form a training sequence will take when it is received by the receiver; and • a subtractor configured to: ∘ subtract any part of a training sequence that is predicted by the estimate to be included in a received signal block and its adjacent training sequence from that received signal block and its adjacent training sequence to form a subtracted signal block; and ∘ zero-pad the subtracted signal block to be twice the length of the transmitted signal block and output the padded signal block for transforming into the frequency domain. ∘ subtract any part of a training sequence that is predicted by the estimate to be included in a received signal block and its adjacent training sequence from that received signal block and its adjacent training sequence to form a subtracted signal block; and ∘ zero-pad the subtracted signal block to be twice the length of the transmitted signal block and output the padded signal block for transforming into the frequency domain.
Apparatus for cooling a film, which may be produced in particular in a film extrusion plant, with - a housing comprising at least one channel, at least one inlet opening and at least one outlet opening through which a cooling gas may flow, - an actuating arrangement, by means of which the volumetric flow of the cooling gas which may flow out through the outlet opening, and the temperature of the cooling gas which may flow out through the outlet opening, may be adjusted, characterized in that the actuating arrangement comprises a lever system which has a movable actuator and a movable valve element, wherein the actuator acts on the valve element in such a way as to amplify the actuating action of the valve element the actuating arrangement has at least one heating element, wherein the temperature of the cooling gas is adjustable, and wherein the heating element is the drive for the actuator and/or the valve element, wherein the actuator and/or the valve element are/is (a) bimetallic element(s). - a housing comprising at least one channel, at least one inlet opening and at least one outlet opening through which a cooling gas may flow, - an actuating arrangement, by means of which the volumetric flow of the cooling gas which may flow out through the outlet opening, and the temperature of the cooling gas which may flow out through the outlet opening, may be adjusted, characterized in that the actuating arrangement comprises a lever system which has a movable actuator and a movable valve element, wherein the actuator acts on the valve element in such a way as to amplify the actuating action of the valve element the actuating arrangement has at least one heating element, wherein the temperature of the cooling gas is adjustable, and wherein the heating element is the drive for the actuator and/or the valve element, wherein the actuator and/or the valve element are/is (a) bimetallic element(s).
A surfactant composition comprising alkylarylsulfonate molecules wherein more than 30 wt.% of the alkylarylsulfonate molecules of the surfactant composition are independent from each other one or more species of the formula: [R - X - Ar (SO 3) -] a [M n+] b wherein: X is a linear acyclic aliphatic hydrocarbyl chain; R is bound to a non-terminal carbon atom of X and is selected from H and C1, C2 and C3 alkyl groups; X and R together have 10 carbon atoms; Ar is phenyl; M is a cation, n is selected from 1, 2 and 3; and a and b are selected such that the alkylarylsulfonate molecule is electroneutral, wherein more than 20 wt.% of the alkylarylsulfonate molecules of the surfactant composition have an R which is methyl and wherein more than 40 wt.% of the alkylarylsulfonate molecules of the surfactant composition have the phenyl group bound to the carbon atom which is bound to either of the two terminal carbon atoms of X (the beta position on the hydrocarbyl chain X). X is a linear acyclic aliphatic hydrocarbyl chain; R is bound to a non-terminal carbon atom of X and is selected from H and C1, C2 and C3 alkyl groups; X and R together have 10 carbon atoms; Ar is phenyl; M is a cation, n is selected from 1, 2 and 3; and a and b are selected such that the alkylarylsulfonate molecule is electroneutral, wherein more than 20 wt.% of the alkylarylsulfonate molecules of the surfactant composition have an R which is methyl and wherein more than 40 wt.% of the alkylarylsulfonate molecules of the surfactant composition have the phenyl group bound to the carbon atom which is bound to either of the two terminal carbon atoms of X (the beta position on the hydrocarbyl chain X).
Drawer with two side frames formed from sheet metal and arranged parallel to one another or with adapters (5, 5') arranged on the side frames and with a rear wall arranged at right angles between the side frames or the adapters (5, 5'), wherein the rear wall is fixed on the side frames or the adapters (5, 5') by locking means (52, 52') lying opposite to one another at each side frame or each of the adapters (5, 5') in a direction parallel to the side frames or the adapters (5, 5') against a stationary stop, characterized in that the locking means (52, 52') exhibit elevations (522, 521') extending from the side frames or the adapters (5, 5') towards the rear wall in a flexurally resistant manner, said elevations having locking edges facing the stop, wherein the side frames or the adapters (5, 5') are elastically deformable, such that the rear wall can be moved beyond the elevations (522, 521') into the fixing position, wherein the elevations are configured as fingers of extending lugs bent in a plane parallel to the respective side frame or to the respective adapter (5, 5') overlapping in respect of the side frame or in respect of the adapter (5, 5'), so that when passing the rear wall the fingers are pressed into the locking position in the direction of a non-extended region of the side frame or of the adapter and the lugs are prevented from being pressed right down, or wherein the elevations exhibit at least one bulge cam pressed out from the plane of the respective side frame or of the respective adapter (5, 5').
A carbon dioxide (CO 2) energy storage system comprising: a storage tank configured to store a CO 2 slurry including dry ice and liquid CO 2, wherein said storage tank stores the slurry at the CO 2 triple point temperature and pressure; a first pump coupled in flow communication with said storage tank, wherein said first pump is configured to receive the CO 2 slurry from said storage tank and to increase a pressure of the CO 2 slurry to a pressure above the CO 2 triple point pressure; a contactor coupled in flow communication with said first pump, wherein said contactor is configured to receive the high pressure CO 2 slurry from said first pump and also to receive a first flow of gaseous CO 2 at a pressure above the CO 2 triple point pressure; a decanter coupled in flow communication with said storage tank, wherein said decanter is configured to receive a flow of the CO 2 slurry from said storage tank and to remove a flow of high percentage dry ice slurry from the flow of CO 2 slurry; and a second pump coupled in flow communication between said decanter and said contactor, wherein said second pump is configured to channel the flow of high percentage dry ice slurry from the CO 2 slurry to said contactor at a pressure above the CO 2 triple point pressure. a storage tank configured to store a CO 2 slurry including dry ice and liquid CO 2, wherein said storage tank stores the slurry at the CO 2 triple point temperature and pressure; a first pump coupled in flow communication with said storage tank, wherein said first pump is configured to receive the CO 2 slurry from said storage tank and to increase a pressure of the CO 2 slurry to a pressure above the CO 2 triple point pressure; a contactor coupled in flow communication with said first pump, wherein said contactor is configured to receive the high pressure CO 2 slurry from said first pump and also to receive a first flow of gaseous CO 2 at a pressure above the CO 2 triple point pressure; a decanter coupled in flow communication with said storage tank, wherein said decanter is configured to receive a flow of the CO 2 slurry from said storage tank and to remove a flow of high percentage dry ice slurry from the flow of CO 2 slurry; and a second pump coupled in flow communication between said decanter and said contactor, wherein said second pump is configured to channel the flow of high percentage dry ice slurry from the CO 2 slurry to said contactor at a pressure above the CO 2 triple point pressure.
A multilayer material comprising first and second layers comprising a chitosan and/or a chitosan derivative and a third layer located between the first and second layers comprising a reinforcing material, wherein the chitosan derivative is selected from the group consisting of partially deacetylated chitin, carboxymethyl chitosan, hydroxyl butyl chitin, N-acyl chitosan, O-acyl chitosan, N-alkyl chitosan, O-alkyl chitosan, N-alkylidene chitosan, O-sulfonyl chitosan, sulfated chitosan, phosphorylated chitosan, nitrated chitosan, alkalichitin, alkalichitosan, or metal chelates with chitosan, wherein the third layer comprises a physiologically acceptable acid selected from the group consisting of formic acid, acetic acid, ascorbic acid, halogen acetic acids, propanoic acid, propenoic acid, lactic acid, succinic acid, acrylic acid, glyoxylic acid, pyruvic acid, hydroxyl propionic/butanoic acid, sulphuric acid, hydrochloric acid, and combinations of any two or more thereof.
An antibody binding to amyloid-beta globulomer comprising: a heavy chain variable region having the amino acid sequence which is set forth in SEQ ID NO:6 or SEQ ID NO:10; and a light chain variable region having the amino acid sequence which is set forth in SEQ ID NO:14. a heavy chain variable region having the amino acid sequence which is set forth in SEQ ID NO:6 or SEQ ID NO:10; and a light chain variable region having the amino acid sequence which is set forth in SEQ ID NO:14.
A gas turbine engine comprising: a service line interface to define a gapped overlap that at least partially supports a heat shield, wherein said service line interface includes a service post that extends from a bearing support and a flanged mount mountable to said service post wherein said heat shield is trapped within a gapped interface between said service post and said flanged mount, wherein said gapped overlap provides a gap with respect to an opening in said heat shield the gas turbine engine characterised in that the heat shield is installed over said service post. a service line interface to define a gapped overlap that at least partially supports a heat shield, wherein said service line interface includes a service post that extends from a bearing support and a flanged mount mountable to said service post wherein said heat shield is trapped within a gapped interface between said service post and said flanged mount, wherein said gapped overlap provides a gap with respect to an opening in said heat shield the gas turbine engine characterised in that the heat shield is installed over said service post.
L-glutamine or an L-glutamine salt for use in treating hypertriglyceridemia, wherein 0.05 g/kg body weight to 10.0 g/kg body weight of the L-glutamine or the L-glutamine salt is ingested per day by a person having diabetes.
An evolved Node B, eNodeB, comprising: a processor and a transmit/receive unit (114, 116, 118, 136) characterized by being configured to: receive, from a wireless transmit/receive unit, WTRU, a precoding report including a plurality of precoding matrix indexes, PMIs, or codebook values, as feedback; generate a single bit PMI indicator indicating whether precoding by the eNodeB is according to the plurality of PMIs or codebook values received as feedback; and send a message including the generated single bit PMI indicator in a first field, and only a single PMI in a second field or only a single codebook value representing only the single PMI in the second field, wherein the second field is separate from the first field. a processor and a transmit/receive unit (114, 116, 118, 136) characterized by being configured to: receive, from a wireless transmit/receive unit, WTRU, a precoding report including a plurality of precoding matrix indexes, PMIs, or codebook values, as feedback; generate a single bit PMI indicator indicating whether precoding by the eNodeB is according to the plurality of PMIs or codebook values received as feedback; and send a message including the generated single bit PMI indicator in a first field, and only a single PMI in a second field or only a single codebook value representing only the single PMI in the second field, wherein the second field is separate from the first field. receive, from a wireless transmit/receive unit, WTRU, a precoding report including a plurality of precoding matrix indexes, PMIs, or codebook values, as feedback; generate a single bit PMI indicator indicating whether precoding by the eNodeB is according to the plurality of PMIs or codebook values received as feedback; and send a message including the generated single bit PMI indicator in a first field, and only a single PMI in a second field or only a single codebook value representing only the single PMI in the second field, wherein the second field is separate from the first field.
Solenoid valve, comprising a housing body formed from a thermoplastic material, a coil, and a metal yoke arranged at least partially around the coil, wherein the metal yoke is designed as a component partially surrounding the housing body and is mechanically connected thereto, and wherein the housing body is designed as an injection-molded part which encloses the coil, characterized in that electrically insulating additives are added to the thermoplastic material to increase its thermal conductivity and the housing body is formed with ribs on its outer side.
A heating fluid medium passing roller device comprising: a roller having a plurality of jackets sealed with a gas-liquid two-phase heating medium in wall thereof and a heating fluid medium flow path (1a, 3a) for passing a circulating heating fluid medium through the roller, a heating fluid medium temperature adjuster for adjusting the temperature of the heating fluid medium, and a heating fluid medium flow-rate adjuster (16; 19, 20) for adjusting the flow-rate of the heating fluid medium to be supplied into the heating fluid medium flow path of the roller, wherein the surface temperature of the roller is kept at a prescribed temperature by the heating fluid medium flowing through the heating fluid medium flow path, which is adjusted by the heating fluid medium temperature adjuster and the heating fluid medium flow-rate adjuster (16; 19, 20), characterized in that the heating fluid medium flow-rate adjuster (16; 19, 20) has a pump for circulating the heating fluid medium, and the flow-rate of the heating fluid medium to be supplied into the roller by the pump is adjusted on the basis of a difference between the surface temperature of the roller and the temperature of the heating fluid medium supplied to the heating fluid medium flow path of the roller. a roller having a plurality of jackets sealed with a gas-liquid two-phase heating medium in wall thereof and a heating fluid medium flow path (1a, 3a) for passing a circulating heating fluid medium through the roller, a heating fluid medium temperature adjuster for adjusting the temperature of the heating fluid medium, and a heating fluid medium flow-rate adjuster (16; 19, 20) for adjusting the flow-rate of the heating fluid medium to be supplied into the heating fluid medium flow path of the roller, wherein the surface temperature of the roller is kept at a prescribed temperature by the heating fluid medium flowing through the heating fluid medium flow path, which is adjusted by the heating fluid medium temperature adjuster and the heating fluid medium flow-rate adjuster (16; 19, 20), the heating fluid medium flow-rate adjuster (16; 19, 20) has a pump for circulating the heating fluid medium, and the flow-rate of the heating fluid medium to be supplied into the roller by the pump is adjusted on the basis of a difference between the surface temperature of the roller and the temperature of the heating fluid medium supplied to the heating fluid medium flow path of the roller.
A method for producing an 18 F-labeled compound, comprising: allowing a high molecular compound containing a residue of a precursor compound to be labeled and a residue of a phase transfer catalyst in the molecule thereof to react with 18 F -; and removing the 18 F-labeled compound from the high molecular compound, wherein the precursor compound to be labeled is a compound represented by the following formula or: wherein R 1, R 2, and R 3 each represent any group.