mhurhangee/ep-ind-claims huggingface dataset:
A concentrate comprising A) from 40% to 95%, of a composition comprising, relative to the total weight of A): 1) from 10% to 35% of polybutene-1 having a melt flow rate from 100 to 1000 g/10 min., measured at 190°C/2.16 kg according to ASTM D1238, condition E and is selected from the group consisting of homopolymers having an isotacticity from 96 to 99%, measured as quantity by weight of matter insoluble in xylene at 0°C, and copolymers having an isotacticity greater than or equal to 60%, measured as quantity by weight of matter soluble in xylene at 0°C; 2) from 90% to 65% having an index of isotacticity greater than or equal to 90 measured as the fraction that is insoluble in boiling heptane; of polypropylene. B) from 5% to 60% of one or more additives. A) from 40% to 95%, of a composition comprising, relative to the total weight of A): 1) from 10% to 35% of polybutene-1 having a melt flow rate from 100 to 1000 g/10 min., measured at 190°C/2.16 kg according to ASTM D1238, condition E and is selected from the group consisting of homopolymers having an isotacticity from 96 to 99%, measured as quantity by weight of matter insoluble in xylene at 0°C, and copolymers having an isotacticity greater than or equal to 60%, measured as quantity by weight of matter soluble in xylene at 0°C; 2) from 90% to 65% having an index of isotacticity greater than or equal to 90 measured as the fraction that is insoluble in boiling heptane; of polypropylene. 1) from 10% to 35% of polybutene-1 having a melt flow rate from 100 to 1000 g/10 min., measured at 190°C/2.16 kg according to ASTM D1238, condition E and is selected from the group consisting of homopolymers having an isotacticity from 96 to 99%, measured as quantity by weight of matter insoluble in xylene at 0°C, and copolymers having an isotacticity greater than or equal to 60%, measured as quantity by weight of matter soluble in xylene at 0°C; 2) from 90% to 65% having an index of isotacticity greater than or equal to 90 measured as the fraction that is insoluble in boiling heptane; of polypropylene. B) from 5% to 60% of one or more additives.
Compressor, which has a first drive part and a second drive part and at least one first high-pressure part, wherein the first drive part has a first drive piston which can be displaced in a first drive chamber and the second drive part has a second drive piston which can be displaced in a second drive chamber and the first high-pressure part has a high-pressure piston which can be displaced in a first pressure cylinder and wherein the first drive piston and the second drive piston, controlled via a first control unit, can each be alternately acted upon by a drive fluid and the first drive piston, the second drive piston and the high-pressure piston can be displaced together in a coupled manner via a piston rod arrangement, characterised in that a second control unit is assigned to the second drive part, which is connected downstream of the first control unit and via which the action of drive fluid on the second drive piston can be switched on, wherein the action of drive fluid on the second drive piston can be switched on as a function of an actual pressure (pB ist) in a target system on the high-pressure side of the at least one high-pressure part.
A heat source unit connectable to a utilization-side unit through a connection pipe (18, 19), to form a refrigeration apparatus including a refrigerant circuit performing a refrigeration cycle, the heat source unit housing at least a compressor and a heat-source-side heat exchanger, each of which constitutes the refrigerant circuit, wherein the heat-source-side heat exchanger is connected to a heat source water circuit in which heat source water circulates so that a refrigerant circulating in the refrigerant circuit exchanges heat with the heat source water, the heat-source-side heat exchanger having a heat exchange region, of a variable size, in which the refrigerant flows and exchanges heat with the heat source water, characterized in that the heat source unit comprises a controller which is configured to adjust the size of the heat exchange region of the heat-source-side heat exchanger so that a differential pressure index value indicating a difference between high pressure and low pressure of the refrigeration cycle performed by the refrigerant circuit becomes equal to or more than a predetermined reference index value.
Contraceptive method for women of child-bearing age, comprising the daily administration of a composition containing an amount of nomegestrol acetate ranging from 0.625 mg to 1.25 mg and an amount of estradiol or an ester thereof, expressed in estradiol, ranging from 0.5 mg to 2 mg, for a period of 21 to 28 days, wherein the weight ratio of the amount of estradiol to the amount of nomegestrol acetate is in the range from 0.5 to 5, preferably from 1 to 3.
A method of transmitting data from a transmitting entity in a multiple-input multiple-output MIMO communication system, comprising: obtaining a plurality of steering vectors for a plurality of receiving entities, one steering vector for each receiving entity; performing spatial processing on a plurality of data symbol streams with the plurality of steering vectors to obtain a plurality of transmit symbol streams for transmission from a plurality of transmit antennas at the transmitting entity to the plurality of receiving entities, wherein the steering vector for each receiving entity is derived by decomposing a channel response matrix for the receiving entity to obtain a plurality of eigenvectors and a plurality of singular values, and forming the steering vector for the receiving entity based on an eigenvector corresponding to a largest singular value among the plurality of singular values; and sending a rate selected based on the steering vector and the channel response matrix for each receiving entity. obtaining a plurality of steering vectors for a plurality of receiving entities, one steering vector for each receiving entity; performing spatial processing on a plurality of data symbol streams with the plurality of steering vectors to obtain a plurality of transmit symbol streams for transmission from a plurality of transmit antennas at the transmitting entity to the plurality of receiving entities, wherein the steering vector for each receiving entity is derived by decomposing a channel response matrix for the receiving entity to obtain a plurality of eigenvectors and a plurality of singular values, and forming the steering vector for the receiving entity based on an eigenvector corresponding to a largest singular value among the plurality of singular values; and sending a rate selected based on the steering vector and the channel response matrix for each receiving entity.
A semiconductor light emitting diode device comprising: a first conductivity type semiconductor layer, an active layer and a second conductivity type semiconductor layer which are sequentially stacked; a first conductivity type upper electrode portion and a first conductivity type lower electrode portion disposed to correspond to each other with the first conductivity type semiconductor layer interposed therebetween; a second conductivity type upper electrode portion and a second conductivity type lower electrode portion disposed to correspond to each other with the first and second conductivity type semiconductor layers (100, 200) interposed therebetween; and a second conductivity type electrode connection portion electrically connecting the second conductivity type upper electrode portion and the second conductivity type lower electrode portion, wherein the first conductivity type upper electrode portion is disposed on one surface of the first conductivity type semiconductor layer exposed by an electrode hole penetrating through the second conductivity type semiconductor layer and the active layer, characterized in that a plurality of second conductivity type upper electrode portions are disposed to be spaced apart from one another in the circumferential direction centered on the first conductivity type upper electrode portion, and a plurality of second conductivity type lower electrode portions are disposed to be spaced apart from one another in the circumferential direction centered on the first conductivity type lower electrode portion. a first conductivity type semiconductor layer, an active layer and a second conductivity type semiconductor layer which are sequentially stacked; a first conductivity type upper electrode portion and a first conductivity type lower electrode portion disposed to correspond to each other with the first conductivity type semiconductor layer interposed therebetween; a second conductivity type upper electrode portion and a second conductivity type lower electrode portion disposed to correspond to each other with the first and second conductivity type semiconductor layers (100, 200) interposed therebetween; and a second conductivity type electrode connection portion electrically connecting the second conductivity type upper electrode portion and the second conductivity type lower electrode portion, wherein the first conductivity type upper electrode portion is disposed on one surface of the first conductivity type semiconductor layer exposed by an electrode hole penetrating through the second conductivity type semiconductor layer and the active layer, characterized in that a plurality of second conductivity type upper electrode portions are disposed to be spaced apart from one another in the circumferential direction centered on the first conductivity type upper electrode portion, and a plurality of second conductivity type lower electrode portions are disposed to be spaced apart from one another in the circumferential direction centered on the first conductivity type lower electrode portion.
A relay diagnostic circuit for a plurality of relays connected in series between an electric vehicle power supply end and a load or a charging end, characterized in that the relay diagnostic circuit comprises: a plurality of voltage divider branches connected to a same reference ground, an isolation unit and a judgment unit, wherein each of the voltage divider branches is configured to obtain a voltage of one end of each relay and output the voltage after dividing the voltage; the isolation unit is configured to isolate and convert a plurality of divider voltages output from the plurality of voltage divider branches and output the voltages to the judgment unit; and the judgment unit is configured to compare a comparison information of the divider voltages at two ends of each relay with a corresponding driving state of the relay and obtain a diagnosis result of each relay. a plurality of voltage divider branches connected to a same reference ground, an isolation unit and a judgment unit, wherein each of the voltage divider branches is configured to obtain a voltage of one end of each relay and output the voltage after dividing the voltage; the isolation unit is configured to isolate and convert a plurality of divider voltages output from the plurality of voltage divider branches and output the voltages to the judgment unit; and the judgment unit is configured to compare a comparison information of the divider voltages at two ends of each relay with a corresponding driving state of the relay and obtain a diagnosis result of each relay.
A method of forming droplets, the method comprising: (i) flowing a liquid through a first annular liquid flow channel which comprises a constriction for spreading the liquid into a thin film in the channel, wherein the thickness of the film is less than 0.5 mm (0.020 in); (ii) flowing an atomizing gas (185, 100) through a first and a second gas flow channel (180, 95) and impinging the thin film with the flowing gas (185, 100), wherein the flowing gas exiting the second gas flow channel impinges the thin film at a right angle, to atomize the liquid into droplets having a diameter less than 35 micrometers. (i) flowing a liquid through a first annular liquid flow channel which comprises a constriction for spreading the liquid into a thin film in the channel, wherein the thickness of the film is less than 0.5 mm (0.020 in); (ii) flowing an atomizing gas (185, 100) through a first and a second gas flow channel (180, 95) and impinging the thin film with the flowing gas (185, 100), wherein the flowing gas exiting the second gas flow channel impinges the thin film at a right angle, to atomize the liquid into droplets having a diameter less than 35 micrometers.
A lock housing adapted for use in a locking device for fixation to an elongated element, characterized in that a) a first side comprises at least three holes, where at least one hole comprises threads and is positioned on the first side such that an axial extension of the hole's periphery may cut the elongated element when the locking device is fixed to the elongated element, such that a screw placeable in the hole with the threads can be applied to the elongated element, and in that the lock housing further comprises: b) at least two other sides substantially perpendicular to the first side, whereby the at least two other sides each comprises a recess adapted to receive the elongated element, and wherein, c) the at least two other sides, which are opposite to each other, have the same dimension and shape of the recesses such that the elongated element can run through the lock housing, and wherein the at least two other sides comprise holes or protrusions adapted to be connected with corresponding holes or protrusions on a lock plate. a) a first side comprises at least three holes, where at least one hole comprises threads and is positioned on the first side such that an axial extension of the hole's periphery may cut the elongated element when the locking device is fixed to the elongated element, such that a screw placeable in the hole with the threads can be applied to the elongated element, and in that the lock housing further comprises: b) at least two other sides substantially perpendicular to the first side, whereby the at least two other sides each comprises a recess adapted to receive the elongated element, and wherein, c) the at least two other sides, which are opposite to each other, have the same dimension and shape of the recesses such that the elongated element can run through the lock housing, and wherein the at least two other sides comprise holes or protrusions adapted to be connected with corresponding holes or protrusions on a lock plate.
Method for determining the content of organic silicon compounds in anthropogenic and/or biogenic, methane-containing sewer gases or landfill gases, in which ion mobility spectrometry is used as a measurement method, wherein the anthropogenic and/or biogenic, methane-containing gas is used as a measurement gas, wherein the anthropogenic and/or biogenic containing gas, at least for the time of the analysis, is in continuous gas exchange with an ion-mobility spectrometer, in which the gas is ionised and said ions are subsequently analysed in a drift channel of the ion mobility spectrometer, wherein the ion mobility spectrometer is embedded in a region of a biogas-, sewage gas-, or landfill gas facility filled with an anthropogenic and/or biogenic, methane-containing gas or is in exchange via a gas line with the anthropogenic and/or biogenic, methane-containing gas of the sewage gas- or landfill gas facility.
An absorbent article; comprising a chassis comprising a topsheet, a backsheet and an absorbent core disposed between the topsheet and the backsheet; a first elastomeric laminate comprising a first substrate layer and a second substrate layer and a first plurality of elastics disposed between the first substrate layer and the second substrate layer; wherein the first plurality of elastics comprises a) from 10 to 1000 elastic strands, b) an Average-Strand-Spacing from 0.25 mm to 3 mm, c) an Average-Dtex from 30 to 400, and d) an Average-Pre-Strain from 75% to 300%, wherein the elastic strands are each formed of a number of individual fibers, which number is less than 40 fibers per strand; wherein the first substrate layer and second substrate layer each have a basis weight from 6 grams per square meter to 30 grams per square meter; and wherein the first elastomeric laminate has a Percent Contact Area of at least one of: a) greater than 11% at 100 μm, b) greater than 28% at 200 μm, and c) greater than 51% at 300 μm; wherein the first elastomeric laminate has a 2%-98% Height Value of < 1.6 mm; and wherein the Average-Strand-Spacing, the Average-Pre-Strain, the Percent Contact Area, and the 2%-98% Height Value are measured according the methods described herein. a chassis comprising a topsheet, a backsheet and an absorbent core disposed between the topsheet and the backsheet; a first elastomeric laminate comprising a first substrate layer and a second substrate layer and a first plurality of elastics disposed between the first substrate layer and the second substrate layer; wherein the first plurality of elastics comprises a) from 10 to 1000 elastic strands, b) an Average-Strand-Spacing from 0.25 mm to 3 mm, c) an Average-Dtex from 30 to 400, and d) an Average-Pre-Strain from 75% to 300%, wherein the elastic strands are each formed of a number of individual fibers, which number is less than 40 fibers per strand; wherein the first substrate layer and second substrate layer each have a basis weight from 6 grams per square meter to 30 grams per square meter; and wherein the first elastomeric laminate has a Percent Contact Area of at least one of: a) greater than 11% at 100 μm, b) greater than 28% at 200 μm, and c) greater than 51% at 300 μm; wherein the first elastomeric laminate has a 2%-98% Height Value of < 1.6 mm; and wherein the Average-Strand-Spacing, the Average-Pre-Strain, the Percent Contact Area, and the 2%-98% Height Value are measured according the methods described herein.
A work machine comprising: a variable-displacement pump; an actuator (5; 51,52; 53,54) driven by a hydraulic fluid delivered from the pump; a flow control valve (4; 41,42) of an open-center type that controls a flow rate of the hydraulic fluid supplied to the actuator (5; 51,52; 53,54); a bleed-off line connecting the actuator flow control valve (4; 41,42) to a tank; a bleed-off flow control valve disposed in the bleed-off line; an operating device (3; 31,32) that specifies operation of the actuator (4; 41,42); and a bleed-off control device that controls a degree of opening of the bleed-off flow control valve in accordance with an amount of manipulation of the operating device; (3; 31,32), the work machine characterized by comprising a pump control device that controls, in accordance with the degree of opening of the bleed-off flow control valve, a pump flow rate by correcting a reference pump flow rate that is based on the amount of manipulation of the operating device (3; 31,32). a variable-displacement pump; an actuator (5; 51,52; 53,54) driven by a hydraulic fluid delivered from the pump; a flow control valve (4; 41,42) of an open-center type that controls a flow rate of the hydraulic fluid supplied to the actuator (5; 51,52; 53,54); a bleed-off line connecting the actuator flow control valve (4; 41,42) to a tank; a bleed-off flow control valve disposed in the bleed-off line; an operating device (3; 31,32) that specifies operation of the actuator (4; 41,42); and a bleed-off control device that controls a degree of opening of the bleed-off flow control valve in accordance with an amount of manipulation of the operating device; (3; 31,32), the work machine characterized by comprising a pump control device that controls, in accordance with the degree of opening of the bleed-off flow control valve, a pump flow rate by correcting a reference pump flow rate that is based on the amount of manipulation of the operating device (3; 31,32).
A communication method implemented at a network device, comprising: determining power allocation information for multiuser superposition transmission, the power allocation information indicating power allocation for the multiuser superposition transmission between a near terminal device and far terminal devices on one or more spatial layers; and transmitting the power allocation information to the near terminal device dynamically, wherein the determining power allocation information for multiuser superposition transmission comprises: determining pairing information between the near terminal device and far terminal devices on a plurality of spatial layers, the pairing information indicating whether the near terminal device is paired with a far terminal device on each of the plurality of spatial layers to perform the multiuser superposition transmission; and determining the power allocation information based on the pairing information, the power allocation information including one or more of: the pairing information between the near terminal device and a far terminal device on each of the plurality of spatial layers, an indication of power allocation among the plurality of spatial layers, and an indication of power allocation between the near terminal device and the far terminal device on each of the plurality of spatial layers, wherein the determining the power allocation information based on the pairing information comprises: if the multiuser superposition transmission is performed on all or none of the plurality of spatial layers, allocating powers among the plurality of spatial layers equally; and if the multiuser superposition transmission is performed on one of the plurality of spatial layers, allocating, to a spatial layer on which the multiuser superposition transmission is performed, a power larger than a power allocated to a spatial layer of the plurality of spatial layers on which the multiuser superposition transmission is not performed.
A converter for converting input object data representing a model of a three-dimensional object into a compressed form comprising: a data receiving module to receive data representing object properties of a three-dimensional object to be generated by additive manufacturing apparatus; a categorising module; and an object data module to represent the continuous region as the set of sub-regions; wherein the categorising module comprises: - a data identifying module to identify data representing a continuous region of the object with a common property specification; and - a sub-region defining module to determine, within the data representing the continuous region, a set of contiguous sub-regions as a set of polytopes, wherein the polytopes of the set are scale representations of a predetermined polytope form, and the set of polytopes may be tessellated to provide a representation of the continuous region. a data receiving module to receive data representing object properties of a three-dimensional object to be generated by additive manufacturing apparatus; a categorising module; and an object data module to represent the continuous region as the set of sub-regions; wherein the categorising module comprises: - a data identifying module to identify data representing a continuous region of the object with a common property specification; and - a sub-region defining module to determine, within the data representing the continuous region, a set of contiguous sub-regions as a set of polytopes, wherein the polytopes of the set are scale representations of a predetermined polytope form, and the set of polytopes may be tessellated to provide a representation of the continuous region. - a data identifying module to identify data representing a continuous region of the object with a common property specification; and - a sub-region defining module to determine, within the data representing the continuous region, a set of contiguous sub-regions as a set of polytopes, wherein the polytopes of the set are scale representations of a predetermined polytope form, and the set of polytopes may be tessellated to provide a representation of the continuous region.