mhurhangee/ep-ind-claims huggingface dataset:
A woven element, the woven element comprising: a first plurality of warp threads extending in a first direction, the first plurality of warp threads being integrated into a first surface on a front side of the woven element; a second plurality of warp threads extending in the first direction, the second plurality of warp threads being integrated into a second surface on a back side of the woven element; a first weft thread extending in a second direction, wherein a first portion of the first weft thread is positioned in front of at least one warp thread of the first plurality of warp threads to form at least a portion of a graphic image on the first surface on the front side of the woven element, and wherein a second portion of the first weft thread extends between the first plurality of warp threads and the second plurality of warp threads; and a second weft thread extending in the second direction, wherein a first portion of the second weft thread is positioned behind the warp threads of the second plurality of warp threads to form at least a portion of the second surface on the back side of the woven element, characterized in that the second weft thread comprises a reactive material, wherein the reactive material comprises a thermoreactive material responsive to heat, and wherein a first portion of the second weft thread that is positioned behind the warp threads of the second plurality of warp threads comprises a backing portion, wherein the backing portion forms more than 50% of the length of the second weft thread extending across the woven element. a first plurality of warp threads extending in a first direction, the first plurality of warp threads being integrated into a first surface on a front side of the woven element; a second plurality of warp threads extending in the first direction, the second plurality of warp threads being integrated into a second surface on a back side of the woven element; a first weft thread extending in a second direction, wherein a first portion of the first weft thread is positioned in front of at least one warp thread of the first plurality of warp threads to form at least a portion of a graphic image on the first surface on the front side of the woven element, and wherein a second portion of the first weft thread extends between the first plurality of warp threads and the second plurality of warp threads; and a second weft thread extending in the second direction, wherein a first portion of the second weft thread is positioned behind the warp threads of the second plurality of warp threads to form at least a portion of the second surface on the back side of the woven element, characterized in that the second weft thread comprises a reactive material, wherein the reactive material comprises a thermoreactive material responsive to heat, and wherein a first portion of the second weft thread that is positioned behind the warp threads of the second plurality of warp threads comprises a backing portion, wherein the backing portion forms more than 50% of the length of the second weft thread extending across the woven element.
A compound of Formula III, or a pharmaceutically acceptable salt thereof, wherein, Ring C is a 5- or 6-membered heteroaryl ring which is optionally substituted and containing at least one O, S or N atom; X 2 is N or C-R 12, wherein R 12 is hydrogen, halogen, alkyl, or alkoxy; X 3 is N or C-R 13, wherein R 13 is -Y-Z, in which Y is a bond, -CH 2 -, or -CH(C 1 -C 4 alkyl)-; Z is -SO 2 R b, -N(R a)SO 2 R b, -SO 2 N(R a) 2, -N(R a)SO 2 N(R a) 2, -CON(R a) 2, -N(R a)CO 2 R a, -N(R a)CON(R a) 2, -N(R a)COR a, -OC N(R a) 2, -OSO 2 N(R a) 2, or -N(R a)SO 3 R b; each R a is independently hydrogen, alkyl, cycloalkyl, cycloalkylalkyl, aryl, aralkyl, heterocyclyl, heterocyclylalkyl, heteroaryl, or heteroarylalkyl; R b is alkyl, cycloalkyl, cycloalkylalkyl, aryl, aralkyl, heterocyclyl, heterocyclylalkyl, heteroaryl, or heteroarylalkyl; X 4 is N or C-R 14, wherein R 14 is hydrogen, halogen, -CN, alkyl, cycloalkyl, or alkoxy; and G is: provided that the compound of Formula III is neither 4-(2-ethyl-5-(methylsulfonyl)benzofuran-7-yl)-2-methylisoquinolin-1 -one, nor 4-(2-cyclopropyl-5-(methylsulfonyl)benzofuran-7-yl)-2-methylisoquinolin-l -one. Ring C is a 5- or 6-membered heteroaryl ring which is optionally substituted and containing at least one O, S or N atom; X 2 is N or C-R 12, wherein R 12 is hydrogen, halogen, alkyl, or alkoxy; X 3 is N or C-R 13, wherein R 13 is -Y-Z, in which Y is a bond, -CH 2 -, or -CH(C 1 -C 4 alkyl)-; Z is -SO 2 R b, -N(R a)SO 2 R b, -SO 2 N(R a) 2, -N(R a)SO 2 N(R a) 2, -CON(R a) 2, -N(R a)CO 2 R a, -N(R a)CON(R a) 2, -N(R a)COR a, -OC N(R a) 2, -OSO 2 N(R a) 2, or -N(R a)SO 3 R b; each R a is independently hydrogen, alkyl, cycloalkyl, cycloalkylalkyl, aryl, aralkyl, heterocyclyl, heterocyclylalkyl, heteroaryl, or heteroarylalkyl; R b is alkyl, cycloalkyl, cycloalkylalkyl, aryl, aralkyl, heterocyclyl, heterocyclylalkyl, heteroaryl, or heteroarylalkyl; Y is a bond, -CH 2 -, or -CH(C 1 -C 4 alkyl)-; Z is -SO 2 R b, -N(R a)SO 2 R b, -SO 2 N(R a) 2, -N(R a)SO 2 N(R a) 2, -CON(R a) 2, -N(R a)CO 2 R a, -N(R a)CON(R a) 2, -N(R a)COR a, -OC N(R a) 2, -OSO 2 N(R a) 2, or -N(R a)SO 3 R b; each R a is independently hydrogen, alkyl, cycloalkyl, cycloalkylalkyl, aryl, aralkyl, heterocyclyl, heterocyclylalkyl, heteroaryl, or heteroarylalkyl; R b is alkyl, cycloalkyl, cycloalkylalkyl, aryl, aralkyl, heterocyclyl, heterocyclylalkyl, heteroaryl, or heteroarylalkyl; each R a is independently hydrogen, alkyl, cycloalkyl, cycloalkylalkyl, aryl, aralkyl, heterocyclyl, heterocyclylalkyl, heteroaryl, or heteroarylalkyl; R b is alkyl, cycloalkyl, cycloalkylalkyl, aryl, aralkyl, heterocyclyl, heterocyclylalkyl, heteroaryl, or heteroarylalkyl; X 4 is N or C-R 14, wherein R 14 is hydrogen, halogen, -CN, alkyl, cycloalkyl, or alkoxy; and G is: provided that the compound of Formula III is neither 4-(2-ethyl-5-(methylsulfonyl)benzofuran-7-yl)-2-methylisoquinolin-1 -one, nor 4-(2-cyclopropyl-5-(methylsulfonyl)benzofuran-7-yl)-2-methylisoquinolin-l -one.
A fluid dispenser device comprising: a reservoir containing one or more doses of fluid; a resilient element, such as a spring, for urging said reservoir to move axially between a rest position and at least one actuated position; and blocking means (30; 51, 53, 55) for preventing said reservoir from moving axially; said blocking means being movable manually in a direction that is different from the direction of said axial movement of the reservoir so as to allow said reservoir to move axially; the device being characterized in that said blocking means comprise a plate provided with an opening comprising a first opening portion of smaller radial size, and a second opening portion of larger radial size, said first and second opening portions (31a, 31b) being interconnected, said plate being movable radially between a blocking position in which said first opening portion cooperates with said reservoir so as to block it axially, and a non-blocking position in which said second opening portion cooperates with said reservoir so as to allow said reservoir to move axially under the effect of said resilient element.
A device for bidirectional optical amplification in high-precision fiber-optic time transfer, comprising a first wavelength separator/combiner, a wavelength combiner, a wavelength separator, a second wavelength separator/combiner, a first optical splitter, a second optical splitter, a control unit, a 2x2 optical switch and a unidirectional optical amplifier; The combining port of the first wavelength separator/combiner is connected to a fiber-optic link, one splitting port is connected to the splitting port of the wavelength channel corresponding to the wavelength combiner via unidirectional transmission wavelength channel, and the other splitting port is connected to the junction of the first optical splitter via bidirectional transmission wavelength channel; The combining port of the wavelength combiner is connected to the input port of the unidirectional optical amplifier, and the output port of the unidirectional optical amplifier is connected to the combining port of the wavelength separator; The combining port of the second wavelength separator/combiner is connected to an other fiber-optic link, one splitting port is connected to the splitting port of the wavelength channel corresponding to the wavelength separator via unidirectional transmission wavelength channel, and the other splitting port is connected to the junction of the second optical splitter via bidirectional transmission wavelength channel; The input ports of the control unit are respectively connected to the shunt terminal of the first optical splitter and the shunt terminal of the second optical splitter, and the control output port of the control unit is connected to the control input port of the 2x2 optical switch; The port 1 of the 2x2 optical switch is connected to the other shunt terminal of the first optical splitter, the port 2 of the 2x2 optical switch is connected to the other shunt terminal of the second optical splitter, the port 3 of the 2x2 optical switch is connected to the other splitting port of the wavelength separator, and the port 4 of the 2x2 optical switch is connected to the other splitting port of the wavelength combiner.
A method of determining at least two characteristics of a sample comprising a radiopharmaceutical, the method comprising: supplying the sample to a supply component of a microfluidic chip; wherein the sample supplied to the supply component has a volume of 10 ml or less; directing the sample or a portion thereof from the supply component via a microchannel which is in fluid communication with the supply component to a plurality of detection zones (1190, 1200, 1310,1400); and performing at least one analytical technique on the sample or the portion thereof when provided at each detection zone, characterized in that at least one of the detection zones is provided by the microfluidic chip and comprises a separation element (1150,1170), wherein at least one of the analytical techniques comprises a spectroscopic technique. supplying the sample to a supply component of a microfluidic chip; wherein the sample supplied to the supply component has a volume of 10 ml or less; directing the sample or a portion thereof from the supply component via a microchannel which is in fluid communication with the supply component to a plurality of detection zones (1190, 1200, 1310,1400); and performing at least one analytical technique on the sample or the portion thereof when provided at each detection zone, characterized in that at least one of the detection zones is provided by the microfluidic chip and comprises a separation element (1150,1170), wherein at least one of the analytical techniques comprises a spectroscopic technique.
A computer-implemented method of modeling at least a portion of a patient's anatomy, using a computer system, the method comprising: determining one or more first anatomical parameters of a target anatomical object from at least one of one or more first images; determining one or more second anatomical parameters of the target anatomical object from at least one of one or more second images; combining the one or more first anatomical parameters with the one or more second anatomical parameters; and generating a model of the target anatomical object based at least on the combination of the one or more first anatomical parameters with the one or more second anatomical parameters; wherein the model is a model of a vessel lumen, and the model includes a plurality of voxels representing a probability that each of the plurality of voxels belongs to the patient's vessel lumen; characterized in that the vessel lumen is a coronary vessel lumen; the first and second images include computed tomography scans of the same patient and the generating generates a model specific to said patient; and the one or more first images include one or more computed tomography scans obtained using a first reconstruction method, and the one or more second images include one or more CT scans obtained using a second reconstruction method different from the first reconstruction method. determining one or more first anatomical parameters of a target anatomical object from at least one of one or more first images; determining one or more second anatomical parameters of the target anatomical object from at least one of one or more second images; combining the one or more first anatomical parameters with the one or more second anatomical parameters; and generating a model of the target anatomical object based at least on the combination of the one or more first anatomical parameters with the one or more second anatomical parameters; wherein the model is a model of a vessel lumen, and the model includes a plurality of voxels representing a probability that each of the plurality of voxels belongs to the patient's vessel lumen; characterized in that the vessel lumen is a coronary vessel lumen; the first and second images include computed tomography scans of the same patient and the generating generates a model specific to said patient; and the one or more first images include one or more computed tomography scans obtained using a first reconstruction method, and the one or more second images include one or more CT scans obtained using a second reconstruction method different from the first reconstruction method.
A method of synchronizing clock signals in a system implemented in a space-based or high-altitude asset, the system comprising a central device having a central device clock and a destination device having a destination device clock, wherein the central device clock is based on a reference clock signal received at a first reference clock signal input, the method comprising: (a) obtaining a first delay amount by a central device; (b) providing, by the central device, a pulse signal to the destination device, wherein the pulse signal is advanced or retarded by the delay amount; (c) detecting, at the destination device, the pulse signal; (d) in response to detecting the pulse signal, obtaining, at the destination device, a sample of the destination device clock and storing the sample in a register; (e) providing the sample of the destination device clock to the central device; (f) determining, by the central device, whether enough samples are stored in the register to enable calculation of a phase offset between the central device clock and the destination device clock, wherein the phase offset may be calculated when an edge of the destination device clock is detected based on the samples; (g) in accordance with a determination that a phase offset cannot be calculated, adjusting the first delay amount and repeating steps (a) -(f); and (h) in accordance with a determination that the phase offset can be calculated, then calculating, by the central device, the phase offset based on a position, in the register, of the sample representing the edge of the destination device clock. (a) obtaining a first delay amount by a central device; (b) providing, by the central device, a pulse signal to the destination device, wherein the pulse signal is advanced or retarded by the delay amount; (c) detecting, at the destination device, the pulse signal; (d) in response to detecting the pulse signal, obtaining, at the destination device, a sample of the destination device clock and storing the sample in a register; (e) providing the sample of the destination device clock to the central device; (f) determining, by the central device, whether enough samples are stored in the register to enable calculation of a phase offset between the central device clock and the destination device clock, wherein the phase offset may be calculated when an edge of the destination device clock is detected based on the samples; (g) in accordance with a determination that a phase offset cannot be calculated, adjusting the first delay amount and repeating steps (a) -(f); and (h) in accordance with a determination that the phase offset can be calculated, then calculating, by the central device, the phase offset based on a position, in the register, of the sample representing the edge of the destination device clock.
An onboard unit for a traffic telematics system, comprising: a first communication module, designed for near-range radio communication with a first external communication device, a second communication module, designed for far-range radio communication with a second external communication device, and a non-volatile memory, which can be accessed (19, 25) both by the first and second communication module (16, 11), wherein each communication module (16, 11) has a power-supplied communication mode and a powerless or power-saving rest mode, and wherein the power supply of the memory during an access (19, 15) thereto is effected by the accessing communication module (16, 11). a first communication module, designed for near-range radio communication with a first external communication device, a second communication module, designed for far-range radio communication with a second external communication device, and a non-volatile memory, which can be accessed (19, 25) both by the first and second communication module (16, 11), wherein each communication module (16, 11) has a power-supplied communication mode and a powerless or power-saving rest mode, and wherein the power supply of the memory during an access (19, 15) thereto is effected by the accessing communication module (16, 11).
A cable conduit or cable duct with a wall opening (13, which is sealed by a closure plug, wherein the closure plug has a plug shaft and a radially projecting head section, wherein a plurality of blind recesses (6 to 8) extend in the axial direction through the plug shaft starting from the free end of the plug shaft,which terminate before a closed end wall of the head section, characterised in that the plurality of blind recesses (6 to 8) are suitable for sealing Micropipes and/or tubes passed through at the walls of the blind recesses (6 to 8) and that the plug is in one piece and consists of a predominantly closed cell foam material and is produced in an injection moulding process.
A method comprising: receiving a request from a first user at a portal web page for a first portlet managed by a master portal process; at the master portal process, processing the first user's request by determining that the first portlet has been configured to execute on a first sandbox, and sending the first user's request at the first portlet to the first sandbox for execution, wherein the first sandbox comprises an executable of the first portlet that will execute the first user's request; causing at the first sandbox containing the executable of the first portlet to process the first user's request and return a result to the master portal process; and at the master portal process, assembling a response for the first user's request including the result from the executable of the first portlet at the first sandbox and returning the response to the first user. receiving a request from a first user at a portal web page for a first portlet managed by a master portal process; at the master portal process, processing the first user's request by determining that the first portlet has been configured to execute on a first sandbox, and sending the first user's request at the first portlet to the first sandbox for execution, wherein the first sandbox comprises an executable of the first portlet that will execute the first user's request; causing at the first sandbox containing the executable of the first portlet to process the first user's request and return a result to the master portal process; and at the master portal process, assembling a response for the first user's request including the result from the executable of the first portlet at the first sandbox and returning the response to the first user.
A compound of formula wherein Y is selected from the group consisting of NH and N-SO 2 -CH 3; R 4 is hydrogen; a is 1; R 5 is selected from the group consisting of cyano and trifluoromethyl; b is 0; c is 0; R 7 is hydrogen; R 2 is methyl; R 3 is selected from the group consisting of chloromethyl, -CH 2 -S-ethyl, -CH 2 -S-phenyl,-CH 2 -S-(4chlorophenyl), -CH 2 -S-(4-fluorophenyl) and -CH 2 -S-cyclohexyl; or a pharmaceutically acceptable salt thereof. Y is selected from the group consisting of NH and N-SO 2 -CH 3; R 4 is hydrogen; a is 1; R 5 is selected from the group consisting of cyano and trifluoromethyl; b is 0; c is 0; R 7 is hydrogen; R 2 is methyl; R 3 is selected from the group consisting of chloromethyl, -CH 2 -S-ethyl, -CH 2 -S-phenyl,-CH 2 -S-(4chlorophenyl), -CH 2 -S-(4-fluorophenyl) and -CH 2 -S-cyclohexyl;
A communication system core network comprising: a plurality of service providing instances configured to provide a first network service; a component configured to select one of the service providing instances as recipient for a heart-beat message of a second network service, wherein the component is a component providing the second network service; and a transmitter configured to transmit the heart-beat message to the selected service providing instance, wherein the transmitter is comprised in an entity providing the second network service; a further service providing instance configured to provide the second network service; wherein any service providing instance of the plurality of service providing instances is configured to provide the first network service for the second network service or use the second network service for providing the first network service and is unbound to the further service providing instance; wherein one of the service providing instances is configured to request the further service providing instance to transmit heart-beat messages and the further service providing instance is configured to generate heart-beat messages including the heart-beat message as a consequence of the request. a plurality of service providing instances configured to provide a first network service; a component configured to select one of the service providing instances as recipient for a heart-beat message of a second network service, wherein the component is a component providing the second network service; and a transmitter configured to transmit the heart-beat message to the selected service providing instance, wherein the transmitter is comprised in an entity providing the second network service; a further service providing instance configured to provide the second network service; wherein any service providing instance of the plurality of service providing instances is configured to provide the first network service for the second network service or use the second network service for providing the first network service and is unbound to the further service providing instance; wherein one of the service providing instances is configured to request the further service providing instance to transmit heart-beat messages and the further service providing instance is configured to generate heart-beat messages including the heart-beat message as a consequence of the request.
An exchangeable grinding body for use in a device for nail care, with an at least regionally plate-like base body with an upper side, a lower side and a peripheral edge, with an arcuate grinding surface which is formed on the edge, and with a recess which lies opposite and away from the grinding surface within the base body for the coupling of the grinding body to a drive element, characterised in that two or more guide projections are arranged on the upper side or the lower side of the base body, said guide projections projecting beyond the respective side (3, 4) of the base body and being designed to displaceably slide in a guide groove which is open to the respective side of the base body.