mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless transmit/receive unit, WTRU, for performing polar code encoding and/or decoding based on a polar code graph consisting of (n+1) N nodes, where N denotes the code length of the polar code with N=2 n , each node being indexed by (i,j) with bit index i = 1, 2, ... , N and level j=0, 1, ..., n, nodes (i, 0) indicate input bits for polar code encoding and nodes (i, n) indicate output coded bits and each node (i,j) is associated with a relaxation attribute RL i,j , the WTRU comprising: a processor configured to: select an initial relaxation attribute RL i,0 using a reliability order of input bit indices, wherein the initial relaxation attribute RL i ,0 = 1 indicates that the associated nodes are included in a set of most reliable bit indices or in a set of least reliable bit indices; determine one or more relaxation groups and a corresponding final relaxation level for each of the one or more relaxation groups based on the initial relaxation attributes RL i , 0 according to where c is the minimum block size of each of said one or more relaxation groups; and for each determined relaxation group, iteratively select relaxation attributes RL i,j for the level j =1 up to the final relaxation level of said relaxation group as RL i,j = 1 if RL i,j -1 = 1 for bit indices i within said relaxation group; and perform polar code encoding using the polar code graph by relaxing paired nodes where both paired nodes have a relaxation attribute RL i,j =1 so that no XOR operation among said relaxed paired nodes is performed and/or perform polar code decoding by relaxing paired nodes where both paired nodes have a relaxation attribute RL i,j =1 so that no decoding XOR operation among said relaxed paired nodes is performed. select an initial relaxation attribute RL i,0 using a reliability order of input bit indices, wherein the initial relaxation attribute RL i ,0 = 1 indicates that the associated nodes are included in a set of most reliable bit indices or in a set of least reliable bit indices; determine one or more relaxation groups and a corresponding final relaxation level for each of the one or more relaxation groups based on the initial relaxation attributes RL i , 0 according to where c is the minimum block size of each of said one or more relaxation groups; and for each determined relaxation group, iteratively select relaxation attributes RL i,j for the level j =1 up to the final relaxation level of said relaxation group as RL i,j = 1 if RL i,j -1 = 1 for bit indices i within said relaxation group; and perform polar code encoding using the polar code graph by relaxing paired nodes where both paired nodes have a relaxation attribute RL i,j =1 so that no XOR operation among said relaxed paired nodes is performed and/or perform polar code decoding by relaxing paired nodes where both paired nodes have a relaxation attribute RL i,j =1 so that no decoding XOR operation among said relaxed paired nodes is performed.
A method of a User Equipment, in the following also referred to as UE, for performing sidelink transmission, comprising: transmitting a first Packet Data Convergence Protocol, in the following also referred to as PDCP, Protocol Data Unit, in the following also referred to as PDU, corresponding to a first PDCP Service Data Unit, in the following also referred to as SDU, and a duplicate of the first PDCP PDU if sidelink packet duplication is configured or enabled for a Sidelink Radio Bearer, in the following also referred to as SLRB, wherein a first PDCP Sequence Number, in the following also referred to as SN, of the first PDCP PDU is set based upon one or more state variables used for sidelink transmission on the SLRB ; and transmitting a second PDCP PDU corresponding to a second PDCP SDU if the sidelink packet duplication is de-configured or disabled for the SLRB, wherein a second PDCP SN of the second PDCP PDU is set based upon the one or more state variables used for sidelink transmission on the SLRB and no duplicate of the second PDCP PDU is transmitted , characterized by further comprising: maintaining the one or more state variables used for sidelink transmission on the SLRB if the sidelink packet duplication is de-configured or disabled for the SLRB. transmitting a first Packet Data Convergence Protocol, in the following also referred to as PDCP, Protocol Data Unit, in the following also referred to as PDU, corresponding to a first PDCP Service Data Unit, in the following also referred to as SDU, and a duplicate of the first PDCP PDU if sidelink packet duplication is configured or enabled for a Sidelink Radio Bearer, in the following also referred to as SLRB, wherein a first PDCP Sequence Number, in the following also referred to as SN, of the first PDCP PDU is set based upon one or more state variables used for sidelink transmission on the SLRB ; and transmitting a second PDCP PDU corresponding to a second PDCP SDU if the sidelink packet duplication is de-configured or disabled for the SLRB, wherein a second PDCP SN of the second PDCP PDU is set based upon the one or more state variables used for sidelink transmission on the SLRB and no duplicate of the second PDCP PDU is transmitted , characterized by further comprising: maintaining the one or more state variables used for sidelink transmission on the SLRB if the sidelink packet duplication is de-configured or disabled for the SLRB.
A method of manufacturing a metal foil pattern layered body comprising: providing a layered body comprising the following layers stacked sequentially on a top face of a base member : a buffer layer , an adhesive layer , and a metal foil ; allowing a front edge of a blade to reach at least the adhesive layer while cutting the metal foil by pressing a front edge of the blade into the metal foil , thereby separating a necessary region of the metal foil from an unnecessary region ; and forming a metal foil pattern in the layered body by removing the unnecessary region , wherein the step of cutting the metal foil comprises forming burrs at the edge of the metal foil pattern that are bent toward the back face of the layered body from the top face of the layered body in the direction orthogonal to a stacked direction. providing a layered body comprising the following layers stacked sequentially on a top face of a base member : a buffer layer , an adhesive layer , and a metal foil ; allowing a front edge of a blade to reach at least the adhesive layer while cutting the metal foil by pressing a front edge of the blade into the metal foil , thereby separating a necessary region of the metal foil from an unnecessary region ; and forming a metal foil pattern in the layered body by removing the unnecessary region , wherein the step of cutting the metal foil comprises forming burrs at the edge of the metal foil pattern that are bent toward the back face of the layered body from the top face of the layered body in the direction orthogonal to a stacked direction.
Automated calibration system of a camera system for a vehicle , wherein the camera system has different cameras arranged distributed around the vehicle and wherein each of the cameras generates an image of a specific region of the surrounding area of the vehicle, which image is then projected onto a horizontal plane, having: a control unit , which is communicatively connectable to the camera system and is embodied to perform the following steps: identifying undesirable image parts, which are associated with the vehicle and which are additions, bumper, mirror or antennas, in a recorded camera image while the vehicle is driving; ascertaining whether an image of another camera can be used to replace the undesirable image parts with other image parts; replacing the undesirable image parts with the other image parts. identifying undesirable image parts, which are associated with the vehicle and which are additions, bumper, mirror or antennas, in a recorded camera image while the vehicle is driving; ascertaining whether an image of another camera can be used to replace the undesirable image parts with other image parts; replacing the undesirable image parts with the other image parts.
A fan guard constructed by a plurality of wire rods, wherein a plurality of large-diameter wire rods and a plurality of small-diameter wire rods are arranged so as to intersect to one another, and the small-diameter wire rods are arranged in a grid pattern between the large-diameter wire rods, wherein a side surface side frame member has a plurality of lateral-side large-diameter wire rods extending in parallel to a ventilation surface portion and a plurality of side surface side small-diameter wire rods fixed to the lateral-side large-diameter wire rods ; a front-and-rear side frame member has a plurality of longitudinal-side large-diameter wire rods extending in parallel to the ventilation surface portion , and plural side surface side small-diameter wire rods fixed to the longitudinal-side large-diameter wire rods ; a small-diameter grid member is formed in a grid pattern by combining a plurality of lateral-side small-diameter wire rods which are arranged in parallel to one another so as to be spaced from one another at predetermined intervals and which are arranged on a plurality of longitudinal-side small-diameter wire rods which are arranged in parallel to one another so as to be spaced from one another at predetermined intervals so that the lateral-side small-diameter wire rods are perpendicular to the longitudinal-side small-diameter wire rods ; and the fan guard is formed by setting the small-diameter grid member on support portions of the respective longitudinal-side large-diameter wire rods of the front-and-rear side frame member such that the longitudinal-side small-diameter wire rods are arranged in parallel to the longitudinal-side large-diameter wire rods and subsequently covering the side surface side frame member on the small-diameter grid member from the upper side of the small-diameter grid member so that the lateral-side large-diameter wire rods are perpendicular to the longitudinal-side large-diameter wire rods , and the front-and-rear side frame member , the small-diameter grid member and the side surface side frame member are joined to one another at the contact portions of the cross points thereof by spot welding.
A crystal form A of a compound of formula (I), wherein the crystal form A has a X-ray powder diffraction pattern comprising characteristic diffraction peaks with the following angles 2θ: 8.04°±0.2°, 16.52°±0.2° and 19.52°+_0.2°, measured using Cu-K alpha radiation.
A drive insert comprising: a first insert member configured to be positioned over a first surface of a brake disc , wherein the first surface is adjacent to a drive slot on a perimeter of the brake disc ; and a second insert member configured to be positioned over a second surface of the brake disc , wherein the second surface is adjacent to the drive slot on the perimeter of the brake disc ; characterized in that the first insert member is configured to be slidable over the first surface in a first direction substantially tangential to the brake disc and the second insert member is configured to be slidable over the second surface in a second direction substantially opposite the first direction, and the drive insert further comprises: a bridge member configured to extend from the first insert member to the second insert member when the first insert member is positioned over the first surface and the second insert member is positioned over the second surface , wherein the bridge member is configured to limit movement of the first insert member and the second insert member in a tangential direction of the brake disc when the bridge member extends from the first insert member to the second insert member . a first insert member configured to be positioned over a first surface of a brake disc , wherein the first surface is adjacent to a drive slot on a perimeter of the brake disc ; and a second insert member configured to be positioned over a second surface of the brake disc , wherein the second surface is adjacent to the drive slot on the perimeter of the brake disc ; characterized in that the first insert member is configured to be slidable over the first surface in a first direction substantially tangential to the brake disc and the second insert member is configured to be slidable over the second surface in a second direction substantially opposite the first direction, and the drive insert further comprises: a bridge member configured to extend from the first insert member to the second insert member when the first insert member is positioned over the first surface and the second insert member is positioned over the second surface , wherein the bridge member is configured to limit movement of the first insert member and the second insert member in a tangential direction of the brake disc when the bridge member extends from the first insert member to the second insert member .
A high velocity cross flow dynamic membrane filtration system comprising: a disc membrane assembly including a frame , at least two support shafts , each support shaft defining a longitudinal axis about which is positioned a plurality of axially spaced membrane discs , each shaft further coupled to the frame , and a permeate tube coupled to each support shaft and in fluid communication with the membrane discs associated with that support shaft; a vessel defining a treatment chamber and configured to removably support the disc membrane assembly within the treatment chamber , the vessel further including a wall ; and a drive system , wherein the frame includes first and second end members , and a plurality of rails extend between the first and second end members, the plurality of rails oriented generally parallel to the support shafts and the permeate tubes , and the vessel includes a plurality of mounting rails affixed to the vessel interior , each mounting rail configured to receive a rail of the frame to position the disc membrane assembly within the treatment chamber of the vessel , and wherein the permeate tubes are configured to extend through a portion of the vessel wall when the disc membrane assembly is positioned within the treatment chamber , the permeate tubes further configured for rotation by the drive system. a disc membrane assembly including a frame , at least two support shafts , each support shaft defining a longitudinal axis about which is positioned a plurality of axially spaced membrane discs , each shaft further coupled to the frame , and a permeate tube coupled to each support shaft and in fluid communication with the membrane discs associated with that support shaft; a frame , at least two support shafts , each support shaft defining a longitudinal axis about which is positioned a plurality of axially spaced membrane discs , each shaft further coupled to the frame , and a permeate tube coupled to each support shaft and in fluid communication with the membrane discs associated with that support shaft; a vessel defining a treatment chamber and configured to removably support the disc membrane assembly within the treatment chamber , the vessel further including a wall ; and a drive system , wherein the frame includes first and second end members , and a plurality of rails extend between the first and second end members, the plurality of rails oriented generally parallel to the support shafts and the permeate tubes , and the vessel includes a plurality of mounting rails affixed to the vessel interior , each mounting rail configured to receive a rail of the frame to position the disc membrane assembly within the treatment chamber of the vessel , and wherein the permeate tubes are configured to extend through a portion of the vessel wall when the disc membrane assembly is positioned within the treatment chamber , the permeate tubes further configured for rotation by the drive system.
Holding part made of a metal sheet for holding two visible profiles , more particularly façade profiles, having a base plate which has a fastening opening for a fastening means , having at least one web which is formed by deforming the metal sheet and, together with the base plate , forms a first U-shaped receptacle for mounting a first visible profile which projects into this first receptacle , and having a second receptacle for mounting a second visible profile projecting into this second receptacle , wherein the first and second receptacles are aligned opposite one another, wherein the web forms the second receptacle in a U-shaped manner, wherein the web has at least one material tongue (12.1, 12.2) formed from the web by cutting and shaping for resilient abutment against one of the two visible profiles , which material tongue (12.1, 12.2) projects from the web , characterized in that the material tongue (12.1, 12.2) is arranged on the respective receiving base (10.1, 11.1) of the first or second receptacle , wherein the material tongue (12.1, 12.2) projects from the receptacle base (10.1, 11.1) on that side which faces away from the receptacle .
An optical modulation device comprising: a nano-antenna (N10); a conductor (C10); an active layer (A10) disposed between the nano-antenna and the conductor, wherein at least one property of the active layer is variable based on a voltage applied thereto; a first dielectric layer (D10) disposed between the active layer and the conductor; a second dielectric layer (D20) disposed between the active layer and the nano-antenna; and a signal applying unit configured to independently apply an electrical signal to at least two of the nano-antenna, the active layer, and the conductor; wherein the active layer comprises a first charge concentration varying region and a second charge concentration varying region , wherein the first charge concentration varying region and the second charge concentration varying region are formed by application of the electrical signal by the signal applying unit, and wherein the first charge concentration varying region is adjacent to the first dielectric layer (D10), and the second charge concentration varying region is adjacent to the second dielectric layer (D20). a nano-antenna (N10); a conductor (C10); an active layer (A10) disposed between the nano-antenna and the conductor, wherein at least one property of the active layer is variable based on a voltage applied thereto; a first dielectric layer (D10) disposed between the active layer and the conductor; a second dielectric layer (D20) disposed between the active layer and the nano-antenna; and a signal applying unit configured to independently apply an electrical signal to at least two of the nano-antenna, the active layer, and the conductor; wherein the active layer comprises a first charge concentration varying region and a second charge concentration varying region , wherein the first charge concentration varying region and the second charge concentration varying region are formed by application of the electrical signal by the signal applying unit, and wherein the first charge concentration varying region is adjacent to the first dielectric layer (D10), and the second charge concentration varying region is adjacent to the second dielectric layer (D20).
A method of treating a polyvinyl chloride (PVC) plate comprising the following steps in the given order: - providing a PVC plate; - heating the PVC plate in an oven to at least 70°C; - cooling the heated plate, wherein the plate is cooled down in a controlled manner, namely with a cooling gradient of 5°C/min to 15°C/min on average. - providing a PVC plate; - heating the PVC plate in an oven to at least 70°C; - cooling the heated plate, wherein the plate is cooled down in a controlled manner, namely with a cooling gradient of 5°C/min to 15°C/min on average.
An indoor unit of an air conditioner using flammable refrigerant, the indoor unit comprising: a casing ; an indoor heat exchanger provided in the casing , characterized in that the indoor unit further comprises: a sensor mounting portion provided in the casing ; a refrigerant gas sensor detachably attached to the sensor mounting portion ; and a regulating member which is configured to regulate detachment of the refrigerant gas sensor in a detaching direction of the refrigerant gas sensor , when the casing is open. a casing ; an indoor heat exchanger provided in the casing , characterized in that the indoor unit further comprises: a sensor mounting portion provided in the casing ; a refrigerant gas sensor detachably attached to the sensor mounting portion ; and a regulating member which is configured to regulate detachment of the refrigerant gas sensor in a detaching direction of the refrigerant gas sensor , when the casing is open. a sensor mounting portion provided in the casing ; a refrigerant gas sensor detachably attached to the sensor mounting portion ; and a regulating member which is configured to regulate detachment of the refrigerant gas sensor in a detaching direction of the refrigerant gas sensor , when the casing is open.
Mould arrangement for producing a preform element of a wind turbine blade, comprising a mould carrier and a plate- or tray-like mould element arranged at the mould carrier with a form defining mould surface adapted to receive preform building material , a first heating means arranged below the mould element for heating the preform building material from below the mould element , and a second heating means for heating the preform building material from above, wherein the second heating means comprises a lid to be attached to the mould element and adapted to cover the preform building material while creating a space between the mould surface and the lid , which space is coupled to a heating air source blowing a circulating heating air in the space , characterized in that the lid is adapted to create a U-shaped air channel within the space , which channel is coupled at one end to a heating air supply and at the other end with a heating air exhaust .
A process for treating a subterranean earth formation by introducing a monovalent salt of monochloroacetic acid into said subterranean earth formation in the presence of a chelating agent which comprises at least one carboxylate group having a monovalent counterion and furthermore comprises a carbon chain carrying at least five hydroxyl groups.