mhurhangee/patent-ind-claim-en huggingface dataset:
An ion-exchange system comprising: an ion-exchange tank for containing molten salt; a conveyor ribbon having a length, a width, a thickness less than the width, and a plurality of receiving apertures located along the length and extending through the thickness of the conveyor ribbon; a conveyor drive and guidance system engaged with the conveyor ribbon and directing the conveyor ribbon along a predefined conveyor path comprising an ion-exchange tank section and a drain section, wherein the conveyor ribbon extends through at least a portion of the ion-exchange tank in the ion-exchange tank section and is rotated about a horizontal axis in the drain section. an ion-exchange tank for containing molten salt; a conveyor ribbon having a length, a width, a thickness less than the width, and a plurality of receiving apertures located along the length and extending through the thickness of the conveyor ribbon; a conveyor drive and guidance system engaged with the conveyor ribbon and directing the conveyor ribbon along a predefined conveyor path comprising an ion-exchange tank section and a drain section, wherein the conveyor ribbon extends through at least a portion of the ion-exchange tank in the ion-exchange tank section and is rotated about a horizontal axis in the drain section.
An adenosine or guanosine monomer comprising: a protected 3'-amino group which is protected with an acid-labile group; a nucleoside base which is protected with a dialkyl-, di(cycloalkyl)-, or di(aralkyl)-formamidinyl group; and a 5'-O-(2-cyanoethyl-N,N-diisopropylamino)phosphoramidite group. a protected 3'-amino group which is protected with an acid-labile group; a nucleoside base which is protected with a dialkyl-, di(cycloalkyl)-, or di(aralkyl)-formamidinyl group; and a 5'-O-(2-cyanoethyl-N,N-diisopropylamino)phosphoramidite group.
A method for transmitting information, comprising: receiving (S201), by User Equipment, UE, first indication information from a network device, wherein the first indication information is used to determine at least one channel access manner in Channel Occupancy Time, COT, of the network device, wherein the COT is obtained by the network device according to a Frame Based Equipment, FBE,-based channel access manner; determining (S202), by the UE, a first channel access manner for a target burst in the COT according to the first indication information, wherein the target burst is used to transmit a target signal or to transmit on a target channel; and receiving, by the UE, second indication information, wherein the second indication information is used to determine at least one burst in the COT and the at least one burst comprises the target burst, wherein the first indication information being used to determine the at least one channel access manner in the COT comprises that: the first indication information is used to determine a target channel access manner group including the at least one channel access manner in the COT, and the target channel access manner group is used to determine the at least one channel access manner in the COT, and wherein the second indication information is used to determine a starting position in a starting symbol of the target burst. receiving (S201), by User Equipment, UE, first indication information from a network device, wherein the first indication information is used to determine at least one channel access manner in Channel Occupancy Time, COT, of the network device, wherein the COT is obtained by the network device according to a Frame Based Equipment, FBE,-based channel access manner; determining (S202), by the UE, a first channel access manner for a target burst in the COT according to the first indication information, wherein the target burst is used to transmit a target signal or to transmit on a target channel; and receiving, by the UE, second indication information, wherein the second indication information is used to determine at least one burst in the COT and the at least one burst comprises the target burst, wherein the first indication information being used to determine the at least one channel access manner in the COT comprises that: the first indication information is used to determine a target channel access manner group including the at least one channel access manner in the COT, and the target channel access manner group is used to determine the at least one channel access manner in the COT, and wherein the second indication information is used to determine a starting position in a starting symbol of the target burst. the first indication information is used to determine a target channel access manner group including the at least one channel access manner in the COT, and the target channel access manner group is used to determine the at least one channel access manner in the COT, and wherein the second indication information is used to determine a starting position in a starting symbol of the target burst.
An embedded sensor for the continuous measurement of mechanical resistance in structures made from cementitious material characterized in that it comprises: - a block of cementitious material, configured to be embedded in structures made from cementitious material, and - at least one amorphous magnetic microwire , embedded in the block of cementitious material, where the magnetic microwire is resistant to the alkaline environment of the block of cementitious material and comprises a metal core . - a block of cementitious material, configured to be embedded in structures made from cementitious material, and - at least one amorphous magnetic microwire , embedded in the block of cementitious material, where the magnetic microwire is resistant to the alkaline environment of the block of cementitious material and comprises a metal core .
A medical device for delivering a pressurized substance to an opening in bone within a vertebral column, the medical device comprising: a handle having a proximal port; an inner member coupled to the handle and having a proximal end and a distal working end; a working lumen extending through the inner member; a bone engaging section located about a distal portion of the inner member, the bone engaging section configured to expand radially away from the inner member and maintain an expansion force against the opening to prevent dislodgement of the working lumen from the bone; and a shuttle member mechanically coupled to the handle and the bone engaging section, wherein actuation of the shuttle member drives the bone engaging section in a radially outward direction over a radially offset surface located on a distal portion of the inner member, such that bone engaging section expands radially away from the inner member. a handle having a proximal port; an inner member coupled to the handle and having a proximal end and a distal working end; a working lumen extending through the inner member; a bone engaging section located about a distal portion of the inner member, the bone engaging section configured to expand radially away from the inner member and maintain an expansion force against the opening to prevent dislodgement of the working lumen from the bone; and a shuttle member mechanically coupled to the handle and the bone engaging section, wherein actuation of the shuttle member drives the bone engaging section in a radially outward direction over a radially offset surface located on a distal portion of the inner member, such that bone engaging section expands radially away from the inner member.
A weather seal for use on a weather permeable barrier separating the indoor from the outdoor, comprising: a. an elongated, compressible micro-cellular foam bulb adapted for connection to the barrier; and b. an elongated, compressible micro-cellular foam element extending along the length of the foam bulb , wherein in use the foam element is spaced from the barrier; characterized by c. a polypropylene member attached to and extending the length of the foam bulb and to which the foam element is attached. a. an elongated, compressible micro-cellular foam bulb adapted for connection to the barrier; and b. an elongated, compressible micro-cellular foam element extending along the length of the foam bulb , wherein in use the foam element is spaced from the barrier; characterized by c. a polypropylene member attached to and extending the length of the foam bulb and to which the foam element is attached.
A method for recycling lithium-ion batteries, which have at least one cathode and one anode and the cathode comprises a base material and an active material arranged thereon, comprising at least the process step of dismantling a multilayer lithium-ion battery by separating the anode and the cathode, characterized in that this method comprises at least the process step of recycling the cathodes of the lithium-ion battery, whereby the cathode is subjected to a treatment in water or an aqueous salt solution to detach the active material from the base material of the cathode.
A device for treating substrates by a treating liquid, comprising: at least one rotatably supported support roller which a substrate to be treating rest on during operation, wherein the support roller comprises a hollow cylinder comprising a porous rigid material which the substrate to be treated rests on during operation, wherein the device is configured to deliver, during operation, treating liquid via the interior of the hollow cylinder of the at least one support roller through the porous rigid material to the external surface of the hollow cylinder in order to treat at least one surface of the substrate by the treating liquid. wherein the device is configured to treat several substrates in the form of plate-shaped separate wafers arranged one behind the other and/or next to one another in the device by the treating liquid and to transport the substrates in a transport plane during treatment, wherein the at least one support roller is supported to be rotatable at lateral portions in an axial direction, wherein the device additionally comprises bearing means comprising a surface which is opposite to a portion of the external surface of the hollow cylinder between the lateral portions, wherein the bearing means , when delivering the treating liquid to the external surface of the hollow cylinder , represents a liquid bearing for the support roller , wherein the bearing means comprises the shape of cylinder shell, characterized in that axial ends of the cylinder shell are open to allow draining of the treating liquid. at least one rotatably supported support roller which a substrate to be treating rest on during operation, wherein the support roller comprises a hollow cylinder comprising a porous rigid material which the substrate to be treated rests on during operation, wherein the device is configured to deliver, during operation, treating liquid via the interior of the hollow cylinder of the at least one support roller through the porous rigid material to the external surface of the hollow cylinder in order to treat at least one surface of the substrate by the treating liquid. wherein the device is configured to treat several substrates in the form of plate-shaped separate wafers arranged one behind the other and/or next to one another in the device by the treating liquid and to transport the substrates in a transport plane during treatment, wherein the at least one support roller is supported to be rotatable at lateral portions in an axial direction, wherein the device additionally comprises bearing means comprising a surface which is opposite to a portion of the external surface of the hollow cylinder between the lateral portions, wherein the bearing means , when delivering the treating liquid to the external surface of the hollow cylinder , represents a liquid bearing for the support roller , wherein the bearing means comprises the shape of cylinder shell, characterized in that axial ends of the cylinder shell are open to allow draining of the treating liquid.
Studdable tyre comprising a tread band in which a plurality of blocks defined by grooves and having a radially outer surface is formed, wherein at least some of said blocks comprise: - a seat for a stud ; - a first portion , peripheral to said seat and located around said seat ; said first portion lacking sipes and having a minimum dimension equal to or greater than 12 mm; characterized in that - at least one second portion , outwardly located relative to said first portion and extending in a circumferential direction starting from said first portion , and having a maximum circumferential dimension (Lmax) and a maximum axial dimension (W) comprised between 50% and 150% of said minimum dimension (Dmin) of said first portion; - said at least one second portion comprising at least one sipe having a segment in said at least one second portion having a depth (P) starting from said radially outer surface of each respective block smaller than or equal to 2 mm. - a seat for a stud ; - a first portion , peripheral to said seat and located around said seat ; said first portion lacking sipes and having a minimum dimension equal to or greater than 12 mm; characterized in that - at least one second portion , outwardly located relative to said first portion and extending in a circumferential direction starting from said first portion , and having a maximum circumferential dimension (Lmax) and a maximum axial dimension (W) comprised between 50% and 150% of said minimum dimension (Dmin) of said first portion; - said at least one second portion comprising at least one sipe having a segment in said at least one second portion having a depth (P) starting from said radially outer surface of each respective block smaller than or equal to 2 mm.
Process for manufacturing a bicycle component of composite material comprising structural fiber incorporated in a thermosetting polymeric matrix, comprising the steps, not necessarily sequential to each other, of: - providing a mold having a mold cavity having the shape of the bicycle component , - providing a printed circuit board , - providing at least one first face of the printed circuit board with a protection , - inserting the printed circuit board provided with the protection into said mold cavity, - inserting said composite material into said mold cavity, - with the proviso that said composite material extends all around said printed circuit board provided with the protection , said composite material being in contact with said printed circuit board provided with the protection on the side of said first face and/or on the opposite side, and - subjecting to a temperature and pressure profile until hardening of the composite material, through compression molding, wherein said at least one first face of said printed circuit board carries at least one electrical/electronic component , and said protection is a protection against a critical temperature and a critical pressure for said at least one electrical/electronic component. - providing a mold having a mold cavity having the shape of the bicycle component , - providing a printed circuit board , - providing at least one first face of the printed circuit board with a protection , - inserting the printed circuit board provided with the protection into said mold cavity, - inserting said composite material into said mold cavity, - with the proviso that said composite material extends all around said printed circuit board provided with the protection , said composite material being in contact with said printed circuit board provided with the protection on the side of said first face and/or on the opposite side, and - subjecting to a temperature and pressure profile until hardening of the composite material, through compression molding,
Peroxide masterbatch comprising: - 15-55 wt% of one or more organic peroxides, - 15-45 wt% of one or more copolymers of at least two different monomers, the first monomer being ethylene or propylene, the second monomer being a vinyl monomer comprising at least four carbon atoms and optionally heteroatoms, - 6-70 wt% of at least two filler types - filler type 1 and filler type 2 - each having a different BET surface area: (i) filler type 1 being present in the masterbatch in a concentration of 3-30 wt% and having a BET surface area of more than 100 m 2 /g; (ii) filler type 2 being present in the masterbatch in a concentration of 3-40 wt% and having a BET surface area of 100 m 2 /g or less; wherein the masterbatch has the form of extrudates. - 15-55 wt% of one or more organic peroxides, - 15-45 wt% of one or more copolymers of at least two different monomers, the first monomer being ethylene or propylene, the second monomer being a vinyl monomer comprising at least four carbon atoms and optionally heteroatoms, - 6-70 wt% of at least two filler types - filler type 1 and filler type 2 - each having a different BET surface area: (i) filler type 1 being present in the masterbatch in a concentration of 3-30 wt% and having a BET surface area of more than 100 m 2 /g; (ii) filler type 2 being present in the masterbatch in a concentration of 3-40 wt% and having a BET surface area of 100 m 2 /g or less; wherein the masterbatch has the form of extrudates. (i) filler type 1 being present in the masterbatch in a concentration of 3-30 wt% and having a BET surface area of more than 100 m 2 /g; (ii) filler type 2 being present in the masterbatch in a concentration of 3-40 wt% and having a BET surface area of 100 m 2 /g or less;
A construction machine comprising: an engine mounted on a machine body; a variable displacement hydraulic pump driven by the engine; a plurality of hydraulic actuators (1c-3f) driven by an hydraulic fluid delivered from the hydraulic pump; a plurality of directional control valves that control the flow rates of the hydraulic fluid supplied to the hydraulic actuators from the hydraulic pump; an obstacle sensor (5-8) that senses an obstacle in surroundings of the machine body; and a controller that performs operation limiting control for limiting operation of the machine body when the obstacle is sensed by the obstacle sensor, characterised in that the controller is configured to perform the operation limiting control by performing control for reducing the speed of the engine when the machine body does not require engine speed increase control for increasing the speed of the engine and the obstacle is sensed by the obstacle sensor, and perform the operation limiting control by performing supply flow rate reduction control for reducing the flow rates of the hydraulic fluid supplied to the plurality of hydraulic actuators from the hydraulic pump when the machine body requires the engine speed increase control and the obstacle is sensed by the obstacle sensor.
A method comprising: displaying in a first display area a user interface element that is movable from the first display area to a second display area , distinct from the first display area , across an interface between the first display area and the second display area , wherein the interface physically separates the first display area from the second display area ; characterized in that displaying an interface effect in a portion of the first display area , adjacent to the interface , indicative to a user that the user interface element is movable across the interface from the first display area to the second display area , wherein the interface effect moves automatically from the first display area to the second display area when the user interface element is moved by a user from the first display area to the second display area .
A refrigerated storage container , comprising: a container housing defining an interior in which cargo is storable; a condenser configured to receive air to remove heat from a refrigerant passing through the condenser ; first, second and third condenser air inlets (240 1-3 ) that are receptive of the air; a condenser air outlet configured to direct air exhausted from the condenser away from the condenser air inlets; and first, second and third reefer air outlets (242 1-3 ) configured to direct conditioned air exhausted from the interior toward the condenser air inlets, wherein the first, second and third condenser air inlets (240 1-3 ), the condenser air outlet and the first, second and third reefer air outlets (242 1-3 ) are disposed on an end wall of the container housing, and wherein the condenser air outlet is in a central region of the wall, the first and second condenser air inlets (240 1-2 ) are aside the central region, the third condenser air inlet (240 3 ) is below the central region, the first and second reefer air outlets (242 1-2 ) are outside the first and second condenser air inlets (240 1,2 ), and the third reefer air outlet (242 3 ) is below the third condenser air inlet (240 3 ). a container housing defining an interior in which cargo is storable; a condenser configured to receive air to remove heat from a refrigerant passing through the condenser ; first, second and third condenser air inlets (240 1-3 ) that are receptive of the air; a condenser air outlet configured to direct air exhausted from the condenser away from the condenser air inlets; and first, second and third reefer air outlets (242 1-3 ) configured to direct conditioned air exhausted from the interior toward the condenser air inlets, wherein the first, second and third condenser air inlets (240 1-3 ), the condenser air outlet and the first, second and third reefer air outlets (242 1-3 ) are disposed on an end wall of the container housing, and wherein the condenser air outlet is in a central region of the wall, the first and second condenser air inlets (240 1-2 ) are aside the central region, the third condenser air inlet (240 3 ) is below the central region, the first and second reefer air outlets (242 1-2 ) are outside the first and second condenser air inlets (240 1,2 ), and the third reefer air outlet (242 3 ) is below the third condenser air inlet (240 3 ).
A computer implemented method comprising: receiving a first description of an incident; determining an impact area of the incident based on the first description; generating a geographic polygon based on the impact area of the incident; overlaying the geographic polygon on a first map of a first cellular network; transmitting an alert message to one or more devices located within a cell of the first map of the first cellular network that contains at least a portion of the geographic polygon; overlaying the geographic polygon on a second map of a second cellular network, wherein the second map of the second cellular network is different than the first map of the first cellular network; and transmitting the alert message to a device within a cell of the second map of the second cellular network that contains at least a portion of the geographic polygon. receiving a first description of an incident; determining an impact area of the incident based on the first description; generating a geographic polygon based on the impact area of the incident; overlaying the geographic polygon on a first map of a first cellular network; transmitting an alert message to one or more devices located within a cell of the first map of the first cellular network that contains at least a portion of the geographic polygon; overlaying the geographic polygon on a second map of a second cellular network, wherein the second map of the second cellular network is different than the first map of the first cellular network; and transmitting the alert message to a device within a cell of the second map of the second cellular network that contains at least a portion of the geographic polygon.