mhurhangee/patent-ind-claim-en huggingface dataset:
A polyethylene composition having the following features: 1) density from 0.945 to 0.955 g/cm 3 , in particular from 0.948 to 0.952 g/cm 3 , or from 0.948 to 0.951 g/cm 3 determined according to ISO 1183 at 23°C; 2) ratio MIF/MIP from 23 to 40, in particular from 25 to 38, where MIF is the melt flow index at 190°C with a load of 21.60 kg, and MIP is the melt flow index at 190°C with a load of 5 kg, both determined according to ISO 1133; 3) MIF from 8.5 to 18 g/10 min., in particular from 9 to 16 g/10 min.; 4) HMWcopo index from 3.5 to 20, preferably from 8 to 20; 5) long-chain branching index, LCBI, from 0.45 to 0.85; wherein the HMWcopo index is determined according to the following formula: HMWcopo = η 0.02 × t maxDSC / 10 ∧ 5 where η 0.02 is the complex viscosity of the melt in Pa.s, measured at a temperature of 190°C, in a parallel-plate rheometer under dynamic oscillatory shear mode with an applied angular frequency of 0.02 rad/s; the t maxDSC is the time in minutes required to reach the maximum value of heat flow of crystallization at a temperature of 124 °C under quiescent conditions, measured in isothermal mode in a differential scanning calorimetry apparatus; LCBI is the ratio of the measured mean-square radius of gyration R g , measured by GPC-MALLS, to the mean-square radius of gyration for a linear PE having the same molecular weight. 1) density from 0.945 to 0.955 g/cm 3 , in particular from 0.948 to 0.952 g/cm 3 , or from 0.948 to 0.951 g/cm 3 determined according to ISO 1183 at 23°C; 2) ratio MIF/MIP from 23 to 40, in particular from 25 to 38, where MIF is the melt flow index at 190°C with a load of 21.60 kg, and MIP is the melt flow index at 190°C with a load of 5 kg, both determined according to ISO 1133; 3) MIF from 8.5 to 18 g/10 min., in particular from 9 to 16 g/10 min.; 4) HMWcopo index from 3.5 to 20, preferably from 8 to 20; 5) long-chain branching index, LCBI, from 0.45 to 0.85;
A method of printing one or more structures, the method comprising: discharging a printed material from a nozzle onto a print surface , wherein the print surface is a surface of an article of apparel; forming at least a first layer of a first structure using the printed material ; placing at least a first portion of an element adjacent the first layer of the first structure , wherein the at least a first portion of the element is in contact with the first layer, and wherein the element is a cord; forming at least a second layer of the first structure using the printed material and enclosing the at least a first portion of the element at least partially within the first structure ; and removing the at least a first portion of the element from the first structure to form a first tunnel in the first structure . discharging a printed material from a nozzle onto a print surface , wherein the print surface is a surface of an article of apparel; forming at least a first layer of a first structure using the printed material ; placing at least a first portion of an element adjacent the first layer of the first structure , wherein the at least a first portion of the element is in contact with the first layer, and wherein the element is a cord; forming at least a second layer of the first structure using the printed material and enclosing the at least a first portion of the element at least partially within the first structure ; and removing the at least a first portion of the element from the first structure to form a first tunnel in the first structure .
A composition comprising at least one type of recombinant adeno-associated viral (AAV) vector encoding a CRISPR-Cas system directed to an autosomal dominant disease-related gene for use in treating an autosomal dominant ocular disease in a subject, the use comprising administering to the subject a therapeutically effective amount of the composition, wherein the at least one type of the AAV vector comprises: (a) two guide RNA sequences that hybridize to the endogenous autosomal dominant disease-related gene in the subject; (b) a second sequence comprising a codon-modified autosomal dominant disease-related gene or fragment thereof, wherein at least one disease related mutation has been corrected in the codon-modified autosomal dominant disease-related gene or fragment thereof, and wherein the codon-modified autosomal dominant disease-related gene or fragment thereof is not recognized by the guide RNA; and (c) a third sequence encoding a Cas nuclease, optionally Cas 9, wherein at least one guide RNA sequence is selected from the group consisting of SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 4, SEQ ID NO: 5, SEQ ID NO: 6, SEQ ID NO: 7, or combinations thereof. (a) two guide RNA sequences that hybridize to the endogenous autosomal dominant disease-related gene in the subject; (b) a second sequence comprising a codon-modified autosomal dominant disease-related gene or fragment thereof, wherein at least one disease related mutation has been corrected in the codon-modified autosomal dominant disease-related gene or fragment thereof, and wherein the codon-modified autosomal dominant disease-related gene or fragment thereof is not recognized by the guide RNA; and (c) a third sequence encoding a Cas nuclease, optionally Cas 9,
A decontamination apparatus comprising: a base ; a plurality of sources that each emit UVC light at a suitable intensity to at least partially decontaminate a target object on which the UVC light is imparted to render the target object pathogen reduced; a plurality of adjustable supports coupling the sources to the base , wherein each of the adjustable supports comprises an adjustment mechanism that is to be manipulated to adjust a position of one of the sources relative to the base ; a controller that is coupled to the base and operatively connected to the sources to control emission of the UVC light; said decontamination apparatus being characterized by further comprising a housing that is to be removably installed on the base , wherein the housing protects the plurality of sources while installed on the base ; and a remote control provided to the housing , wherein the remote control comprises a user interface that receives an input from a user and a housing transmitter that transmits a control instruction to the controller based on the input received at the user interface from a location remote from the base to result in desired operation of the sources . a base ; a plurality of sources that each emit UVC light at a suitable intensity to at least partially decontaminate a target object on which the UVC light is imparted to render the target object pathogen reduced; a plurality of adjustable supports coupling the sources to the base , wherein each of the adjustable supports comprises an adjustment mechanism that is to be manipulated to adjust a position of one of the sources relative to the base ; a controller that is coupled to the base and operatively connected to the sources to control emission of the UVC light; said decontamination apparatus being characterized by further comprising a housing that is to be removably installed on the base , wherein the housing protects the plurality of sources while installed on the base ; and a remote control provided to the housing , wherein the remote control comprises a user interface that receives an input from a user and a housing transmitter that transmits a control instruction to the controller based on the input received at the user interface from a location remote from the base to result in desired operation of the sources .
Linear drive , comprising - a running track , - at least one movement unit which is linearly movable on the running track and has at least one magnetic element , preferably a secondary magnet, - a plurality of electrical primary magnets which are arranged on the running track in a stationary manner and which act magnetically on the at least one magnetic element , the primary magnets being actuatable individually or in groups in order to drive the movement unit , - a magnetically activatable element on the movement unit , - an actuator and/or a load on the movement unit , the magnetically activatable element being operatively connected to the actuator and/or the load, characterized in that the magnetically activatable element can be actuated by at least one primary magnet , independently of driving the movement unit , in particular for energy transfer to the magnetically activatable element, and at least one primary magnet can be used to actuate the magnetically activatable element , which primary magnet is not used for driving the movement unit at the moment of actuation. - a running track , - at least one movement unit which is linearly movable on the running track and has at least one magnetic element , preferably a secondary magnet, - a plurality of electrical primary magnets which are arranged on the running track in a stationary manner and which act magnetically on the at least one magnetic element , the primary magnets being actuatable individually or in groups in order to drive the movement unit , - a magnetically activatable element on the movement unit , - an actuator and/or a load on the movement unit , the magnetically activatable element being operatively connected to the actuator and/or the load, characterized in that the magnetically activatable element can be actuated by at least one primary magnet , independently of driving the movement unit , in particular for energy transfer to the magnetically activatable element, and at least one primary magnet can be used to actuate the magnetically activatable element , which primary magnet is not used for driving the movement unit at the moment of actuation.
Robot for cleaning swimming pools, comprising a debris-collection body and a propulsion and suction system able to move the robot in alternation in two substantially opposite directions D 1 and D 2 , the body comprising two filtering compartments separated by a partition and each provided with a water inlet , characterised in that said partition makes it possible to concentrate the total suction of the robot in one compartment and to block it in the other according to the direction of movement of the robot.
Circuitry for controlling a depletion-mode transistor , the circuitry comprising: a first transistor having: a drain couplable to a source of the depletion-mode transistor; a source coupled to a first voltage node; and a gate coupled to a control node; a second transistor having: a drain couplable to a gate of the depletion-mode transistor; a source coupled to the first voltage node; and a gate coupled through at least one first logic device to an input node; a third transistor having: a drain couplable to the gate of the depletion-mode transistor; a source coupled to a second voltage node; and a gate coupled through at least one second logic device to the input node; and fault detection circuitry adapted to detect a fault condition, wherein the fault condition includes at least one of: an under-voltage condition; an over-voltage condition; an over-current condition; and an over-temperature condition, and wherein a voltage of the second voltage node is for turning off the depletion-mode transistor. a first transistor having: a drain couplable to a source of the depletion-mode transistor; a source coupled to a first voltage node; and a gate coupled to a control node; a second transistor having: a drain couplable to a gate of the depletion-mode transistor; a source coupled to the first voltage node; and a gate coupled through at least one first logic device to an input node; a third transistor having: a drain couplable to the gate of the depletion-mode transistor; a source coupled to a second voltage node; and a gate coupled through at least one second logic device to the input node; and fault detection circuitry adapted to detect a fault condition, wherein the fault condition includes at least one of: an under-voltage condition; an over-voltage condition; an over-current condition; and an over-temperature condition, and wherein a voltage of the second voltage node is for turning off the depletion-mode transistor.
Weft yarn feeding device for providing a plurality of weft yarns (2a-h) in a weaving machine and for selectively feeding an active weft yarn to a gripper , comprising a. a rotationally drivable color selection disc having a plurality of eyelets (21a-h) arranged on its outer circumference, each one for receiving at least one weft yarn (2a-h), b. a feeding needle by means of which the active weft yarn is being able to be transferred from a feeding position to the gripper in a transfer position , characterized in that c. there are a rotationally drivable clamping disc with a plurality of clamps (41a-h) arranged on its outer circumference, each one for holding at least one weft yarn (2a-h) in its closed position, and d. the hand over needle arranged between the color selection disc and the clamping disc , via which the at least one active weft yarn to be fed is passed from the feed position , into which the active weft yarn is able to be brought by rotating the color selection disc and an active clamp together with the clamping disc into a feeding rotational position , is able to be transferred to the gripper in a transfer position and the active clamp is brought into an open position after the transfer. a. a rotationally drivable color selection disc having a plurality of eyelets (21a-h) arranged on its outer circumference, each one for receiving at least one weft yarn (2a-h), b. a feeding needle by means of which the active weft yarn is being able to be transferred from a feeding position to the gripper in a transfer position , characterized in that c. there are a rotationally drivable clamping disc with a plurality of clamps (41a-h) arranged on its outer circumference, each one for holding at least one weft yarn (2a-h) in its closed position, and d. the hand over needle arranged between the color selection disc and the clamping disc , via which the at least one active weft yarn to be fed is passed from the feed position , into which the active weft yarn is able to be brought by rotating the color selection disc and an active clamp together with the clamping disc into a feeding rotational position , is able to be transferred to the gripper in a transfer position and the active clamp is brought into an open position after the transfer.
A vitrectomy device comprising - a housing - a cutter , wherein the cutter comprises: - An outer tube coupled to the housing , the outer tube having an opening on the wall at the distal end; - An inner tube disposed within the outer tube , the inner tube being rotatable about a longitudinal axis thereof - a drive system positioned within the housing , and configured to rotate the inner tube ; - the outer tube comprising an opening with a cutting edge at the wall of the outer tube at the distal end of said outer tube ; wherein - the inner tube comprises a plurality of openings with a plurality of cutting edges at the wall of the inner tube at the distal end of said inner tube ; - the cutting edges of the inner tube and the cutting edge of the outer tube are configured to form an angle (α) with respect to one another by rotation of the inner tube ; characterized in that - the inner tube is closed at the distal end; and - the outer tube ) is complete open at the distal end. - a housing - a cutter , wherein the cutter comprises: - An outer tube coupled to the housing , the outer tube having an opening on the wall at the distal end; - An inner tube disposed within the outer tube , the inner tube being rotatable about a longitudinal axis thereof - a drive system positioned within the housing , and configured to rotate the inner tube ; - An outer tube coupled to the housing , the outer tube having an opening on the wall at the distal end; - An inner tube disposed within the outer tube , the inner tube being rotatable about a longitudinal axis thereof - a drive system positioned within the housing , and configured to rotate the inner tube ; - the outer tube comprising an opening with a cutting edge at the wall of the outer tube at the distal end of said outer tube ; wherein - the inner tube comprises a plurality of openings with a plurality of cutting edges at the wall of the inner tube at the distal end of said inner tube ; - the cutting edges of the inner tube and the cutting edge of the outer tube are configured to form an angle (α) with respect to one another by rotation of the inner tube ; characterized in that - the inner tube is closed at the distal end; and - the outer tube ) is complete open at the distal end. - the inner tube is closed at the distal end; and - the outer tube ) is complete open at the distal end.
A method for providing communication services to multiple user equipment devices across multiple cells of a wireless telecommunication system and supporting broadcast information services in one or more multimedia-broadcast multicast-service single frequency network, MBSFN, areas of the system, the method comprising: providing a first point-to-multipoint multicast control channel, MCCH, and at least one additional MCCH per MBSFN area; and characterized by , configuring the modification period of the at least one additional MCCH in an MBSFN area to a lower value than the modification period of the first MCCH for the area. providing a first point-to-multipoint multicast control channel, MCCH, and at least one additional MCCH per MBSFN area; and characterized by , configuring the modification period of the at least one additional MCCH in an MBSFN area to a lower value than the modification period of the first MCCH for the area.
At least one compound of formula (IV): for use in modulating a microbiota composition of a subject in need thereof for use in enhancing the population of at least one probiotic strain chosen from Akkermenssia muciniphila, Ruminococcus and Alistipes .
An ion exchange membrane in which an ion exchange resin is filled in the spaces of porous base film, wherein the porous base film has a thickness of 80 to 250 μm and has a structure that at least two porous olefin resin layers are laminated with a bonding strength of 0.98 N/cm (100 gf/cm) or more to less than 6.86 N/cm (700 gf/cm) and a Gurley air permeance of 500 sec/100 ml or less in terms of a 100 μm thick film, and wherein said porous base film is obtainable by stretch-forming a laminate of porous olefin resin films.
A wet bench apparatus, comprising: a container ; and a first robot comprising: a first arm movable in a horizontal direction of the container; a second robot comprising: a second arm movable in the horizontal direction of the container, wherein the first arm and the second arm are adapted to move items vertically, characterized in that the second arm is adapted to move past the first arm wherein the wet bench apparatus further comprises a first cam follower system configured to move the first arm horizontally, the first cam follower system comprising at least one cam roller positioned between a first guide bar and a second guide bar and configured to resist moment from the first arm of the first robot ; and a second cam follower system configured to move the second arm horizontally, wherein the second cam follower system comprises at least one cam roller positioned between a third guide bar and a fourth guide bar and configured to resist moment from the second arm of the second robot ; wherein the first arm and at least one first item are positionable in a user specified orientation to move without contacting the second arm and at least one second item . a container ; and a first robot comprising: a first arm movable in a horizontal direction of the container; a second robot comprising: a second arm movable in the horizontal direction of the container, wherein the first arm and the second arm are adapted to move items vertically, characterized in that the second arm is adapted to move past the first arm wherein the wet bench apparatus further comprises a first cam follower system configured to move the first arm horizontally, the first cam follower system comprising at least one cam roller positioned between a first guide bar and a second guide bar and configured to resist moment from the first arm of the first robot ; and a second cam follower system configured to move the second arm horizontally, wherein the second cam follower system comprises at least one cam roller positioned between a third guide bar and a fourth guide bar and configured to resist moment from the second arm of the second robot ; wherein the first arm and at least one first item are positionable in a user specified orientation to move without contacting the second arm and at least one second item . wherein the wet bench apparatus further comprises a first cam follower system configured to move the first arm horizontally, the first cam follower system comprising at least one cam roller positioned between a first guide bar and a second guide bar and configured to resist moment from the first arm of the first robot ; and a second cam follower system configured to move the second arm horizontally, wherein the second cam follower system comprises at least one cam roller positioned between a third guide bar and a fourth guide bar and configured to resist moment from the second arm of the second robot ; wherein the first arm and at least one first item are positionable in a user specified orientation to move without contacting the second arm and at least one second item .