mhurhangee/ep-ind-claims huggingface dataset:
A crosslinkable fluoropolymer [polymer] comprising: - (i) recurring units derived from vinylidene fluoride monomer; - (ii) recurring units derived from at least one hydroxyl group-containing vinyl monomer; - (iii) recurring units derived from at least one carboxyl group-containing vinyl monomer; wherein the total amount of monomer and monomer in said polymer is of at most 10.0 % by moles, preferably at most 5.0% by moles, more preferably at most 1.5% by moles, with respect to the total moles of recurring units of polymer; and wherein a fraction of at least 40% of monomer and a fraction of at least 40% of monomer are randomly distributed into said polymer, the fractions of randomly distributed monomers being determined according to the method defined in present specification. - (i) recurring units derived from vinylidene fluoride monomer; - (ii) recurring units derived from at least one hydroxyl group-containing vinyl monomer; - (iii) recurring units derived from at least one carboxyl group-containing vinyl monomer; wherein the total amount of monomer and monomer in said polymer is of at most 10.0 % by moles, preferably at most 5.0% by moles, more preferably at most 1.5% by moles, with respect to the total moles of recurring units of polymer; and wherein a fraction of at least 40% of monomer and a fraction of at least 40% of monomer are randomly distributed into said polymer, the fractions of randomly distributed monomers being determined according to the method defined in present specification. wherein the total amount of monomer and monomer in said polymer is of at most 10.0 % by moles, preferably at most 5.0% by moles, more preferably at most 1.5% by moles, with respect to the total moles of recurring units of polymer; and wherein a fraction of at least 40% of monomer and a fraction of at least 40% of monomer are randomly distributed into said polymer, the fractions of randomly distributed monomers being determined according to the method defined in present specification.
A suction material collecting station for regenerating a filter chamber of a suction cleaner, wherein the suction material collecting station has an interface for connecting to the suction cleaner, a suction material collection container, a fan for generating a negative pressure in the suction material collection container, and an electric motor for driving the fan so that suction material contained in the filter chamber of the suction cleaner may be conveyed by means of the fan into the suction material collection container, characterized in that the suction material collecting station has a control and evaluation unit which is equipped to calculate a surroundings disturbance parameter, which indicates a degree of potential disturbance of the surroundings by an operation of the fan of the suction material collecting station, and to control the operation of the electric motor automatically, depending on the surroundings disturbance parameter and a device parameter of the suction cleaner, wherein the suction material collecting station additionally has a detection device for detecting a presence parameter in the surroundings of the suction material collecting station and/or a device parameter and/or a communication device for receiving information about the presence parameter and/or device parameter.
A composition for use in a method for preventing and/or treating osteoporosis, wherein the composition comprises an effective amount of a NEDD8-activating enzyme inhibitor.
A wireless communication method, performed by a first user equipment, UE, in a device-to-device, D2D communication with a second UE of Long Term Evolution, LTE, the method being characterized by: transmitting, from the first UE to the second UE, by physical layer, a first downlink control information which indicates a group ID and is scrambled by a UE ID of the second UE, when the first UE and the second UE start groupcast communication; and transmitting data of the groupcast communication carried by a physical downlink shared channel, by physical layer, which is following the first downlink control information and is scrambled by the group ID, from the first UE to the second UE; wherein the first downlink control information indicates a communication type of the groupcast. transmitting, from the first UE to the second UE, by physical layer, a first downlink control information which indicates a group ID and is scrambled by a UE ID of the second UE, when the first UE and the second UE start groupcast communication; and transmitting data of the groupcast communication carried by a physical downlink shared channel, by physical layer, which is following the first downlink control information and is scrambled by the group ID, from the first UE to the second UE; wherein the first downlink control information indicates a communication type of the groupcast.
Alignment system for a light curtain monitoring a protective field, said light curtain comprising a first support element and a second support element, wherein said protective field is covered by radiation transmitted between said support elements, wherein said alignment system comprises at least one alignment radiation source for being arranged on the first support element and at least one alignment radiation receiver, for being arranged on said second support element, for receiving the alignment radiation and for providing an alignment signal indicating a correct positioning of the two support elements with respect to each other, said alignment system further comprising at least one optical unit having an optical processing element for generating a defined pattern from the radiation emitted by said alignment radiation source, characterised in that: said optical processing element comprises a micro-structured Diffractive Optical Element, DOE, an optical grating structure and/or a prismatic structure, the optical processing element being operable to split the radiation emitted by said alignment radiation source into a plurality of beams including an angle (α min, α max) for forming the pattern.
A turbine wheel (100, 200) for a gas turbine engine, the turbine wheel comprising a metallic disk (102, 202) formed to include a slot (101, 201) that extends through the disk in an axial direction from a forward side (104, 204) to an aft side of the disk and inwardly in a radial direction from an outer radius of the disk toward a central axis, and a composite-bladed ring (10, 210) including a ring (14, 214) positioned to surround the outer radius of the disk, a key (12, 212) extending radially inward of the ring and positioned to engage the slot to maintain circumferential alignment of the ring with the disk during rotation of the metallic disk, and a composite blade (16, 240) coupled to the ring and extending radially outward from the ring, wherein the ring is formed to include an outer radius and a thickness (t) such that a gap (36, 236) is positioned between the ring and the disk to allow radial expansion of the disk relative to the ring.
An apparatus for controlling a vehicle, comprising: a battery capable of being charged from an external power source; a power generation unit capable of charging the battery; an electric heater configured to produce heat with electric power supplied thereto; a heater core configured to heat air by using any one of waste heat from the power generation unit and the heat produced by the electric heater; an outside-air temperature detector configured to detect an outside-air temperature; and a controller configured to perform control for selectively using the waste heat from the power generation unit and the heat produced by the electric heater as a heat source of the heater core when the vehicle is parked, wherein the controller uses the waste heat from the power generation unit as the heat source of the heater core when the detected outside-air temperature is lower than a predetermined temperature. a battery capable of being charged from an external power source; a power generation unit capable of charging the battery; an electric heater configured to produce heat with electric power supplied thereto; a heater core configured to heat air by using any one of waste heat from the power generation unit and the heat produced by the electric heater; an outside-air temperature detector configured to detect an outside-air temperature; and a controller configured to perform control for selectively using the waste heat from the power generation unit and the heat produced by the electric heater as a heat source of the heater core when the vehicle is parked, wherein the controller uses the waste heat from the power generation unit as the heat source of the heater core when the detected outside-air temperature is lower than a predetermined temperature.
Lift with a cage, which is movable in a lift shaft and has a cage roof, a drive unit for moving the cage, the drive unit being arranged in the region of a shaft head in the lift shaft and projecting at least partly beyond the cage, and a protection device arranged on the cage roof in the region of the side facing the drive unit, characterised in that the protection device comprises a handrail which is interrupted preferably approximately centrally in a drive receiving region and that the protection device has at least in the drive receiving region a bar which is arranged to be downwardly offset relative to the handrail.
An aerosol generating system comprising a housing defining an airflow outlet; a liquid aerosol-forming substrate; an aerosol generator, configured to generate an aerosol from the liquid aerosol-forming substrate; a perforated plate disposed between the aerosol generator and the airflow outlet, the perforated plate defining a plurality of apertures extending through the perforated plate; and an electrode disposed between the aerosol generator and the perforated plate, wherein the perforated plate is electrically conductive, and wherein the aerosol-generating system is configured to generate an electric potential difference between the electrode and the perforated plate. a housing defining an airflow outlet; a liquid aerosol-forming substrate; an aerosol generator, configured to generate an aerosol from the liquid aerosol-forming substrate; a perforated plate disposed between the aerosol generator and the airflow outlet, the perforated plate defining a plurality of apertures extending through the perforated plate; and an electrode disposed between the aerosol generator and the perforated plate, wherein the perforated plate is electrically conductive, and wherein the aerosol-generating system is configured to generate an electric potential difference between the electrode and the perforated plate.
A microchip comprising: an airtight region into which a solution is externally introduced; and a positioning section configured to position a channel for injecting the solution into the region by penetrating a substrate layer forming the region in a puncture part of the region, a main body including the region and the puncture part; and a frame body configured to retain the main body by two or more arms (111, 112, 113, 114, 115, 116) extended toward a center of the frame body; wherein the positioning section is formed by making a positioning hole for inserting the channel into the puncture part in one of the arms (111, 112, 113, 114, 115, 116), the one of the arms (111, 112, 113, 114, 115, 116) being extended over the puncture part, wherein at least one or more of the arms (111, 112, 113, 114, 115, 116) of the frame body have flexibility, and are configured to retain the main body so as to bias the main body against a mounting surface for the microchip on a basis of the flexibility. an airtight region into which a solution is externally introduced; and a positioning section configured to position a channel for injecting the solution into the region by penetrating a substrate layer forming the region in a puncture part of the region, a main body including the region and the puncture part; and a frame body configured to retain the main body by two or more arms (111, 112, 113, 114, 115, 116) extended toward a center of the frame body; wherein the positioning section is formed by making a positioning hole for inserting the channel into the puncture part in one of the arms (111, 112, 113, 114, 115, 116), the one of the arms (111, 112, 113, 114, 115, 116) being extended over the puncture part, wherein at least one or more of the arms (111, 112, 113, 114, 115, 116) of the frame body have flexibility, and are configured to retain the main body so as to bias the main body against a mounting surface for the microchip on a basis of the flexibility.
A sorbent bed, comprising: a sorbent support comprising a carbon material, wherein the sorbent support comprises a plurality of pores; and an impregnant configured to absorb ammonia disposed within the plurality of pores in the sorbent support, wherein the sorbent bed comprises between 50% and 60% by weight impregnant, and the impregnant is phosphoric acid. a sorbent support comprising a carbon material, wherein the sorbent support comprises a plurality of pores; and an impregnant configured to absorb ammonia disposed within the plurality of pores in the sorbent support, wherein the sorbent bed comprises between 50% and 60% by weight impregnant, and the impregnant is phosphoric acid.
A compound of Formula I wherein: R 1 is azetidinyl, imidazolyl, pyrimidinyl, triazolyl, tetrahydropyranyl, thiazolyl, pyridyl, piperidinyl, phenyl, oxazolyl, or isoxazolyl; wherein said piperidinyl, pyridyl, imidazolyl, and phenyl are optionally substituted with SO 2 CH 3, C CH 3, CH 3, CF 3, Cl, F, -CN, OCH 3, or N(CH 3) 2; and optionally substituted with up to one additional group independently selected from Cl, OCH 3, and CH 3; and wherein said triazolyl, oxazolyl, isoxazolyl, and thiazolyl are optionally substituted with one or two CH 3 groups; and wherein said azetidinyl is optionally substituted with CO 2 C(CH 3) 3, or C CH 3; R 2 is C alkyl, cyclopropyl, or C alkynyl; R 3 is OH; R 4 is H; R 5 is Cl, -CN, CF 3, CH 3, OH, N(CH 3)OCH 3, N(CH 3) 2, azetidin-1-yl, or OCH 3; R 6 is pyridyl or phenyl, wherein said phenyl is optionally substituted with Cl, F, CF 3, SO 2 CH 3, or OCF 3; or R 6 is -O-phenyl, wherein said -O-phenyl is optionally substituted with Cl, F, or -CN; or R 6 is -CH 2 R 6', wherein R 6' is pyridyl, or phenyl, wherein said pyridyl or phenyl is optionally substituted with pyrazol-1-yl, 1,2,4-triazol-1-yl, CF 3, OCH 3, SO 2 CH 3, Cl, F, or -CN; R 7 is Cl, -CN, C alkyl, OC alkyl, or NA 1 A 2; A 1 is C alkyl; A 2 is C alkyl, CH 2 CH 2 OCH 3, or OCH 3; or A 1 and A 2 may be taken together with their attached nitrogen to form a ring selected from the group consisting of: R a is OH, OCH 3, F; R 8 is H; R 9 is H; and pharmaceutically acceptable salts thereof. R 1 is azetidinyl, imidazolyl, pyrimidinyl, triazolyl, tetrahydropyranyl, thiazolyl, pyridyl, piperidinyl, phenyl, oxazolyl, or isoxazolyl; wherein said piperidinyl, pyridyl, imidazolyl, and phenyl are optionally substituted with SO 2 CH 3, C CH 3, CH 3, CF 3, Cl, F, -CN, OCH 3, or N(CH 3) 2; and optionally substituted with up to one additional group independently selected from Cl, OCH 3, and CH 3; and wherein said triazolyl, oxazolyl, isoxazolyl, and thiazolyl are optionally substituted with one or two CH 3 groups; and wherein said azetidinyl is optionally substituted with CO 2 C(CH 3) 3, or C CH 3; R 2 is C alkyl, cyclopropyl, or C alkynyl; R 3 is OH; R 4 is H; R 5 is Cl, -CN, CF 3, CH 3, OH, N(CH 3)OCH 3, N(CH 3) 2, azetidin-1-yl, or OCH 3; R 6 is pyridyl or phenyl, wherein said phenyl is optionally substituted with Cl, F, CF 3, SO 2 CH 3, or OCF 3; or R 6 is -O-phenyl, wherein said -O-phenyl is optionally substituted with Cl, F, or -CN; or R 6 is -CH 2 R 6', wherein R 6' is pyridyl, or phenyl, wherein said pyridyl or phenyl is optionally substituted with pyrazol-1-yl, 1,2,4-triazol-1-yl, CF 3, OCH 3, SO 2 CH 3, Cl, F, or -CN; R 7 is Cl, -CN, C alkyl, OC alkyl, or NA 1 A 2; A 1 is C alkyl; A 2 is C alkyl, CH 2 CH 2 OCH 3, or OCH 3; or A 1 and A 2 may be taken together with their attached nitrogen to form a ring selected from the group consisting of: R a is OH, OCH 3, F; R 8 is H; R 9 is H; R a is OH, OCH 3, F; R 8 is H; R 9 is H;
A suspension body for an elevator, comprising: a core having a belt-like shape and including a load bearing layer formed of an impregnation resin and a plurality of high-strength fibers; and a covering layer covering at least a part of an outer periphery of the core, wherein either: a) a density of the high-strength fibers in a center portion of the load bearing layer in a thickness direction of the load bearing layer is higher than a density of the high-strength fibers in both end portions of the load bearing layer in the thickness direction, or b) a density of the high-strength fibers in a center portion of the load bearing layer in a width direction of the load bearing layer is higher than a density of the high-strength fibers in both end portions of the load bearing layer in the width direction. a core having a belt-like shape and including a load bearing layer formed of an impregnation resin and a plurality of high-strength fibers; and a covering layer covering at least a part of an outer periphery of the core, wherein either: a) a density of the high-strength fibers in a center portion of the load bearing layer in a thickness direction of the load bearing layer is higher than a density of the high-strength fibers in both end portions of the load bearing layer in the thickness direction, or b) a density of the high-strength fibers in a center portion of the load bearing layer in a width direction of the load bearing layer is higher than a density of the high-strength fibers in both end portions of the load bearing layer in the width direction. a) a density of the high-strength fibers in a center portion of the load bearing layer in a thickness direction of the load bearing layer is higher than a density of the high-strength fibers in both end portions of the load bearing layer in the thickness direction, or b) a density of the high-strength fibers in a center portion of the load bearing layer in a width direction of the load bearing layer is higher than a density of the high-strength fibers in both end portions of the load bearing layer in the width direction.
An antistatic or electrically conductive polymeric composition comprising: a) an electrically insulating polymeric material comprising a rubber, b) a first carbon black material having a statistical thickness surface area (STSA) measured according to ASTM D6556-17 of below 70 m 2 /g and an oil absorption number measured according to ASTM D2414-18 in the range from 70 to 150 mL/100g in an amount below its percolation threshold concentration, wherein the first carbon black material comprises a lamp black, and c) a second carbon black material having a statistical thickness surface area (STSA) measured according to ASTM D6556-17 of at least 100 m 2 /g and an oil absorption number measured according to ASTM D2414-18 of at least 150 mL/100g in an amount below its percolation threshold concentration, wherein the polymeric composition comprising the first and second carbon black materials has a volume resistivity in the range from 10 9 to 10 4 Ω*cm or below. a) an electrically insulating polymeric material comprising a rubber, b) a first carbon black material having a statistical thickness surface area (STSA) measured according to ASTM D6556-17 of below 70 m 2 /g and an oil absorption number measured according to ASTM D2414-18 in the range from 70 to 150 mL/100g in an amount below its percolation threshold concentration, wherein the first carbon black material comprises a lamp black, and c) a second carbon black material having a statistical thickness surface area (STSA) measured according to ASTM D6556-17 of at least 100 m 2 /g and an oil absorption number measured according to ASTM D2414-18 of at least 150 mL/100g in an amount below its percolation threshold concentration,
An internal combustion engine comprising a bearing cap secured to a cylinder block by fastening bolts, a crankshaft rotatably supported by the bearing cap and the cylinder block, and so designed that a cylinder center axis is offset relative to a rotation center of the crankshaft, and a second bearing cap secured to the bearing cap, wherein the product of a distance from a center axis of the fastening bolts to the rotation center of the crankshaft and an axial force of the fastening bolts is defined as a bearing cap securing force, the bearing cap of the internal combustion engine is designed so that, when viewed from an axial direction of the crankshaft, a bearing cap securing force on the side toward the cylinder center axis from the rotation center of the crankshaft is larger than a bearing cap securing force on the side away from the cylinder center axis or the side having no cylinder center axis, the bearing cap is secured by two fastening bolts (24a, 24c) on the side towards the cylinder center axis while being secured by one fastening bolt on the side away from the cylinder center axis, the bearing cap has a cylinder block-side basal surface that serves as a contact surface brought into contact with the cylinder block, and a top end surface opposite to the basal surface, the bearing cap is partially cut out at a cylinder center axis-side end of the top end surface to have a cutout portion at which the bearing cap is secured to the cylinder block by an outer fastening bolt of the two fastening bolts disposed on the side toward the cylinder center axis (or by a fastening bolt having a longer distance from the rotation center of the crankshaft), the outer fastening bolt (or the fastening bolt having a longer distance from the rotation center of the crankshaft) of the two fastening bolts securing the bearing cap on the side toward the cylinder center axis is smaller than an inner fastening bolt (or a fastening bolt having a shorter distance from the rotation center of the crankshaft) in length, the two fastening bolts (24a, 24c) securing the bearing cap on the side toward the cylinder center axis include: the inner fastening bolt being a first fastening bolt securing the bearing cap to the cylinder block while securing the second bearing cap to the bearing cap; and the outer fastening bolt being a second fastening bolt securing the bearing cap to the cylinder block, and the fastening bolt securing the bearing cap on the side away from the cylinder center axis serves as a third fastening bolt securing the bearing cap to the cylinder block while securing the second bearing cap to the bearing cap.