mhurhangee/patent-ind-claim-en huggingface dataset:
A composition comprising at least one carrier and one or more compounds having structural Formula (III): or a salt or solvate thereof; wherein Ar is optionally substituted aryl; X 1 -X 2 is O-CR 2a R 2b or CH=CH; R 1 is a C 1-10 alkyl, an optionally substituted heteroaryl selected from the group consisting of pyrrolyl, furanyl, thienyl, pyrazolyl, triazolyl, oxazolyl, thiazolyl, pyridyl, pyrimidyl, and triazinyl, or an optionally substituted aryl; R 2a and R 2b are hydrogen; and Z 1 and Z 2 are independently nitrogen or CH, provided that Z 1 and Z 2 are not both nitrogen; wherein the optional substituent of Ar is one or more of a group consisting of C 1-10 alkyl, alkenyl selected from the group consisting of ethenyl, propenyl, and butenyl, alkoxy represented by -O-R 199 , wherein R 199 is a C 1-10 alkyl, hydroxyl, halo, nitro, cyano, or two substituents, together with the atoms to which they are attached, form an optionally substituted C 3 -C 7 carbocyclyl or 5-7 membered heterocyclyl containing one or more heteroatom(s) selected from nitrogen, oxygen, and sulfur; wherein the optional substituent of R 1 is one or more of a group consisting of C 1-10 alkyl, alkenyl selected from the group consisting of ethenyl, propenyl, and butenyl, alkoxy represented by -O-R 199 , wherein R 199 is a C 1-10 alkyl, hydroxyl, halo, nitro, or cyano. Ar is optionally substituted aryl; X 1 -X 2 is O-CR 2a R 2b or CH=CH; R 1 is a C 1-10 alkyl, an optionally substituted heteroaryl selected from the group consisting of pyrrolyl, furanyl, thienyl, pyrazolyl, triazolyl, oxazolyl, thiazolyl, pyridyl, pyrimidyl, and triazinyl, or an optionally substituted aryl; R 2a and R 2b are hydrogen; and Z 1 and Z 2 are independently nitrogen or CH, provided that Z 1 and Z 2 are not both nitrogen; wherein the optional substituent of Ar is one or more of a group consisting of C 1-10 alkyl, alkenyl selected from the group consisting of ethenyl, propenyl, and butenyl, alkoxy represented by -O-R 199 , wherein R 199 is a C 1-10 alkyl, hydroxyl, halo, nitro, cyano, or two substituents, together with the atoms to which they are attached, form an optionally substituted C 3 -C 7 carbocyclyl or 5-7 membered heterocyclyl containing one or more heteroatom(s) selected from nitrogen, oxygen, and sulfur; wherein the optional substituent of R 1 is one or more of a group consisting of C 1-10 alkyl, alkenyl selected from the group consisting of ethenyl, propenyl, and butenyl, alkoxy represented by -O-R 199 , wherein R 199 is a C 1-10 alkyl, hydroxyl, halo, nitro, or cyano.
A recombinant FSH preparation, wherein the recombinant FSH in the preparation has a glycosylation pattern comprising the following characteristics: (i) a relative amount of glycans carrying bisecting N-acetylglucosamine (bisGlcNAc) of at least 20 % of the total amount of glycans attached to FSH in the preparation; and (ii) a relative amount of 2,6-coupled sialic acid of at least 30% of the total amount of sialic acids; and (iii) a relative amount of glycans carrying a sulfate group of at least 3% of the total amount of glycans attached to FSH in the preparation. (i) a relative amount of glycans carrying bisecting N-acetylglucosamine (bisGlcNAc) of at least 20 % of the total amount of glycans attached to FSH in the preparation; and (ii) a relative amount of 2,6-coupled sialic acid of at least 30% of the total amount of sialic acids; and (iii) a relative amount of glycans carrying a sulfate group of at least 3% of the total amount of glycans attached to FSH in the preparation.
Installation for transmitting electrical power, having - a unidirectional rectifier which can be connected to a first AC voltage network on its AC voltage side, - a self-commutated converter which can be connected to a second AC voltage network on its AC voltage side, - a DC voltage connection which connects the rectifier and the converter to one another via their respective DC voltage sides, wherein the installation also has a filter unit which is connected to the converter on its DC voltage side and forms a current path to a neutral point , wherein the current path has a high impedance for a direct current and a low impedance for an alternating current at the fundamental frequency of the second AC voltage network , characterized in that the filter unit comprises a series circuit of an inductance and a capacitance , wherein the capacitance and the inductance are designed in such a manner that a resonant frequency of the filter unit is tuned to an operating frequency of the second AC voltage network , wherein the installation has a star point transformer in a zigzag winding which is provided for connection to the second AC voltage network , and wherein the neutral point is formed by a star point of the star point transformer . - a unidirectional rectifier which can be connected to a first AC voltage network on its AC voltage side, - a self-commutated converter which can be connected to a second AC voltage network on its AC voltage side, - a DC voltage connection which connects the rectifier and the converter to one another via their respective DC voltage sides,
A method for message control performed by a central node in a cooperative intelligent transport system , wherein said method comprises: - creating (S3) a transmission restriction control message ; said transmission restriction control message comprising: restriction instructions , defining how a transmission restriction demand is to be applied by an on-board unit ; and validity information indicating area information defining an area where the control message is applicable and/or time information defining a time period for which the control message is applicable, wherein the restriction instructions comprise: transmitter type information specifying one or more transmitter node types to which the restriction instruction applies, and a requested transmission timing of messages to which the transmission restriction demand is to be applied, wherein the requested timing comprises a shortest allowed time between successive transmissions permitted, and - broadcasting (S4) said transmission restriction control message . - creating (S3) a transmission restriction control message ; said transmission restriction control message comprising: restriction instructions , defining how a transmission restriction demand is to be applied by an on-board unit ; and validity information indicating area information defining an area where the control message is applicable and/or time information defining a time period for which the control message is applicable, wherein the restriction instructions comprise: transmitter type information specifying one or more transmitter node types to which the restriction instruction applies, and a requested transmission timing of messages to which the transmission restriction demand is to be applied, wherein the requested timing comprises a shortest allowed time between successive transmissions permitted, and restriction instructions , defining how a transmission restriction demand is to be applied by an on-board unit ; and validity information indicating area information defining an area where the control message is applicable and/or time information defining a time period for which the control message is applicable, wherein the restriction instructions comprise: transmitter type information specifying one or more transmitter node types to which the restriction instruction applies, and a requested transmission timing of messages to which the transmission restriction demand is to be applied, wherein the requested timing comprises a shortest allowed time between successive transmissions permitted, and transmitter type information specifying one or more transmitter node types to which the restriction instruction applies, and a requested transmission timing of messages to which the transmission restriction demand is to be applied, wherein the requested timing comprises a shortest allowed time between successive transmissions permitted, and - broadcasting (S4) said transmission restriction control message .
Method for determining a static element in images captured by an imaging means mounted on a movable device , the method comprising steps of acquiring a first image and a second image captured by the imaging means , wherein the first image and the second image are captured at capture times separated by a time difference, wherein the capture times of the first image and the second image that are acquired depend on at least one motion parameter of the movable device , calculating a determination measure from corresponding regions of the first image and the second image for representing a similarity of the corresponding regions, wherein the corresponding regions are regions in the first image and the second image with an identical position in the first image and the second image respectively, and a same shape, determining a static element of the first image and the second image based on the calculated determination measure, generating an output signal comprising information on the determined static element .
A communication method , comprising: contending for access to a communication medium for a series of subframes associated with a Time Division Duplexing, TDD frame structure; transmitting on the communication medium during a first portion of the series of subframes; refraining from transmitting on the communication medium during a second portion of the series of subframes; configuring a timing advance of the second portion of the series of subframes to create a re-contention gap between the second portion of the series of subframes and a third portion of the series of subframes; re-contending , during the re-contention gap, for access to the communication medium for the third portion of the series of subframes; and transmitting on the communication medium during the third portion of the series of subframes. contending for access to a communication medium for a series of subframes associated with a Time Division Duplexing, TDD frame structure; transmitting on the communication medium during a first portion of the series of subframes; refraining from transmitting on the communication medium during a second portion of the series of subframes; configuring a timing advance of the second portion of the series of subframes to create a re-contention gap between the second portion of the series of subframes and a third portion of the series of subframes; re-contending , during the re-contention gap, for access to the communication medium for the third portion of the series of subframes; and transmitting on the communication medium during the third portion of the series of subframes.
DC voltage grid having electrical components which are interconnected electrically by way of a conductor , wherein the DC voltage grid is able to be operated with a DC voltage (U 1 ) between parts of the conductor , wherein the DC voltage grid has an actuator by way of which the DC voltage (U 1 ) of the DC voltage grid is able to be varied such that the value of the DC voltage (U 1 ) depends on at least one state of the DC voltage grid and information about the state is transmitted to the electrical components of the DC voltage grid by way of the DC voltage (U 1 ).
Insert for a passport booklet data page, formed by a multilayer complex including at least a first layer and a second layer including a hinge having a folding zone where the insert is intended to be sewn or stapled into a passport booklet, said second layer including a combination of at least one layer made of plastic and at least one metal reinforcing layer together forming an extension that extends a certain distance beyond said folding zone of the hinge so as to improve the pull-out and tear resistance of said data page in relation to the passport booklet, said first layer not including a hinge or an extension, characterized in that said layer made of plastic and said metal reinforcing layer extend over the entire surface area of the insert.
An apparatus comprising: a first reservoir comprising a first opening to a first chamber of the first reservoir ; a second reservoir comprising a second opening to a second chamber of the second reservoir ; a diffuser element , wherein the diffuser element comprises cellulose, the diffuser element is coupled between the first opening of the first reservoir and the second opening of the second reservoir , and an outer surface of the diffuser element comprises a plurality of slats and grooves , and the slats extend parallel to each other; and a first channel , extending through the diffuser element , the first channel coupling the first chamber to the second chamber ; characterised in that : the diffuser element comprises two portions, a first portion comprising a dowel having the first channel extending therethrough, and a second portion comprising the plurality of slats and grooves and a central core opening, wherein the first portion is adapted to fit into the central core opening of the second portion . a first reservoir comprising a first opening to a first chamber of the first reservoir ; a second reservoir comprising a second opening to a second chamber of the second reservoir ; a diffuser element , wherein the diffuser element comprises cellulose, the diffuser element is coupled between the first opening of the first reservoir and the second opening of the second reservoir , and an outer surface of the diffuser element comprises a plurality of slats and grooves , and the slats extend parallel to each other; and a first channel , extending through the diffuser element , the first channel coupling the first chamber to the second chamber ; characterised in that : the diffuser element comprises two portions, a first portion comprising a dowel having the first channel extending therethrough, and a second portion comprising the plurality of slats and grooves and a central core opening, wherein the first portion is adapted to fit into the central core opening of the second portion .
A heat exchanger system , comprising: a vapor-compression circuit comprising a compressor , an expansion valve , a condenser fluidly interposed between the compressor and the expansion valve and an evaporator fluidly interposed between the expansion valve and the compressor , wherein the condenser comprises a de-superheating segment and a condensing segment , the condensing segment being receptive of a first liquid downstream from the de-superheating segment , the condensing and de-superheating segments being receptive of a second liquid in parallel, and flows of the second liquid into the de-superheating segment being controllable based on characteristics of flows of the second liquid exiting the de-superheating segment , and in that the heat exchanger system further comprises a flow splitter for the second liquid disposed upstream from the de-superheating and condensing segments ; a flow mixer for the second liquid disposed downstream from the de-superheating and condensing segments ; a sensor interposed between the de-superheating segment and the flow mixer to measure the characteristics of the flows of the second liquid; and a controllable valve interposed between the flow splitter and the de-superheating segment , the controllable valve being controllable to adjust an amount of the second liquid entering the de-superheating segment based on readings of the sensor . a vapor-compression circuit comprising a compressor , an expansion valve , a condenser fluidly interposed between the compressor and the expansion valve and an evaporator fluidly interposed between the expansion valve and the compressor , wherein the condenser comprises a de-superheating segment and a condensing segment , the condensing segment being receptive of a first liquid downstream from the de-superheating segment , the condensing and de-superheating segments being receptive of a second liquid in parallel, and flows of the second liquid into the de-superheating segment being controllable based on characteristics of flows of the second liquid exiting the de-superheating segment , and in that the heat exchanger system further comprises a flow splitter for the second liquid disposed upstream from the de-superheating and condensing segments ; a flow mixer for the second liquid disposed downstream from the de-superheating and condensing segments ; a sensor interposed between the de-superheating segment and the flow mixer to measure the characteristics of the flows of the second liquid; and a controllable valve interposed between the flow splitter and the de-superheating segment , the controllable valve being controllable to adjust an amount of the second liquid entering the de-superheating segment based on readings of the sensor .
A pest removal device adapted to be moved in relation to a ground surface of a field, the pest removal device extending in at least a first direction and a second direction, wherein the first direction is the direction of travel of the pest removal device and the second direction is non-parallel to the first direction, comprising a frame , wherein the frame comprises at least one frame section wherein a plurality of stirring devices are arranged on the frame section , wherein said plurality of stirring devices are arranged spaced apart from each other at a distance (d) from each other in the second direction, the frame section further comprising a device pivotally arranged to the frame section to rotate around a pivot axis , wherein the pivot axis extends in the second direction, a collecting device , wherein the device is adapted to rotate in relation to the frame section whereby pest and/or other material is forced towards the collecting device upon rotation of the device for collecting of pest and/or other material in the collecting device , characterized in that the device is a brush device , wherein said plurality of stirring devices are adapted for receiving a knife device , and a knife device is arranged on each of said plurality of stirring devices , or wherein said plurality of stirring devices form knife devices .
A method for providing a ski boot of the type that comprises a shell designed to accommodate the foot of a user and is provided with at least two contoured portions , respectively a front contoured portion arranged at the toe of said shell , and a rear contoured portion arranged at the heel of said shell , said method comprising, in sequence, the steps of: - providing said at least two contoured portions by molding plastic material; - providing said shell by injection molding of a plastic material that has different characteristics from the plastic material with which said at least two contoured portions are made; - making a sole; and - applying said sole to the lower surface of said shell . - providing said at least two contoured portions by molding plastic material; - providing said shell by injection molding of a plastic material that has different characteristics from the plastic material with which said at least two contoured portions are made; - making a sole; and - applying said sole to the lower surface of said shell .
A control device for a bicycle , the control device comprising: an actuator ; and a first controller configured to: generate and transmit, from the first controller to a second controller of the bicycle, messages for a predetermined time period at a first transmission rate in response to activation of the actuator; and after the predetermined time period, generate and transmit, from the first controller to the second controller, one or more messages at a second transmission rate until the actuator is deactivated, wherein the first transmission rate is greater than the second transmission rate, and each of the messages includes data identifying the activation of the actuator. an actuator ; and a first controller configured to: generate and transmit, from the first controller to a second controller of the bicycle, messages for a predetermined time period at a first transmission rate in response to activation of the actuator; and after the predetermined time period, generate and transmit, from the first controller to the second controller, one or more messages at a second transmission rate until the actuator is deactivated, generate and transmit, from the first controller to a second controller of the bicycle, messages for a predetermined time period at a first transmission rate in response to activation of the actuator; and after the predetermined time period, generate and transmit, from the first controller to the second controller, one or more messages at a second transmission rate until the actuator is deactivated, wherein the first transmission rate is greater than the second transmission rate, and each of the messages includes data identifying the activation of the actuator.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, configuration information including measurement information for at least one bandwidth configured to the terminal; receiving, from the base station on a physical downlink control channel, downlink control information, DCI, including a bandwidth indicator indicating a bandwidth among the at least one bandwidth configured to the terminal; performing a bandwidth switching to the bandwidth indicated by the bandwidth indicator; and measuring, based on the measurement information, the bandwidth according to the bandwidth switching. receiving, from a base station, configuration information including measurement information for at least one bandwidth configured to the terminal; receiving, from the base station on a physical downlink control channel, downlink control information, DCI, including a bandwidth indicator indicating a bandwidth among the at least one bandwidth configured to the terminal; performing a bandwidth switching to the bandwidth indicated by the bandwidth indicator; and measuring, based on the measurement information, the bandwidth according to the bandwidth switching.
A controlling system , comprising: a front end device , configured to generate a first data signal; an adaptor , configured to modulate a power signal according to the first data signal, and output a modulated signal, wherein the power signal is being supplied to the adaptor ; and a back end device , configured to demodulate the modulated signal to obtain the power signal and generate a controlling signal in accordance with the first data signal, wherein, the power signal obtain by the back end device is being supplied to the back end device , wherein, the front end device and the back end device are being connected via the adaptor , characterized in that the power signal is received from the front end device , and the front end device is a portable device. a front end device , configured to generate a first data signal; an adaptor , configured to modulate a power signal according to the first data signal, and output a modulated signal, wherein the power signal is being supplied to the adaptor ; and a back end device , configured to demodulate the modulated signal to obtain the power signal and generate a controlling signal in accordance with the first data signal, wherein, the power signal obtain by the back end device is being supplied to the back end device , wherein, the front end device and the back end device are being connected via the adaptor , characterized in that the power signal is received from the front end device , and the front end device is a portable device.