mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing a compound represented by Chemical Formula 1 below, comprising the step of: 1) reacting a compound represented by Chemical Formula 2 below with a compound represented by Chemical Formula 3 below in the presence of a palladium catalyst to prepare a compound represented by Chemical Formula 4 below; 2) reacting the compound represented by Chemical Formula 4 with an oxidant to prepare a compound represented by Chemical Formula 5 below; and 3) reacting the compound represented by Chemical Formula 5 with a compound represented by Chemical Formula 6 below, to yield the compound of Chemical Formula 1. [Chemical Formula 3] R 1 Hal wherein M is B 2, B( i -Pr) 2, Sn(CH 3) 3, or SnBu 3, XisCHorN, Y is CR 5 or N, R 1 is R 2 and R 3 each are hydrogen or R 2 and R 3 together form a benzene ring, R 4 is halogen, unsubstituted or halogen-substituted C 1-5 alkyl, or morpholino, R 5 is hydrogen, halogen, or unsubstituted or halogen-substituted C 1-3 alkyl, and R 6 is hydrogen, halogen, or unsubstituted or halogen-substituted C 1-3 alkyl. 1) reacting a compound represented by Chemical Formula 2 below with a compound represented by Chemical Formula 3 below in the presence of a palladium catalyst to prepare a compound represented by Chemical Formula 4 below; 2) reacting the compound represented by Chemical Formula 4 with an oxidant to prepare a compound represented by Chemical Formula 5 below; and 3) reacting the compound represented by Chemical Formula 5 with a compound represented by Chemical Formula 6 below, to yield the compound of Chemical Formula 1. [Chemical Formula 3] R 1 Hal wherein M is B 2, B( i -Pr) 2, Sn(CH 3) 3, or SnBu 3, XisCHorN, Y is CR 5 or N, R 1 is R 2 and R 3 each are hydrogen or R 2 and R 3 together form a benzene ring, R 4 is halogen, unsubstituted or halogen-substituted C 1-5 alkyl, or morpholino, R 5 is hydrogen, halogen, or unsubstituted or halogen-substituted C 1-3 alkyl, and R 6 is hydrogen, halogen, or unsubstituted or halogen-substituted C 1-3 alkyl.
A method of electricity production using water thermal energy, the method comprising: - compressing an enclosed working fluid at a first depth of a body of water to cause the enclosed working fluid to ascend to a second depth of the body of water and subsequently descend to the first depth in a closed loop, the water at the second depth having a greater temperature than the water at the first depth such that the enclosed working fluid transitions to a liquid phase at the first depth and to a vapor phase at the second depth, the compressing using power from a battery; - expanding the enclosed working fluid at the second depth to generate electricity to charge the battery; propelling an apparatus that houses the closed loop through the body of water using power from the battery - transitioning the apparatus from a stationary configuration to a mobile configuration in which drag is reduced relative to the stationary configuration as the apparatus is propelled through the body of water. - compressing an enclosed working fluid at a first depth of a body of water to cause the enclosed working fluid to ascend to a second depth of the body of water and subsequently descend to the first depth in a closed loop, the water at the second depth having a greater temperature than the water at the first depth such that the enclosed working fluid transitions to a liquid phase at the first depth and to a vapor phase at the second depth, the compressing using power from a battery; - expanding the enclosed working fluid at the second depth to generate electricity to charge the battery; propelling an apparatus that houses the closed loop through the body of water using power from the battery - transitioning the apparatus from a stationary configuration to a mobile configuration in which drag is reduced relative to the stationary configuration as the apparatus is propelled through the body of water.
An integrated glazing unit, comprising: (a) a first pane comprising a first pane edge; (b) an electronic laminate comprising: - a first substrate, - a second substrate, - an electronic device provided between the first and second substrate, - a plurality of terminals coupled to the electronic device, - a laminate edge recessed with respect to the first pane edge; and wherein the first substrate is attached to the first pane; (c) a flexible circuit board electrically coupled to at least a portion of the plurality of terminals and comprising an extended portion protruding out of the laminate edge and comprising a free end; (d) a second pane comprising a second pane edge and attached to a spacer of height measured normal to the second pane, maintaining a distance between the second pane and the second substrate, said spacer being recessed with respect to the laminate edge and the second pane edge; and wherein the extended portion of the flexible circuit board is flush with or recessed from the second pane edge, characterized in that, the free end is located within a coupling volume having a rectangular cross-section normal to the second pane edge and a height and being defined by the second pane and the spacer. (a) a first pane comprising a first pane edge; (b) an electronic laminate comprising: - a first substrate, - a second substrate, - an electronic device provided between the first and second substrate, - a plurality of terminals coupled to the electronic device, - a laminate edge recessed with respect to the first pane edge; and wherein the first substrate is attached to the first pane; - a first substrate, - a second substrate, - an electronic device provided between the first and second substrate, - a plurality of terminals coupled to the electronic device, - a laminate edge recessed with respect to the first pane edge; and (c) a flexible circuit board electrically coupled to at least a portion of the plurality of terminals and comprising an extended portion protruding out of the laminate edge and comprising a free end; (d) a second pane comprising a second pane edge and attached to a spacer of height measured normal to the second pane, maintaining a distance between the second pane and the second substrate, said spacer being recessed with respect to the laminate edge and the second pane edge; and wherein the extended portion of the flexible circuit board is flush with or recessed from the second pane edge, characterized in that, the free end is located within a coupling volume having a rectangular cross-section normal to the second pane edge and a height and being defined by the second pane and the spacer. and wherein the extended portion of the flexible circuit board is flush with or recessed from the second pane edge, characterized in that, the free end is located within a coupling volume having a rectangular cross-section normal to the second pane edge and a height and being defined by the second pane and the spacer.
A welding promoting element for an opening device, said welding promoting element being insertable into a lid of said opening device to connect said lid to a closing element closing a pouring opening of said opening device, said welding promoting element comprising a sheet element, wherein said sheet element comprises a layer of electrically conductive material, a first layer of heat-sealable plastic material and a second layer of heat-sealable plastic material arranged on opposite sides of said layer, characterized in that said layer has a thickness comprised in the range 5-15 μm and each of said first layer and second layer has a thickness comprised in the range 10-50 μm, and in that said first layer comprises a first layer element and a further first layer element, said further first layer element being interposed between said first layer element and said layer, and wherein said second layer comprises a second layer element and a further second layer element, said further second layer element being interposed between said second layer element and said layer.
A saccharide of general formula ( II-a) wherein n is an integer selected from 1, 2 and 3; V*- represents H-; -L- is selected from: -L a -, -L a -L e -, -L a -L b -L e - and -L a -L d -L e -; -L a - is selected from: -(CH 2) o -, -(CH 2 -CH 2 -O) o -C 2 H 4 - and -(CH 2 -CH 2 -O) o -CH 2; -L b - represents -O-; -L d - is selected from: -(CH 2) q -, -(CF 2) q -, -(CH 2 -CH 2 -O) q -C 2 H 4 -, and -(CH 2 -CH 2 -O) q -CH 2 -; -L e - is selected from: -(CH 2) p1 -, -(CF 2) p1 -, -C 2 H 4 -(O-CH 2 -CH 2) p1 -, -CH 2 -(O-CH 2 -CH 2) p1 - and -(CH 2) p1 -O-(CH 2) p2 -; o, q, p1 and p2 are independently of each other an integer selected from 1, 2, 3, 4, 5, and 6; or a diastereoisomer or a pharmaceutically acceptable salt thereof. n is an integer selected from 1, 2 and 3; V*- represents H-; -L- is selected from: -L a -, -L a -L e -, -L a -L b -L e - and -L a -L d -L e -; -L a - is selected from: -(CH 2) o -, -(CH 2 -CH 2 -O) o -C 2 H 4 - and -(CH 2 -CH 2 -O) o -CH 2; -L b - represents -O-; -L d - is selected from: -(CH 2) q -, -(CF 2) q -, -(CH 2 -CH 2 -O) q -C 2 H 4 -, and -(CH 2 -CH 2 -O) q -CH 2 -; -L e - is selected from: -(CH 2) p1 -, -(CF 2) p1 -, -C 2 H 4 -(O-CH 2 -CH 2) p1 -, -CH 2 -(O-CH 2 -CH 2) p1 - and -(CH 2) p1 -O-(CH 2) p2 -; o, q, p1 and p2 are independently of each other an integer selected from 1, 2, 3, 4, 5, and 6;
A solid CO 2 adsorbent material system, comprising: a boiler which burns a fossil fuel to generate steam and exhaust gas; a steam turbine (11 to 13) which is driven by the steam; a condenser which condenses the steam after driving the steam turbine (11 to 13); a deaerator and a feed water heater (16 to 19) which heats water condensed by the condenser using steam of the steam turbine (11 to 13); and a packed tower in which a solid adsorbent material for adsorbing CO 2 is placed and CO 2 in the exhaust gas is adsorbed by the solid adsorbent material when the exhaust gas is supplied thereto; wherein water condensed by the condenser is supplied to the packed tower as a heat transfer medium, and the water as a heat transfer medium transfers heat to the solid adsorbent material in a non-contact manner to cool the solid adsorbent material having CO 2 adsorbed thereon, and then is discharged from the packed tower and supplied to the feed water heater (16 to 19) or the deaerator. a boiler which burns a fossil fuel to generate steam and exhaust gas; a steam turbine (11 to 13) which is driven by the steam; a condenser which condenses the steam after driving the steam turbine (11 to 13); a deaerator and a feed water heater (16 to 19) which heats water condensed by the condenser using steam of the steam turbine (11 to 13); and a packed tower in which a solid adsorbent material for adsorbing CO 2 is placed and CO 2 in the exhaust gas is adsorbed by the solid adsorbent material when the exhaust gas is supplied thereto; wherein water condensed by the condenser is supplied to the packed tower as a heat transfer medium, and the water as a heat transfer medium transfers heat to the solid adsorbent material in a non-contact manner to cool the solid adsorbent material having CO 2 adsorbed thereon, and then is discharged from the packed tower and supplied to the feed water heater (16 to 19) or the deaerator.
A mirror actuation mechanism, comprising: a support body defining a first track extending along an arcuate path between first and second ends (22, 24); a mounting plate rotatably coupled with the support body at a first end thereof and defining a second track having a first end alternately alignable with the first end and the second end of the first track and a second end alignable with an apex of the arcuate path; a toggle unit rotatably fixed with respect to the support body and rotatable about an axis between first and second positions, a first arm extending from the toggle unit and defining an opening therein having a resting end alignable with the first end of the second track and two opposite, facing cam surfaces (48, 50) extending away from the resting end; and an actuation pin extending through the first track, the second track, and the opening. a support body defining a first track extending along an arcuate path between first and second ends (22, 24); a mounting plate rotatably coupled with the support body at a first end thereof and defining a second track having a first end alternately alignable with the first end and the second end of the first track and a second end alignable with an apex of the arcuate path; a toggle unit rotatably fixed with respect to the support body and rotatable about an axis between first and second positions, a first arm extending from the toggle unit and defining an opening therein having a resting end alignable with the first end of the second track and two opposite, facing cam surfaces (48, 50) extending away from the resting end; and an actuation pin extending through the first track, the second track, and the opening.
An apparatus for wireless communications at a user equipment, UE, comprising: a memory; and one or more processors coupled to the memory, the memory and the one or more processors configured to: transmit a scheduling request for requesting a resource allocation on which to transmit information to a base station, the scheduling request includes information associated with an artificial intelligence module of a plurality of artificial intelligence modules of the UE, wherein the information comprise one or more weights and/or parameters for encoding uplink communications of the UE by means of an encoder neural network associated with a respective set of weights and/or parameters; and receive an uplink grant for the requested resource allocation via downlink control information, DCI, wherein the requested resource allocation has a size corresponding to the set of weights and/or parameters of the encoder neural network of the artificial intelligence module indicated by the scheduling request. a memory; and one or more processors coupled to the memory, the memory and the one or more processors configured to: transmit a scheduling request for requesting a resource allocation on which to transmit information to a base station, the scheduling request includes information associated with an artificial intelligence module of a plurality of artificial intelligence modules of the UE, wherein the information comprise one or more weights and/or parameters for encoding uplink communications of the UE by means of an encoder neural network associated with a respective set of weights and/or parameters; and receive an uplink grant for the requested resource allocation via downlink control information, DCI, wherein the requested resource allocation has a size corresponding to the set of weights and/or parameters of the encoder neural network of the artificial intelligence module indicated by the scheduling request. transmit a scheduling request for requesting a resource allocation on which to transmit information to a base station, the scheduling request includes information associated with an artificial intelligence module of a plurality of artificial intelligence modules of the UE, wherein the information comprise one or more weights and/or parameters for encoding uplink communications of the UE by means of an encoder neural network associated with a respective set of weights and/or parameters; and receive an uplink grant for the requested resource allocation via downlink control information, DCI, wherein the requested resource allocation has a size corresponding to the set of weights and/or parameters of the encoder neural network of the artificial intelligence module indicated by the scheduling request.
Device for monitoring the position and movement of a brake pedal for use within a brake system for motor vehicles, comprising: a brake actuating unit having a brake power assist unit having a power assist unit housing that is divided into at least one vacuum chamber and at least one working chamber by means of at least one axially movable wall which can be influenced by a pneumatic differential pressure, wherein the movable wall is embodied as a membrane disk, which is supported on a control valve housing, and a membrane that lies on said membrane disk, and a position indicator for monitoring the position of the brake pedal, which position indicator transmits signals to a sensor element that can be connected to an electronic control unit, wherein the position indicator is provided on a support that is coupled to the movement of the control valve housing or to the movable wall that is supported by the control valve housing, which support is guided in a housing of the sensor element, characterized in that a master cylinder is fastened to the brake power assist unit and comprises a housing and at least one piston which can be displaced in a linear manner in said master cylinder, and the housing of the sensor element penetrates in a vacuum-tight manner the power assist unit housing and the housing of the master cylinder having a first housing section. a brake actuating unit having a brake power assist unit having a power assist unit housing that is divided into at least one vacuum chamber and at least one working chamber by means of at least one axially movable wall which can be influenced by a pneumatic differential pressure, wherein the movable wall is embodied as a membrane disk, which is supported on a control valve housing, and a membrane that lies on said membrane disk, and a position indicator for monitoring the position of the brake pedal, which position indicator transmits signals to a sensor element that can be connected to an electronic control unit, wherein the position indicator is provided on a support that is coupled to the movement of the control valve housing or to the movable wall that is supported by the control valve housing, which support is guided in a housing of the sensor element, characterized in that a master cylinder is fastened to the brake power assist unit and comprises a housing and at least one piston which can be displaced in a linear manner in said master cylinder, and the housing of the sensor element penetrates in a vacuum-tight manner the power assist unit housing and the housing of the master cylinder having a first housing section.
A tube seal, comprising: a rigid cylindrical tube having a constant inner diameter made from metal including a pair of recessed annular grooves provided in an outer surface thereof at each end (18, 20) of said cylindrical tube; and an elastomeric seal body molded to said outer surface of said cylindrical tube so as to be received in said recessed groove, said seal body including a raised seal bead portion at each end of said seal body, characterized in that the raised seal bead portions are disposed radially outward from the recessed annular grooves so that the grooves are located directly under the seal bead portions.
Method for operating a display device of a motor vehicle, the method comprising, performed by a control unit: - receiving a driving situation signal of a sensor module (32, S3), whereby the received driving situation signal describes a driving situation in the surroundings of the motor vehicle, - on basis of the received driving situation signal: determining whether the driving situation fulfils a predetermined danger criterion, whereby the provided danger criterion describes a predetermined minimum probability that the motor vehicle is in an imminent dangerous traffic situation, - if the predetermined danger criterion is fulfilled: providing a display control signal that describes a switching of a screen to a danger mode, in which a part of the surroundings of the motor vehicle is visible on or through said screen of the display device (16, S5), - sending said provided display control signal to the display device (16, S6), and - if the predetermined danger criterion is fulfilled: providing a displacement signal that describes a transition of the screen from an exposed position, in which the screen is placed in a visual field of a user of the motor vehicle, to a stowed position, in which the screen is placed outside said visual field. - receiving a driving situation signal of a sensor module (32, S3), whereby the received driving situation signal describes a driving situation in the surroundings of the motor vehicle, - on basis of the received driving situation signal: determining whether the driving situation fulfils a predetermined danger criterion, whereby the provided danger criterion describes a predetermined minimum probability that the motor vehicle is in an imminent dangerous traffic situation, - if the predetermined danger criterion is fulfilled: providing a display control signal that describes a switching of a screen to a danger mode, in which a part of the surroundings of the motor vehicle is visible on or through said screen of the display device (16, S5), - sending said provided display control signal to the display device (16, S6), and - if the predetermined danger criterion is fulfilled: providing a displacement signal that describes a transition of the screen from an exposed position, in which the screen is placed in a visual field of a user of the motor vehicle, to a stowed position, in which the screen is placed outside said visual field.
A process for coating a substrate in a rotating drum, wherein a pocket is created in a substrate bed by a plow means, into which pocket coating materials are delivered, characterized in that the coating materials are delivered behind the plow means.
A superconducting neuromorphic core (100, 500) comprising: input lines (112, 512) configured to receive single flux quantum, SFQ, pulses; a superconducting digital memory array (104, 504) configured to store synapse weight values in columns corresponding to different neural synapses that provide inputs to a single neuron simulated by the neuromorphic core and in rows corresponding to different neurons sequentially simulated by the neuromorphic core; a superconducting digital accumulator (106, 506) configured to sum synapse weight values retrieved from the memory array during an accumulation time period; a superconducting digital-to-analog converter (108, 508) configured to convert the summed-weight accumulator output into an analog signal; and superconducting analog soma circuitry (110, 510, 600) configured to provide an SFQ pulse as an output of the neuromorphic core based on the analog signal exceeding a threshold. input lines (112, 512) configured to receive single flux quantum, SFQ, pulses; a superconducting digital memory array (104, 504) configured to store synapse weight values in columns corresponding to different neural synapses that provide inputs to a single neuron simulated by the neuromorphic core and in rows corresponding to different neurons sequentially simulated by the neuromorphic core; a superconducting digital accumulator (106, 506) configured to sum synapse weight values retrieved from the memory array during an accumulation time period; a superconducting digital-to-analog converter (108, 508) configured to convert the summed-weight accumulator output into an analog signal; and superconducting analog soma circuitry (110, 510, 600) configured to provide an SFQ pulse as an output of the neuromorphic core based on the analog signal exceeding a threshold.