mhurhangee/ep-ind-claims huggingface dataset:
A card having an outer, at least substantially straight side and being configured to provide an electromagnetic field along a straight line (121, 122) on or at a surface thereof, the straight line being at least substantially parallel to the side and positioned between 6.9mm and 7.2mm from the side or between 10.2 and 10.5mm from the side, the card comprising an oblong field generator (20,30) comprising at least two end portions (20', 20") configured to output at least part of the electromagnetic field, characterized in that the end portions have a width, perpendicular to a longitudinal direction of the field generator, of at least 1.8mm and are positioned so that, when projected on to a plane of the surface: - an edge of each end portion is positioned no more than 0.5mm from the straight line and/or - the straight line does not overlap the end portions in the projection. - an edge of each end portion is positioned no more than 0.5mm from the straight line and/or - the straight line does not overlap the end portions in the projection.
A method for wireless communications at a user equipment, UE, comprising: receiving, from a base station, a resource configuration, the resource configuration comprising a first parameter indicating a set of transmission time intervals, TTIs, for transmitting uplink control information in a shared radio frequency spectrum band and a second parameter indicating a maximum number of instances for the uplink control information to be transmitted; performing a channel access procedure to obtain access to the shared radio frequency spectrum band; and transmitting one or more instances of the uplink control information in one or more TTIs of the set of TTIs, wherein the one or more TTIs are subsequent to the conclusion of the channel access procedure, and wherein a number of the one or more instances is based at least in part on a conclusion of the channel access procedure and a number of TTIs in the set of TTIs and the maximum number of instances for the uplink control information to be transmitted, wherein the number of the one or more instances is less than or equal to the maximum number of instances. receiving, from a base station, a resource configuration, the resource configuration comprising a first parameter indicating a set of transmission time intervals, TTIs, for transmitting uplink control information in a shared radio frequency spectrum band and a second parameter indicating a maximum number of instances for the uplink control information to be transmitted; performing a channel access procedure to obtain access to the shared radio frequency spectrum band; and transmitting one or more instances of the uplink control information in one or more TTIs of the set of TTIs, wherein the one or more TTIs are subsequent to the conclusion of the channel access procedure, and wherein a number of the one or more instances is based at least in part on a conclusion of the channel access procedure and a number of TTIs in the set of TTIs and the maximum number of instances for the uplink control information to be transmitted, wherein the number of the one or more instances is less than or equal to the maximum number of instances.
A multilayer conductive film comprising a layer 1, and a layer 2 configured to be in contact with a positive electrode active material layer, the multilayer conductive film for use as a battery current collector, wherein: the layer 1 includes a conductive material containing a polymer material 1 having an alicyclic structure on a main chain and conductive particles 1, the layer 2 includes a material having durability against positive electrode potential, and the material having durability against positive electrode potential is a conductive material containing a polymer material 2 having durability against positive electrode potential and conductive particles 2, said polymer material 2 being selected from the group consisting of aromatic polyimide, polyamide-imide, polyamide, polyethylene, polypropylene, silicone, polyphenylene ether, nylon, polybutylene terephtalate, polyphenylene sulfide, polyether ether ketone and polyester. the layer 1 includes a conductive material containing a polymer material 1 having an alicyclic structure on a main chain and conductive particles 1, the layer 2 includes a material having durability against positive electrode potential, and the material having durability against positive electrode potential is a conductive material containing a polymer material 2 having durability against positive electrode potential and conductive particles 2, said polymer material 2 being selected from the group consisting of aromatic polyimide, polyamide-imide, polyamide, polyethylene, polypropylene, silicone, polyphenylene ether, nylon, polybutylene terephtalate, polyphenylene sulfide, polyether ether ketone and polyester.
A circuit comprising a protective circuit and a circuit element (20, 36, 75, 75b, 95, 95b, 123), the circuit element being a field effect transistor with a gate connected to an end of the protective circuit not connected to ground, and a source connected to ground, the protective circuit comprising: a first capacitance element (11, 34, 76, 96, 122b) whose first capacitance value increases with an increase in a first voltage applied between the gate and a first terminal which is connected to ground; and a second capacitance element (12, 35, 77, 97, 122c), having a second fixed capacitance value which is larger than the first capacitance value until the first voltage reaches a first value, and having a breakdown voltage characteristic higher than a breakdown voltage characteristic of the field effect transistor, wherein the first capacitance element is connected to the gate; and the first capacitance element and the second capacitance element are connected in series between the gate and the first terminal. a first capacitance element (11, 34, 76, 96, 122b) whose first capacitance value increases with an increase in a first voltage applied between the gate and a first terminal which is connected to ground; and a second capacitance element (12, 35, 77, 97, 122c), having a second fixed capacitance value which is larger than the first capacitance value until the first voltage reaches a first value, and having a breakdown voltage characteristic higher than a breakdown voltage characteristic of the field effect transistor, wherein the first capacitance element is connected to the gate; and the first capacitance element and the second capacitance element are connected in series between the gate and the first terminal.
A system for mechanical stimulation of nasal tissues comprising a catheter assembly and a fluid flow generator connected to the catheter assembly, wherein the catheter assembly comprises: - a generally oblong inflatable catheter defining at least one catheter volume; and - a tube part comprising at least one lumen configured to establish fluid flow connection between said fluid flow generator and said catheter, characterized in that said catheter is attached to a distal end of the tube part and has no structural rigidity in a first, non-inflated state, said catheter is configured to be inflated to a second, inflated state for insertion into a nasal cavity, and to a third, pulsating state for stimulating a nasal tissue, and substantially no part of said tube part extends into an inflatable part of the catheter. - a generally oblong inflatable catheter defining at least one catheter volume; and - a tube part comprising at least one lumen configured to establish fluid flow connection between said fluid flow generator and said catheter, said catheter is attached to a distal end of the tube part and has no structural rigidity in a first, non-inflated state, said catheter is configured to be inflated to a second, inflated state for insertion into a nasal cavity, and to a third, pulsating state for stimulating a nasal tissue, and substantially no part of said tube part extends into an inflatable part of the catheter.
Method for determining the speed of a rail-bound vehicle, comprising the following method steps: • detecting a reference element of the vehicle by means of a first detection device, the first detection device generating a first detection signal when the reference element passes the first detection device; • detecting the reference element by means of a second detection device spaced from the first detection device in the direction of travel, the second detection devices generating a second detection signal when the reference element passes the second detection device; • converting the detection signals (4a, 4b) into digital detection pulses (7a, 7b); • determining the time difference between the two detection pulses (7a, 7b); characterized in that by linking the first and the second digital detection pulse (7a, 7b) by means of an XOR logic operation, an XOR signal is generated in an XOR gate, in that the duration of the XOR signal is determined, and in that the time difference between the two detection pulses (7a, 7b) is determined by halving the duration of the XOR signal. • detecting a reference element of the vehicle by means of a first detection device, the first detection device generating a first detection signal when the reference element passes the first detection device; • detecting the reference element by means of a second detection device spaced from the first detection device in the direction of travel, the second detection devices generating a second detection signal when the reference element passes the second detection device; • converting the detection signals (4a, 4b) into digital detection pulses (7a, 7b); • determining the time difference between the two detection pulses (7a, 7b); characterized in that by linking the first and the second digital detection pulse (7a, 7b) by means of an XOR logic operation, an XOR signal is generated in an XOR gate, in that the duration of the XOR signal is determined, and in that the time difference between the two detection pulses (7a, 7b) is determined by halving the duration of the XOR signal.
A method of making a dry silicone gel having less than 10% oil bleed out after being under compression of 1.2 atm for 60 days at 60°C, comprising: providing a first set of components comprising: a base polymer having a vinyl- silicone group, and an addition cure catalyst; providing a second set of components comprising: a crosslinker, a chain extender, and additional base polymer having a vinyl-silicone group; and mixing the first and second set of components together to form the dry silicone gel, wherein the mole fraction of hydride present as crosslinker is between 0.2 and 0.5. providing a first set of components comprising: a base polymer having a vinyl- silicone group, and an addition cure catalyst; providing a second set of components comprising: a crosslinker, a chain extender, and additional base polymer having a vinyl-silicone group; and mixing the first and second set of components together to form the dry silicone gel, wherein the mole fraction of hydride present as crosslinker is between 0.2 and 0.5.
A method of manufacturing a vane arrangement for a gas turbine engine, the method comprising: providing an aerofoil having a hollow cavity with an open end; providing a support member (50, 70) having a stub with a through hole extending therethrough; and welding the aerofoil to the stub such that the open end of the hollow cavity of the aerofoil is aligned with the through hole of the stub so as to define a hollow region extending through the support member and stub to the cavity of the aerofoil; characterised in that during welding a tool is positioned within the through hole and cavity and is aligned with an interface between the stub and aerofoil, the tool being configured to prevent weld splatter onto a surface of the cavity or through hole. providing an aerofoil having a hollow cavity with an open end; providing a support member (50, 70) having a stub with a through hole extending therethrough; and welding the aerofoil to the stub such that the open end of the hollow cavity of the aerofoil is aligned with the through hole of the stub so as to define a hollow region extending through the support member and stub to the cavity of the aerofoil; characterised in that during welding a tool is positioned within the through hole and cavity and is aligned with an interface between the stub and aerofoil, the tool being configured to prevent weld splatter onto a surface of the cavity or through hole.
Coupling device which is provided and configured for coupling a mobile process device having a programmable industrial robot and a transport apparatus to a work station of a process station, wherein the coupling device has a clamping device with a clamping jaw and a tensioning means, wherein the clamping device is provided and configured for forming a clamping connection between the clamping jaw and a clamping strip, in particular a table top, at the work station, the clamping connection fixing the process device on the work station, and wherein the clamping device has a plurality of upper and lower clamping jaws (14, 19), in particular two, which are pressed against the upper side and lower side of the clamping strip by the tensioning means, wherein the coupling device has a support for the industrial robot and a robot connection, wherein the support is configured as a movable upper clamping jaw.
An apparatus for determining stroke volume comprising: an input for receiving an arterial pressure waveform; means for defining a start point (100, 150) within the pressure waveform at the beginning of a systolic arterial pressure increase of a ventricular contraction phase of a heart beat; means arranged to determine an end point (120, 190) of the heart beat by identifying a part or point of the pressure waveform that has substantially the same arterial pressure value as said starting point (100, 150), and, if said arterial pressure value at said starting point (100, 150) is not regained, extrapolating the pressure waveform to a point where it has substantially the same arterial pressure value as said starting point (100, 150); and means for calculating the stroke volume from a part of the pressure waveform or of the extrapolated pressure waveform between the start point (100, 150) and the end point (120, 190). an input for receiving an arterial pressure waveform; means for defining a start point (100, 150) within the pressure waveform at the beginning of a systolic arterial pressure increase of a ventricular contraction phase of a heart beat; means arranged to determine an end point (120, 190) of the heart beat by identifying a part or point of the pressure waveform that has substantially the same arterial pressure value as said starting point (100, 150), and, if said arterial pressure value at said starting point (100, 150) is not regained, extrapolating the pressure waveform to a point where it has substantially the same arterial pressure value as said starting point (100, 150); and means for calculating the stroke volume from a part of the pressure waveform or of the extrapolated pressure waveform between the start point (100, 150) and the end point (120, 190).
A computer-implemented method of modifying a text using a set of a plurality of statistical models (406, 408), each model having been generated on the basis of training data and/or by manual coding, the method of modifying the text comprising operating a processing unit to perform the steps of: - segmenting the text into a plurality of sections (402, 404), - assigning one of the set of statistical models (406, 408) to each section, based on text of the section, and - performing a text modification procedure for each section, to modify the text in that section, utilizing the rules and vocabulary of the statistical model assigned to the section, - wherein the text modification procedure comprises a text formatting process for which the assigned statistical model (406, 408) provides formatting rules (412, 414, 418, 420) being specific for a topic of the section. - segmenting the text into a plurality of sections (402, 404), - assigning one of the set of statistical models (406, 408) to each section, based on text of the section, and - performing a text modification procedure for each section, to modify the text in that section, utilizing the rules and vocabulary of the statistical model assigned to the section, - wherein the text modification procedure comprises a text formatting process for which the assigned statistical model (406, 408) provides formatting rules (412, 414, 418, 420) being specific for a topic of the section.
An input system (100; 200; 300) for controlling a catheter-based procedure system that includes a robotic drive configured to control rotational motion and axial motion of one or more elongated medical devices, the input system (100; 200; 300) comprising: a body (104; 204; 304); a first control (170, 172, 182, 184) coupled to the body (104; 204; 304) and configured to instruct the robotic drive to axially move one of the one or more elongated medical devices in response to manipulation of the first control by a user; a second control (176, 178) coupled to the body (104; 204; 304) and configured to instruct the robotic drive to rotate one of the one or more elongated medical devices in response to manipulation of the second control by the user; and a third control (142, 144) coupled to the body, wherein the first control and the second control are configured to instruct the robotic drive only if the third control is manipulated by the user, the first control and the second control positioned on the body (104; 204; 304) so that the first control and the second control are simultaneously manipulatable by a first digit and a second digit on one of the hands of the user, characterized in that the body (104; 204; 304) is configured to be held in hands of the user while controlling the rotational motion and the axial motion of the one or more elongated medical devices. a body (104; 204; 304); a first control (170, 172, 182, 184) coupled to the body (104; 204; 304) and configured to instruct the robotic drive to axially move one of the one or more elongated medical devices in response to manipulation of the first control by a user; a second control (176, 178) coupled to the body (104; 204; 304) and configured to instruct the robotic drive to rotate one of the one or more elongated medical devices in response to manipulation of the second control by the user; and a third control (142, 144) coupled to the body, wherein the first control and the second control are configured to instruct the robotic drive only if the third control is manipulated by the user, the first control and the second control positioned on the body (104; 204; 304) so that the first control and the second control are simultaneously manipulatable by a first digit and a second digit on one of the hands of the user, characterized in that the body (104; 204; 304) is configured to be held in hands of the user while controlling the rotational motion and the axial motion of the one or more elongated medical devices.
A contactor operating state maintaining device comprising: a controller configured to output a contactor control signal for controlling an operation of a contactor; a system basis unit configured to monitor a state of the controller and to output a safety detection signal; an operation maintaining unit including a first level shifter configured to shift a voltage level of the safety detection signal, a second level shifter configured to shift a voltage level of the contactor control signal, a retention output unit configured to compare the voltage level of the first level shifter with the voltage level of the second level shifter and to output a retention output signal, and a timer output unit configured to output a timer output signal to maintain the retention output signal for a preset time; and a contactor driver configured to output a contactor driving signal using the contactor control signal and/or the retention output signal. a controller configured to output a contactor control signal for controlling an operation of a contactor; a system basis unit configured to monitor a state of the controller and to output a safety detection signal; an operation maintaining unit including a first level shifter configured to shift a voltage level of the safety detection signal, a second level shifter configured to shift a voltage level of the contactor control signal, a retention output unit configured to compare the voltage level of the first level shifter with the voltage level of the second level shifter and to output a retention output signal, and a timer output unit configured to output a timer output signal to maintain the retention output signal for a preset time; and a contactor driver configured to output a contactor driving signal using the contactor control signal and/or the retention output signal.
A volume hologram multilayer structure, characterized by comprising a multilayer structure in which a volume hologram layer comprising a volume hologram in a cured resin layer, a first heat seal layer, a second heat seal layer, and an application member are stacked together from top to bottom, wherein the second heat seal layer is provided to bond the first heat seal layer to the application member, and wherein an adhesion force between said volume hologram layer and the application member is larger than a material fracture force for the application member, and upon peeling of the volume hologram layer from the application member, a material fracture of the application member occurs.
A process for preparing dialkyl terephalate comprising the following steps:- i) providing furan-2,5-dicarboxylate; ii) esterifying the furan-2,5-dicarboxylate with alcohol to form furan-2,5-carboxylic acid dialkyl ester; iii) reacting the furan-2,5-carboxylic acid dialkyl ester with ethylene under Diels Alder conditions, elevated temperature and pressure and in the presence of a catalyst such that dialkyl terephthalate is produced; wherein the Diels-Alder reaction is free from solvent; wherein the catalyst comprises a clay comprising metal ions and having Lewis acidity. i) providing furan-2,5-dicarboxylate; ii) esterifying the furan-2,5-dicarboxylate with alcohol to form furan-2,5-carboxylic acid dialkyl ester; iii) reacting the furan-2,5-carboxylic acid dialkyl ester with ethylene under Diels Alder conditions, elevated temperature and pressure and in the presence of a catalyst such that dialkyl terephthalate is produced; wherein the Diels-Alder reaction is free from solvent; wherein the catalyst comprises a clay comprising metal ions and having Lewis acidity.