mhurhangee/ep-ind-claims huggingface dataset:
A stent, comprising or consisting of polylactide, wherein the proportion of amorphous polylactide is ≥ 80 % by weight, based on the total mass of the polylactide contained in the stent, wherein the polylactid is extruded and wherein the polylactid has 1 - 10% by weight based on the total mass of the polylactide a molar mass of 400 g/mol - 3,000 g/mol after the extrusion.
Method for operating a gas sensor arrangement, comprising the steps of: - generating a sensor current by means of a resistive gas sensor, - converting the sensor current into a digital comparator output signal (LOUT) in a charge balancing operation depending on a first clock signal, - determining from the digital comparator output signal (LOUT) an asynchronous count comprising an integer number of counts depending on the first clock signal, - determining from the digital comparator output signal (LOUT) a fractional time count depending on a second clock signal, wherein the second clock signal has a higher frequency than the first clock signal, and - calculating from the asynchronous count and from the fractional time count a digital output signal (ADC-COUNT) which is indicative of the sensor current generated by the gas sensor. - generating a sensor current by means of a resistive gas sensor, - converting the sensor current into a digital comparator output signal (LOUT) in a charge balancing operation depending on a first clock signal, - determining from the digital comparator output signal (LOUT) an asynchronous count comprising an integer number of counts depending on the first clock signal, - determining from the digital comparator output signal (LOUT) a fractional time count depending on a second clock signal, wherein the second clock signal has a higher frequency than the first clock signal, and - calculating from the asynchronous count and from the fractional time count a digital output signal (ADC-COUNT) which is indicative of the sensor current generated by the gas sensor.
A method of operating a rotary machine below a traditional minimum emissions compliance load in a response mode, the rotary machine including a combustor including a first combustion zone and a second combustion zone, said method comprising: i) reducing a fuel split to zero, wherein the fuel split apportions a total flow of fuel to the combustor between the first combustion zone and the second combustion zone; ii) determining a current operating temperature of the first combustion zone using a digital simulation of the rotary machine; iii) determining a target operating temperature of the first combustion zone, wherein the target operating temperature enables the rotary machine to operate below the traditional Minimum emissions compliance load (MECL) while still in compliance with emissions standards; iv) channeling a first flow of fuel to the first combustion zone, wherein the first flow of fuel decreases the temperature of the first combustion zone to the target operating temperature; and v) iterating steps i through iv until the rotary machine is operating below the traditional MECL and complying with emission standards. i) reducing a fuel split to zero, wherein the fuel split apportions a total flow of fuel to the combustor between the first combustion zone and the second combustion zone; ii) determining a current operating temperature of the first combustion zone using a digital simulation of the rotary machine; iii) determining a target operating temperature of the first combustion zone, wherein the target operating temperature enables the rotary machine to operate below the traditional Minimum emissions compliance load (MECL) while still in compliance with emissions standards; iv) channeling a first flow of fuel to the first combustion zone, wherein the first flow of fuel decreases the temperature of the first combustion zone to the target operating temperature; and v) iterating steps i through iv until the rotary machine is operating below the traditional MECL and complying with emission standards.
A method for configuring an idle screen in a portable terminal, the method comprising: displaying an idle screen of the portable terminal having at least one first content, characterised in that the method includes: providing a virtual area (260, 270, 290) having at least one second content other than the first content arranged there on to extend the idle screen wherein the method further comprises: detecting a scroll request with respect to idle screen; scrolling through the virtual area in a scroll direction according to the scroll request; and displaying, on the idle screen, one or more of the at least one second content other than the first content arranged on the virtual area and one or more of the at least one first content, wherein the virtual area extends the idle screen in at least one direction of horizontal direction, vertical direction or diagonal direction, and wherein the method includes determining, in response to receiving the scroll request, whether an input selecting content from the at least one first content has been received, and, if the selection of the content is maintained during the scroll request, displaying the selected content at a fixed position on the idle screen when scrolling through the virtual area according to the scroll request. displaying an idle screen of the portable terminal having at least one first content, characterised in that the method includes: providing a virtual area (260, 270, 290) having at least one second content other than the first content arranged there on to extend the idle screen wherein the method further comprises: detecting a scroll request with respect to idle screen; scrolling through the virtual area in a scroll direction according to the scroll request; and detecting a scroll request with respect to idle screen; scrolling through the virtual area in a scroll direction according to the scroll request; and displaying, on the idle screen, one or more of the at least one second content other than the first content arranged on the virtual area and one or more of the at least one first content, wherein the virtual area extends the idle screen in at least one direction of horizontal direction, vertical direction or diagonal direction, and wherein the method includes determining, in response to receiving the scroll request, whether an input selecting content from the at least one first content has been received, and, if the selection of the content is maintained during the scroll request, displaying the selected content at a fixed position on the idle screen when scrolling through the virtual area according to the scroll request.
A circular anastomosis stapler kit that delivers a therapeutic agent followed by stapling of tissue comprising: a) a stapling head with a shaft extending from said stapling head and an anvil, wherein the anvil can be removably connected to the shaft; and b) a delivery head for delivering a therapeutic agent into the tissue, said delivery head comprising: a. a ring-shaped body having a front side and an opposing rear side and having a central cylindrical opening therethrough that is slidably movable over the shaft; b. a channel within the ring-shaped body terminating in a port; characterised in that c. a plurality of circumferentially positioned hollow microneedles are disposed on the front side surface of the ring-shaped body that are in fluid communication with the channel. a) a stapling head with a shaft extending from said stapling head and an anvil, wherein the anvil can be removably connected to the shaft; and b) a delivery head for delivering a therapeutic agent into the tissue, said delivery head comprising: a. a ring-shaped body having a front side and an opposing rear side and having a central cylindrical opening therethrough that is slidably movable over the shaft; b. a channel within the ring-shaped body terminating in a port; characterised in that c. a plurality of circumferentially positioned hollow microneedles are disposed on the front side surface of the ring-shaped body that are in fluid communication with the channel. a. a ring-shaped body having a front side and an opposing rear side and having a central cylindrical opening therethrough that is slidably movable over the shaft; b. a channel within the ring-shaped body terminating in a port; characterised in that c. a plurality of circumferentially positioned hollow microneedles are disposed on the front side surface of the ring-shaped body that are in fluid communication with the channel.
A plasma reactor for a Dielectric Barrier Discharge system, comprising: one or more DBD plasma reactor modules, wherein the one or more plasma reactor modules are configured as transmission lines, and wherein a duration of a rise-time and/or a fall-time of a voltage pulse, fed into a first end of the one or more plasma reactor modules is shorter than a run-time of the voltage pulse from a first end of the one or more reactor modules to a second end of the one or more reactor modules. the one or more plasma reactor modules are configured as transmission lines, and wherein a duration of a rise-time and/or a fall-time of a voltage pulse, fed into a first end of the one or more plasma reactor modules is shorter than a run-time of the voltage pulse from a first end of the one or more reactor modules to a second end of the one or more reactor modules.
A photovoltaic cell comprising: a photovoltaic layer configured to convert light energy to electrical energy; a front conductive layer disposed on a first side of the photovoltaic layer; a back conductive layer disposed on a second side of the photovoltaic layer, the second side opposite to the first side, wherein the front conductive layer and the back conductive layer are configured to conduct electrical current originated from the photovoltaic layer to an external circuitry; and a support substrate layer disposed under the photovoltaic layer, wherein: a back via extends through the support substrate, dispensed with a conductive material forming an electrical contact with the back conductive layer, and a front via extends through the support substrate layer, the back conductive layer and the photovoltaic layer, dispensed with a conductive material and an insulation material, the insulation material insulating the conductive material from an electrical contact with the back conductive layer and a P side of the photovoltaic layer, the conductive material forming an electrical contact with the front conductive layer. a photovoltaic layer configured to convert light energy to electrical energy; a front conductive layer disposed on a first side of the photovoltaic layer; a back conductive layer disposed on a second side of the photovoltaic layer, the second side opposite to the first side, wherein the front conductive layer and the back conductive layer are configured to conduct electrical current originated from the photovoltaic layer to an external circuitry; and a support substrate layer disposed under the photovoltaic layer, wherein: a back via extends through the support substrate, dispensed with a conductive material forming an electrical contact with the back conductive layer, and a front via extends through the support substrate layer, the back conductive layer and the photovoltaic layer, dispensed with a conductive material and an insulation material, the insulation material insulating the conductive material from an electrical contact with the back conductive layer and a P side of the photovoltaic layer, the conductive material forming an electrical contact with the front conductive layer. a back via extends through the support substrate, dispensed with a conductive material forming an electrical contact with the back conductive layer, and a front via extends through the support substrate layer, the back conductive layer and the photovoltaic layer, dispensed with a conductive material and an insulation material, the insulation material insulating the conductive material from an electrical contact with the back conductive layer and a P side of the photovoltaic layer, the conductive material forming an electrical contact with the front conductive layer.
Subscriber station for connection to a bus line, wherein the subscriber station is configured to transmit a signal of a CAN bus system in coexistence with a signal of a further bus system via the bus line, wherein the subscriber station comprises: a receiving unit for receiving a signal (r Bus (t)) of the further bus system and for compensating for a disturbance in the received signal (r Bus (t)) that arises on account of a changing output impedance (R OUT (t)) of another subscriber station of the CAN bus system that is connected to the bus line, wherein r Bus (t) is provided by r Bus (t) = a 1 S CAN (t) + a 2 S HF (t) + a 3 S CAN (t) x S HF (t), wherein S CAN (t) is the signal of the other subscriber station connected to the bus line, s HF (t) is the signal of the subscriber station and a 1, a 2 and a 3 are factors of the signal r Bus (t), and the signal component a 3 s CAN (t) x S HF (t) represents the disturbance, wherein the receiving unit has a determining device for determining predetermined coefficients a 1 ', a 2 ' and a 3 ' for the signal r Bus (t) received by the receiving unit, wherein the predetermined coefficients a 1 ', a 2 ' and a 3 ' are estimates of the factors a 1, a 2 and a 3, and wherein the receiving unit has a compensating device for compensating for the component of the received CAN signal S CAN (t) in the signal of the further bus system by using the predetermined coefficients a 1 ', a 2 ' and a 3 '. a receiving unit for receiving a signal (r Bus (t)) of the further bus system and for compensating for a disturbance in the received signal (r Bus (t)) that arises on account of a changing output impedance (R OUT (t)) of another subscriber station of the CAN bus system that is connected to the bus line, wherein r Bus (t) is provided by r Bus (t) = a 1 S CAN (t) + a 2 S HF (t) + a 3 S CAN (t) x S HF (t), wherein S CAN (t) is the signal of the other subscriber station connected to the bus line, s HF (t) is the signal of the subscriber station and a 1, a 2 and a 3 are factors of the signal r Bus (t), and the signal component a 3 s CAN (t) x S HF (t) represents the disturbance, wherein the receiving unit has a determining device for determining predetermined coefficients a 1 ', a 2 ' and a 3 ' for the signal r Bus (t) received by the receiving unit, wherein the predetermined coefficients a 1 ', a 2 ' and a 3 ' are estimates of the factors a 1, a 2 and a 3, and wherein the receiving unit has a compensating device for compensating for the component of the received CAN signal S CAN (t) in the signal of the further bus system by using the predetermined coefficients a 1 ', a 2 ' and a 3 '.
A pharmaceutical gel composition for intra-intestinal administration, comprising a dopamine replacement agent, a dopamine decarboxylase inhibitor, and a catechol-O-methyltransferase (COMT) inhibitor; wherein the dopamine replacement agent is levodopa, the dopamine decarboxylase inhibitor is carbidopa and the catechol-O-methyltransferase (COMT) inhibitor is entacapone; and wherein the composition comprises at least about 10 mg/ml of levodopa, at least about 2.5 mg/ml of the dopamine decarboxylase inhibitor, and at least about 10 mg/ml of the COMT inhibitor.
A heat shield panel (200; 300; 400; 600) for a gas turbine engine combustor extending circumferentially about a longitudinal central axis, comprising: a hot side (230; 630) defining a first surface having an outer perimeter, the first surface defining a curved base extending circumferentially between a first circumferential end and a second circumferential end and axially between an upstream axial end and a downstream axial end; a cold side (232; 632) defining a second surface spaced from the first surface; and a plurality of holes (240; 340; 440; 640) extending through the heat shield panel (200; 300; 400; 600), each of the plurality of holes (240; 340; 440; 640) having a common vector (254; 354; 454; 654); each hole (258; 348; 458; 658) including a central axis (256; 356; 456; 656) having an axial vector component, a radial vector component and a circumferential vector component that equals the axial vector component, the radial vector component and the circumferential vector component of the common vector (254; 354; 454; 654), wherein a first subset of the plurality of holes (240; 340; 440; 640) is positioned on a first circumferential line extending from a first circumferential end of the outer perimeter of the heat shield panel (200; 300; 400; 600) to a second circumferential end of the outer perimeter of the heat shield panel (200; 300; 400; 600). a hot side (230; 630) defining a first surface having an outer perimeter, the first surface defining a curved base extending circumferentially between a first circumferential end and a second circumferential end and axially between an upstream axial end and a downstream axial end; a cold side (232; 632) defining a second surface spaced from the first surface; and a plurality of holes (240; 340; 440; 640) extending through the heat shield panel (200; 300; 400; 600), each of the plurality of holes (240; 340; 440; 640) having a common vector (254; 354; 454; 654); each hole (258; 348; 458; 658) including a central axis (256; 356; 456; 656) having an axial vector component, a radial vector component and a circumferential vector component that equals the axial vector component, the radial vector component and the circumferential vector component of the common vector (254; 354; 454; 654), wherein a first subset of the plurality of holes (240; 340; 440; 640) is positioned on a first circumferential line extending from a first circumferential end of the outer perimeter of the heat shield panel (200; 300; 400; 600) to a second circumferential end of the outer perimeter of the heat shield panel (200; 300; 400; 600).
A window or door, comprising a sash and a frame, on which the sash is movably mounted, and a drive, by means of which the sash can be opened and closed, wherein the sash is unlockable and then is manually movable from a closed position into an open position, wherein the drive comprises a motor and a gearing and at least one gearing element of the gearing can be disengaged to unlock the sash, wherein the drive is arranged, located concealed and externally not visible, in a rebate between the frame and the sash in the closed position of the sash, and in a locked position of the sash, the drive is at a position which is formed adjacent to a gap between a protruding cantilever of a profile of the sash and the frame, wherein a seal is arranged in the gap, characterized in that the sash and the frame are connected to one another via at least one drive means and the gearing acts between the motor and the drive means, and the drive comprises a housing (30, 31), within which the motor and the gearing are arranged, and a recess for the engagement of a tool, which is insertable into the gap by pressing in the seal, for disengaging the gearing element is provided on the housing (30, 31).
A method for coating a personal care device with a conditioning layer for contacting a hair or skin surface, the conditioning layer comprising a solid matrix of a porous, hydrophilic material and a hydrophobic conditioning agent fluid dispersed in the pores of the solid matrix, the method comprising: preparing an immiscible composition comprising a hydrophobic conditioning agent fluid and a hydrophilic material; forming, by a sol-gel process, the immiscible composition into a porous matrix of the hydrophilic material having the hydrophobic conditioning agent fluid dispersed in the pores thereof; and, applying the matrix as a layer to a surface of a component of the personal care device. preparing an immiscible composition comprising a hydrophobic conditioning agent fluid and a hydrophilic material; forming, by a sol-gel process, the immiscible composition into a porous matrix of the hydrophilic material having the hydrophobic conditioning agent fluid dispersed in the pores thereof; and, applying the matrix as a layer to a surface of a component of the personal care device.
An electrically heated aerosol-generating system comprising an aerosol-generating device and a cartridge configured to be used with the device, wherein the device comprises a device housing defining a cavity for receiving at least a portion of the cartridge; an inductor coil positioned in the device housing around or adjacent to the cavity and positioned outside of the cartridge when the cartridge is received in the cavity; and a power supply connected to the inductor coil and configured to provide a high frequency oscillating current to the inductor coil; the cartridge comprising a cartridge housing containing an aerosol-forming substrate, the cartridge housing having an internal surface surrounding an internal passage through which air can flow; a susceptor element positioned to heat the aerosol-forming substrate; and a capillary material; wherein the aerosol forming substrate is a liquid substrate held in the capillary material; and wherein, in use, a magnetic field generated by the inductor coil causes the generation of heat in the susceptor element in the cartridge. the cartridge comprising a cartridge housing containing an aerosol-forming substrate, the cartridge housing having an internal surface surrounding an internal passage through which air can flow; a susceptor element positioned to heat the aerosol-forming substrate; and a capillary material; wherein the aerosol forming substrate is a liquid substrate held in the capillary material; and wherein, in use, a magnetic field generated by the inductor coil causes the generation of heat in the susceptor element in the cartridge.
A method for transmitting channel state information on downlink transmission through an uplink in a wireless communication system, the method comprising: transmitting (S2411, S2421) a rank indicator, RI, and a precoder type indicator, PTI, according to a first reporting period; when the PTI has a value of 0, transmitting (S2412, S2415) a wideband, WB, first precoding matrix index, PMI, according to a second reporting period within the first reporting period, and transmitting (S2413, S2414) a WB second PMI and a WB channel quality indicator, CQI, one time or more within the second reporting period; and when the PTI has a value of 1, transmitting (S2422, S2426) a WB second PMI and a WB CQI according to a third reporting period within the first reporting period, and transmitting (S2423, S2425) a subband, SB, second PMI and an SB CQI one time or more within the third reporting period, wherein the SB CQI is transmitted one time or more for full cycles of bandwidth parts, BPs. transmitting (S2411, S2421) a rank indicator, RI, and a precoder type indicator, PTI, according to a first reporting period; when the PTI has a value of 0, transmitting (S2412, S2415) a wideband, WB, first precoding matrix index, PMI, according to a second reporting period within the first reporting period, and transmitting (S2413, S2414) a WB second PMI and a WB channel quality indicator, CQI, one time or more within the second reporting period; and when the PTI has a value of 1, transmitting (S2422, S2426) a WB second PMI and a WB CQI according to a third reporting period within the first reporting period, and transmitting (S2423, S2425) a subband, SB, second PMI and an SB CQI one time or more within the third reporting period, wherein the SB CQI is transmitted one time or more for full cycles of bandwidth parts, BPs.