mhurhangee/ep-ind-claims huggingface dataset:
A press machine performing press working by transforming a rotation of an electric motor into a reciprocating linear motion of a slide by using an eccentric mechanism which transforms a rotational motion into a linear motion, the press machine comprising: a display unit; and an operation unit which receives an input operation, characterized in that the display unit displays a first image in a circular shape corresponding to a rotation of the eccentric mechanism and representing one stroke of slide operation and a second image (70, 71, 72, 73) in a circular-arc shape corresponding to an operation of an attachment device (13, 14), which is interlocked with the press machine such that the operation of the attachment device (13, 14) is provided in a relation to the slide motion, the first image indicating at least one slide operation region (40, 41, 42), the second image (70, 71, 72, 73) being placed concentrically with the first image in relation to the slide operation region (40, 41, 42), and the second image (70, 71, 72, 73) having opposed ends each allowed to move in response to the input operation in a direction in which the second image (70, 71, 72, 73) extends. a display unit; and an operation unit which receives an input operation, characterized in that the display unit displays a first image in a circular shape corresponding to a rotation of the eccentric mechanism and representing one stroke of slide operation and a second image (70, 71, 72, 73) in a circular-arc shape corresponding to an operation of an attachment device (13, 14), which is interlocked with the press machine such that the operation of the attachment device (13, 14) is provided in a relation to the slide motion, the first image indicating at least one slide operation region (40, 41, 42), the second image (70, 71, 72, 73) being placed concentrically with the first image in relation to the slide operation region (40, 41, 42), and the second image (70, 71, 72, 73) having opposed ends each allowed to move in response to the input operation in a direction in which the second image (70, 71, 72, 73) extends.
A print liquid supply unit, comprising: a first housing component that is welded to a second housing component along a supply joint (106, 668a, 668b), the first and second housing components (102, 104) forming a volume to contain a print liquid inside the print liquid supply unit; a sensor housed in the print liquid supply unit; and a conductor (108, 208a-c, 428, 546, 670a, 670b) connected to the sensor and situated through the supply joint (106, 668a, 668b) from an outside of the supply unit to an inside of the supply unit, wherein the conductor (108, 208a-c, 428, 546, 670a, 670b) is sealed in the supply joint (106, 668a, 668b) with a sealing material (110, 210a-c, 422, 440) to prevent the print liquid from leaking from the inside of the print liquid supply unit to the outside of the print liquid supply unit, while allowing the conductor to pass through the supply joint. a first housing component that is welded to a second housing component along a supply joint (106, 668a, 668b), the first and second housing components (102, 104) forming a volume to contain a print liquid inside the print liquid supply unit; a sensor housed in the print liquid supply unit; and a conductor (108, 208a-c, 428, 546, 670a, 670b) connected to the sensor and situated through the supply joint (106, 668a, 668b) from an outside of the supply unit to an inside of the supply unit, wherein the conductor (108, 208a-c, 428, 546, 670a, 670b) is sealed in the supply joint (106, 668a, 668b) with a sealing material (110, 210a-c, 422, 440) to prevent the print liquid from leaking from the inside of the print liquid supply unit to the outside of the print liquid supply unit, while allowing the conductor to pass through the supply joint.
A polyethylene resin prepared using a continuous process and at least one metallocene catalyst, said polyethylene resin having: a molecular weight distribution M w /M n lower than 6.5; a molecular weight distribution M w /M n of at least 3.5; a density of at most 0.932 g/cm 3 as measured according to the method of standard ISO 1183-1:2012 method A at a temperature of 23 °C; a melt index ranging from an HLMI of at least 1.20 g/10 min to an MI 2 of at most 6.0 g/10 min wherein MI 2 is determined according to ISO 1133:1997 at a temperature of 190 °C and under a load of 2.16 kg, and HLMI is determined according to ISO 1133:1997, at a temperature of 190 °C and under a load of 21.6 kg; a melt index ratio HLMI/MI 2 below or equal to 30; and a melt strength of X in Newtons, as determined by Göttfert Rheotens Melt Strength Apparatus, 190 °C, as described in the Experimental section, satisfying the following equations and/or: X is greater than - 0.026 In( MI 2) + 0.0498 X is greater than - 0.026 In(HLMI) + 0.1334 with M w being the weight-average molecular weight and M n being the number-average molecular weight. a molecular weight distribution M w /M n lower than 6.5; a molecular weight distribution M w /M n of at least 3.5; a density of at most 0.932 g/cm 3 as measured according to the method of standard ISO 1183-1:2012 method A at a temperature of 23 °C; a melt index ranging from an HLMI of at least 1.20 g/10 min to an MI 2 of at most 6.0 g/10 min wherein MI 2 is determined according to ISO 1133:1997 at a temperature of 190 °C and under a load of 2.16 kg, and HLMI is determined according to ISO 1133:1997, at a temperature of 190 °C and under a load of 21.6 kg; a melt index ratio HLMI/MI 2 below or equal to 30; and a melt strength of X in Newtons, as determined by Göttfert Rheotens Melt Strength Apparatus, 190 °C, as described in the Experimental section, satisfying the following equations and/or: X is greater than - 0.026 In( MI 2) + 0.0498 X is greater than - 0.026 In(HLMI) + 0.1334 X is greater than - 0.026 In( MI 2) + 0.0498 X is greater than - 0.026 In(HLMI) + 0.1334 with M w being the weight-average molecular weight and M n being the number-average molecular weight.
A data transmission method, performed by a communication apparatus, wherein the communication apparatus is a terminal device or a chip in the terminal device, and wherein the method comprises: receiving information about a repetition quantity R1 corresponding to Tmax, wherein Tmax is a maximum transport block size allowed to be used to transmit data; determining a cyclic parameter L based on R1, wherein the cyclic parameter L indicates that content carried in each of a plurality of time units to which a transport block used to transmit the data is mapped is repeated in L consecutive time units, and wherein a size of the transport block used to transmit the data is Ts, and Ts < Tmax; and transmitting the data based on the cyclic parameter L, wherein the determining a cyclic parameter L based on R1 satisfies: when R1 ≥ 8, L = min K ⌈ R 1 / 2 ⌉, wherein min represents taking a minimum value, K is a preset constant, and ┌ ┐ represents rounding up; or when R1 < 8, L = 1. receiving information about a repetition quantity R1 corresponding to Tmax, wherein Tmax is a maximum transport block size allowed to be used to transmit data; determining a cyclic parameter L based on R1, wherein the cyclic parameter L indicates that content carried in each of a plurality of time units to which a transport block used to transmit the data is mapped is repeated in L consecutive time units, and wherein a size of the transport block used to transmit the data is Ts, and Ts < Tmax; and transmitting the data based on the cyclic parameter L, wherein the determining a cyclic parameter L based on R1 satisfies: when R1 ≥ 8, L = min K ⌈ R 1 / 2 ⌉, wherein min represents taking a minimum value, K is a preset constant, and ┌ ┐ represents rounding up; or when R1 < 8, L = 1. when R1 ≥ 8, L = min K ⌈ R 1 / 2 ⌉, wherein min represents taking a minimum value, K is a preset constant, and ┌ ┐ represents rounding up; or when R1 < 8, L = 1.
A method for transmitting a demodulation reference signal, comprising: a base station transmitting a plurality of demodulation reference signal, DMRS, ports through frequency division multiplexing, FDM, and/or code division multiplexing, CDM, and/or time division multiplexing, TDM; wherein the base station transmits a DMRS in at least one orthogonal frequency division multiplexing, OFDM, symbol group, wherein n OFDM symbols constitute one OFDM symbol group {x1, x2,... xn}, 0<n<5, 0≤x1∼xn<14, and x1∼xn and n are integers. a base station transmitting a plurality of demodulation reference signal, DMRS, ports through frequency division multiplexing, FDM, and/or code division multiplexing, CDM, and/or time division multiplexing, TDM; wherein the base station transmits a DMRS in at least one orthogonal frequency division multiplexing, OFDM, symbol group, wherein n OFDM symbols constitute one OFDM symbol group {x1, x2,... xn}, 0<n<5, 0≤x1∼xn<14, and x1∼xn and n are integers.
A tire, comprising: a pair of opposing bead portions; a pair of opposing sidewall portions, each sidewall portion connected with a bead portion; a crown portion connected between opposing sidewall portions; a pair of bead core positioned within each bead portion, each bead core comprising a carbon fiber composite characterized by having a centerline and a radius r s from the centerline and extending circumferentially around an axis of rotation of the tire with a radius R D, wherein the carbon fiber composite is under a strain ε of 0.1 percent or less, where strain ε is determined according to ε = r s / R D ∗ 100. a pair of opposing bead portions; a pair of opposing sidewall portions, each sidewall portion connected with a bead portion; a crown portion connected between opposing sidewall portions; a pair of bead core positioned within each bead portion, each bead core comprising a carbon fiber composite characterized by having a centerline and a radius r s from the centerline and extending circumferentially around an axis of rotation of the tire with a radius R D, wherein the carbon fiber composite is under a strain ε of 0.1 percent or less, where strain ε is determined according to ε = r s / R D ∗ 100.
A cigarette comprising: a tobacco rod comprising a tobacco filler and a cigarette paper wrapped around the tobacco filler, a filter comprising a plurality of filter plugs (21a, 21b) spaced apart from each other, a plug wrapping paper wrapped around the filter plugs to form a cavity between the filter plugs, and a flavor capsule contained in the cavity and encapsulating a flavor-containing content liquid in a shell, and a tipping paper wrapped on the tobacco rod and the filter to connect the tobacco rod and the filter, wherein the plug wrapping paper has impermeability to the content liquid, and the opacity of laminated paper formed of the plug wrapping paper and the tipping paper is 70% or less before breakage of the flavor capsule; characterised in that the opacity of laminated paper formed of the plug wrapping paper and the tipping paper is decreased by 5% or more when the content liquid released by breakage of the flavor capsule is adhered to the plug wrapping paper. a tobacco rod comprising a tobacco filler and a cigarette paper wrapped around the tobacco filler, a filter comprising a plurality of filter plugs (21a, 21b) spaced apart from each other, a plug wrapping paper wrapped around the filter plugs to form a cavity between the filter plugs, and a flavor capsule contained in the cavity and encapsulating a flavor-containing content liquid in a shell, and a tipping paper wrapped on the tobacco rod and the filter to connect the tobacco rod and the filter, wherein the plug wrapping paper has impermeability to the content liquid, and the opacity of laminated paper formed of the plug wrapping paper and the tipping paper is 70% or less before breakage of the flavor capsule; characterised in that the opacity of laminated paper formed of the plug wrapping paper and the tipping paper is decreased by 5% or more when the content liquid released by breakage of the flavor capsule is adhered to the plug wrapping paper.
A cosmetic applicator in which an applying part is provided at the front end of a barrel cylinder and a cosmetic is stored in the rear of the barrel cylinder, wherein a resilient member of a spring having a single-wound tapered portion at one end and having at least a double-winding portion at the other end is mounted to the rear end of the barrel cylinder, wherein the resilient member is provided to absorb a shock acting on the applicator when it is dropped.
A cable guide, suitable for enabling a cable lying in the flow channel of a sewer to traverse and exit the flow channel without substantially impeding the flow, the cable guide comprising: a body section adapted to lie substantially flush with the wall of the flow channel; and an arm section projecting from the body section, the arm section having a distal end positioned outside the flow channel when the body section lies flush with the flow channel wherein the arm section provides a passage suitable for carrying a cable, the passage extending between an opening provided in the body section and an opening provided at the distal end of the arm section.
A solid-state structure for thermal sensing carried by a substrate, wherein said solid-state structure comprises a plurality of stacked layers including a heating absorption layer and a thermistor layer having a resistance inversely related to its temperature, characterized in that said thermistor layer comprises at least one layer provided with quantum dots, which are made of a first semiconductor material and surrounded by a second semiconductor material, which acts as a barrier material, such that a trapping of charge carriers in said quantum dots is enabled.
A knitted fastener stringer (1,2,3,4,5) comprising a fastener tape (10, 10a, 10b, 10c, 10d) of a warp knit structure in which an element attaching portion (12,12a,12b,12c,12d) is disposed along one side edge of a tape main body portion (11,11a,11b,11c,11d), and a continuous fastener element (20,20c) which is knitted and fixed to the element attaching portion (12, 12a, 12b, 12c, 12d) at the same time as knitting the fastener tape (10, 10a, 10b, 10c,10d), the element attaching portion (12, 12a, 12b, 12c, 12d) being configured by using at least a fixing chain stitch yarn which holds and fixes a pair of upper and lower leg portions (22,22c) of the fastener element (20,20c) in a tape front and rear direction, the fixing chain stitch yarn with a double structure comprising a first needle loop which is knitted into a ground structure on a lower surface side of a pair of the upper and lower leg portions (22,22c) of the element attaching portion (12, 12a, 12b, 12c, 12d) and a second needle loop which fastens and fixes the upper and lower leg portions (22,22c), wherein the first needle loop of the fixing chain stitch yarn is formed at the needle position of the back needle row, the second needle loop of the fixing chain stitch yarn is formed at a needle position of a front needle row, and the one first and one second needle loops (35a, 35b) of the fixing chain stitch yarn are formed at each one pitch of the fastener element (20, 20c), and each second needle loop fastens and fixes the upper and lower leg portions (22, 22c) to the element attaching portion (12, 12a, 12b, 12c, 12d) by striding across them and interlacing with a second needle loop which is subsequently formed. characterised in that the tape main body portion (11, 11a, 11b, 11c, 11d) is knitted in a single structure having needle loops at a needle position of a back needle row.
A bactericidal pharmaceutical composition to be applied on epithelial tissue such as pulmonary, nasal and oral tissues comprising ibuprofen in a concentration between 5 and 500 mM solubilised in a hypertonic saline solution comprising a concentration of between 0.3 and 2 M of a salt suitable for human consumption, and characterized by a pH value, in aqueous solution, comprised in the range from 6.0 to 8.5.
A method for uplink transmission performed in a wireless terminal served by a radio network node of a wireless communication system, the method comprising: - receiving an assignment for an uplink transmission from the radio network node, - determining alternative usages of the assignment based on the received assignment, the alternative usages being another rank than assigned, each alternative usage being associated with a different demodulation reference signal, - selecting a usage among the alternative usages of the assignment, - applying the selected usage when transmitting uplink data to the radio network node, and - transmitting the demodulation reference signal associated with the selected usage, wherein the different demodulation reference signals associated with the alternative usages differ with respect to a rank selection, the rank selection determining on what layers the demodulation reference signal is transmitted. - receiving an assignment for an uplink transmission from the radio network node, - determining alternative usages of the assignment based on the received assignment, the alternative usages being another rank than assigned, each alternative usage being associated with a different demodulation reference signal, - selecting a usage among the alternative usages of the assignment, - applying the selected usage when transmitting uplink data to the radio network node, and - transmitting the demodulation reference signal associated with the selected usage, wherein the different demodulation reference signals associated with the alternative usages differ with respect to a rank selection, the rank selection determining on what layers the demodulation reference signal is transmitted.
A culture method for causing differentiation of pluripotent mammalian cells, comprising culturing pluripotent mammalian cells to obtain a cell population at least partially differentiated into endoderm lineage cells, by using a cell culture chamber including a plurality of microchambers formed on a culture surface, the cell culture chamber having the culture surface formed of spaces in which a space structure of each of the microchambers has a height of 10 μm to 500 μm and a bottom area of 100 μm 2 to 1 mm 2, wherein each of the microchambers comprises an opening plane of a square, a length of one side of the square is 100 μm to 300 μm, and a cell seeding density per an area of the culture surface is 5.0 × 10 3 to 5.0 × 10 5 cells/cm 2.
An air conditioner, comprising: an air volume controller; a sensor portion configured to comprise a sensor to detect movement and a sensor to measure a temperature; and at least one processor configured to: detect movement of a subject while the air conditioner based on a first temperature is operating in a temperature control mode, based on a magnitude of movement of the subject being less than a predetermined magnitude and an operation time period of the air conditioner at the first temperature being exceeding a first threshold time period, control the air volume controller to operate the air conditioner based on a second temperature, and based on an operation time period of the air conditioner at the second temperature being exceeding a second threshold time period, control the air volume controller to operate the air conditioner based on the first temperature, the air conditioner being characterized in that the at least one processor is further configured to: alternately operate the air conditioner based on the first temperature and the second temperature for a predetermined total operation time period. an air volume controller; a sensor portion configured to comprise a sensor to detect movement and a sensor to measure a temperature; and at least one processor configured to: detect movement of a subject while the air conditioner based on a first temperature is operating in a temperature control mode, based on a magnitude of movement of the subject being less than a predetermined magnitude and an operation time period of the air conditioner at the first temperature being exceeding a first threshold time period, control the air volume controller to operate the air conditioner based on a second temperature, and based on an operation time period of the air conditioner at the second temperature being exceeding a second threshold time period, control the air volume controller to operate the air conditioner based on the first temperature, the air conditioner being characterized in that the at least one processor is further configured to: alternately operate the air conditioner based on the first temperature and the second temperature for a predetermined total operation time period. detect movement of a subject while the air conditioner based on a first temperature is operating in a temperature control mode, based on a magnitude of movement of the subject being less than a predetermined magnitude and an operation time period of the air conditioner at the first temperature being exceeding a first threshold time period, control the air volume controller to operate the air conditioner based on a second temperature, and based on an operation time period of the air conditioner at the second temperature being exceeding a second threshold time period, control the air volume controller to operate the air conditioner based on the first temperature, the air conditioner being characterized in that the at least one processor is further configured to: alternately operate the air conditioner based on the first temperature and the second temperature for a predetermined total operation time period.
A method of purifying (20R,22R)-2-methylene-19-nor-22-methyl-1α,25-dihydroxyvitamin D 3, comprising the steps of: (a) preparing a solvent comprising hexane; (b) adding a product containing (20R,22R)-2-methylene-19-nor-22-methyl-1α,25-dihydroxyvitamin D 3 to be purified to said hexane to form a suspension of the product in the hexane; (c) adding 2-propanol dropwise to the suspension to form a mixture of the product in the hexane and 2-propanol wherein said mixture contains 10-20% 2-propanol and 80-90% hexane by volume; (d) heating the mixture to dissolve the product containing (20R,22R)-2-methylene-19-nor-22-methyl-1α,25-dihydroxyvitamin D 3 to be purified in said mixture; (e) cooling said mixture and dissolved product below ambient temperature for a sufficient amount of time to form a precipitate of (20R,22R)-2-methylene-19-nor-22-methyl-1α,25-dihydroxyvitamin D 3 crystals; and (f) separating the (20R,22R)-2-methylene-19-nor-22-methyl-1α,25-dihydroxyvitamin D 3 crystals from the mixture. (a) preparing a solvent comprising hexane; (b) adding a product containing (20R,22R)-2-methylene-19-nor-22-methyl-1α,25-dihydroxyvitamin D 3 to be purified to said hexane to form a suspension of the product in the hexane; (c) adding 2-propanol dropwise to the suspension to form a mixture of the product in the hexane and 2-propanol wherein said mixture contains 10-20% 2-propanol and 80-90% hexane by volume; (d) heating the mixture to dissolve the product containing (20R,22R)-2-methylene-19-nor-22-methyl-1α,25-dihydroxyvitamin D 3 to be purified in said mixture; (e) cooling said mixture and dissolved product below ambient temperature for a sufficient amount of time to form a precipitate of (20R,22R)-2-methylene-19-nor-22-methyl-1α,25-dihydroxyvitamin D 3 crystals; and (f) separating the (20R,22R)-2-methylene-19-nor-22-methyl-1α,25-dihydroxyvitamin D 3 crystals from the mixture.