mhurhangee/patent-ind-claim-en huggingface dataset:
Communication apparatus (5-2) for operating as a secondary communication apparatus (5-2) providing a secondary communication cell in a communication network having a user equipment and a primary communication apparatus (5-1) providing a primary communication cell and control plane signalling to the user equipment , the secondary communication apparatus (5-2) comprising: means for providing user plane communication for the user equipment ; means for indicating to the primary communication apparatus (5-1) when a PDCP count is about to wrap around; means for receiving, from the primary communication apparatus (5-1), a security key of the secondary communication apparatus (5-2) derived by the primary communication apparatus (5-1) using a security key of the primary communication apparatus (5-1) while the user equipment is connected to the primary communication apparatus (5-1) and the secondary communication apparatus (5-2); means for deriving a user plane security key using said security key of the secondary communication apparatus (5-2); and means for using the derived user plane security key for user plane communication between the secondary communication apparatus (5-2) and the user equipment . means for providing user plane communication for the user equipment ; means for indicating to the primary communication apparatus (5-1) when a PDCP count is about to wrap around; means for receiving, from the primary communication apparatus (5-1), a security key of the secondary communication apparatus (5-2) derived by the primary communication apparatus (5-1) using a security key of the primary communication apparatus (5-1) while the user equipment is connected to the primary communication apparatus (5-1) and the secondary communication apparatus (5-2); means for deriving a user plane security key using said security key of the secondary communication apparatus (5-2); and means for using the derived user plane security key for user plane communication between the secondary communication apparatus (5-2) and the user equipment .
A method of controlling decomposition of artificial or hybrid turf , the method comprising: - providing a completely or partially compostable turf, the turf being a completely or partially compostable artificial turf or a hybrid turf comprising a completely or partially compostable hybrid turf support, the turf comprising a decomposition inhibitor, the decomposition inhibitor in the turf being adapted to lose its decomposition-inhibiting functionality or leave the turf until a defined period of time has elapsed, the turf comprising compostable artificial turf fibers and a compostable backing that surrounds and mechanically fixes the artificial turf fibers, the compostable backing being free of the decomposition inhibitor and the artificial turf fibers comprising the decomposition inhibitor. - providing a completely or partially compostable turf, the turf being a completely or partially compostable artificial turf or a hybrid turf comprising a completely or partially compostable hybrid turf support, the turf comprising a decomposition inhibitor, the decomposition inhibitor in the turf being adapted to lose its decomposition-inhibiting functionality or leave the turf until a defined period of time has elapsed, the turf comprising compostable artificial turf fibers and a compostable backing that surrounds and mechanically fixes the artificial turf fibers, the compostable backing being free of the decomposition inhibitor and the artificial turf fibers comprising the decomposition inhibitor.
A light scanning device comprising: a light source that emits laser light; a mirror device that includes a movable mirror swinging about at least one axis and directionally changes the laser light emitted from the light source by reflecting the laser light using the movable mirror ; and a condensing optical system that condenses the laser light directionally changed by the mirror device , wherein the condensing optical system includes a half-silvered mirror that has a concave surface , and a diffusion plate in which a plurality of micromirrors that diffuse the laser light transmitted through the half-silvered mirror from the concave surface side are formed. a light source that emits laser light; a mirror device that includes a movable mirror swinging about at least one axis and directionally changes the laser light emitted from the light source by reflecting the laser light using the movable mirror ; and a condensing optical system that condenses the laser light directionally changed by the mirror device , wherein the condensing optical system includes a half-silvered mirror that has a concave surface , and a diffusion plate in which a plurality of micromirrors that diffuse the laser light transmitted through the half-silvered mirror from the concave surface side are formed.
A drafting system unit for a spinning unit of an air jet spinning machine for producing a thread or roving from a supplied fiber strip, with - at least one front roller pair consisting of a front top roller on a load carrier and a driven front bottom roller on a bottom roller carrier and forming a clamping line, and - a bearing element arranged on the bottom roller carrier for movably bearing an air jet spinning nozzle , characterized in that the bottom roller carrier comprises a bearing element having at least one free end , via which the air jet spinning nozzle can be received, wherein the bearing element forms a pivot axis for pivoting the air jet spinning nozzle between an operating position and at least one second position spaced apart therefrom, wherein the bearing element is connected to a portion spaced apart from the free end on the bottom roller carrier . - at least one front roller pair consisting of a front top roller on a load carrier and a driven front bottom roller on a bottom roller carrier and forming a clamping line, and - a bearing element arranged on the bottom roller carrier for movably bearing an air jet spinning nozzle ,
A cutting assembly for an agricultural harvesting machine, having at least one linear cutter bar which can move in an oscillating manner and at least one electric drive unit for driving the movement of the cutter bar , wherein the drive unit is configured as a linear motor , characterized in that a runner of the linear motor is guided in a channel and in that a stator of the linear motor comprises at least one pair of pole pieces which are positioned opposite to each other on two sides of the channel orthogonally to the direction of movement of the runner .
A compound having the structure of Formula (I): or a pharmaceutically acceptable salt thereof.
A sprinkler head comprising a sprinkler body with a passage for fluid to flow therethrough; a seal mechanism for sealing said passage ; a cage member ; a hollow frangible tube extending between the cage member and the seal mechanism ; and a shape memory alloy element having at least one hole receiving the frangible tube , characterized by said shape memory alloy element having a first configuration that fits with the tube and a second constricted configuration in which the orifice has a diameter smaller than an outer diameter of the hollow frangible tube at a predetermined temperature which breaks the frangible tube , releasing the seal mechanism and thus the fluid through the passage . a sprinkler body with a passage for fluid to flow therethrough; a seal mechanism for sealing said passage ; a cage member ; a hollow frangible tube extending between the cage member and the seal mechanism ; and a shape memory alloy element having at least one hole receiving the frangible tube , characterized by said shape memory alloy element having a first configuration that fits with the tube and a second constricted configuration in which the orifice has a diameter smaller than an outer diameter of the hollow frangible tube at a predetermined temperature which breaks the frangible tube , releasing the seal mechanism and thus the fluid through the passage .
A system for treating at least one tissue site with reduced pressure, the system comprising: a first, wireless, reduced-pressure dressing for disposing proximate to the tissue site , wherein the first, wireless, reduced-pressure dressing comprises: a sealing member adapted to cover at least a portion of the tissue site ; a first processor ; a RFID antenna coupled to the first processor ; a first sensor coupled to the first processor , wherein the first sensor is a pressure sensor comprised of a strain gauge associated with a deflector , the sensor having a first side exposed to the ambient atmosphere and a second side exposed to the tissue site ; and a flexible printed circuit board comprising the first RFID antenna , the first processor and first sensor , the deflector being formed as part of the flexible printed circuit board . a first, wireless, reduced-pressure dressing for disposing proximate to the tissue site , wherein the first, wireless, reduced-pressure dressing comprises: a sealing member adapted to cover at least a portion of the tissue site ; a first processor ; a RFID antenna coupled to the first processor ; a first sensor coupled to the first processor , wherein the first sensor is a pressure sensor comprised of a strain gauge associated with a deflector , the sensor having a first side exposed to the ambient atmosphere and a second side exposed to the tissue site ; and a flexible printed circuit board comprising the first RFID antenna , the first processor and first sensor , the deflector being formed as part of the flexible printed circuit board . a sealing member adapted to cover at least a portion of the tissue site ; a first processor ; a RFID antenna coupled to the first processor ; a first sensor coupled to the first processor , wherein the first sensor is a pressure sensor comprised of a strain gauge associated with a deflector , the sensor having a first side exposed to the ambient atmosphere and a second side exposed to the tissue site ; and a flexible printed circuit board comprising the first RFID antenna , the first processor and first sensor , the deflector being formed as part of the flexible printed circuit board .
Agricultural large square baler , comprising a chassis for supporting the large square baler on the field ground (B); a pick-up device for recovering harvested crops lying on the field ground (B); a conveying channel having at least one conveying means for conveying the recovered harvested crops into a pressing channel , in which a reciprocatingly driven plunger is designed to compress the harvested crops into a crop bale , having at least one binding unit assigned to the pressing channel for strapping the crop bale with binding material; and at least one airflow generator for cleaning the binding unit ; the airflow generator being designed to direct the effected airflow (Q) beyond the region of the binding unit at least to the transfer region between the conveying channel and the pressing channel , characterised in that the airflow generator is associated with a housing which is designed to at least partially shield the binding unit from the surroundings, a portion of the airflow (Q) reaching the pressing channel through cutouts for the transfer of binding material, and the airflow generator either being positioned in the immediate vicinity of the housing surrounding the binding unit , or the airflow generator being incorporated in the housing of the binding unit .
A method for determining a packet dequeue rate, comprising: allocating (S501) a plurality of consecutive blocks in a first memory to a first packet; storing (S502) the first packet and a first length in the plurality of blocks, wherein the first length is a length that is of a first packet queue and that is obtained when the first packet is enqueued into the first packet queue; and determining (S503), based on a first span and the first length stored in the plurality of blocks, a first rate at which a packet in the first packet queue is dequeued, wherein the first span is equal to a difference between a second time and a first time, the first time is a time at which the first packet is enqueued into the first packet queue, and the second time is a time at which the first packet is dequeued from the first packet queue; wherein all of the plurality of blocks have a same capacity, and a difference between a length of the first packet and capacities of the plurality of blocks is less than the capacity of one of the plurality of blocks. allocating (S501) a plurality of consecutive blocks in a first memory to a first packet; storing (S502) the first packet and a first length in the plurality of blocks, wherein the first length is a length that is of a first packet queue and that is obtained when the first packet is enqueued into the first packet queue; and determining (S503), based on a first span and the first length stored in the plurality of blocks, a first rate at which a packet in the first packet queue is dequeued, wherein the first span is equal to a difference between a second time and a first time, the first time is a time at which the first packet is enqueued into the first packet queue, and the second time is a time at which the first packet is dequeued from the first packet queue; wherein all of the plurality of blocks have a same capacity, and a difference between a length of the first packet and capacities of the plurality of blocks is less than the capacity of one of the plurality of blocks.
Use of a catalyst for fixed bed aniline rectification residue recycling, characterized in that said catalyst comprises the components described below based on the total weight of the catalyst: 5-40 wt% of NiO as an active component, 2-30 wt% of one or more selected from oxides of Fe, oxides of Mo, oxides of Cr and oxides of Co as a first cocatalyst component, 10-30 wt% of one or more selected from oxides of La, oxides of Zr, oxides of Y and oxides of Ce as a second cocatalyst component, the remaining portion being the support. 5-40 wt% of NiO as an active component, 2-30 wt% of one or more selected from oxides of Fe, oxides of Mo, oxides of Cr and oxides of Co as a first cocatalyst component, 10-30 wt% of one or more selected from oxides of La, oxides of Zr, oxides of Y and oxides of Ce as a second cocatalyst component, the remaining portion being the support.
A monitoring system, comprising: a light projecting and receiving unit including an emitting section (LPS) to emit a light flux, a scanning section to make the light flux scan within a monitoring space, and a light receiving section (RPS) to receive a light flux reflected from an object within the monitoring space; a processing section to measure a distance to the object by processing signals from the light projecting and receiving unit and to output a distance image of the whole region within the monitoring space in a virtual space with three-dimensional distance information for each measurement point of the distance image; a user interface to set a monitoring region (DA) in the virtual space by an operation of a user; and a display device that, when the monitoring region (DA) has been set via the user interface, displays the set monitoring region (DA) together with the distance image, wherein the processing section outputs an alarm signal when an object invades within the monitoring region (DA) during monitoring. a light projecting and receiving unit including an emitting section (LPS) to emit a light flux, a scanning section to make the light flux scan within a monitoring space, and a light receiving section (RPS) to receive a light flux reflected from an object within the monitoring space; a processing section to measure a distance to the object by processing signals from the light projecting and receiving unit and to output a distance image of the whole region within the monitoring space in a virtual space with three-dimensional distance information for each measurement point of the distance image; a user interface to set a monitoring region (DA) in the virtual space by an operation of a user; and a display device that, when the monitoring region (DA) has been set via the user interface, displays the set monitoring region (DA) together with the distance image, wherein the processing section outputs an alarm signal when an object invades within the monitoring region (DA) during monitoring.
Insert for wedging an object (O) inside a container, this wedging insert being made of foam and comprising: an external part which has a constant external shape, is intended to interact with the container, and comprises a frame having a plurality of sides (200; 201; 202; 203); an internal part which delimits an internal cavity , has at least one variable geometry, and is intended to interact with the object (O); and a plurality of connecting means (5; 5') for connecting the external part and the internal part , at least these connecting means (5; 5') being deformable; characterized in that at least one of the connecting means (5; 5') each comprises a first part which extends between two consecutive sides (201, 202; 202, 203) of the frame of the external part and connects these two consecutive sides (201, 202; 202, 203), and a second part which extends between said first part of such a connecting means and the internal part and connects this first part and this internal part .
A helical anchor (72; 150; 160) for docking a prosthetic mitral valve in a native mitral valve , the helical anchor (72; 160) adapted to be received in a coil guide catheter in a straightened configuration and to be delivered from the coil guide catheter, and comprising: a plurality of coils (104, 108; 156; 164a, 164b) having a preformed, coiled configuration after being delivered from the coil guide catheter and adapted to support the prosthetic mitral valve upon being fully delivered form the coil guide catheter and implanted with a first coil portion (108; 164b) above and a second coil portion (104; 164a) below a mitral valve annulus of the native mitral valve , wherein the second coil portion (104; 164a) includes a plurality of coils configured to encircle heart valve leaflets of the native mitral valve , and further comprising a gap between the first coil portion (108; 164b) and the second coil portion (104; 164a) such that the first coil portion (108; 164b) and the second coil portion (104; 164a) do not trap mitral leaflet tissue between the first coil portion (108; 164b) and the second coil portion (104; 164a) upon implantation.
A flame-resistant wick (1; 1a; 1b; 1c; 1d; 1e) comprising: a hollow chamber ; and at least one capillary structure (20; 20a) surrounding the hollow chamber and interlaced by a plurality of wire strands into a tubular shape, with each of the plurality of wire strands consisting of a plurality of core wires (211, 221; 211c, 221c; 211d, 221d) made of a material having a melting point of not less than 800 °C, characterized in that each of the plurality of core wires has a different wire diameter to the others. a hollow chamber ; and at least one capillary structure (20; 20a) surrounding the hollow chamber and interlaced by a plurality of wire strands into a tubular shape, with each of the plurality of wire strands consisting of a plurality of core wires (211, 221; 211c, 221c; 211d, 221d) made of a material having a melting point of not less than 800 °C, characterized in that each of the plurality of core wires has a different wire diameter to the others.
Applicator for cosmetic product, comprising a core extending according to a main longitudinal extension direction, called main direction (X), said core comprising two twisted metal strands, said applicator further comprising a plurality of fibres retained on the core by said twisted strands, said applicator being characterised by the fact that said twisted strands form non-joining spires so as to house said fibres, the number and/or the nature of the fibres varying from one spire, called first spire , to the other, called second spire , the applicator comprising a plurality of first spires and a plurality of second spires along said main direction (X), said plurality of first spires comprises fibres of a first hollow (A) nature, and fibres of a second solid (B) nature.
A method for filling a refrigerant mixture comprising difluoromethane (HFC-32) and trans-1,3,3,3-tetrafluoropropene (HFO-1234ze(E)), HFC-32 being present in a liquid phase of the refrigerant mixture in an amount of 10-90 wt% based on 100 wt% of the total of HFC-32 and HFO-1234ze(E), the method comprising, in transferring the refrigerant mixture in a liquid state to a target container or equipment from a feeding container, adjusting, immediately before the transfer, the proportion (initial composition) of HFC-32 in the liquid phase of the refrigerant mixture in the feeding container to (x+y 1 ) wt-% (minimum value) to x wt-% (target upper-limit composition), so that the proportion of HFC-32 in the liquid phase of the refrigerant mixture in the feeding container falls within a range of (x-4.0) wt% (target lower-limit composition) to x wt-% (target upper-limit composition) during initiation and completion of the transfer, wherein a is an amount (wt%) initially filled in the feeding container, wherein 60 ≤ a ≤ 100; x is a target upper-limit composition with the proviso that 10 ≤ x ≤ 90, excluding a range satisfying y 1 > 0; and y 1 is a lower limit of a gap between the target upper-limit composition and the initial composition and is represented by Equation : 1000 y 1 = L 1 x 3 − M 1 x 2 + N 1 x − P 1 wherein L 1 = 0.0001 a + 0.0032 M 1 = 0.0160 a + 1.3002 N 1 = 0.9472 a + 108.76, and P 1 = 1.9549 a + 4340. the method comprising, in transferring the refrigerant mixture in a liquid state to a target container or equipment from a feeding container, adjusting, immediately before the transfer, the proportion (initial composition) of HFC-32 in the liquid phase of the refrigerant mixture in the feeding container to (x+y 1 ) wt-% (minimum value) to x wt-% (target upper-limit composition), so that the proportion of HFC-32 in the liquid phase of the refrigerant mixture in the feeding container falls within a range of (x-4.0) wt% (target lower-limit composition) to x wt-% (target upper-limit composition) during initiation and completion of the transfer, wherein a is an amount (wt%) initially filled in the feeding container, wherein 60 ≤ a ≤ 100; x is a target upper-limit composition with the proviso that 10 ≤ x ≤ 90, excluding a range satisfying y 1 > 0; and y 1 is a lower limit of a gap between the target upper-limit composition and the initial composition and is represented by Equation : 1000 y 1 = L 1 x 3 − M 1 x 2 + N 1 x − P 1 wherein L 1 = 0.0001 a + 0.0032 M 1 = 0.0160 a + 1.3002 N 1 = 0.9472 a + 108.76, and P 1 = 1.9549 a + 4340. a is an amount (wt%) initially filled in the feeding container, wherein 60 ≤ a ≤ 100; x is a target upper-limit composition with the proviso that 10 ≤ x ≤ 90, excluding a range satisfying y 1 > 0; and y 1 is a lower limit of a gap between the target upper-limit composition and the initial composition and is represented by Equation : 1000 y 1 = L 1 x 3 − M 1 x 2 + N 1 x − P 1 wherein L 1 = 0.0001 a + 0.0032 M 1 = 0.0160 a + 1.3002 N 1 = 0.9472 a + 108.76, and P 1 = 1.9549 a + 4340.