mhurhangee/ep-ind-claims huggingface dataset:
A pharmaceutical composition for external use, comprising: -N-[1-(3,5-difluoro-4-methanesulfonylamino-phenyl)-ethyl]-3-(2-propyl-6-trifluoromethyl-pyridin-3-yl)-acrylamide represented by Formula as a first component and a cellulosic polymer as a second component, wherein the cellulosic polymer is contained in amounts of 1 to 5 wt.% of the total weight of the composition, and wherein when observed at a magnification of 100 or more using an optical microscope, crystals of the compound of Formula are not observed in the pharmaceutical composition. -N-[1-(3,5-difluoro-4-methanesulfonylamino-phenyl)-ethyl]-3-(2-propyl-6-trifluoromethyl-pyridin-3-yl)-acrylamide represented by Formula as a first component and a cellulosic polymer as a second component, wherein the cellulosic polymer is contained in amounts of 1 to 5 wt.% of the total weight of the composition, and wherein when observed at a magnification of 100 or more using an optical microscope, crystals of the compound of Formula are not observed in the pharmaceutical composition.
Portable electronic device, comprising a temperature sensor for sensing an ambient temperature (T R) of the portable electronic device, at least one other temperature sensor for sensing a temperature (T I) inside the portable electronic device, a set of components radiating heat in an active state in response to the consumption of electrical energy, a calibration module adapted to conduct a calibration measurement during or in connection with an inactive state of the components of the set, and adapted to determine a set of calibration parameters in response to the calibration measurement for adjusting the at least one sensed inside temperature (T 1), and a compensator for determining a compensated ambient temperature (T A) dependent on at least the sensed ambient temperature (T S) and the at least one adjusted sensed inside temperature (c1, T 1), wherein the calibration module is adapted to conduct the calibration measurement in connection with a stand-by state of the portable electronic device.
A combined-cycle power plant, comprising: a gas turbine assembly (2; 102a, 102b), having an air intake (18; 118a, 118b) for sucking an inlet airflow (QI; QI1, QI2); auxiliary devices (10; 110); a closed cooling circuit (11;111) for cooling the auxiliary devices (10; 110), the closed cooling circuit (11; 111) comprising a first heat exchanger and pumps that circulate a working fluid between the first heat exchanger and the auxiliary devices; and an inlet-air heating device (12; 112a, 112b), operable to heat the inlet airflow (QI; QI1, QI2) sucked through the air intake (18; 118a, 118b); characterized in that the inlet-air heating device (12; 112a, 112b) comprises: a second heat exchanger (28; 128a, 128b), arranged along the air intake (18; 118a, 118b) so as to be hit by the inlet airflow (QI; QI1, QI2) and configured to allow heat exchange between the working fluid of the closed cooling circuit (11; 111) and the inlet airflow (QI; QI1, QI2) sucked through the air intake (18; 118a, 118b); and a regulating valve (30; 130a, 130b) arranged along the closed cooling circuit (11; 111) and operable to control a working fluid flow (QW; QW1, QW2) of the closed cooling circuit (11; 111) provided to the second heat exchanger (28; 128a, 128b). a gas turbine assembly (2; 102a, 102b), having an air intake (18; 118a, 118b) for sucking an inlet airflow (QI; QI1, QI2); auxiliary devices (10; 110); a closed cooling circuit (11;111) for cooling the auxiliary devices (10; 110), the closed cooling circuit (11; 111) comprising a first heat exchanger and pumps that circulate a working fluid between the first heat exchanger and the auxiliary devices; and an inlet-air heating device (12; 112a, 112b), operable to heat the inlet airflow (QI; QI1, QI2) sucked through the air intake (18; 118a, 118b); characterized in that the inlet-air heating device (12; 112a, 112b) comprises: a second heat exchanger (28; 128a, 128b), arranged along the air intake (18; 118a, 118b) so as to be hit by the inlet airflow (QI; QI1, QI2) and configured to allow heat exchange between the working fluid of the closed cooling circuit (11; 111) and the inlet airflow (QI; QI1, QI2) sucked through the air intake (18; 118a, 118b); and a regulating valve (30; 130a, 130b) arranged along the closed cooling circuit (11; 111) and operable to control a working fluid flow (QW; QW1, QW2) of the closed cooling circuit (11; 111) provided to the second heat exchanger (28; 128a, 128b). a second heat exchanger (28; 128a, 128b), arranged along the air intake (18; 118a, 118b) so as to be hit by the inlet airflow (QI; QI1, QI2) and configured to allow heat exchange between the working fluid of the closed cooling circuit (11; 111) and the inlet airflow (QI; QI1, QI2) sucked through the air intake (18; 118a, 118b); and a regulating valve (30; 130a, 130b) arranged along the closed cooling circuit (11; 111) and operable to control a working fluid flow (QW; QW1, QW2) of the closed cooling circuit (11; 111) provided to the second heat exchanger (28; 128a, 128b).
A method for calibrating an actuator system for a turbocharger variable nozzle that directs fluid into a turbine of the turbocharger, the variable nozzle having a variable-geometry member that is movable for varying a flow rate through the nozzle, the actuator system comprising an electronically controllable actuator coupled with the variable-geometry member and operable for causing movement thereof, and an electronic controller operable for controlling the actuator, the electronic controller having a memory for storing data used by the electronic controller, the method comprising the steps of: (a) supplying a flow of fluid through the nozzle; (b) causing a continuous or stepwise movement of the actuator so as to move the variable- geometry member to cause a continuous or stepwise change in flow rate of the fluid through the nozzle, monitoring the changing flow rate, and recording at least two different points representing two different actuator positions and corresponding flow rates (106, 112), further comprising continually monitoring pressure ratio across the turbine as the flow rate changes during this step, and adjusting turbine inlet pressure to maintain a generally constant pressure ratio across the turbine; and (c) storing in the memory of the electronic controller a multi-point calibration representing actuator position as a function of an input parameter designed to achieve a desired flow rate, the multi-point calibration comprising at least two points derived from the actuator positions and flow rates determined in step (b). (a) supplying a flow of fluid through the nozzle; (b) causing a continuous or stepwise movement of the actuator so as to move the variable- geometry member to cause a continuous or stepwise change in flow rate of the fluid through the nozzle, monitoring the changing flow rate, and recording at least two different points representing two different actuator positions and corresponding flow rates (106, 112), further comprising continually monitoring pressure ratio across the turbine as the flow rate changes during this step, and adjusting turbine inlet pressure to maintain a generally constant pressure ratio across the turbine; and (c) storing in the memory of the electronic controller a multi-point calibration representing actuator position as a function of an input parameter designed to achieve a desired flow rate, the multi-point calibration comprising at least two points derived from the actuator positions and flow rates determined in step (b).
A liquid fabric softener composition comprising: a) a quaternary ammonium ester softening active; b) from 0.01% to 5.0% by weight of the composition of non-ionic surfactant wherein the non-ionic surfactant is an ethoxylated non-ionic surfactant; c) cellulose fibers; wherein the cellulose fibers are cellulose micro or nano fibrils. a) a quaternary ammonium ester softening active; b) from 0.01% to 5.0% by weight of the composition of non-ionic surfactant wherein the non-ionic surfactant is an ethoxylated non-ionic surfactant; c) cellulose fibers; wherein the cellulose fibers are cellulose micro or nano fibrils.
A method of assessing aneuploidy of maternal meiotic origin in a human egg, the method comprising: in a first polar body, PB1, which has been obtained from said human egg, said first polar body comprising one or more PB1 chromosomes, interrogating at least 25 closely adjacent biallelic SNPs flanking the centromeres of said one or more PB1 chromosomes, and based on the results of the interrogation, assessing the presence or degree of centromeric heterozygosity, CH, for said one or more PB1 chromosomes. in a first polar body, PB1, which has been obtained from said human egg, said first polar body comprising one or more PB1 chromosomes, interrogating at least 25 closely adjacent biallelic SNPs flanking the centromeres of said one or more PB1 chromosomes, and based on the results of the interrogation, assessing the presence or degree of centromeric heterozygosity, CH, for said one or more PB1 chromosomes.
A method performed by a mobility host identity protocol proxy, MHP, the method comprising: • Receiving a host identity protocol, HIP, packet addressed to a mobile host, MH, wherein the MH is attached to the MHP and registered with the MHP; • determining if the MH is capable of performing operations of a host identity protocol, HIP, wherein the HIP supports multiple identifiers for a single communications device, and wherein the multiple identifiers comprises a first identifier for identification purposes and a second identifier for addressing purposes, • forwarding the HIP packet to the MH if the MH is capable of performing operations of the HIP; • converting the HIP packet into an IP packet and forwarding the IP packet to the MH if the MH is not capable of performing operations of the HIP, the method being characterized in that the determining comprises: - if the MH has attached to the MHP and registered with the MHP using IP packets without performing a HIP registration, determining that the MH is not capable of performing operations of the HIP; - if the MH has attached to the MHP and registered with the MHP using HIP packets and performing HIP registration, determining that the MH is capable of performing operation of the HIP. • Receiving a host identity protocol, HIP, packet addressed to a mobile host, MH, wherein the MH is attached to the MHP and registered with the MHP; • determining if the MH is capable of performing operations of a host identity protocol, HIP, wherein the HIP supports multiple identifiers for a single communications device, and wherein the multiple identifiers comprises a first identifier for identification purposes and a second identifier for addressing purposes, • forwarding the HIP packet to the MH if the MH is capable of performing operations of the HIP; • converting the HIP packet into an IP packet and forwarding the IP packet to the MH if the MH is not capable of performing operations of the HIP, the method being characterized in that the determining comprises: - if the MH has attached to the MHP and registered with the MHP using IP packets without performing a HIP registration, determining that the MH is not capable of performing operations of the HIP; - if the MH has attached to the MHP and registered with the MHP using HIP packets and performing HIP registration, determining that the MH is capable of performing operation of the HIP. - if the MH has attached to the MHP and registered with the MHP using IP packets without performing a HIP registration, determining that the MH is not capable of performing operations of the HIP; - if the MH has attached to the MHP and registered with the MHP using HIP packets and performing HIP registration, determining that the MH is capable of performing operation of the HIP.
A device for aggregating cells comprising at least one cavity, wherein said cavity comprises a plurality of microwells for receiving at least one cell, wherein each said well comprises a vertical sidewall and a curved bottom, wherein said microwells are made in a hydrogel layer.
A chemical-liquid injector, comprising: a piston-driving mechanism that moves a piston member of a syringe containing a contrast medium, the piston-driving mechanism including an actuator and a ram member which is moved back and forth by the actuator; a control circuit which is electrically connected to the actuator; and an operating knob unit which includes an operating knob that is configured to be rotatable and to be operated by an operator, and a rotation sensor that outputs an electrical signal corresponding to a rotation of the operating knob wherein the operating knob is not mechanically connected to the piston-driving mechanism, a light-emitting device which is electrically connected to the control circuit, wherein the control circuit is configured to operate the piston-driving mechanism on the basis of the signal from the rotation sensor, and make the light-emitting device emit light in a case in which the ram member of the piston-driving mechanism is made to advance and a case in which the ram member of the piston-driving mechanism is made to retreat, and wherein a relationship of an amount of rotation of the operating knob and an amount of movement of the ram member is set to be such that when the operating knob is rotated through one rotation, the amount of movement of the ram member is a predetermined amount of movement wherein the control circuit is configured so as not to operate the actuator and not to make the light emitting device to emit light even if the operating knob is rotated when the movement of the ram member is inhibited. a piston-driving mechanism that moves a piston member of a syringe containing a contrast medium, the piston-driving mechanism including an actuator and a ram member which is moved back and forth by the actuator; a control circuit which is electrically connected to the actuator; and an operating knob unit which includes an operating knob that is configured to be rotatable and to be operated by an operator, and a rotation sensor that outputs an electrical signal corresponding to a rotation of the operating knob wherein the operating knob is not mechanically connected to the piston-driving mechanism, a light-emitting device which is electrically connected to the control circuit, wherein the control circuit is configured to operate the piston-driving mechanism on the basis of the signal from the rotation sensor, and make the light-emitting device emit light in a case in which the ram member of the piston-driving mechanism is made to advance and a case in which the ram member of the piston-driving mechanism is made to retreat, and wherein a relationship of an amount of rotation of the operating knob and an amount of movement of the ram member is set to be such that when the operating knob is rotated through one rotation, the amount of movement of the ram member is a predetermined amount of movement wherein the control circuit is configured so as not to operate the actuator and not to make the light emitting device to emit light even if the operating knob is rotated when the movement of the ram member is inhibited.
A sealed housing of a device to be installed in a motor vehicle, in particular an electric heating device, comprising a housing lower part and a housing cover abutting on the housing lower part via an intermediate sealing element, characterized by an elongate positive locking element (60, 70), which interconnects the housing lower part and the housing cover in a form fit manner and which is provided between opposed contact surfaces of the housing lower part and a housing cover and abuts on the contact surfaces under a pretensioning force caused by compression of the sealing element.
Vehicle luminaire for illuminating the interior of the vehicle, comprising - at least one first light source, - a two-dimensional masking element, one side of which is oriented towards a side facing away from the interior of the vehicle and the other side of which is oriented towards a side facing the interior of the vehicle, and - a light-guiding body having, on the side of the masking element which faces away from the interior of the vehicle, a light input-coupling face near which the first light source is arranged and into which the light emission of the first light source is coupled, and having, on the side of the masking element which faces the interior of the vehicle, a light output-coupling face, in the case of which the coupled-in light is coupled out into the interior of the vehicle, wherein the light-guiding body extends around the masking element from the side which faces away from the interior of the vehicle to the side which faces the interior of the vehicle, wherein - the masking element has at least one opening and - at least one second light source, the light emission of which passes through the opening and through the light-guiding body into the vehicle interior, is arranged near the opening on the side of the masking element which faces away from the vehicle interior, and characterized in that - the light-guiding body has, on the side of the masking element which faces away from the interior of the vehicle, a cutout adjacent to the opening of the masking element, which cutout at least partially receives the second light source. - at least one first light source, - a two-dimensional masking element, one side of which is oriented towards a side facing away from the interior of the vehicle and the other side of which is oriented towards a side facing the interior of the vehicle, and - a light-guiding body having, on the side of the masking element which faces away from the interior of the vehicle, a light input-coupling face near which the first light source is arranged and into which the light emission of the first light source is coupled, and having, on the side of the masking element which faces the interior of the vehicle, a light output-coupling face, in the case of which the coupled-in light is coupled out into the interior of the vehicle, wherein the light-guiding body extends around the masking element from the side which faces away from the interior of the vehicle to the side which faces the interior of the vehicle, wherein - the masking element has at least one opening and - at least one second light source, the light emission of which passes through the opening and through the light-guiding body into the vehicle interior, is arranged near the opening on the side of the masking element which faces away from the vehicle interior, and - the light-guiding body has, on the side of the masking element which faces away from the interior of the vehicle, a cutout adjacent to the opening of the masking element, which cutout at least partially receives the second light source.
Laboratory balance, comprising a weighing chamber with a weighing chamber rear wall, a weighing pan located inside the weighing chamber, a housing 11 adjoining the weighing chamber rear wall, and a weighing cell located inside the housing, wherein the weighing cell comprises a load-receiving structure arranged on a side of the weighing cell that faces the weighing chamber rear wall, said load-receiving structure comprising a suspension pin extending in transverse direction of the load-receiving structure, wherein the weighing pan is movable in a longitudinal direction of the laboratory balance towards and away from the weighing chamber rear wall, and the weighing chamber rear wall has at least one passage opening through which the weighing pan can be brought into engagement with the load-receiving structure, wherein the weighing pan comprises two sidebars spaced apart and held together by a connecting member, each of the two sidebars having a substantially L-shaped configuration with a substantially horizontal portion and a substantially vertical portion joined together at substantially a right angle, wherein the vertical portion further comprises a hook-shaped portion configured to engage the suspension pin of the load-receiving structure, characterized in that the vertical portion of each of the two sidebars further comprises a guiding portion extending from the hook-shaped portion in the direction towards the load-receiving structure and sloping upwards from the hook-shaped portion wherein, through sliding contact between the suspension pin and the guiding portion, the hook-shaped portion, is guidable to seat itself in an engaged position on the suspension pin.
Mechanical seal assembly comprising - a mechanical seal having a rotating slide ring and a stationary slide ring which define a sealing gap therebetween, wherein the rotating slide ring has a base region, a slide region and a decoupling device, and - wherein the decoupling device is disposed in the radial direction of the rotating slide ring between the base region and the slide region, characterised by - a bellows element which is disposed on the stationary slide ring, - wherein the bellows element has a first partial bellows and a second partial bellows, wherein the first partial bellows has a first bellows region, a first inner edge region and a first outer edge region and wherein the second partial bellows has a second bellows region, a second inner edge region and a second outer edge region. - a mechanical seal having a rotating slide ring and a stationary slide ring which define a sealing gap therebetween, wherein the rotating slide ring has a base region, a slide region and a decoupling device, and - wherein the decoupling device is disposed in the radial direction of the rotating slide ring between the base region and the slide region, characterised by - a bellows element which is disposed on the stationary slide ring, - wherein the bellows element has a first partial bellows and a second partial bellows, wherein the first partial bellows has a first bellows region, a first inner edge region and a first outer edge region and wherein the second partial bellows has a second bellows region, a second inner edge region and a second outer edge region.
A picture compression system, comprising: a color space mapper that maps an input image to a YC o C g color space representation through a scaled version of the equation Y C o C g = 1 2 1 2 0 − 2 − 1 − 2 − 1 R G B; a lossless transform component that receives input values from the color space mapper, the lossless transform component providing an output comprising lossless transform coefficients, the lossless transform coefficients being based, at least in part, upon a hierarchical Hadamard transform of the input values; and, an entropy encoder that digitally entropy encodes the lossless transform coefficients. a color space mapper that maps an input image to a YC o C g color space representation through a scaled version of the equation Y C o C g = 1 2 1 2 0 − 2 − 1 − 2 − 1 R G B; a lossless transform component that receives input values from the color space mapper, the lossless transform component providing an output comprising lossless transform coefficients, the lossless transform coefficients being based, at least in part, upon a hierarchical Hadamard transform of the input values; and, an entropy encoder that digitally entropy encodes the lossless transform coefficients.