mhurhangee/ep-ind-claims huggingface dataset:
A thermoplastic elastomer compound comprising: (a) high vinyl styrene-(ethylene/butylene)-styrene block copolymer having a vinyl content of greater than 50 mole percent and having a Copolymer Tan Delta Peak Temperature, the high vinyl styrene-(ethylene/butylene)-styrene block copolymer has a weight average molecular weight ranging from 200,000 to 1 million; and (b) tackifier having a softening point of at least 80 °C according to ASTM 6493; and wherein the compound has a Compound Tan Delta Peak Temperature, and the Compound Tan Delta Peak Temperature is greater than the Copolymer Tan Delta Peak Temperature. (a) high vinyl styrene-(ethylene/butylene)-styrene block copolymer having a vinyl content of greater than 50 mole percent and having a Copolymer Tan Delta Peak Temperature, the high vinyl styrene-(ethylene/butylene)-styrene block copolymer has a weight average molecular weight ranging from 200,000 to 1 million; and (b) tackifier having a softening point of at least 80 °C according to ASTM 6493; and wherein the compound has a Compound Tan Delta Peak Temperature, and the Compound Tan Delta Peak Temperature is greater than the Copolymer Tan Delta Peak Temperature.
A user device configured to be set in a first mode wherein the user device is configured to set a radio link with a radio base station based on a reference reception power level of a radio signal transmitted from the radio base station, and a second mode wherein the user device is configured to set the radio link based on any one among a plurality of reduced levels having gradually reduced reference reception power levels than the reference reception power level used in the first mode, the user device comprising: a level setting unit that is configured to set, when the user device is set in the second mode, a reception quality threshold of the reference reception power level specified for the reduced level; and a radio link monitoring unit that is configured to execute monitoring of the radio link based on the reception quality threshold set by the level setting unit, wherein the level setting unit is configured to set the reception quality threshold specified for the maximum reduced level regardless of whether the user device is set to any of the reduced levels. a level setting unit that is configured to set, when the user device is set in the second mode, a reception quality threshold of the reference reception power level specified for the reduced level; and a radio link monitoring unit that is configured to execute monitoring of the radio link based on the reception quality threshold set by the level setting unit, wherein the level setting unit is configured to set the reception quality threshold specified for the maximum reduced level regardless of whether the user device is set to any of the reduced levels.
A method for treating a surface portion of a TCO material in a semiconductor device, the semiconductor device comprising a structure arranged to facilitate current flow in one direction, the method comprising the steps of: exposing the surface portion of the TCO material to an electrolyte that is suitable for electrochemically reducing a portion of the TCO material when an electrical current is induced through a region of the TCO material; and inducing a current in the TCO material by inducing a current in the semiconductor device; wherein the method is performed in a manner such that the induced current reduces the TCO material and improves adhesion of a metallic material to the exposed surface portion over adhesion of the metallic material to a non-exposed surface portion, wherein the non-exposed surface portion is a surface portion of the TCO material that is not exposed to the electrolyte; characterised in that: the exposed surface portion of the TCO material is exclusively contacted by the electrolyte; and the induced current is directed transversally to the exposed surface portion of the TCO material. exposing the surface portion of the TCO material to an electrolyte that is suitable for electrochemically reducing a portion of the TCO material when an electrical current is induced through a region of the TCO material; and inducing a current in the TCO material by inducing a current in the semiconductor device; wherein the method is performed in a manner such that the induced current reduces the TCO material and improves adhesion of a metallic material to the exposed surface portion over adhesion of the metallic material to a non-exposed surface portion, wherein the non-exposed surface portion is a surface portion of the TCO material that is not exposed to the electrolyte; characterised in that: the exposed surface portion of the TCO material is exclusively contacted by the electrolyte; and the induced current is directed transversally to the exposed surface portion of the TCO material. the exposed surface portion of the TCO material is exclusively contacted by the electrolyte; and the induced current is directed transversally to the exposed surface portion of the TCO material.
A thermoplastic elastomer composition comprising: a cross-linked product of an ethylene·α-olefin-nonconjugated polyene copolymer (provided that the α-olefin has 3 to 20 carbon atoms) with a phenolic resin cross-linking agent, the composition further comprising: 360 to 460 parts by mass of a crystalline polyolefin, 70 to 140 parts by mass of a softener, and 2 to 6 parts by mass of a lubricant (provided that an amount of the copolymer is 100 parts by mass). 360 to 460 parts by mass of a crystalline polyolefin, 70 to 140 parts by mass of a softener, and 2 to 6 parts by mass of a lubricant (provided that an amount of the copolymer is 100 parts by mass).
A lamp, comprising: a lamp head comprising a light source mounted therein; a flexible arm comprising conducting wires arranged therein; and a mounting and power supply unit adapted to be mounted in a connection box, and configured to receive power from a terminal of the connection box and transmit the power via the conducting wires to the light source in the lamp head, the mounting and power supply unit comprising a mounting frame for fixing a power supply module to the connection box, and a panel cover for covering the mounting frame, wherein the panel cover is provided with a hole allowing the flexible arm to pass therethrough and project therefrom, characterized in that the panel cover further comprises a bracket arranged at an outer periphery for supporting an article. a lamp head comprising a light source mounted therein; a flexible arm comprising conducting wires arranged therein; and a mounting and power supply unit adapted to be mounted in a connection box, and configured to receive power from a terminal of the connection box and transmit the power via the conducting wires to the light source in the lamp head, the mounting and power supply unit comprising a mounting frame for fixing a power supply module to the connection box, and a panel cover for covering the mounting frame, wherein the panel cover is provided with a hole allowing the flexible arm to pass therethrough and project therefrom, characterized in that the panel cover further comprises a bracket arranged at an outer periphery for supporting an article.
Use of an agent having affinity for the Thomsen-Friedenreich antigen selected from the group consisting of: antibodies for TF antigen, fragments of the variable domain of said antibodies or lectins having affinity for the TF antigen as reagents for in vitro diagnostics of Microsatelite Instability.
An image providing method comprising: displaying a first image, the first image including a first partial image having pixel value representing an object and a second partial image having pixel value representing a background (operation S110); receiving a user input selecting the first partial image or the second partial image as a first region of interest (operation S1410); providing an effect to the first region of interest; acquiring first identification information associated with the first region of interest based on first attribute information of the first image (operation S1420; operation S1430); acquiring a second image from among a plurality of target images, the second image including second identification information, the second identification information being the same as the first identification information (operation S1440), distinguishing a partial image corresponding to a second region of interest from the second image by using the identification information; and generating an effect image based on at least the second image (operation S1450) by providing the same effect as that applied to the first region of interest to the second region of interest. displaying a first image, the first image including a first partial image having pixel value representing an object and a second partial image having pixel value representing a background (operation S110); receiving a user input selecting the first partial image or the second partial image as a first region of interest (operation S1410); providing an effect to the first region of interest; acquiring first identification information associated with the first region of interest based on first attribute information of the first image (operation S1420; operation S1430); acquiring a second image from among a plurality of target images, the second image including second identification information, the second identification information being the same as the first identification information (operation S1440), distinguishing a partial image corresponding to a second region of interest from the second image by using the identification information; and generating an effect image based on at least the second image (operation S1450) by providing the same effect as that applied to the first region of interest to the second region of interest.
A device for protecting a helicopter provided with an on-board hoist provided with a hoisting cable against the consequences of an abrupt rupture of said cable, the hoist being provided with an outlet port for the cable, wherein said device is formed by a shield (7, 8, 9) positioned in the vicinity of the outlet port of the cable or deployable in the vicinity of the outlet port of the cable, said shield being oriented substantially perpendicularly with respect to the direction of said outlet port and extending over a distance of at least 20 centimeters with respect to said outlet port.
Transmission for a motor vehicle, wherein the transmission has a drive shaft, a first input shaft which is connectable by means of a first input clutch to the drive shaft, a second input shaft which is connectable by means of a second input clutch to the drive shaft, a multiplicity of shift clutches (Sla, S2a, S3a, S4a, S5a; S2, S3, S4, S5, S6, SR, K), and an output shaft, - wherein, by selective actuation of the shift clutches (S5, S6, S2, S3, S4, SR, K) and of the input clutches (K1, K2), different gear ratios (1 to 7, R1, R2) between the drive shaft and the output shaft can be realized, - wherein at least one first torque-transmitting path, which can be selected by means of a frictionally engaging clutch, between the first input shaft and the second input shaft is provided, characterized in that a transmission ratio of the first torque-transmitting path between the input shafts (W1, W2) is higher than the largest gradation between two gear ratios (1 to 7) of the same direction of rotation which are adjacent in a gear ratio series. - wherein, by selective actuation of the shift clutches (S5, S6, S2, S3, S4, SR, K) and of the input clutches (K1, K2), different gear ratios (1 to 7, R1, R2) between the drive shaft and the output shaft can be realized, - wherein at least one first torque-transmitting path, which can be selected by means of a frictionally engaging clutch, between the first input shaft and the second input shaft is provided, characterized in that a transmission ratio of the first torque-transmitting path between the input shafts (W1, W2) is higher than the largest gradation between two gear ratios (1 to 7) of the same direction of rotation which are adjacent in a gear ratio series.
A tripeptide boronic acid compound represented by the following general formula: wherein, E is H or 2,3-pinanediol ester group, R3 is benzyl, p-hydroxybenzyl, β-indylmethyl, isobutyl or 2-naphthylmethyl, R1 and R2 meet one of the situations and: R1 is benzyl, and R2 is p-hydroxybenzyl, β-indylmethyl, isobutyl or 2-naphthylmethyl; or R1 is p-hydroxybenzyl, β-indylmethyl, isobutyl or 2-naphthylmethyl, and R2 is benzyl, p-hydroxybenzyl, β-indylmethyl, isobutyl or 2-naphthylmethyl. R1 is benzyl, and R2 is p-hydroxybenzyl, β-indylmethyl, isobutyl or 2-naphthylmethyl; or R1 is p-hydroxybenzyl, β-indylmethyl, isobutyl or 2-naphthylmethyl, and R2 is benzyl, p-hydroxybenzyl, β-indylmethyl, isobutyl or 2-naphthylmethyl.
An imaging lens, comprising in an ordered way from an object side: a first lens (110, 210) having positive (+) refractive power; a second lens (120, 220) having negative (-) refractive power; a third lens (130, 230) having positive (+) refractive power; a fourth lens (140, 240) having positive (+) refractive power; a fifth lens (150, 250) having negative (-) refractive power and which is formed in a meniscus shape having a convex surface on an object side; and a sixth lens (160, 260) having negative (-) refractive power and having a concave surface on the object side, wherein the sixth lens is formed with an infrared filter coated film (170, 270), wherein both an object side surface and an image side surface of the fifth lens (150, 250) have positive curvature at an optical axis of the imaging lens, wherein an object side surface of the sixth lens (160, 260) has negative curvature at the optical axis of the imaging lens, and wherein an object side surface of the second lens (120, 220) has positive curvature at the optical axis of the imaging lens, wherein a separate aperture stop is interposed between the first lens (110, 210) and the second lens (120, 220). a first lens (110, 210) having positive (+) refractive power; a second lens (120, 220) having negative (-) refractive power; a third lens (130, 230) having positive (+) refractive power; a fourth lens (140, 240) having positive (+) refractive power; a fifth lens (150, 250) having negative (-) refractive power and which is formed in a meniscus shape having a convex surface on an object side; and a sixth lens (160, 260) having negative (-) refractive power and having a concave surface on the object side, wherein the sixth lens is formed with an infrared filter coated film (170, 270), wherein both an object side surface and an image side surface of the fifth lens (150, 250) have positive curvature at an optical axis of the imaging lens, wherein an object side surface of the sixth lens (160, 260) has negative curvature at the optical axis of the imaging lens, and wherein an object side surface of the second lens (120, 220) has positive curvature at the optical axis of the imaging lens, wherein a separate aperture stop is interposed between the first lens (110, 210) and the second lens (120, 220).
An apparatus (100, 700, 1100, 1500) comprising a carrier aircraft and a device for dynamically controlling airflow behind the carrier aircraft to redirect air flow during an in-flight recovery of an unmanned aerial vehicle, the device comprising: an arm member extending from the carrier aircraft; a frame (110, 910, 1110, 1310) attached to an end portion of the arm member; and an apparatus for dynamically modifying the airflow behind the carrier aircraft during the in-flight recovery of the UAV selected from the list comprising: (i) a plurality of vanes (120, 720, 1220, 1320, 1510, 1520) disposed within the frame, wherein each vane is controllable between an opened position and a closed position, and (ii) a plurality of compressed air jets (950, 1050, 1150, 1350) disposed on the frame, wherein each jet is controllable to provide active airflow. an arm member extending from the carrier aircraft; a frame (110, 910, 1110, 1310) attached to an end portion of the arm member; and an apparatus for dynamically modifying the airflow behind the carrier aircraft during the in-flight recovery of the UAV selected from the list comprising: (i) a plurality of vanes (120, 720, 1220, 1320, 1510, 1520) disposed within the frame, wherein each vane is controllable between an opened position and a closed position, and (ii) a plurality of compressed air jets (950, 1050, 1150, 1350) disposed on the frame, wherein each jet is controllable to provide active airflow. (i) a plurality of vanes (120, 720, 1220, 1320, 1510, 1520) disposed within the frame, wherein each vane is controllable between an opened position and a closed position, and (ii) a plurality of compressed air jets (950, 1050, 1150, 1350) disposed on the frame, wherein each jet is controllable to provide active airflow.
A hybrid-type superconducting fault current limiter for rapidly limiting a fault current, the fault current limiter having a first circuit and a second circuit which are connected in parallel with each other, wherein the first circuit includes a superconductor and a circuit breaker which are connected in series with each other, where the superconductor does not have any resistance in a normal operation state and increases its resistance when the fault current flows; the second circuit includes a third circuit and a current limiting unit which are connected in series with each other, wherein the third circuit includes a driver and a short contact connected in parallel with the driver, and the driver includes a driving coil and an electromagnetic repeller, wherein the electromagnetic repeller is adapted to activate the circuit breaker so to open it and to activate the short contact to close it in accordance with an inflow of the fault current in the driving coil thus bypassing the fault current that goes through the driving coil to the current limiting unit; and the hybrid-type superconducting fault current limiter further comprising: a power semiconductor element switch connected in series with the first circuit, wherein the power semiconductor element switch is in an ON state during the normal operation state of the hybrid-type superconducting fault current limiter and is being activated and changed into an OFF state by a fault sensing signal generated according to an inflow of the fault current. a power semiconductor element switch connected in series with the first circuit, wherein the power semiconductor element switch is in an ON state during the normal operation state of the hybrid-type superconducting fault current limiter and is being activated and changed into an OFF state by a fault sensing signal generated according to an inflow of the fault current.
A porcelain pot used by contacting directly with fire, characterized in that, of said porcelain pot, • raw materials of the structure formula consists only of 0,195 to 0.205 Na 2 O, 0,395 to 0,405 K 2 O, 0,195 to 0,205 CaO, 0,195 to 0,205 MgO, 5,6 to 6,6 Al 2 O 3 and 24,7 to 25,7 SiO 2 according to Seger formula, • raw materials of the glaze formula consists only of 0,195 to 0.205 Na 2 O, 0,095 to 0,105 K 2 O, 0,395 to 0,405 CaO, 0,295 to 0,305 MgO, 0,995 to 1,005 Al 2 O 3 and 4,595 to 4,605 SiO 2 according to Seger formula, in amounts enabling the said porcelain pot to be used in direct contact with fire. • raw materials of the structure formula consists only of 0,195 to 0.205 Na 2 O, 0,395 to 0,405 K 2 O, 0,195 to 0,205 CaO, 0,195 to 0,205 MgO, 5,6 to 6,6 Al 2 O 3 and 24,7 to 25,7 SiO 2 according to Seger formula, • raw materials of the glaze formula consists only of 0,195 to 0.205 Na 2 O, 0,095 to 0,105 K 2 O, 0,395 to 0,405 CaO, 0,295 to 0,305 MgO, 0,995 to 1,005 Al 2 O 3 and 4,595 to 4,605 SiO 2 according to Seger formula,
A valve prosthesis for implantation with a vascular vessel, comprising: a serpentine-shaped frame having a first pair of bends (20, 21) and a second pair of bends (22, 23), the first pair of bends (20, 21) being oriented at a first end of the serpentine-shaped frame and located approximately 180° degrees with respect to one another, the second pair of bends (22, 23) being oriented at the second end of the serpentine-shaped frame and located approximately 180° degrees with respect to one another and approximately 90° with respect to the first pair of bends (20, 21), wherein the first pair of bends (20, 21) and a first bend of the second pair of bends comprise a first leg of the implantable valve, and the first pair of bends (20, 21) and a second bend of the second pair of bends comprise a second leg of the implantable valve, each of the first and second legs (127, 128) having a covering (45, 57, 58) extending thereover, wherein the first and second legs (127, 128) define a opening therebetween that opens and closes in response to bidirectional fluid flow; and characterised in that the valve prosthesis further comprises a first centering support structure (31, 32, 164) including a second frame extending longitudinally from the serpentine-shaped frame such that the second frame is deployed after or prior to the serpentine-shaped frame, the centering support structure being attached to one of said first and second ends and having a plurality of contact points that engage the walls of said vessel such that upon deployment the serpentine-shaped frame is largely prevented from tilting relative to the longitudinal axis of said vessel, so that said opening is generally centered inside said vessel. a serpentine-shaped frame having a first pair of bends (20, 21) and a second pair of bends (22, 23), the first pair of bends (20, 21) being oriented at a first end of the serpentine-shaped frame and located approximately 180° degrees with respect to one another, the second pair of bends (22, 23) being oriented at the second end of the serpentine-shaped frame and located approximately 180° degrees with respect to one another and approximately 90° with respect to the first pair of bends (20, 21), wherein the first pair of bends (20, 21) and a first bend of the second pair of bends comprise a first leg of the implantable valve, and the first pair of bends (20, 21) and a second bend of the second pair of bends comprise a second leg of the implantable valve, each of the first and second legs (127, 128) having a covering (45, 57, 58) extending thereover, wherein the first and second legs (127, 128) define a opening therebetween that opens and closes in response to bidirectional fluid flow; and
An implant system to affect a shape of a heart valve annulus comprising: a first component (86, 124) sized and configured to engage tissue along a major axis of the annulus; and a second component (10, 26, 84) sized and configured, concurrent with the first component, to engage and inwardly displace tissue along a minor axis of the annulus, wherein the first component comprises an intermediate rail (92, 128) extending between first and second struts (90, 134, 126), the rail having a first spring constant to bias the first and second struts away from each other, and the second component comprises an arcuate yoke (14, 32) with third and fourth struts (12, 28, 30), the yoke having a second spring constant to bias the third and fourth struts towards each other. a first component (86, 124) sized and configured to engage tissue along a major axis of the annulus; and a second component (10, 26, 84) sized and configured, concurrent with the first component, to engage and inwardly displace tissue along a minor axis of the annulus, wherein the first component comprises an intermediate rail (92, 128) extending between first and second struts (90, 134, 126), the rail having a first spring constant to bias the first and second struts away from each other, and the second component comprises an arcuate yoke (14, 32) with third and fourth struts (12, 28, 30), the yoke having a second spring constant to bias the third and fourth struts towards each other.