mhurhangee/ep-ind-claims huggingface dataset:
An elevator sill assembly, comprising: a sill plate; at least one support arm secured to the sill plate; a mounting bracket configured to be mounted to an elevator car, the at least one support arm being supported on the mounting bracket to allow the at least one support arm to pivot relative to the mounting bracket; and at least one linear actuator having a moving portion (66, 80) that is configured to move in a vertical direction, thereby causing the at least one support arm to pivot relative to the mounting bracket to thereby cause the sill plate to pivot from a stored position to an actuated position; and characterized in that said moving portion (66, 80) of said at least one linear actuator is configured to move in a vertical direction downward as an elevator car door approaches a fully open position, and in that the elevator sill assembly further comprises: a stop member in the form of a pin or rod supported on the mounting bracket; wherein the stop member limits an amount of movement of the at least one support arm to control the position of the sill plate in the actuated position. a sill plate; at least one support arm secured to the sill plate; a mounting bracket configured to be mounted to an elevator car, the at least one support arm being supported on the mounting bracket to allow the at least one support arm to pivot relative to the mounting bracket; and at least one linear actuator having a moving portion (66, 80) that is configured to move in a vertical direction, thereby causing the at least one support arm to pivot relative to the mounting bracket to thereby cause the sill plate to pivot from a stored position to an actuated position; and characterized in that said moving portion (66, 80) of said at least one linear actuator is configured to move in a vertical direction downward as an elevator car door approaches a fully open position, and in that the elevator sill assembly further comprises: a stop member in the form of a pin or rod supported on the mounting bracket; wherein the stop member limits an amount of movement of the at least one support arm to control the position of the sill plate in the actuated position. a stop member in the form of a pin or rod supported on the mounting bracket; wherein the stop member limits an amount of movement of the at least one support arm to control the position of the sill plate in the actuated position.
A method performed by a user equipment (120; 120r; 120x), UE, for wireless communication, comprising: receiving reference signals from one or more target transmission reception points, TRPs, in a wireless communications network; pre-selecting, based on the received reference signals, a first target TRP, of the one or more target TRPs, from which to receive wireless service after a serving TRP change; transmitting an uplink, UL, signal to the first target TRP; receiving, from the first target TRP, feedback comprising information about the UL signal; and determining, based at least in part on the feedback, to select the first target TRP as a new serving TRP from which to receive the wireless service. receiving reference signals from one or more target transmission reception points, TRPs, in a wireless communications network; pre-selecting, based on the received reference signals, a first target TRP, of the one or more target TRPs, from which to receive wireless service after a serving TRP change; transmitting an uplink, UL, signal to the first target TRP; receiving, from the first target TRP, feedback comprising information about the UL signal; and determining, based at least in part on the feedback, to select the first target TRP as a new serving TRP from which to receive the wireless service.
A method for providing constant airflow with a variable speed motor for a Heating, Ventilation, and Air Conditioning (HVAC) system, comprising the steps of: (a) calculating a real-time input power Pi and real-time rotation speed ni of the motor; (b) receiving a target airflow IN-CFM; and (c) determining a steady working point of the motor along a control track of a function P=f(n) that corresponds to the target airflow IN-CFM, wherein the steady working point specifies a power Pt and speed nt of the motor on the control track of the control function P=f(n) that provides a constant airflow corresponding to the target airflow IN-CFM; (d) determining whether a power increment value ΔP = |Pt - Pi| is less than a set value P set; (e) controlling the motor by repeatedly adjusting the power and speed of the motor when the power increment value is greater than or equal to the set value P set until the motor operates at the steady working point and provides the target airflow IN-CFM such that airflow provided by the HVAC system is maintained constant at the target airflow IN-CFM before and after the step of repeatedly adjusting the power and speed of the motor, wherein repeatedly adjusting the power and speed of the motor comprises adjusting the motor power and then subsequently adjusting the motor speed. (a) calculating a real-time input power Pi and real-time rotation speed ni of the motor; (b) receiving a target airflow IN-CFM; and (c) determining a steady working point of the motor along a control track of a function P=f(n) that corresponds to the target airflow IN-CFM, wherein the steady working point specifies a power Pt and speed nt of the motor on the control track of the control function P=f(n) that provides a constant airflow corresponding to the target airflow IN-CFM; (d) determining whether a power increment value ΔP = |Pt - Pi| is less than a set value P set; (e) controlling the motor by repeatedly adjusting the power and speed of the motor when the power increment value is greater than or equal to the set value P set until the motor operates at the steady working point and provides the target airflow IN-CFM such that airflow provided by the HVAC system is maintained constant at the target airflow IN-CFM before and after the step of repeatedly adjusting the power and speed of the motor, wherein repeatedly adjusting the power and speed of the motor comprises adjusting the motor power and then subsequently adjusting the motor speed.
A mechanism for a drug delivery device, comprising - a body defining an axial direction, - a dial that is movable relative to the body for setting a dose, - an indicator member coupled with the dial, and - a movable window displaying a surface area of the indicator member, characterized in that - the indicator member is axially movable relative to the body, - a window arrangement (4, 12) comprising the movable window that is coupled to the indicator member, wherein the movable window is threadedly engaged with the indicator member, and - an axial movement of the indicator member generates a movement of the movable window in the opposite axial direction relative to the indicator member or relative to the body. - a body defining an axial direction, - a dial that is movable relative to the body for setting a dose, - an indicator member coupled with the dial, and - a movable window displaying a surface area of the indicator member, characterized in that - the indicator member is axially movable relative to the body, - a window arrangement (4, 12) comprising the movable window that is coupled to the indicator member, wherein the movable window is threadedly engaged with the indicator member, and - an axial movement of the indicator member generates a movement of the movable window in the opposite axial direction relative to the indicator member or relative to the body.
A system for use in performing maintenance on a turbine rotor, the system comprising: a rotor mount configured to receive the turbine rotor; a robotic device; a visual inspection device coupled to the robotic device; and a computing device characterized in that the computing device is configured to: direct the robotic device to evaluate, with the visual inspection device, the turbine rotor at different circumferential locations thereof to obtain rotor axis data; determine a centerline of the turbine rotor based on the rotor axis data; generate a coordinate system including the centerline of the turbine rotor; direct the robotic device to evaluate, with the visual inspection device, a plurality of blades on at least one stage of the turbine rotor to obtain blade position data relative to the centerline; and populate the coordinate system with the blade position data. a rotor mount configured to receive the turbine rotor; a robotic device; a visual inspection device coupled to the robotic device; and a computing device characterized in that the computing device is configured to: direct the robotic device to evaluate, with the visual inspection device, the turbine rotor at different circumferential locations thereof to obtain rotor axis data; determine a centerline of the turbine rotor based on the rotor axis data; generate a coordinate system including the centerline of the turbine rotor; direct the robotic device to evaluate, with the visual inspection device, a plurality of blades on at least one stage of the turbine rotor to obtain blade position data relative to the centerline; and populate the coordinate system with the blade position data. direct the robotic device to evaluate, with the visual inspection device, the turbine rotor at different circumferential locations thereof to obtain rotor axis data; determine a centerline of the turbine rotor based on the rotor axis data; generate a coordinate system including the centerline of the turbine rotor; direct the robotic device to evaluate, with the visual inspection device, a plurality of blades on at least one stage of the turbine rotor to obtain blade position data relative to the centerline; and populate the coordinate system with the blade position data.
Device for manufacturing fibrous preforms (28, 28.1) which in particular represent a preliminary stage in the manufacture of fibre-reinforced plastics components, wherein the device has a plurality of unwinding stations (1, 1.1, 2, 2.1) for providing a plurality of yarns or rovings, and a plurality of grippers (5, 5.1) which in each case can grip individual or a plurality of yarns or rovings at the leading end (20, 20') thereof, wherein each gripper (5, 5.1) is movable to and fro on a path between a maximum position (8, 8.1) and a collecting position (9, 9.1), and wherein the collecting position (9, 9.1) is provided at a yarn-transfer point (14, 14.1) and is closer to the unwinding station (1, 1.1, 2, 2.1) than the maximum position (8, 8.1), characterized in that each gripper (5, 5.1) has a dedicated maximum position (8, 8.1) and is assigned to a dedicated yarn-transfer point (14, 14.1), in that the grippers (5, 5.1) are in each case individually movable on paths which are substantially parallel with one another, and in that the device has at least one forming tool (15, 15', 15.1, 16, 16') which can be brought between the yarn-transfer points and at least some of the grippers, in particular such that, on account thereof, the yarns or rovings are draped across the forming tool (15, 15', 15.1, 16, 16').
An albumin-sugar chain complex characterized in that: it comprises five or more molecules of an asparagine-linked sugar chain bound per molecule of albumin, and the asparagine-linked sugar chain has a structure represented by the general formula below: wherein A 1 is a group in which an N-linked sugar chain is bound to an amide nitrogen atom of a side chain of an Asn residue; L 1 is a linking group represented by the general formula below and is bound to the Asn residue at the nitrogen atom not bound to the sugar chain; Z 1 is 1,2-phenylene group, 1,3-phenylene group, or 1,4-phenylene group; R 1 is an alkyl group having 1 to 6 carbon atoms; and ** is a site that binds to a carbon atom bound to an amino group on a side chain of a lysine residue of albumin: wherein R2 is an alkylene group having 1 to 20 carbon atoms; * of formula represents the site that binds to A 1 in general formula; ** of formula represents the site that binds to Z 1 in general formula; and L2 is a divalent group selected from the group consisting of: -O-CO-NH- n-CO-NH-, -O-CO-NH- n-NH-CO-, - n-, - n-O- m-, - n-CO-NH-, and - n-NH-CO-, in which n and m respectively and independently represent an integer of 1 to 20. it comprises five or more molecules of an asparagine-linked sugar chain bound per molecule of albumin, and the asparagine-linked sugar chain has a structure represented by the general formula below: wherein A 1 is a group in which an N-linked sugar chain is bound to an amide nitrogen atom of a side chain of an Asn residue; L 1 is a linking group represented by the general formula below and is bound to the Asn residue at the nitrogen atom not bound to the sugar chain; Z 1 is 1,2-phenylene group, 1,3-phenylene group, or 1,4-phenylene group; R 1 is an alkyl group having 1 to 6 carbon atoms; and ** is a site that binds to a carbon atom bound to an amino group on a side chain of a lysine residue of albumin: wherein R2 is an alkylene group having 1 to 20 carbon atoms; * of formula represents the site that binds to A 1 in general formula; ** of formula represents the site that binds to Z 1 in general formula; and L2 is a divalent group selected from the group consisting of: -O-CO-NH- n-CO-NH-, -O-CO-NH- n-NH-CO-, - n-, - n-O- m-, - n-CO-NH-, and - n-NH-CO-, in which n and m respectively and independently represent an integer of 1 to 20.
Magnetic coil for switching a solenoid valve, having a substantially cylindrical coil outer surface, wherein the magnetic coil on its outer surface has a cooling structure which enlarges the outer surface, the cooling structure is provided as a passive heat sink which has cooling fins and is formed separately from the outer surface of the magnetic coil, the passive heat sink has a hollow cylindrical shape and the cooling fins disposed on the outer surface of the heat sink extend in the circumferential direction of the heat sink and are mutually spaced apart in the longitudinal direction of the heat sink and are interrupted by at least one longitudinal slot, in particular by two diametrically disposed longitudinal slots (13a, 13b), characterized in that the inner dimension of the hollow-cylindrical passive heat sink is smaller than an outer dimension of the magnetic coil, so that the passive heat sink during disposal on the coil outer surface can be press-fitted onto the latter, and the at least one longitudinal slot widens in the process. the cooling structure is provided as a passive heat sink which has cooling fins and is formed separately from the outer surface of the magnetic coil, the passive heat sink has a hollow cylindrical shape and the cooling fins disposed on the outer surface of the heat sink extend in the circumferential direction of the heat sink and are mutually spaced apart in the longitudinal direction of the heat sink and are interrupted by at least one longitudinal slot, in particular by two diametrically disposed longitudinal slots (13a, 13b), characterized in that the inner dimension of the hollow-cylindrical passive heat sink is smaller than an outer dimension of the magnetic coil, so that the passive heat sink during disposal on the coil outer surface can be press-fitted onto the latter, and the at least one longitudinal slot widens in the process.
A textured fabric for a bioprosthesis comprising two discrete layers, which are: a base layer; and a loop layer with a plurality of loops, wherein the plurality of loops are formed from a composite core-sheath yarn; and wherein the composite core-sheath yarn comprises a core and a sheath that is made from a material different from the core, characterized in that the plurality of loops is projecting from the base layer, suitable for filling a volume of space between a bioprosthesis and an adjacent tissue at the site of implantation. a base layer; and a loop layer with a plurality of loops, wherein the plurality of loops are formed from a composite core-sheath yarn; and wherein the composite core-sheath yarn comprises a core and a sheath that is made from a material different from the core, characterized in that the plurality of loops is projecting from the base layer, suitable for filling a volume of space between a bioprosthesis and an adjacent tissue at the site of implantation.
An implantable electrode for a medical device lead comprising a plurality of electrode modules mechanically coupled in a stack of electrode modules, each electrode module comprising a plurality of layers that define substantially similar sized pores such that the stack of electrode modules includes an array of the substantially similar sized pores, wherein each of the electrode modules is annular, and wherein the stack of electrode modules forms a ring electrode.
Rail vehicle, comprising a subframe, the subframe being configured with longitudinal carriers which lie on the outside, and at least one carrier being mounted rotatably on the subframe per vehicle side, which at least one carrier can be pivoted between a rest position and an operating position, and which at least one carrier has a lifting point of the rail vehicle at an end which is pivoted out in the operating position, the longitudinal carriers having recesses, into which the carriers are pivoted in their rest position.
Apparatus for transferring conductive patterns to a substrate, comprising a module configured to transfer a pattern of sinterable material to said substrate and an optical module to perform a sintering of the transferred pattern, characterized in that said apparatus comprises one or more self-propelled pattern transferring units comprising a module configured to move said self propelled unit over said substrate under the control of movement instructions associated to a motor (16, 21), said self propelled unit comprising said module configured to transfer a pattern of sinterable material to said substrate obtaining a transferred pattern and comprising also said optical module to perform a sintering of the transferred pattern on said substrate obtaining a sintered pattern (63b, 63c). comprising a module configured to transfer a pattern of sinterable material to said substrate and an optical module to perform a sintering of the transferred pattern, characterized in that said apparatus comprises one or more self-propelled pattern transferring units comprising a module configured to move said self propelled unit over said substrate under the control of movement instructions associated to a motor (16, 21), said self propelled unit comprising said module configured to transfer a pattern of sinterable material to said substrate obtaining a transferred pattern and comprising also said optical module to perform a sintering of the transferred pattern on said substrate obtaining a sintered pattern (63b, 63c).
A dosage form, comprising a melt-processed mixture of (a) a pharmaceutically effective amount of imatinib or a salt thereof, (b) at least one polymeric binder having a glass transition temperature Tg of from +10°C to 180°C, and (c) at least one pharmaceutically acceptable non-ionic surfactant having an HLB of 3.5 or less, selected from a polyol fatty acid ester, a polyalkoxylated polyol fatty acid ester, a polyalkoxylated fatty alcohol ether or a mixture thereof. (a) a pharmaceutically effective amount of imatinib or a salt thereof, (b) at least one polymeric binder having a glass transition temperature Tg of from +10°C to 180°C, and (c) at least one pharmaceutically acceptable non-ionic surfactant having an HLB of 3.5 or less, selected from a polyol fatty acid ester, a polyalkoxylated polyol fatty acid ester, a polyalkoxylated fatty alcohol ether or a mixture thereof.
Method of reducing the static sensitivity of a heat sensitive coating composition comprising a colour forming compound and a colour developer characterized in using N-(p-toluenesulphonyl)-N'-(3-p-toluenesulphonyl-oxy-phenyl)urea having an X-ray powder pattern having Bragg angles (2θ/CuK α) of 10.3, 11.1, 13.0, 13.3, 15.6, 17.1, 18.1, 18.4, 19.6, 20.0, 20.8, 21.3, 23.1, 25.0, 25.5, 26.4, 26.8, 27.5, 29.1, 32.8 as colour developer.
A food processor comprising a base, a vacuum creating device, a food processing cup provided on the base and a cup lid provided on the food processing cup, wherein the cup lid comprises an upper lid and a lower lid that are rotatably assembled to form a reserved cavity therebetween, the upper lid and the lower lid being able to switch between a communicating state in which the reserved cavity is in communication with the food processing cup and a blocked state in which the communication is blocked, and wherein the vacuum creating device communicating with the reserved cavity can perform a vacuum creating operation on the food processing cup, characterized in that the upper lid comprises a first top wall and a first side wall connected with the first top wall, the first top wall being provided with a venting part at its center, at least one venting hole being provided in the venting part, in that the lower lid comprises a second top wall and a second side wall connected with the second top wall, a sliding slot being provided on the second top wall, the first side wall being inserted inside the sliding slot and rotatable along the sliding slot, the second top wall being provided with a suction hole that can communicate with the venting hole.
An arrangement for wrapping an end of a coilable material on a mandrel, including forming means comprising first and second contact means rotatably connected to said forming means and rigidly connected to each other via first connection means, said contact means (3a, 3b) are adapted for contacting a surface of said material, such that the first and second contact means (3a, 3b) bring at least a section of the material into contact with an outer surface of the mandrel; characterized in that: said forming means are further adapted to maintain said contact means (3a, 3b) in contact with said surface and to rotate at least a predetermined angle around the central axis of the mandrel to wrap the end of the material around said outer surface of the mandrel. said forming means are further adapted to maintain said contact means (3a, 3b) in contact with said surface and to rotate at least a predetermined angle around the central axis of the mandrel to wrap the end of the material around said outer surface of the mandrel.