mhurhangee/ep-ind-claims huggingface dataset:
A compound of formula I: wherein X 1, is selected from keto, hydroxy, and wherein X 2 is selected from keto, hydroxy, and wherein X 3 is selected from keto, hydroxy, and wherein at least one of X 1, X 2, and X 3 are respectively; wherein R 1 or R 2 are independently selected from -CH(CH 3) 2, and -CH(CH 3)CH 2 CH 3 and pharmaceutically acceptable salts thereof.
A paper bag bottoming mechanism comprising: a bottoming drum having a first end, a second end, and a sidewall disposed therebetween, a first slideable finger and a second slideable finger, and a first actuating mechanism communicating with the first slideable finger for actuating the first slideable finger, and a second actuating mechanism communicating with the second slideable finger for actuating the second slideable finger, characterised in that the paper bag bottoming mechanism comprises a bar affixed to the bottoming drum, the bar having a first end and a second end, a first guide block attached to the first end of the bar and a second guide block attached to the second end of the bar, wherein the first slideable finger is attached to the first guide block and the second slideable finger is attached to the second guide block. a bottoming drum having a first end, a second end, and a sidewall disposed therebetween, a first slideable finger and a second slideable finger, and a first actuating mechanism communicating with the first slideable finger for actuating the first slideable finger, and a second actuating mechanism communicating with the second slideable finger for actuating the second slideable finger,
An electrical power supply system (1, 23) for an aircraft, comprising: - a plurality of generators (2, 6), each being couplable to and rotatable by an aircraft engine (4, 8), each generator (2, 6) comprising at least four AC phases (2a, 2b, 2c, 2d, 6a, 6b, 6c, 6d), and - a plurality of electrical conversion units (10, 12, 14, 16, 24, 26), each having a plurality of inputs (10a, 10b, 12a, 12b, 14a, 14b, 16a, 16b) and at least one output (10x, 12x, 14x, 16x, 24x, 26x), wherein the inputs (10a, 10b, 12a, 12b, 14a, 14b, 16a, 16b) of each individual electrical conversion unit (10, 12, 14, 16, 24, 26) are connected to a plurality of phases (2a, 2b, 2c, 2d, 6a, 6b, 6c, 6d) of at least two of the plurality of generators (2, 6), wherein the electrical conversion units (10, 12, 14, 16, 24, 26) each comprise a rectification and conversion device for providing an output voltage having a predeterminable frequency and voltage level at the output (10x, 12x, 14x, 16x, 24x, 26x). - a plurality of generators (2, 6), each being couplable to and rotatable by an aircraft engine (4, 8), each generator (2, 6) comprising at least four AC phases (2a, 2b, 2c, 2d, 6a, 6b, 6c, 6d), and - a plurality of electrical conversion units (10, 12, 14, 16, 24, 26), each having a plurality of inputs (10a, 10b, 12a, 12b, 14a, 14b, 16a, 16b) and at least one output (10x, 12x, 14x, 16x, 24x, 26x), wherein the inputs (10a, 10b, 12a, 12b, 14a, 14b, 16a, 16b) of each individual electrical conversion unit (10, 12, 14, 16, 24, 26) are connected to a plurality of phases (2a, 2b, 2c, 2d, 6a, 6b, 6c, 6d) of at least two of the plurality of generators (2, 6),
Method of determining an electromagnetic response of a sample structure having a predetermined bulk permittivity and permeability, to electron and radiation pulses, comprising the steps of: calculating an electron pulse response of the sample structure to an electron pulse excitation, using a finite-difference time-domain method, wherein the electron pulse excitation is represented by a non-singular current source driven by relativistic moving non-Coulombian electron charges, the electron pulse response is calculated on the basis of an interaction of the electron pulse excitation with electromagnetic modes of the sample structure at the laboratory frame, and the electron pulse response depends on the bulk permittivity and permeability of the sample structure, calculating a radiation response of the sample structure to an electromagnetic radiation excitation, using a finite-difference time-domain method, wherein the radiation response depends on the bulk permittivity and permeability of the sample structure, and providing the electromagnetic response of the sample structure by superimposing the electron pulse response of step and the radiation response of step, wherein the electromagnetic response comprises at least one of electron-energy-loss spectra of the sample structure and an experienced phase of electron wave functions after interacting with photons of the electromagnetic radiation excitation. calculating an electron pulse response of the sample structure to an electron pulse excitation, using a finite-difference time-domain method, wherein the electron pulse excitation is represented by a non-singular current source driven by relativistic moving non-Coulombian electron charges, the electron pulse response is calculated on the basis of an interaction of the electron pulse excitation with electromagnetic modes of the sample structure at the laboratory frame, and the electron pulse response depends on the bulk permittivity and permeability of the sample structure, calculating a radiation response of the sample structure to an electromagnetic radiation excitation, using a finite-difference time-domain method, wherein the radiation response depends on the bulk permittivity and permeability of the sample structure, and providing the electromagnetic response of the sample structure by superimposing the electron pulse response of step and the radiation response of step, wherein the electromagnetic response comprises at least one of electron-energy-loss spectra of the sample structure and an experienced phase of electron wave functions after interacting with photons of the electromagnetic radiation excitation.
A portable electronic device comprising - one or more integrated temperature sensors for measuring an ambient temperature, - a dynamic compensator (25,26) for reducing a difference between a sensor output (Ts) and the ambient temperature in response to a change in the ambient temperature (Ta), wherein the dynamic compensator (25,26) is adapted to switch depending on a predefined condition between at least one dynamic compensation mode (mode 1) for ambient temperature changes to lower temperatures and at least one different dynamic compensation mode (mode 2) for ambient temperature changes to higher temperatures. - one or more integrated temperature sensors for measuring an ambient temperature, - a dynamic compensator (25,26) for reducing a difference between a sensor output (Ts) and the ambient temperature in response to a change in the ambient temperature (Ta),
An embossing apparatus, comprising an upper pressure foot and a lower pressure foot, which are arranged movably relative towards each other by means of a drive unit by applying an embossing pressure against an interposed workpiece, wherein the drive unit is arranged as a drive spindle and is associated with the upper pressure foot or the lower pressure foot, characterized in that a pressure cell for monitoring the embossing pressure is associated with one of the pressure feet (20, 40) and is data-connected to a drive control unit for controlling the advance of the drive spindle.
Lattice structure forming a flat or undulate bearing grid or protective grid which is only slightly deformed even in the case of high loads, consisting of intersecting longitudinal and transversal elements (2, 2', 2", 12, 22 respectively 3, 3', 3", 13, 23), with intersection points allocated to said longitudinal and transversal elements (2, 2', 2", 12, 22 respectively 3, 3', 3", 13, 23), the longitudinal and transversal elements being situated in a plane and oriented at right angles or with other intersection angles with respect to one another, wherein the longitudinal elements are embodied as strands and wherein the transversal elements are in the intersection points passed through the wires of the longitudinal elements realized as strands, and are thus connected to one another, being passed into one another, in such a way that the transversal elements are clamped between the wires of the longitudinal elements which form the strands; and in this way non-displaceable nodes are formed in the intersection points, characterised in that the longitudinal and transversal elements are formed by strands of respectively two or more than two twisted wires, the longitudinal and transversal elements being made at least partially of high-tensile steel having a strength of 700 N/mm 2 to 2,800 N/mm 2, the transversal elements being in the intersection points passed through the wires of the longitudinal elements formed as strands, which have a constant direction of lay, and the transversal elements being clamped between the longitudinal elements in a form-fit manner. consisting of intersecting longitudinal and transversal elements (2, 2', 2", 12, 22 respectively 3, 3', 3", 13, 23), with intersection points allocated to said longitudinal and transversal elements (2, 2', 2", 12, 22 respectively 3, 3', 3", 13, 23), the longitudinal and transversal elements being situated in a plane and oriented at right angles or with other intersection angles with respect to one another, wherein the longitudinal elements are embodied as strands and wherein the transversal elements are in the intersection points passed through the wires of the longitudinal elements realized as strands, and are thus connected to one another, being passed into one another, in such a way that the transversal elements are clamped between the wires of the longitudinal elements which form the strands; and in this way non-displaceable nodes are formed in the intersection points, characterised in that the longitudinal and transversal elements are formed by strands of respectively two or more than two twisted wires, the longitudinal and transversal elements being made at least partially of high-tensile steel having a strength of 700 N/mm 2 to 2,800 N/mm 2, the transversal elements being in the intersection points passed through the wires of the longitudinal elements formed as strands, which have a constant direction of lay, and the transversal elements being clamped between the longitudinal elements in a form-fit manner.
A hydrofluorination process which comprises reacting a fluoroolefin with anhydrous liquid HF to form a fluoroalkane in the liquid phase in the presence of a hydrofluorination catalyst in the reaction zone of a reactor, said reactor comprised of a reactor body having a length to diameter ratio of 2:1 or greater; a stirred reaction zone containing said hydrofluorination catalyst, at least one inlet for supplying said HF and fluoroolefin to the reaction zone and at least one outlet for recovering said fluoroalkane, a stirrer disposed in the reaction zone and comprising a plurality of blades fixedly attached to a shaft drivable by a motor, said blades extending from the bottom of the reaction zone to the top of the reaction zone and said shaft extending on a longitudinal axis from the bottom of the reactor to the top of the reactor, said stirrer being rotated at a speed sufficient to form said hydrofluorination catalyst, to minimize channeling and to promote a swirling of the liquid to permit said mixing of the catalyst and fluoroolefin with the HF to effect the occurrence of hydrofluorination reaction with conversion of 90% or greater and a selectivity of 90% greater per catalytic run and avoid overfluorination, said stirrer being spun at a rotational speed ranging from 1 rpm to 200 rpm, wherein the stirrer includes a multi-bladed stirrer with a plurality of offset stirrer blades.
A control system for a lawn mower comprising a body and a motor for driving a driving wheel provided to the body, the control system characterized by comprising: a slip ratio calculating section for calculating a slip ratio indicating a magnitude of slip while the lawn mower travels; a friction coefficient calculating section for calculating a friction coefficient of a ground on which the lawn mower is traveling; a determination section for determining whether the ground on which the lawn mower is traveling is a lawn when the slip ratio (λ) calculated by the slip ratio calculating section is within a first range and the friction coefficient (μ) calculated by the friction coefficient calculating section is within a second range; and a drive controlling section for controlling the motor based on a determination result from the determination section. a slip ratio calculating section for calculating a slip ratio indicating a magnitude of slip while the lawn mower travels; a friction coefficient calculating section for calculating a friction coefficient of a ground on which the lawn mower is traveling; a determination section for determining whether the ground on which the lawn mower is traveling is a lawn when the slip ratio (λ) calculated by the slip ratio calculating section is within a first range and the friction coefficient (μ) calculated by the friction coefficient calculating section is within a second range; and a drive controlling section for controlling the motor based on a determination result from the determination section.
A tire vulcanization mold, comprising: a tread molding surface comprising a groove molding portion and a land portion molding portion, characterised in that a surface roughness Ra in the groove molding portion being smaller than a surface roughness Ra in the land portion molding portion, wherein in the groove molding portion, a surface roughness Ra being the smallest at 0.12 μm or less in a range comprising at least a main groove molding portion, and a surface roughness Ra in the land portion molding portion being 3.2 μm or more. a tread molding surface comprising a groove molding portion and a land portion molding portion, characterised in that a surface roughness Ra in the groove molding portion being smaller than a surface roughness Ra in the land portion molding portion, wherein in the groove molding portion, a surface roughness Ra being the smallest at 0.12 μm or less in a range comprising at least a main groove molding portion, and a surface roughness Ra in the land portion molding portion being 3.2 μm or more.
Method for operating a compressor of a turbomachine, wherein, when considered in the direction of a main flow, a gradually decreasing degree of reaction is rapidly increased in a compressor region, and the increased degree of reaction is then gradually reduced again.
An apparatus comprising a processor configured to: acquire correlation signals by correlating a photodetected signal with respective phase-shifted reference signals, the correlation signals comprising quadrature correlation signals and in-phase correlation signals, wherein the processor is configured in such a way that the mean time of acquisition of the quadrature correlation signals and the mean time of acquisition of the in-phase correlation signals are equal or substantially equal, characterized in that the processor is configured to first acquire subsequently a first set of correlation signals based on 0° and then on 90° phase-shifted reference signals, and then acquire subsequently a second set of correlation signals based on 210° and then on 120° phase-shifted reference signals. acquire correlation signals by correlating a photodetected signal with respective phase-shifted reference signals, the correlation signals comprising quadrature correlation signals and in-phase correlation signals, wherein the processor is configured in such a way that the mean time of acquisition of the quadrature correlation signals and the mean time of acquisition of the in-phase correlation signals are equal or substantially equal, characterized in that the processor is configured to first acquire subsequently a first set of correlation signals based on 0° and then on 90° phase-shifted reference signals, and then acquire subsequently a second set of correlation signals based on 210° and then on 120° phase-shifted reference signals.
A refrigerator comprising: a door mounted to a body having a refrigerating compartment, the door is configured to open the refrigerating compartment; an ice making compartment provided at the door; an ice making device arranged in the ice making compartment; an ice making tray provided at the ice making device and configured to receive and retain liquid to be frozen into ice; a water supply hose arranged over the ice making tray; a water supply guide configured to receive water discharged from the water supply hose, and to guide the received water to the ice making tray; a cold air inlet provided at the ice making compartment and configured to allow cold air to be introduced into the ice making compartment; and a cold air guide configured to guide cold air entering the ice making compartment through the cold air inlet toward the ice making tray, characterized in that it comprises a water spattering preventing plate arranged at one side of the ice making tray, wherein the ice making tray is formed of a molded plastic product and wherein the cold air guide is installed above the ice making tray, such that the cold air guide is spaced apart from the ice making tray. a door mounted to a body having a refrigerating compartment, the door is configured to open the refrigerating compartment; an ice making compartment provided at the door; an ice making device arranged in the ice making compartment; an ice making tray provided at the ice making device and configured to receive and retain liquid to be frozen into ice; a water supply hose arranged over the ice making tray; a water supply guide configured to receive water discharged from the water supply hose, and to guide the received water to the ice making tray; a cold air inlet provided at the ice making compartment and configured to allow cold air to be introduced into the ice making compartment; and a cold air guide configured to guide cold air entering the ice making compartment through the cold air inlet toward the ice making tray, characterized in that it comprises a water spattering preventing plate arranged at one side of the ice making tray, wherein the ice making tray is formed of a molded plastic product and wherein the cold air guide is installed above the ice making tray, such that the cold air guide is spaced apart from the ice making tray.
An article (3,4,5,6,7) having an inner article layer and an outer article layer to be worn by a mammal comprising a thermally insulating layer of a reflective metalized polymeric insulation material adjacent to at least one of said inner and outer article layers; said reflective metalized polymeric insulation material comprising a first bubble pack assembly including a first thermoplastic film having a plurality of portions wherein each of said portions defines a cavity and a second thermoplastic film in sealed engagement with said first film to provide a plurality of closed-cell cavities; said reflective metalized polymeric insulation material further characterized in having a plurality of frusto-conically shaped apertures suitably sized and interposed between said closed-cell cavities such that said article has the narrower dimension of said frusto-conically shaped apertures oriented distal to said mammal to effect transference of moisture vapour through said apertures from interior said article without substantial ingress of external air through the apertures. said reflective metalized polymeric insulation material comprising a first bubble pack assembly including a first thermoplastic film having a plurality of portions wherein each of said portions defines a cavity and a second thermoplastic film in sealed engagement with said first film to provide a plurality of closed-cell cavities; said reflective metalized polymeric insulation material further characterized in having a plurality of frusto-conically shaped apertures suitably sized and interposed between said closed-cell cavities such that said article has the narrower dimension of said frusto-conically shaped apertures oriented distal to said mammal to effect transference of moisture vapour through said apertures from interior said article without substantial ingress of external air through the apertures.
A method for preparing a functionalized graphene comprising the steps of: 1) mixing graphene with a salt containing a double bond to prepare a mixture; and 2) heat-treating the mixture, which consists of graphene and the salt containing a double bond, at 150 to 300°C, wherein the salt containing a double bond is a compound represented by the following Chemical Formula 1 or 2: in Chemical Formula 1, R 1 is a single bond; a substituted or unsubstituted alkylene having 1 to 60 carbon atoms; or a substituted or unsubstituted arylene having 6 to 60 carbon atoms, X 1 is CO, or SO 2, and M 1 is an alkali metal, [Chemical Formula 2] M 2 O-x 2 -R 2 -x 2 -OM 2 in Chemical Formula 2, R 2 is a substituted or unsubstituted alkenylene having 1 to 60 carbon atoms, X 2 is CO, or SO 2, and M 2 is an alkali metal. 1) mixing graphene with a salt containing a double bond to prepare a mixture; and 2) heat-treating the mixture, which consists of graphene and the salt containing a double bond, at 150 to 300°C, wherein the salt containing a double bond is a compound represented by the following Chemical Formula 1 or 2: in Chemical Formula 1, R 1 is a single bond; a substituted or unsubstituted alkylene having 1 to 60 carbon atoms; or a substituted or unsubstituted arylene having 6 to 60 carbon atoms, X 1 is CO, or SO 2, and M 1 is an alkali metal, [Chemical Formula 2] M 2 O-x 2 -R 2 -x 2 -OM 2 in Chemical Formula 2, R 2 is a substituted or unsubstituted alkenylene having 1 to 60 carbon atoms, X 2 is CO, or SO 2, and M 2 is an alkali metal. wherein the salt containing a double bond is a compound represented by the following Chemical Formula 1 or 2: in Chemical Formula 1, R 1 is a single bond; a substituted or unsubstituted alkylene having 1 to 60 carbon atoms; or a substituted or unsubstituted arylene having 6 to 60 carbon atoms, X 1 is CO, or SO 2, and M 1 is an alkali metal, [Chemical Formula 2] M 2 O-x 2 -R 2 -x 2 -OM 2 in Chemical Formula 2, R 2 is a substituted or unsubstituted alkenylene having 1 to 60 carbon atoms, X 2 is CO, or SO 2, and M 2 is an alkali metal.
A method of transmitting data from an ultrasonic tag to an ultrasonic reader comprising: generating and transmitting an ultrasonic sound pressure wave; receiving the ultrasonic sound pressure wave at a first ultrasonic repeater to receive a signal from the ultrasonic tag; determining, by the first ultrasonic repeater, a sound pressure level of the received ultrasonic sound pressure wave, and if this sound pressure level is below a predetermined threshold, deciding that the received ultrasonic sound pressure wave was not processed at the ultrasonic reader; outputting, by the first ultrasonic repeater, another ultrasonic sound pressure wave carrying one of the signal received from the ultrasonic tag and a processed signal that is modified from the signal received from the ultrasonic tag; and processing the output ultrasonic sound pressure wave at the ultrasonic reader. generating and transmitting an ultrasonic sound pressure wave; receiving the ultrasonic sound pressure wave at a first ultrasonic repeater to receive a signal from the ultrasonic tag; determining, by the first ultrasonic repeater, a sound pressure level of the received ultrasonic sound pressure wave, and if this sound pressure level is below a predetermined threshold, deciding that the received ultrasonic sound pressure wave was not processed at the ultrasonic reader; outputting, by the first ultrasonic repeater, another ultrasonic sound pressure wave carrying one of the signal received from the ultrasonic tag and a processed signal that is modified from the signal received from the ultrasonic tag; and processing the output ultrasonic sound pressure wave at the ultrasonic reader.
Amorphous -2-(4-chlorophenyl)-1-(4-((5R,7R)-7-hydroxy-5-methyl-6,7-dihydro-5H-cyclopenta[d]pyrimidin-4-yl)piperazin-1-yl)-3-(isopropylamino)propan-1-one monohydrochloride.