mhurhangee/patent-ind-claim-en huggingface dataset:
Glass interleaving paper comprising: a main component of chemical pulp; and a sodium content of 0.03 to 1.0% by mass, wherein the glass interleaving paper has a basis weight of 10 to 300 g/m 2 , and the chemical pulp contains hardwood pulp having a ratio of 10% by mass or more to the chemical pulp. a main component of chemical pulp; and a sodium content of 0.03 to 1.0% by mass, wherein the glass interleaving paper has a basis weight of 10 to 300 g/m 2 , and the chemical pulp contains hardwood pulp having a ratio of 10% by mass or more to the chemical pulp.
An inventory management method comprising the steps of: - controlling shelf devices (AID) arranged on shelves of a fixture to cause the shelf devices to implement a localization process; - controlling a sensor (CAM) to acquire sensor signals during the localization process; and - localizing each of said shelf devices based on the acquired sensor signals; the method being characterized : - in that controlling said shelf devices comprises sending a device command (D-Cd) to each of said shelf devices (AID), wherein the device command includes a localization process execution time and causes each of said shelf devices to have been switched from a sleep mode (SLPd) to a wake-up mode (WU-BLK) at the localization process execution time and to emit a localization signal before switching back to the sleep mode ; and - in that controlling said sensor comprises sending a sensor command (C-Cd) to the sensor (CAM), wherein the sensor command includes the localization process execution time and causes the sensor to have been switched from a sleep mode (SLPc) to a wake-up mode (WU-CAP) at the localization process execution time and to capture the localization signal emitted by each of said shelf devices before switching back to the sleep mode. - controlling shelf devices (AID) arranged on shelves of a fixture to cause the shelf devices to implement a localization process; - controlling a sensor (CAM) to acquire sensor signals during the localization process; and - localizing each of said shelf devices based on the acquired sensor signals; the method being characterized : - in that controlling said shelf devices comprises sending a device command (D-Cd) to each of said shelf devices (AID), wherein the device command includes a localization process execution time and causes each of said shelf devices to have been switched from a sleep mode (SLPd) to a wake-up mode (WU-BLK) at the localization process execution time and to emit a localization signal before switching back to the sleep mode ; and - in that controlling said sensor comprises sending a sensor command (C-Cd) to the sensor (CAM), wherein the sensor command includes the localization process execution time and causes the sensor to have been switched from a sleep mode (SLPc) to a wake-up mode (WU-CAP) at the localization process execution time and to capture the localization signal emitted by each of said shelf devices before switching back to the sleep mode.
A method for a virtual transponder which is a transponder partitioned into multiple transponders on a vehicle , the method comprising: generating, by a configuration routing algorithm, (CRA), , a configuration for a portion of a payload on the vehicle utilized by a host user by using an option for each of at least one variable for the portion of the payload on the vehicle utilized by the host user; generating, by the CRA, a configuration for a portion of the payload on the vehicle utilized by a hosted user by using an option for each of at least one variable for the portion of the payload on the vehicle utilized by the hosted user; generating, by a host command generator, host commands for reconfiguring the portion of the payload on the vehicle utilized by the host user by using the configuration for the portion of the payload on the vehicle utilized by the host user; generating, by a hosted command generator, hosted commands for reconfiguring the portion of the payload on the vehicle utilized by the hosted user by using the configuration for the portion of the payload on the vehicle utilized by the hosted user; transmitting the host commands and the hosted commands to the vehicle; reconfiguring the portion of the payload on the vehicle utilized by the host user by using the host commands; and reconfiguring the portion of the payload on the vehicle utilized by the hosted user by using the hosted commands. generating, by a configuration routing algorithm, (CRA), , a configuration for a portion of a payload on the vehicle utilized by a host user by using an option for each of at least one variable for the portion of the payload on the vehicle utilized by the host user; generating, by the CRA, a configuration for a portion of the payload on the vehicle utilized by a hosted user by using an option for each of at least one variable for the portion of the payload on the vehicle utilized by the hosted user; generating, by a host command generator, host commands for reconfiguring the portion of the payload on the vehicle utilized by the host user by using the configuration for the portion of the payload on the vehicle utilized by the host user; generating, by a hosted command generator, hosted commands for reconfiguring the portion of the payload on the vehicle utilized by the hosted user by using the configuration for the portion of the payload on the vehicle utilized by the hosted user; transmitting the host commands and the hosted commands to the vehicle; reconfiguring the portion of the payload on the vehicle utilized by the host user by using the host commands; and reconfiguring the portion of the payload on the vehicle utilized by the hosted user by using the hosted commands.
A method for multi-radio access technology, RAT, carrier aggregation in a mobile network having a user equipment connected to a first node operating in a first radio access technology (1 366) and connected to a second node operating in a second radio access technology , wherein the first radio access technology and second radio access technology are different, the method being performed by the first node and comprising: determining the user equipment's (21 0) capability to handle multi-radio access technology carrier aggregation; establishing a backhaul interface between the first node and the second node; receiving, at the first node from a core network, a packet for the user equipment; determining, after the receiving, to offload the packet to the second node, the determining being based on a required bandwidth for the user equipment; sending a request from the first node to the user equipment for a measurement report of the second node by the user equipment; receiving, at the first node, the measurement report from the user equipment; determining from the measurement report that the user equipment has an acceptable reception with respect to the second node; modifying, at the first node, the packet at the Packet Data Convergence Protocol, PDCP, layer for transmission using the second radio access technology, the modifying comprising adding a multi-RAT header to the packet; and forwarding the modified packet through the backhaul interface to the second node for delivery to the user equipment. determining the user equipment's (21 0) capability to handle multi-radio access technology carrier aggregation; establishing a backhaul interface between the first node and the second node; receiving, at the first node from a core network, a packet for the user equipment; determining, after the receiving, to offload the packet to the second node, the determining being based on a required bandwidth for the user equipment; sending a request from the first node to the user equipment for a measurement report of the second node by the user equipment; receiving, at the first node, the measurement report from the user equipment; determining from the measurement report that the user equipment has an acceptable reception with respect to the second node; modifying, at the first node, the packet at the Packet Data Convergence Protocol, PDCP, layer for transmission using the second radio access technology, the modifying comprising adding a multi-RAT header to the packet; and forwarding the modified packet through the backhaul interface to the second node for delivery to the user equipment.
Electro-pneumatic parking brake device of a motor vehicle, having an electrically controllable parking brake circuit which has a parking brake actuating device which has at least one parking brake actuating member which interacts with an electric parking brake transducer and can be actuated by the driver at least into the "Park" and "Drive" positions, and an electronic control device , into which the parking brake transducer inputs a parking brake signal which is dependent on an actuation of the parking brake actuating member , the electronic control device controlling at least one solenoid valve of a valve device in a manner which is dependent on the parking brake signal, which valve device is connected to at least one spring brake cylinder as a parking brake, and having a pneumatically controllable parking brake circuit which is provided as a redundancy and has at least one pneumatic valve which can be actuated by the driver and pneumatically controls at least one pneumatically controllable valve of the valve device , characterised in that the at least one pneumatic valve is arranged and configured in such a way that it can be actuated mechanically by the parking brake actuating member and ventilates or vents the at least one pneumatically controllable valve of the valve device in a manner which is dependent on an actuation of the parking brake actuating member
A liquid resin composition for compression molding, comprising an aliphatic epoxy compound (A), an epoxy compound (B) having an aromatic ring in a molecule, a nitrogen-containing heterocyclic compound (C), and an inorganic filler (D) wherein the epoxy compound (B) having an aromatic ring in a molecule comprises at least one of N,N-diglycidylorthotoluidine or N,N-bis(2,3-epoxypropyl)-4-(2,3-epoxypropoxy)aniline, wherein the nitrogen-containing heterocyclic compound (C) comprises an imidazole, and wherein the percentage content of the aliphatic epoxy compound (A) is from 3% by mass to 40% by mass with respect to a total amount of compounds having an epoxy group. wherein the epoxy compound (B) having an aromatic ring in a molecule comprises at least one of N,N-diglycidylorthotoluidine or N,N-bis(2,3-epoxypropyl)-4-(2,3-epoxypropoxy)aniline, wherein the nitrogen-containing heterocyclic compound (C) comprises an imidazole, and wherein the percentage content of the aliphatic epoxy compound (A) is from 3% by mass to 40% by mass with respect to a total amount of compounds having an epoxy group.
Method for tracking of a finite amount of liquid volume (V) which is individualized in volume units (Vu), each volume unit (Vu) comprising a defined subset of volume from the finite amount of liquid volume (V), and whereby the liquid volume (V) is moved as volume units (Vu) and/or a volume unit batch (nVu) along a series of blocks (B1, B2, B3, Bn, ...) in a network (N), comprising the steps of: a. Generating an identification (ID) representative of the specific liquid volume upon generation of said liquid volume; b. Storing said identification (ID) on a wirelessly readable communication unit applied on a single volume unit (Vu) and/or a single volume unit batch (nVu) of the liquid volume (V); c. Reading said identification (ID) by means of at least one first data acquisition unit upon movement of the single volume unit (Vu) into a specific block in the network (N), and enriching the identification (ID) with a specific block identification to form a first block identification and storing said first block identification on a distributed ledger (DL); d. Repeating step c. for each movement of the single unit from a parent block into a child block thereby storing a number n of subsequent block identifications on the distributed ledger (DL) for each block the movement into is performed, and characterized in, that e. A physical access to the volume unit in any one of the blocks in the network is recorded by means of the wirelessly readable communication unit and reflected in a subsequent reading of the identification (ID) as outlined in any one of steps c) and d), thereby recording the corresponding defined subset of volume of the volume unit as consumed. a. Generating an identification (ID) representative of the specific liquid volume upon generation of said liquid volume; b. Storing said identification (ID) on a wirelessly readable communication unit applied on a single volume unit (Vu) and/or a single volume unit batch (nVu) of the liquid volume (V); c. Reading said identification (ID) by means of at least one first data acquisition unit upon movement of the single volume unit (Vu) into a specific block in the network (N), and enriching the identification (ID) with a specific block identification to form a first block identification and storing said first block identification on a distributed ledger (DL); d. Repeating step c. for each movement of the single unit from a parent block into a child block thereby storing a number n of subsequent block identifications on the distributed ledger (DL) for each block the movement into is performed, and characterized in, that e. A physical access to the volume unit in any one of the blocks in the network is recorded by means of the wirelessly readable communication unit and reflected in a subsequent reading of the identification (ID) as outlined in any one of steps c) and d), thereby recording the corresponding defined subset of volume of the volume unit as consumed.
A breathing assistance apparatus for the delivery of breathing gas to a user, the apparatus comprising: a body and a lid , the body comprising at least one housing , the at least one housing comprising three inner walls and three outer walls , wherein each of the three outer walls is substantially adjacent to and spaced apart from a respective one of the three inner walls; an upper surface spanning between upper edges of the three outer walls and the three inner walls, wherein the three outer walls, the three inner walls, and the upper surface are integrally formed, wherein the three inner walls form an enclosure for a humidification chamber, wherein the lid covers the enclosure, and wherein the housing further comprises a fourth inner wall and a tinted face plate , the tinted face plate located substantially adjacent to and spaced apart from the fourth inner wall to form a fourth outer wall of the at least one housing; and a printed circuit board, PCB, located between the tinted face plate and the fourth inner wall, and wherein two or more sensors are located on a first face of the PCB and aligned with apertures formed on a first wall of a sub-housing , an upper housing , or a lower housing and configured to project into an air flow path; and an LED screen located behind and visible through the tinted face place . a body and a lid , the body comprising at least one housing , the at least one housing comprising three inner walls and three outer walls , wherein each of the three outer walls is substantially adjacent to and spaced apart from a respective one of the three inner walls; an upper surface spanning between upper edges of the three outer walls and the three inner walls, wherein the three outer walls, the three inner walls, and the upper surface are integrally formed, wherein the three inner walls form an enclosure for a humidification chamber, wherein the lid covers the enclosure, and wherein the housing further comprises a fourth inner wall and a tinted face plate , the tinted face plate located substantially adjacent to and spaced apart from the fourth inner wall to form a fourth outer wall of the at least one housing; and a printed circuit board, PCB, located between the tinted face plate and the fourth inner wall, and wherein two or more sensors are located on a first face of the PCB and aligned with apertures formed on a first wall of a sub-housing , an upper housing , or a lower housing and configured to project into an air flow path; and an LED screen located behind and visible through the tinted face place .
A medical device deployment apparatus, the apparatus comprising: at least one first constraining fiber arranged as a series of multiple loops to form a warp knit surrounding the medical device in a constrained configuration, the warp knit being configured to separate and be removed to deploy the medical device; and at least one second constraining fiber arranged with the at least one first constraining fiber , the at least one second constraining fiber having at least one loop arranged in a non-warp knit pattern. at least one first constraining fiber arranged as a series of multiple loops to form a warp knit surrounding the medical device in a constrained configuration, the warp knit being configured to separate and be removed to deploy the medical device; and at least one second constraining fiber arranged with the at least one first constraining fiber , the at least one second constraining fiber having at least one loop arranged in a non-warp knit pattern.
A recombinant influenza virus hemagglutinin (HA) antigen comprising the extracellular domain (ECD) of HA, a hydrophobic signal which is a HA transmembrane domain (TMD), and a heterologous trimerisation domain, wherein the HA antigen lacks the intracellular domain of influenza hemagglutinin and the recombinant HA antigen forms rosette structures in vivo and/or in vitro.
Electrically conductive component , especially for motor vehicles, comprising a surface having a layered covering , the layered covering being the melted and cured product of coating with a powder composition, and the layered covering having a layer thickness (S), characterized in that the layered covering is a single-layer covering and comprises a porelike layer structure and has the layer thickness (S) of greater than 150 μm, the porelike layer structure comprising pores having a mean pore diameter of greater than 5 μm, preferably in a range between 10 μm to 250 μm, more preferably in a range between 15 μm to 200 μm, very preferably in a range between 20 μm to 150 μm.
Hand tool for cutting a sheet (A), comprising: • a hollow body , delimited by a support surface for the sheet (A) that is to be cut, and two parallel side plates (203, 201a2-201b1) perpendicular to the support surface ; • a first handle for grasping, mounted fixedly with respect to the hollow body; • a second handle comprising a part for grasping of determined width (L1), pivot mounted on the hollow body via a fixing end and about a pivot pin ; and • a blade fixed to the fixing end of the pivoting handle; characterized in that the fixing end of the pivoting handle has a width (L2) less than the width (L1) of the grasping part of the pivoting handle and comprises two fixing lugs connected to the grasping part of the pivoting handle by a curve , spaced apart from one another by a distance (e) equal to the thickness (e) of the blade , and each comprising a through-hole , facing one another, for the passage of a fixing pin , in that the blade is inserted between the fixing lugs , and in that two spacers are positioned one on each side of the fixing end , one between each fixing lug and the hollow body , the blade, the fixing lugs, the spacers and the hollow body comprising holes facing one another in the position of use so as to constitute a passage for the pivot pin . • a hollow body , delimited by a support surface for the sheet (A) that is to be cut, and two parallel side plates (203, 201a2-201b1) perpendicular to the support surface ; • a first handle for grasping, mounted fixedly with respect to the hollow body; • a second handle comprising a part for grasping of determined width (L1), pivot mounted on the hollow body via a fixing end and about a pivot pin ; and • a blade fixed to the fixing end of the pivoting handle;
An air stream selector device for use in a collector/distribution assembly , the collector/distribution assembly having at least one section , the at least one section having a top and a bottom and a pair of side by side loading zones, a left loading zone and a right loading zone , and the at least one section operable to receive a product from a product supply tank into the left loading zone and the right loading zone and distribute the product to an air seeder, the air stream selector device comprising: a first side wall and a second side wall ; and a shaped diverter positioned between the first and second side walls; wherein the air stream selector device is adapted to be operably attached to the bottom of an individual section and the shaped diverter is shaped and sized to prevent product from collecting in either the right loading zone or the left loading zone of the individual section , whereby when the air stream selector device is operably attached to the bottom of the individual section in a first orientation, it prevents product from collecting in the right loading zone and when the air stream selector device is operably attached to the bottom of the individual section in a second orientation, it prevents product from collecting in the left loading zone , characterized in that the air stream selector device has no moving parts. a first side wall and a second side wall ; and a shaped diverter positioned between the first and second side walls; wherein the air stream selector device is adapted to be operably attached to the bottom of an individual section and the shaped diverter is shaped and sized to prevent product from collecting in either the right loading zone or the left loading zone of the individual section , whereby when the air stream selector device is operably attached to the bottom of the individual section in a first orientation, it prevents product from collecting in the right loading zone and when the air stream selector device is operably attached to the bottom of the individual section in a second orientation, it prevents product from collecting in the left loading zone , characterized in that the air stream selector device has no moving parts.
Pharmaceutical preparation comprising saroglitazar and myristic acid, or a salt or solvate thereof, for use in the treatment of a non-diabetic subject suffering from focal segmental glomerulosclerosis (FSGS).