mhurhangee/ep-ind-claims huggingface dataset:
A contact lens treatment solution comprising the following copolymer A and copolymer B in a ratio of A/B = 1000/1 to 2/1 (by weight): Copolymer A: a copolymer obtained by copolymerization of a monomer (a) represented by the following formula and a monomer (b) represented by the following formula, in which the copolymerization ratio of the monomer (a) to the monomer (b), a/b = 7/3 to 9/1 (by mol), and having a weight-average molecular weight of 400,000 to 700,000, measured according to the method in the description; Copolymer B: a copolymer obtained by copolymerization of a monomer (c) represented by the following formula and a monomer (d) represented by the following formula, in which the copolymerization ratio of the monomer (c) to the monomer (d), c/d = 1/4 to 9/1 (by mol), and having a weight-average molecular weight of 20,000 to 90, 000, measured according to the method in the description; wherein R 1 represents a hydrogen atom or a methyl group; wherein R 2 represents a hydrogen atom or a methyl group, and R 3 represents an alkyl group having 2 to 6 carbon atoms; wherein R 4 represents a hydrogen atom or a methyl group, and n represents an integer of 1 to 4, wherein R 5 represents a hydrogen atom or a methyl group, and R 6 represents a hydrocarbon group having 8 to 22 carbon atoms. Copolymer A: a copolymer obtained by copolymerization of a monomer (a) represented by the following formula and a monomer (b) represented by the following formula, in which the copolymerization ratio of the monomer (a) to the monomer (b), a/b = 7/3 to 9/1 (by mol), and having a weight-average molecular weight of 400,000 to 700,000, measured according to the method in the description; Copolymer B: a copolymer obtained by copolymerization of a monomer (c) represented by the following formula and a monomer (d) represented by the following formula, in which the copolymerization ratio of the monomer (c) to the monomer (d), c/d = 1/4 to 9/1 (by mol), and having a weight-average molecular weight of 20,000 to 90, 000, measured according to the method in the description; wherein R 1 represents a hydrogen atom or a methyl group; wherein R 2 represents a hydrogen atom or a methyl group, and R 3 represents an alkyl group having 2 to 6 carbon atoms; wherein R 4 represents a hydrogen atom or a methyl group, and n represents an integer of 1 to 4, wherein R 5 represents a hydrogen atom or a methyl group, and R 6 represents a hydrocarbon group having 8 to 22 carbon atoms.
A service mapping processing method for an optical transport network, comprising: generating mapping adaptation indication information according to a mapping granularity of a to-be-carried low order optical channel data unit, LO ODU, wherein the mapping granularity is M×g bytes, wherein M is a quantity of timeslots occupied by the to-be-carried LO ODU in an optical channel payload unit Cn, OPUCn, wherein g is a size of a mapping granularity corresponding to each timeslot of the timeslots occupied by the LO ODU, and wherein g is a positive integer greater than 1; mapping the to-be-carried LO ODU to an optical channel data tributary unit Cn.M, ODTUCn.M, payload area in an ODTUCn.M according to the mapping adaptation indication information, wherein the ODTUCn.M comprises an ODTUCn.M overhead area and the ODTUCn.M payload area; encapsulating the mapping adaptation indication information into the ODTUCn.M overhead area; encapsulating the ODTUCn.M into an optical channel transport unit Cn, OTUCn; and sending the OTUCn to a receive end device, the service mapping procesing method being characterized in that the mapping adaptation indication information comprises: a mapping adaptation type, wherein the mapping adaptation type is used to indicate the size g of the mapping granularity corresponding to each timeslot of the timeslots occupied by the LO ODU. generating mapping adaptation indication information according to a mapping granularity of a to-be-carried low order optical channel data unit, LO ODU, wherein the mapping granularity is M×g bytes, wherein M is a quantity of timeslots occupied by the to-be-carried LO ODU in an optical channel payload unit Cn, OPUCn, wherein g is a size of a mapping granularity corresponding to each timeslot of the timeslots occupied by the LO ODU, and wherein g is a positive integer greater than 1; mapping the to-be-carried LO ODU to an optical channel data tributary unit Cn.M, ODTUCn.M, payload area in an ODTUCn.M according to the mapping adaptation indication information, wherein the ODTUCn.M comprises an ODTUCn.M overhead area and the ODTUCn.M payload area; encapsulating the mapping adaptation indication information into the ODTUCn.M overhead area; encapsulating the ODTUCn.M into an optical channel transport unit Cn, OTUCn; and sending the OTUCn to a receive end device, the service mapping procesing method being characterized in that the mapping adaptation indication information comprises: a mapping adaptation type, wherein the mapping adaptation type is used to indicate the size g of the mapping granularity corresponding to each timeslot of the timeslots occupied by the LO ODU.
A reinforced medico-surgical tube having a shaft (10, 10') of a first, plastics material reinforced along at least a part of its length by a helical member (30, 30', 130, 230) of a second, stiffer material and embedded with the first material, wherein the helical member (30, 30', 130, 230) has a longitudinal path (31, 31', 131, 231) along a part at least of its length extending transversely of the turns of the helical member (30, 30', 130, 230), wherein the tube includes an elongate member (32, 32') extended along a part at least of the length of the longitudinal path (31, 31', 131, 231) so that a part at least of the thickness of the elongate member (32, 32') is received in the longitudinal path (31, 31', 131, 231), and characterised in that the longitudinal path is provided by an indentation (31, 31') in the helical member (30, 30').
An ultrasonic motor, comprising: a vibrator including a contact surface that is brought into contact with a member to be driven, and including a piezoelectric element fixed thereto, the vibrator configured to drive the member to be driven by an ultrasonic vibration excited by the piezoelectric element; and a pressurization unit supported by a fixing unit (105; 301), the pressurization unit configured to apply a bias force to the vibrator so as to impress the contact surface against the member to be driven, wherein the pressurization unit comprises: a pressurization member held by the fixing unit (105; 301) so as to move in a direction perpendicular to the contact surface while being restricted to move in a direction parallel to the contact surface; and an elastic member (107; 302) that applies an impressing force in the direction perpendicular to the contact surface to the vibrator via the pressurization member, characterized in that the fixing unit (105; 301) comprises a through hole part having an axial direction perpendicular to the contact surface; and the pressurization member is fitted in the through hole part. a vibrator including a contact surface that is brought into contact with a member to be driven, and including a piezoelectric element fixed thereto, the vibrator configured to drive the member to be driven by an ultrasonic vibration excited by the piezoelectric element; and a pressurization unit supported by a fixing unit (105; 301), the pressurization unit configured to apply a bias force to the vibrator so as to impress the contact surface against the member to be driven, wherein the pressurization unit comprises: a pressurization member held by the fixing unit (105; 301) so as to move in a direction perpendicular to the contact surface while being restricted to move in a direction parallel to the contact surface; and an elastic member (107; 302) that applies an impressing force in the direction perpendicular to the contact surface to the vibrator via the pressurization member, characterized in that a pressurization member held by the fixing unit (105; 301) so as to move in a direction perpendicular to the contact surface while being restricted to move in a direction parallel to the contact surface; and an elastic member (107; 302) that applies an impressing force in the direction perpendicular to the contact surface to the vibrator via the pressurization member, characterized in that the fixing unit (105; 301) comprises a through hole part having an axial direction perpendicular to the contact surface; and the pressurization member is fitted in the through hole part.
A hair cutting device comprising: a grip; a head disposed external to one end of the grip, the head including a cutting unit that works on hair; and a joint connecting the grip and the head, characterized in that the joint includes a base connected to one of the grip and the head, and a slide portion connected to another of the head and the grip that is different from the one the base is connected to, the slide portion being held to be slidable within a predetermined area on a slide plane that is a plane intersecting a vertical direction which is defined by an upper side facing the head in the alignment of the grip and the head and a lower side facing the grip in the alignment of the grip and the head. a grip; a head disposed external to one end of the grip, the head including a cutting unit that works on hair; and a joint connecting the grip and the head, characterized in that the joint includes a base connected to one of the grip and the head, and a slide portion connected to another of the head and the grip that is different from the one the base is connected to, the slide portion being held to be slidable within a predetermined area on a slide plane that is a plane intersecting a vertical direction which is defined by an upper side facing the head in the alignment of the grip and the head and a lower side facing the grip in the alignment of the grip and the head.
A cleaning system for cleaning a glazed surface of a motor vehicle, comprising at least one wiper and a drive device for driving at least the wiper along an axis of translation substantially perpendicular to said wiper, the glazed surface being a detection surface of a sensor/transmitter of a detection assembly and the drive device comprising at least one drive motor for driving in rotation about an axis of rotation substantially perpendicular to the axis of translation, and at least one conversion device for converting the rotary movement of the drive motor into a rectilinear movement along the axis of translation, the conversion device comprising, on the one hand, an articulated connecting member to which the wiper is attached, by means of at least one connector, and on the other hand, a fixed motor articulation point rotationally rigidly secured to an output shaft of the drive motor, the conversion device comprising at least a connecting rod system and eventually, and the connecting rod system comprising at least a first connecting rod, attached to the drive motor to form the fixed motor articulation point characterized in that at least two articulated quadrilaterals (75, 77) of connecting rods, respectively a first quadrilateral of connecting rods and a second quadrilateral of connecting rods, at least the articulated connecting member being common to the first quadrilateral and to the second quadrilateral, in that the second quadrilateral comprises a fixed point of the conversion device.
A method for controlling communication, wherein user equipment obtains, from a base station when needing to perform first communication, a first communication resource required for the first communication, the user equipment obtains, from a base station, a first communication resource required for the first communication comprises: receiving, by the user equipment and when the user equipment is in a radio resource control, RRC, idle state, a first system information block, SIB, from the base station, the first SIB comprises a second communication resource pool for a second communication and comprises an indication for instructing the user equipment to perform the first communication by using the second communication resource pool; or sending, by the user equipment after the user equipment enters an RRC connected state, a communication resource request to the base station; receiving, by the user equipment, dedicated signaling from the base station, the dedicated signaling comprises an indication for instructing the user equipment to perform the first communication by using a second communication resource pool used for a second communication, the second communication resource pool has been received, by the user equipment, from the base station; wherein the first communication and the second communication both are device to device, D2D, communication, and a type of the first communication is different from that of the second communication. receiving, by the user equipment and when the user equipment is in a radio resource control, RRC, idle state, a first system information block, SIB, from the base station, the first SIB comprises a second communication resource pool for a second communication and comprises an indication for instructing the user equipment to perform the first communication by using the second communication resource pool; or sending, by the user equipment after the user equipment enters an RRC connected state, a communication resource request to the base station; receiving, by the user equipment, dedicated signaling from the base station, the dedicated signaling comprises an indication for instructing the user equipment to perform the first communication by using a second communication resource pool used for a second communication, the second communication resource pool has been received, by the user equipment, from the base station; wherein the first communication and the second communication both are device to device, D2D, communication, and a type of the first communication is different from that of the second communication.
A tire comprising: a circular tire frame formed of a resin material; and a reinforcing cord that is wound in a spiral shape such that all of the reinforcing cord is embedded in a crown portion of the circular tire frame to form a reinforcing cord layer, the resin material comprising a resin composition in which a polyamide-based thermoplastic resin, and at least one elastomer selected from the group consisting of a diene-based rubber, a vinyl acetate copolymer, a polyurethane, an ethylene propylene rubber, and any mixture thereof have been dynamically crosslinked in the presence of a crosslinking agent in a dynamic crosslinking process in which the at least one elastomer and the crosslinking agent are pre-kneaded until a uniform mixture is obtained using a kneader, and then, the uniform mixture obtained above and the thermoplastic resin are input to a twin screw kneader, the at least one elastomer is caused to dynamically crosslink while performing melting and kneading, and the at least one elastomer is caused to disperse as a dispersed phase (domain) in the thermoplastic resin that constitutes a continuous phase (matrix phase), wherein the polyamide-based thermoplastic resin is Nylon 6, and wherein at least a side portion of the tire frame is formed of the resin material. a circular tire frame formed of a resin material; and a reinforcing cord that is wound in a spiral shape such that all of the reinforcing cord is embedded in a crown portion of the circular tire frame to form a reinforcing cord layer, the resin material comprising a resin composition in which a polyamide-based thermoplastic resin, and at least one elastomer selected from the group consisting of a diene-based rubber, a vinyl acetate copolymer, a polyurethane, an ethylene propylene rubber, and any mixture thereof have been dynamically crosslinked in the presence of a crosslinking agent in a dynamic crosslinking process in which the at least one elastomer and the crosslinking agent are pre-kneaded until a uniform mixture is obtained using a kneader, and then, the uniform mixture obtained above and the thermoplastic resin are input to a twin screw kneader, the at least one elastomer is caused to dynamically crosslink while performing melting and kneading, and the at least one elastomer is caused to disperse as a dispersed phase (domain) in the thermoplastic resin that constitutes a continuous phase (matrix phase), wherein the polyamide-based thermoplastic resin is Nylon 6, and wherein at least a side portion of the tire frame is formed of the resin material.
Packaging for food, comprising a transparent bag which is produced from a plastics material and in which the food is enclosed in a water-tight and/or gas-tight manner, and comprising at least one label which is fastened at any position on the packaging and on which content information for the food and other important information for the consumer are printed, a stabilizing body being fastened on one of the outer sides of the bag, and the label being adhered to the stabilizing body and/or the label being adhered directly to the bag, characterized in that the stabilizing body can be detached from the bag by a manual force being applied, and in that a perforation seam is incorporated into the stabilizing body in such a way that a part of the stabilizing body can be folded out and used as a base for the packaging.
A silicon nitride substrate which is a sintered body comprising a main phase mainly comprised of silicon nitride particles, and an intergranular phase mainly comprised of a sintering aid, wherein the thickness t is 0.20 to 0.80 mm, characterized in that the main phase contains, on the substrate surface, first silicon nitride particles having an aspect ratio obtained by dividing a major axis length by a minor axis length of 3.0 or less, and having a major axis length of 5.0 μm or less, and second silicon nitride particles having a major axis length and an aspect ratio exceeding those of the first silicon nitride particles, 40 or less first silicon nitride particles are present within a 10 μm square region set on any selected parts on the substrate surface, the ratio (B/Si) between fluorescent X-ray intensities of boron and silicon (Si) on any selected parts on the substrate surface is in range of 7.0×10 -5 to 250×10 -5, the ratio B/C between boron and carbon is 0.080 to 3.000, the surface waviness is 1.00 μm or less, with the proviso that, for the substrate surface waviness, a filtered centerline waviness is measured using a surface roughness meter, and the arithmetic average waviness Wa thereof, namely, the arithmetic average of absolute values of deviation from the average value of the surface height, is used, and the measurement conditions include an evaluation length of 30 mm, a measurement velocity of 0.3 mm/s, a cut-off value (λc) of 0.25 mm, and a cut-off value (λf) of 8.0mm.
A method comprising: detecting, by a user equipment, a secondary cell configured for the user equipment to allow access for carrier aggregation, wherein the secondary cell is blindly configured by a network for use by the user equipment, before the detecting by the user equipment; and sending, by the user equipment, a report representative of the detected secondary cell to notify the network of the detecting by the user equipment, wherein the sending is based on an event reporting criterion which triggers the sending of the report at the user equipment responsive to at least one blindly configured secondary cell being detected by the user equipment, the criterion defined at the user equipment. detecting, by a user equipment, a secondary cell configured for the user equipment to allow access for carrier aggregation, wherein the secondary cell is blindly configured by a network for use by the user equipment, before the detecting by the user equipment; and sending, by the user equipment, a report representative of the detected secondary cell to notify the network of the detecting by the user equipment, wherein the sending is based on an event reporting criterion which triggers the sending of the report at the user equipment responsive to at least one blindly configured secondary cell being detected by the user equipment, the criterion defined at the user equipment.
A fuel assembly for a pressure-tube nuclear reactor, comprising: a fuel channel assembly comprising an outer conduit, an inner conduit received within the outer conduit and defining an annular fuel bundle chamber therebetween, the fuel bundle chamber being adapted to receive a flow of a coolant in one direction, the inner conduit comprising a central flow passage adapted to reveive a flow of the coolant in an opposite direction; and a fuel bundle positioned within the fuel bundle chamber, the fuel bundle comprising a plurality of fuel elements, and consisting of an inner ring of the fuel elements surrounding the inner conduit, and an outer ring of the fuel elements (28a, 28b) surrounding the inner ring; characterized in that the fuel channel assembly comprises an insulator that is positioned radially intermediate of the fuel bundle chamber and the outer conduit, and in that the insulator is encapsulated between inner and outer liner tubes, the outer liner tube being arranged along an interior surface of the outer conduit. a fuel channel assembly comprising an outer conduit, an inner conduit received within the outer conduit and defining an annular fuel bundle chamber therebetween, the fuel bundle chamber being adapted to receive a flow of a coolant in one direction, the inner conduit comprising a central flow passage adapted to reveive a flow of the coolant in an opposite direction; and a fuel bundle positioned within the fuel bundle chamber, the fuel bundle comprising a plurality of fuel elements, and consisting of an inner ring of the fuel elements surrounding the inner conduit, and an outer ring of the fuel elements (28a, 28b) surrounding the inner ring; characterized in that the fuel channel assembly comprises an insulator that is positioned radially intermediate of the fuel bundle chamber and the outer conduit, and in that the insulator is encapsulated between inner and outer liner tubes, the outer liner tube being arranged along an interior surface of the outer conduit.