mhurhangee/ep-ind-claims huggingface dataset:
An omnidirectional ball wheel, comprising: a ball wheel skeleton having a curved outer surface, the ball wheel skeleton being pivotable and defining a first pivot axis; a first wheel, the first wheel having a curved outer surface, being pivotably connected to the ball wheel skeleton, and defining a second pivot axis, an outer surface of the first wheel being on a same spherical surface as the outer surface of the ball wheel skeleton, and a top of the outer surface of the first wheel being provided with a through hole for receiving a second wheel, the second wheel being pivotably connected to the ball wheel skeleton and defining a third pivot axis, the outer surface of the first wheel and a portion of an outer surface of the second wheel being on the same spherical surface, characterized in that: there are at least three first wheels, the second pivot axis is perpendicular to and intersects the first pivot axis; and the third pivot axis is perpendicular to the first pivot axis and the second pivot axis simultaneously. a ball wheel skeleton having a curved outer surface, the ball wheel skeleton being pivotable and defining a first pivot axis; a first wheel, the first wheel having a curved outer surface, being pivotably connected to the ball wheel skeleton, and defining a second pivot axis, an outer surface of the first wheel being on a same spherical surface as the outer surface of the ball wheel skeleton, and a top of the outer surface of the first wheel being provided with a through hole for receiving a second wheel, the second wheel being pivotably connected to the ball wheel skeleton and defining a third pivot axis, the outer surface of the first wheel and a portion of an outer surface of the second wheel being on the same spherical surface, characterized in that: there are at least three first wheels, the second pivot axis is perpendicular to and intersects the first pivot axis; and the third pivot axis is perpendicular to the first pivot axis and the second pivot axis simultaneously.
A piping fixing structure, comprising: a vehicle body; a suspension member which is elastically supported by the vehicle body via a first vibration damping member, and supports a suspension; a driving source and a fixing mechanism which fixes piping to the suspension member, the piping extending from the driving source which is elastically supported by the vehicle body via a second vibration damping member. a vehicle body; a suspension member which is elastically supported by the vehicle body via a first vibration damping member, and supports a suspension; a driving source and a fixing mechanism which fixes piping to the suspension member, the piping extending from the driving source which is elastically supported by the vehicle body via a second vibration damping member.
A method comprising: receiving computer executable code for an existing application; identifying at least a portion of the computer executable code that stores at least one value in a first memory location; modifying the at least a portion of the computer executable code to store the at least one value in an array of size M having a plurality of M -register locations, wherein each M- register location is a respective constant c i of a series of constants c 1,...,c n, with n ≤ M, where the series of constants c 1,...,c n is defined by a permutation polynomial p, an input-based 1 × n vector mapping matrix A yielding z from an input of the existing application such that c i = p ( z + i), instead of the first memory location. receiving computer executable code for an existing application; identifying at least a portion of the computer executable code that stores at least one value in a first memory location; modifying the at least a portion of the computer executable code to store the at least one value in an array of size M having a plurality of M -register locations, wherein each M- register location is a respective constant c i of a series of constants c 1,...,c n, with n ≤ M, where the series of constants c 1,...,c n is defined by a permutation polynomial p, an input-based 1 × n vector mapping matrix A yielding z from an input of the existing application such that c i = p ( z + i), instead of the first memory location.
Process to prepare paraffins and waxes from a gaseous feed stream comprising hydrogen and carbon monoxide in a Fischer-Tropsch reactor comprising a fixed bed of reduced Fischer-Tropsch catalyst that comprises cobalt as catalytically active metal, said process at least comprises the following steps: (a) adding to the gaseous feed stream a nitrogen-containing compound such that the nitrogen-containing compound is present in the gaseous feed stream in a concentration of up to 10 ppmV to obtain a mixture, wherein the nitrogen-containing compound is a compound selected from ammonia, HCN, NO, amines, nitriles, and a heterocyclic compound containing at least one nitrogen atom as ring member of a heterocyclic ring; (b) feeding the mixture of step (a) to the Fischer-Tropsch reactor to obtain a Fischer-Tropsch product comprising paraffins having from 5 to 300 carbon atoms, wherein the Fischer-Tropsch process in the Fischer-Tropsch reactor is carried out at a temperature between 200 and 250°C and at a pressure between 55 and 100 bara; (c) subjecting the Fischer-Tropsch product of step (b) to a hydrogenation step, thereby obtaining hydrogenated fraction comprising 5 to 300 carbon atoms; (d) separating the hydrogenated Fischer-Tropsch product stream of step (c), thereby obtaining at least a fraction comprising 5 to 9 carbon atoms, a fraction comprising 10 to 17 carbon atoms and a fraction comprising 18 to 300 carbon atoms; (e) separating the hydrogenated fraction comprising 18 to 300 carbon atoms of step (d), thereby obtaining one or more first light waxes having a congealing point in the range of 30 to 75°C and a second heavy wax having a congealing point in the range of 75 to 120°C. (a) adding to the gaseous feed stream a nitrogen-containing compound such that the nitrogen-containing compound is present in the gaseous feed stream in a concentration of up to 10 ppmV to obtain a mixture, wherein the nitrogen-containing compound is a compound selected from ammonia, HCN, NO, amines, nitriles, and a heterocyclic compound containing at least one nitrogen atom as ring member of a heterocyclic ring; (b) feeding the mixture of step (a) to the Fischer-Tropsch reactor to obtain a Fischer-Tropsch product comprising paraffins having from 5 to 300 carbon atoms, wherein the Fischer-Tropsch process in the Fischer-Tropsch reactor is carried out at a temperature between 200 and 250°C and at a pressure between 55 and 100 bara; (c) subjecting the Fischer-Tropsch product of step (b) to a hydrogenation step, thereby obtaining hydrogenated fraction comprising 5 to 300 carbon atoms; (d) separating the hydrogenated Fischer-Tropsch product stream of step (c), thereby obtaining at least a fraction comprising 5 to 9 carbon atoms, a fraction comprising 10 to 17 carbon atoms and a fraction comprising 18 to 300 carbon atoms; (e) separating the hydrogenated fraction comprising 18 to 300 carbon atoms of step (d), thereby obtaining one or more first light waxes having a congealing point in the range of 30 to 75°C and a second heavy wax having a congealing point in the range of 75 to 120°C.
A protocol data unit, PDU, type setting method, wherein the method comprises: obtaining (201, 401, 606), by a user equipment, UE, a user equipment route selection policy, URSP, for the UE from a policy control function entity, wherein the URSP comprises a first application identifier which identifies a first application, a first internet protocol, IP, version corresponding to the first application, a second application identifier which identifies a second application, and a second IP version corresponding to the second application; and setting (202, 402, 607), by the UE, a requested protocol data unit, PDU, type of a PDU session in a process of establishing the PDU session, wherein the requested PDU type of the PDU session is set for an application associated with the PDU session by the UE based on a first condition, wherein the first condition comprises one of the first IP version or the second IP version corresponding to the application associated with the PDU session, wherein the application associated with the PDU session is identified by one of the first application identifier or the second application identifier, and wherein setting, by the UE, the requested PDU type in a process of establishing the PDU session comprises setting, by the UE, in the process of establishing the PDU session, the requested PDU type of the PDU session to the one of the first IP version or the second IP version corresponding to the one of the first application identifier or the second application identifier associated with the PDU session. obtaining (201, 401, 606), by a user equipment, UE, a user equipment route selection policy, URSP, for the UE from a policy control function entity, wherein the URSP comprises a first application identifier which identifies a first application, a first internet protocol, IP, version corresponding to the first application, a second application identifier which identifies a second application, and a second IP version corresponding to the second application; and setting (202, 402, 607), by the UE, a requested protocol data unit, PDU, type of a PDU session in a process of establishing the PDU session, wherein the requested PDU type of the PDU session is set for an application associated with the PDU session by the UE based on a first condition, wherein the first condition comprises one of the first IP version or the second IP version corresponding to the application associated with the PDU session, wherein the application associated with the PDU session is identified by one of the first application identifier or the second application identifier, and wherein setting, by the UE, the requested PDU type in a process of establishing the PDU session comprises setting, by the UE, in the process of establishing the PDU session, the requested PDU type of the PDU session to the one of the first IP version or the second IP version corresponding to the one of the first application identifier or the second application identifier associated with the PDU session.
An intravascular catheter device comprising: a handle assembly; a catheter tube (30, 130, 230, 330) extending from the handle assembly and including a selectively expandable portion having a plurality of struts (34A, 34B, 134A, 134B, 134C, 134D, 234A, 234B, 334A, 334B) each defining an outer surface, the expandable portion being operable between a closed position, wherein the expandable portion has a first diameter, and an opened position, wherein the expandable portion has a second diameter that is larger than the first diameter; an incising element (36, 136, 236, 336) provided on the outer surface of at least one of the struts (34A, 34B, 134A, 134B, 134C, 134D, 234A, 234B, 334A, 334B), the incising element (36, 136, 236, 336) having a sharpened edge that extends outwardly in a radial direction from the outer surface of the strut (34A, 34B, 134A, 134B, 134C, 134D, 234A, 234B, 334A, 334B) and extends parallel with a longitudinal axis of the expandable portion for creating an incision in atherosclerotic material located within a blood vessel when the expandable portion is in the opened position and moved axially through the blood vessel; a drug delivery device comprising a drug delivery tube (280, 400, 401, 402) which extends along the catheter tube (30, 130, 230, 330) and through the at least one of the struts (34A, 34B, 134A, 134B, 134C, 134D, 234A, 234B, 334A, 334B), is in communication with the handle assembly, and is configured to permit the delivery of a drug to the base of the incising element (36, 136, 236, 336). a handle assembly; a catheter tube (30, 130, 230, 330) extending from the handle assembly and including a selectively expandable portion having a plurality of struts (34A, 34B, 134A, 134B, 134C, 134D, 234A, 234B, 334A, 334B) each defining an outer surface, the expandable portion being operable between a closed position, wherein the expandable portion has a first diameter, and an opened position, wherein the expandable portion has a second diameter that is larger than the first diameter; an incising element (36, 136, 236, 336) provided on the outer surface of at least one of the struts (34A, 34B, 134A, 134B, 134C, 134D, 234A, 234B, 334A, 334B), the incising element (36, 136, 236, 336) having a sharpened edge that extends outwardly in a radial direction from the outer surface of the strut (34A, 34B, 134A, 134B, 134C, 134D, 234A, 234B, 334A, 334B) and extends parallel with a longitudinal axis of the expandable portion for creating an incision in atherosclerotic material located within a blood vessel when the expandable portion is in the opened position and moved axially through the blood vessel; a drug delivery device comprising a drug delivery tube (280, 400, 401, 402) which extends along the catheter tube (30, 130, 230, 330) and through the at least one of the struts (34A, 34B, 134A, 134B, 134C, 134D, 234A, 234B, 334A, 334B), is in communication with the handle assembly, and is configured to permit the delivery of a drug to the base of the incising element (36, 136, 236, 336).
A lifting device having a - preferably bendable - crane arm and a working device which is arranged on the crane arm and is movable thereby, wherein the working device is arranged displaceably relative to the crane arm, wherein there is provided an actuating device for setting a predefined or predefinable target position of the working device relative to the crane arm or to a predefined or predefinable direction in space, wherein there is provided at least one sensor for detecting an actual position of the working device relative to the crane arm or to the direction in space, the signals of which can be fed to the actuating device and the actuating device moves the working device into the target position in dependence on the signals of the at least one sensor if the actual position is not the same as the target position, characterised in that the actuating device is adapted to assist or permit movements exerted by a user manually or pedally on the working device or on a load picked up by the working device or by gesture relative to the working device.
A coupling comprising: a first coupler rotatable about an axis, the first coupler defining first connections circumferentially distributed about the axis; a second coupler defining second connections circumferentially distributed about the axis, the second connections radially offset from the first connections relative to the axis; and segments circumferentially distributed about the axis and extending radially from the first connections to the second connections, a segment of the segments having a first end engaging a first connection of the first connections and a second end engaging a second connection of the second connections, the first end circumferentially offset from the second end, characterized in that a face of the segment is abutting against a face of the first coupler when the segment is inserted into the first connection in a first orientation of the segment relative to the first coupler such that a penetration depth of the segment into the first connection in the first orientation is less than the penetration depth in a second orientation opposite the first orientation. a first coupler rotatable about an axis, the first coupler defining first connections circumferentially distributed about the axis; a second coupler defining second connections circumferentially distributed about the axis, the second connections radially offset from the first connections relative to the axis; and segments circumferentially distributed about the axis and extending radially from the first connections to the second connections, a segment of the segments having a first end engaging a first connection of the first connections and a second end engaging a second connection of the second connections, the first end circumferentially offset from the second end, characterized in that a face of the segment is abutting against a face of the first coupler when the segment is inserted into the first connection in a first orientation of the segment relative to the first coupler such that a penetration depth of the segment into the first connection in the first orientation is less than the penetration depth in a second orientation opposite the first orientation.
A method of manufacturing a thermochromic smart window, the thermochromic smart window comprising: a substrate; and a thermochromic layer comprising vanadium dioxide particles on the substrate, wherein the average size of the vanadium dioxide particles is from 40 nm to 100 nm and the rate of change of reflectance of the thermochromic layer is at or between 1 and 2%/°C at a threshold temperature (Tc) of the thermochromic layer; the method comprising: providing the substrate; and forming the thermochromic layer on the substrate by Pulsed Laser Deposition. a substrate; and a thermochromic layer comprising vanadium dioxide particles on the substrate, wherein the average size of the vanadium dioxide particles is from 40 nm to 100 nm and the rate of change of reflectance of the thermochromic layer is at or between 1 and 2%/°C at a threshold temperature (Tc) of the thermochromic layer; the method comprising: providing the substrate; and forming the thermochromic layer on the substrate by Pulsed Laser Deposition. providing the substrate; and forming the thermochromic layer on the substrate by Pulsed Laser Deposition.
A method for wireless communication at a user terminal, the method comprising: receiving, from a base station, a message via a communication link in a non-terrestrial network, the message indicative of a configurable hybrid automatic repeat request, HARQ, process that is configurable on a per-HARQ process basis, wherein the message indicates or includes a modulation and coding scheme, MCS, table; determining a parameter for the configurable HARQ process based at least in part on the message, wherein determining the parameter further comprises reducing a quantity of maximum HARQ retransmissions allowed during the configurable HARQ process based at least in part on the message; and performing the configurable HARQ process based at least in part on the parameter, wherein performing the configurable HARQ process is based at least in part on the MCS table, wherein a different MCS targeting a lower block error rate is utilized from the MCS table based on reducing the quantity of maximum HARQ retransmission allowed during the configurable HARQ process. receiving, from a base station, a message via a communication link in a non-terrestrial network, the message indicative of a configurable hybrid automatic repeat request, HARQ, process that is configurable on a per-HARQ process basis, wherein the message indicates or includes a modulation and coding scheme, MCS, table; determining a parameter for the configurable HARQ process based at least in part on the message, wherein determining the parameter further comprises reducing a quantity of maximum HARQ retransmissions allowed during the configurable HARQ process based at least in part on the message; and performing the configurable HARQ process based at least in part on the parameter, wherein performing the configurable HARQ process is based at least in part on the MCS table, wherein a different MCS targeting a lower block error rate is utilized from the MCS table based on reducing the quantity of maximum HARQ retransmission allowed during the configurable HARQ process.
PD-0184264 or a pharmaceutically acceptable salt thereof for use in a method of treatment of a disease caused by a coronavirus in a human subject, wherein the human subject is hospitalized, wherein the coronavirus is SARS-CoV-2 and the patient is suffering from COVID-19.
A method of manufacturing a nitride semiconductor light emitting device, comprising the steps of: (a) forming a resist pattern on a first nitride semiconductor layer formed above a substrate; (b) etching said first nitride semiconductor layer by using said resist pattern as a mask; and (c) forming an active layer (4, 5) on said patterned first nitride semiconductor layer; characterized in that before said etching step (b), said resist pattern has a region whose upper surface has an inclination angle relative to a substrate upper surface that changes smoothly as viewed in a cross section perpendicular to the substrate surface; wherein during etching step (b), a smoothly varying cross section of the resist layer is transferred to the first nitride semiconductor layer by use of an etch process that removes both resist pattern and nitride semiconductor material providing a patterned first nitride semiconductor layer having a plurality of projections, each projection having a smoothly changing inclination angle between an upper surface of the first nitride semiconductor layer and the substrate surface as viewed in a cross section perpendicular to the substrate surface; and the active layer (4, 5) comprises a quantum well. (a) forming a resist pattern on a first nitride semiconductor layer formed above a substrate; (b) etching said first nitride semiconductor layer by using said resist pattern as a mask; and (c) forming an active layer (4, 5) on said patterned first nitride semiconductor layer;
A fan impeller, having a number of air ducts, wherein each air duct is delimited by at least fan blades (11, 31, 32), an air guide ring and a base body, wherein the cross-section of the air duct is at a minimum in the path from radially inside to outside, characterised in that a maximum axial extent of the fan blades (11, 31, 32) is more than twice as great as a maximum axial extent of the air guide ring.