mhurhangee/ep-ind-claims huggingface dataset:
An oxygen measurement device (10A to 10L, and 10La to 10Lt), comprising: a urethral catheter (18a to 18j, and 18ja to 18jt) including a flexible hollow shaft (22a to 22j, 22ja to 22jt, and 22k to 22n); and an oxygen sensor (20a to 20i, 300, and 400a to 400c) fixed to the urethral catheter, the oxygen sensor including an oxygen sensor main body (50a to 50i, 50ha, 50hb, 302, and 422a to 422c) being adapted to detect oxygen in urine, and in the shaft (22a to 22j, 22ja to 22jt, and 22k to 22n), a urine introduction port (28a to 28k) allowing the urine in a bladder to flow therein and opened in a portion on a distal end side from an inflatable balloon disposed in a distal end portion of the shaft, and a urinary passage (74, 416, 454, 474, and 486) communicated with the urine introduction port (28a to 28k) to circulate the urine, are disposed, wherein the oxygen sensor (20a to 20i, 300, and 400a to 400c) is configured as a fluorescent optical oxygen sensor and disposed in the urethral catheter (18a to 18j, and 18ja to 18jt), the oxygen sensor including the oxygen sensor main body (50a to 50i, 50ha, and 50hb) and an optical fiber formed separately from the oxygen sensor main body (50a to 50i, 50ha, and 50hb), characterised in that the oxygen sensor main body (50a to 50i, 50ha, 50hb, 302, and 422a to 422c) is provided such that the oxygen sensor main body (50a to 50i, 50ha, 50hb, 302, and 422a to 422c) is in contact with the urine when circulated in the urinary passage (74, 416, 454, 474, and 486) in the shaft (22a to 22j, 22ja to 22jt, and 22k to 22n) for detecting the oxygen in the urine. a urethral catheter (18a to 18j, and 18ja to 18jt) including a flexible hollow shaft (22a to 22j, 22ja to 22jt, and 22k to 22n); and an oxygen sensor (20a to 20i, 300, and 400a to 400c) fixed to the urethral catheter, the oxygen sensor including an oxygen sensor main body (50a to 50i, 50ha, 50hb, 302, and 422a to 422c) being adapted to detect oxygen in urine, and in the shaft (22a to 22j, 22ja to 22jt, and 22k to 22n), a urine introduction port (28a to 28k) allowing the urine in a bladder to flow therein and opened in a portion on a distal end side from an inflatable balloon disposed in a distal end portion of the shaft, and a urinary passage (74, 416, 454, 474, and 486) communicated with the urine introduction port (28a to 28k) to circulate the urine, are disposed, wherein the oxygen sensor (20a to 20i, 300, and 400a to 400c) is configured as a fluorescent optical oxygen sensor and disposed in the urethral catheter (18a to 18j, and 18ja to 18jt), the oxygen sensor including the oxygen sensor main body (50a to 50i, 50ha, and 50hb) and an optical fiber formed separately from the oxygen sensor main body (50a to 50i, 50ha, and 50hb), characterised in that the oxygen sensor main body (50a to 50i, 50ha, 50hb, 302, and 422a to 422c) is provided such that the oxygen sensor main body (50a to 50i, 50ha, 50hb, 302, and 422a to 422c) is in contact with the urine when circulated in the urinary passage (74, 416, 454, 474, and 486) in the shaft (22a to 22j, 22ja to 22jt, and 22k to 22n) for detecting the oxygen in the urine.
A surface position detection apparatus for detecting a surface position of a surface to be detected relative to a predetermined plane, with respect to a direction intersecting the predetermined plane, based on a light receiving result of a light beam which is guided to the surface in a diagonal direction with respect to the surface and is reflected by the surface, comprising: a first reflection member (7b, 7c) for reflecting the light beam being guided to the surface to be detected; and a second reflection member (8b, 8c) for reflecting the light beam from the surface to be detected, characterised by: a polarizing member arranged in an optical path of the light beam between the first reflection member and the second reflection member and being configured to change the polarization direction of each of a first polarization component and a second polarization component in the light beam, the directions of which are perpendicular to each other, to the polarization direction of the respective other polarization component. a first reflection member (7b, 7c) for reflecting the light beam being guided to the surface to be detected; and a second reflection member (8b, 8c) for reflecting the light beam from the surface to be detected, characterised by: a polarizing member arranged in an optical path of the light beam between the first reflection member and the second reflection member and being configured to change the polarization direction of each of a first polarization component and a second polarization component in the light beam, the directions of which are perpendicular to each other, to the polarization direction of the respective other polarization component. a polarizing member arranged in an optical path of the light beam between the first reflection member and the second reflection member and being configured to change the polarization direction of each of a first polarization component and a second polarization component in the light beam, the directions of which are perpendicular to each other, to the polarization direction of the respective other polarization component.
A hydraulic system for a hybrid electric vehicle comprising: a sump containing hydraulic fluid; a main regulator valve; a main regulator by-pass valve; a mechanical pump constructed and arranged in fluid communication with said sump and in fluid communication with said main regulator valve for delivering hydraulic fluid from said sump to said main regulator valve; and an electric pump constructed and arranged in fluid communication with said sump and in fluid communication with said main regulator by-pass valve for delivering hydraulic fluid from said sump to said main regulator by-pass valve; a clutch trim valve; a first control solenoid constructed and arranged in fluid communication with said main regulator by-pass valve; a second control solenoid constructed and arranged in fluid communication with said clutch trim valve; wherein the hybrid electric vehicle has three operational modes associated with the hydraulic system, including an eMode, a transition mode and a cruise mode; and wherein said first control solenoid and said second control solenoid each have an operational condition which is determined by which of the three operational modes represents the operational mode of the hybrid electric vehicle. a sump containing hydraulic fluid; a main regulator valve; a main regulator by-pass valve; a mechanical pump constructed and arranged in fluid communication with said sump and in fluid communication with said main regulator valve for delivering hydraulic fluid from said sump to said main regulator valve; and an electric pump constructed and arranged in fluid communication with said sump and in fluid communication with said main regulator by-pass valve for delivering hydraulic fluid from said sump to said main regulator by-pass valve; a clutch trim valve; a first control solenoid constructed and arranged in fluid communication with said main regulator by-pass valve; a second control solenoid constructed and arranged in fluid communication with said clutch trim valve; wherein the hybrid electric vehicle has three operational modes associated with the hydraulic system, including an eMode, a transition mode and a cruise mode; and wherein said first control solenoid and said second control solenoid each have an operational condition which is determined by which of the three operational modes represents the operational mode of the hybrid electric vehicle.
A composition for controlling plant diseases comprising a tetrazolinone compound represented by a formula: wherein n is an integer of any one of 0 to 5; R 1 represents a halogen atom, a C1-C6 alkyl group, a C1-C6 alkoxy group, a C1-C6 alkylthio group, a nitro group or a cyano group; R 2 represents a C1-C3 alkyl group, a C3-C4 cycloalkyl group, a halogen atom, a C1-C3 alkoxy group, a C1-C2 alkylthio group, a C2-C3 alkenyl group, or a C2-C3 alkynyl group, the R 1 or R 2 can have independently halogen atom(s) in the alkyl moiety; with the proviso that when n is an integer of 2 or more, two or more of the R 1 may be different from each other, and one or more carboxamide compounds selected from the Group: Group: a group consisting of bixafen, benzovindiflupyr, fluxapyroxad, penthiopyrad, N-(1,1,3-trimethylindan-4-yl)-1-methyl-3-difluoromethylpyrazole-4-carboxylic acid amide, a compound represented by the following formula (b): isofetamid, isopyrazam, boscalid, fluopyram, sedaxane, penflufen, flutolanil, mepronil, carboxin, thifluzamide, and furametpyr. n is an integer of any one of 0 to 5; R 1 represents a halogen atom, a C1-C6 alkyl group, a C1-C6 alkoxy group, a C1-C6 alkylthio group, a nitro group or a cyano group; R 2 represents a C1-C3 alkyl group, a C3-C4 cycloalkyl group, a halogen atom, a C1-C3 alkoxy group, a C1-C2 alkylthio group, a C2-C3 alkenyl group, or a C2-C3 alkynyl group, the R 1 or R 2 can have independently halogen atom(s) in the alkyl moiety; with the proviso that when n is an integer of 2 or more, two or more of the R 1 may be different from each other, Group: a group consisting of bixafen, benzovindiflupyr, fluxapyroxad, penthiopyrad, N-(1,1,3-trimethylindan-4-yl)-1-methyl-3-difluoromethylpyrazole-4-carboxylic acid amide, a compound represented by the following formula (b): isofetamid, isopyrazam, boscalid, fluopyram, sedaxane, penflufen, flutolanil, mepronil, carboxin, thifluzamide, and furametpyr.
A multi-chamber plate, preferably for analytical purposes, the multi-chamber plate having a plurality of chambers and a channel system for filling the chambers with at least one sample fluid, the multi-chamber plate having a proximal end and a distal end, wherein a radial direction is defined from the proximal end to the distal end and wherein a centrifugal force is applicable parallel to the radial direction, wherein the channel system comprises at least one application site for applying the sample fluid to the channel system, the chambers each having at least one inlet opening and at least one outlet opening being separate from the inlet opening, wherein both the inlet opening and the outlet opening are positioned on a proximal side of the chambers, wherein the chambers are fillable through the inlet openings with the sample fluid driven by the centrifugal force, wherein the chambers are vented through the outlet openings, wherein at least one reagent is located in the chambers, the channel system having at least one main feeding line, the channel system having at least one main venting line, wherein the inlet openings are connected to the main feeding line at inlet channel junctions, wherein the outlet openings are connected to the main venting line at outlet channel junctions, wherein the inlet channel junctions are located further towards the distal end than the respective outlet channel junctions, wherein the inlet openings, the outlet openings, the inlet channel junctions and the outlet channel junctions are arranged such that, during the filling with the sample fluid, a venting of each chamber is possible until the respective chamber is completely filled with the sample fluid, wherein the main venting line and the main feeding line at least partially are separate from each other, wherein the main venting line and the main feeding line are fluidly connected, wherein the main venting line and the main feeding line are connected at the distal end of the multi-chamber plate at at least one connection point.
A method of transmitting broadcast signals, the method comprising: outer coding data per each of multiple Physical Layer Paths, PLPs; inner coding the outer coded data by a Low Density Parity Check, LDPC, scheme; interleaving the inner coded data; dividing the interleaved data into a first bit stream for a High Order Quadrature Amplitude Modulation, HOQ, mapping method and into a second bit stream for a Low Order Quadrature Amplitude Modulation, LOQ, mapping method; Quadrature Amplitude Modulation, QAM, mapping the divided data using the HOQ mapping method and the LOQ mapping method; encoding the mapped data using a Multi-Input Multi-Output, MIMO, scheme; and Orthogonal Frequency Division Multiplex, OFDM, modulating the MIMO encoded data, wherein the MIMO encoded data is transmitted through a signal frame. outer coding data per each of multiple Physical Layer Paths, PLPs; inner coding the outer coded data by a Low Density Parity Check, LDPC, scheme; interleaving the inner coded data; dividing the interleaved data into a first bit stream for a High Order Quadrature Amplitude Modulation, HOQ, mapping method and into a second bit stream for a Low Order Quadrature Amplitude Modulation, LOQ, mapping method; Quadrature Amplitude Modulation, QAM, mapping the divided data using the HOQ mapping method and the LOQ mapping method; encoding the mapped data using a Multi-Input Multi-Output, MIMO, scheme; and Orthogonal Frequency Division Multiplex, OFDM, modulating the MIMO encoded data, wherein the MIMO encoded data is transmitted through a signal frame.
An antenna device (10, 10B, 10C, 10D, 10E, 10F, 100A, 100B) for a vehicle that is configured to be attached to a roof of the vehicle, the antenna device for the vehicle comprising: an antenna base (11, 110A, 110B); an antenna case (13, 130) covering the antenna base (11, 110A, 110B) from above; and an antenna element (15, 15B, 152) provided inside the antenna case (13, 130), wherein the antenna base (11, 110A, 110B) has a metal base (30, 30B, 30C, 300) configured to be fixed to the roof, and a metal plate (40, 40B, 400A, 400B) electrically connected to the metal base (30, 30B, 30C, 300), characterized in that the antenna base (11, 110A, 110B) has a shape which has a front-rear direction of the vehicle as a longitudinal direction in an attachment attitude to the roof, the metal plate (40, 40B, 400A, 400B) is provided on a front end side and/or a rear end side of the metal base (30, 30B, 30C, 300) in the attachment attitude, and an electrical length which includes the metal base (30, 30B, 30C, 300) and the metal plate (40, 40B, 400A, 400B) is longer than an electrical length of only the metal base (30, 30B, 30C, 300) in the longitudinal direction. an antenna base (11, 110A, 110B); an antenna case (13, 130) covering the antenna base (11, 110A, 110B) from above; and an antenna element (15, 15B, 152) provided inside the antenna case (13, 130), wherein the antenna base (11, 110A, 110B) has a metal base (30, 30B, 30C, 300) configured to be fixed to the roof, and a metal plate (40, 40B, 400A, 400B) electrically connected to the metal base (30, 30B, 30C, 300), characterized in that the antenna base (11, 110A, 110B) has a shape which has a front-rear direction of the vehicle as a longitudinal direction in an attachment attitude to the roof, the metal plate (40, 40B, 400A, 400B) is provided on a front end side and/or a rear end side of the metal base (30, 30B, 30C, 300) in the attachment attitude, and an electrical length which includes the metal base (30, 30B, 30C, 300) and the metal plate (40, 40B, 400A, 400B) is longer than an electrical length of only the metal base (30, 30B, 30C, 300) in the longitudinal direction.
An optical signal transmitting apparatus suitable for an optical communication system adapted to perform communication by transmission and reception of an optical signal indicating digital transmission data, the optical signal transmitting apparatus comprising: a transmission data generating unit configured to set a data length of each frame constituting the optical signal based on a frequency tolerance of a clock signal on a transmission side and a reception side, and generate digital transmission data, wherein the digital transmission data has multiple consecutive frames of same contents, each consecutive frame having the set data length; and a light emission driving unit configured to drive a light emitting unit to output the optical signal indicating the digital transmission data; characterized in that when the frequency tolerance is ±A/2%, the transmission data generating unit is adapted to calculate the data length of each frame from a given formula of (1/A)×100/2 where A is a real number other than zero. a transmission data generating unit configured to set a data length of each frame constituting the optical signal based on a frequency tolerance of a clock signal on a transmission side and a reception side, and generate digital transmission data, wherein the digital transmission data has multiple consecutive frames of same contents, each consecutive frame having the set data length; and a light emission driving unit configured to drive a light emitting unit to output the optical signal indicating the digital transmission data; characterized in that when the frequency tolerance is ±A/2%, the transmission data generating unit is adapted to calculate the data length of each frame from a given formula of (1/A)×100/2 where A is a real number other than zero.
Drain assembly for building into a floor, comprising: - a drain body which can be built into the floor and which has at the top an inlet zone with a periphery; - a peripheral flange with an upper surface, extending substantially in a horizontal plane from this periphery; - a water-sealing layer arranged adheringly on the upper surface of the peripheral flange; characterized in that the drain assembly further comprises: - a sealing mat with the form of a frame with an inner periphery fitting around the periphery, wherein a portion of the sealing mat overlaps at least the outer periphery of the water-sealing layer; wherein the sealing mat and the water-sealing layer are adapted to be water-sealing and to adhere well to tile adhesive. - a drain body which can be built into the floor and which has at the top an inlet zone with a periphery; - a peripheral flange with an upper surface, extending substantially in a horizontal plane from this periphery; - a water-sealing layer arranged adheringly on the upper surface of the peripheral flange; characterized in that the drain assembly further comprises: - a sealing mat with the form of a frame with an inner periphery fitting around the periphery, wherein a portion of the sealing mat overlaps at least the outer periphery of the water-sealing layer; wherein the sealing mat and the water-sealing layer are adapted to be water-sealing and to adhere well to tile adhesive.
A method for preparing carotenoid solutions in an oil suitable for foodstuffs, comprising: i. provision of a suspension of the carotenoid in the oil, ii. continuous heating of a stream of the suspension in an oil suitable for foodstuffs, resulting in a hot carotenoid solution, and iii. quenching of the hot carotenoid solution, comprising the mixing of the hot carotenoid solution with a cooler solution of the carotenoid in the oil suitable for foodstuffs in a mixing pump, where the cooler solution of the carotenoid is obtained by at least a branch current of the carotenoid solution obtained in step iii. being fed back into an oil suitable for foodstuffs or into a solution of the carotenoid in an oil suitable for foodstuffs. i. provision of a suspension of the carotenoid in the oil, ii. continuous heating of a stream of the suspension in an oil suitable for foodstuffs, resulting in a hot carotenoid solution, and iii. quenching of the hot carotenoid solution, comprising the mixing of the hot carotenoid solution with a cooler solution of the carotenoid in the oil suitable for foodstuffs in a mixing pump,
A carrier material for manufacturing a composite product comprising said carrier material and an impregnated matrix, the carrier material comprising one or more nonwoven layer(s) of fibers, wherein each nonwoven layer of fibers is composed of thermoplastic fibers for at least 50 wt.% of the total weight of fibers in the respective nonwoven layer of fibers, and a scrim comprising weft yarns of glass fibers or high modulus polyester fibers, the glass weft yarns having a linear density of 28 tex or less, preferably 20 tex or less, more preferably 15 tex or less, the high modulus polyester weft yarns having a linear density of 50 tex or less, preferably 40 tex or less, more preferably 30 tex or less.
A personal care composition comprising: a surfactant system consisting of an anionic surfactant and a zwitterionic surfactant, wherein the anionic surfactant is an alkyl ether sulfate; a preservative; a pH modifier; and a rheology modifier, wherein the weight ratio of anionic surfactant to zwitterionic surfactant is from 1.5:1 to 2:1. a surfactant system consisting of an anionic surfactant and a zwitterionic surfactant, wherein the anionic surfactant is an alkyl ether sulfate; a preservative; a pH modifier; and a rheology modifier,
A terminal device password unlocking method comprising the following steps: selecting at least one candidate information set from a plurality of candidate information sets which are displayed on a screen and each of which contains a plurality of information units; verifying a password based on all of selected candidate information sets, and confirming success of password verification when: all information units contained in the password are included into the selected candidate information sets, each of selected candidate information sets contains at least one information unit of the password, and the number of the selected candidate information sets is less than that of the information units of the password; and unlocking the terminal device when verification of password is successful. selecting at least one candidate information set from a plurality of candidate information sets which are displayed on a screen and each of which contains a plurality of information units; verifying a password based on all of selected candidate information sets, and confirming success of password verification when: all information units contained in the password are included into the selected candidate information sets, each of selected candidate information sets contains at least one information unit of the password, and the number of the selected candidate information sets is less than that of the information units of the password; and unlocking the terminal device when verification of password is successful.
Circuit breaker comprising a nozzle, at least two contact elements (210; 220), a gas reservoir and a continuity of nozzle material configured to direct the propagation of a leader from the first contact element to the second contact element along at least a first surface of the nozzle, wherein the leader is highly conductive plasma, the nozzle is manufactured by 3D printing as a single piece and configured to surround the at least two contact elements (210; 220) of the circuit breaker at least partially, at least one of the contact elements (210; 220) is configured to be movable and the nozzle comprising an arcing zone formed along a central axis of the nozzle and a gas channel formed within the nozzle and configured to fluidly connect the gas reservoir to the arcing zone. the leader is highly conductive plasma, the nozzle is manufactured by 3D printing as a single piece and configured to surround the at least two contact elements (210; 220) of the circuit breaker at least partially, at least one of the contact elements (210; 220) is configured to be movable and the nozzle comprising an arcing zone formed along a central axis of the nozzle and a gas channel formed within the nozzle and configured to fluidly connect the gas reservoir to the arcing zone.