mhurhangee/ep-ind-claims huggingface dataset:
An end effector (1102, 1502) for a surgical clip applier, comprising: an elongate body (1110, 1510); first and second jaw members (1104, 1106, 1504, 1506) extending past a distal end (1112b, 1518b) of the body; wherein the end effector is characterized by: a clip revolver (1114, 1512) rotatably positioned within the body and providing an inner bore (1200, 1534) that defines a plurality of clip slots (1204, 1552) angularly spaced from each other about an inner surface of the inner bore, wherein a plurality of surgical clips (1108, 1508) are receivable within the plurality of clip slots in a nested helical array; and wherein the first and second jaw members are aligned to receive a distal-most surgical clip (1208d, 1508d) of the plurality of surgical clips, wherein the clip revolver is rotatable to sequentially align each surgical clip with the first and second jaw members. an elongate body (1110, 1510); first and second jaw members (1104, 1106, 1504, 1506) extending past a distal end (1112b, 1518b) of the body; wherein the end effector is characterized by: a clip revolver (1114, 1512) rotatably positioned within the body and providing an inner bore (1200, 1534) that defines a plurality of clip slots (1204, 1552) angularly spaced from each other about an inner surface of the inner bore, wherein a plurality of surgical clips (1108, 1508) are receivable within the plurality of clip slots in a nested helical array; and wherein the first and second jaw members are aligned to receive a distal-most surgical clip (1208d, 1508d) of the plurality of surgical clips, wherein the clip revolver is rotatable to sequentially align each surgical clip with the first and second jaw members. a clip revolver (1114, 1512) rotatably positioned within the body and providing an inner bore (1200, 1534) that defines a plurality of clip slots (1204, 1552) angularly spaced from each other about an inner surface of the inner bore, wherein a plurality of surgical clips (1108, 1508) are receivable within the plurality of clip slots in a nested helical array; and wherein the first and second jaw members are aligned to receive a distal-most surgical clip (1208d, 1508d) of the plurality of surgical clips, wherein the clip revolver is rotatable to sequentially align each surgical clip with the first and second jaw members.
A lifting device for lifting, and controlling the horizontal orientation of components, such as wind turbine main components, during installation and/or dismounting of said components, wherein the lifting device comprises: - a crane connection arrangement configured to be connected to one or more lifting lines of a crane arrangement, - a frame arrangement connected to said crane connection arrangement, - a first and a second steering wire guide (13a, 13b) for guiding steering wires (20a, 20b) placed on the crane arrangement, and - a component connection arrangement connected to said frame arrangement and configured to be connected directly or indirectly to the component to be lifted, wherein a relative displacement between said frame arrangement and one or both of the first and second steering wire guides (13a, 13b) is configured to be provided to control the mutual angle between the steering wires (20a, 20b), characterized in that - the first and second steering wire guide (13a, 13b) are connected to and supported by the frame arrangement. - a crane connection arrangement configured to be connected to one or more lifting lines of a crane arrangement, - a frame arrangement connected to said crane connection arrangement, - a first and a second steering wire guide (13a, 13b) for guiding steering wires (20a, 20b) placed on the crane arrangement, and - a component connection arrangement connected to said frame arrangement and configured to be connected directly or indirectly to the component to be lifted,
A catalyst composition comprising: a lanthanide rare earth element-containing compound; modified methylaluminoxane; a halogen compound; and an aliphatic hydrocarbon-based solvent, and wherein the lanthanide rare earth element-containing compound comprises a neodymium compound of the following Chemical Formula 1: in Chemical Formula 1, R 1 to R 3 are each independently a hydrogen atom, or a linear or branched alkyl group having 1 to 12 carbon atoms, wherein the modified methylaluminoxane is a compound of the following Chemical Formula 2: in Chemical Formula 2, R is a hydrocarbon group having 2 to 20 carbon atoms, m and n are each an integer of 2 or greater, and Me means a methyl group, and wherein the catalyst composition does not comprise diisobutylaluminum hydride. a lanthanide rare earth element-containing compound; modified methylaluminoxane; a halogen compound; and an aliphatic hydrocarbon-based solvent, and wherein the lanthanide rare earth element-containing compound comprises a neodymium compound of the following Chemical Formula 1: in Chemical Formula 1, R 1 to R 3 are each independently a hydrogen atom, or a linear or branched alkyl group having 1 to 12 carbon atoms, wherein the modified methylaluminoxane is a compound of the following Chemical Formula 2: in Chemical Formula 2, R is a hydrocarbon group having 2 to 20 carbon atoms, m and n are each an integer of 2 or greater, and Me means a methyl group, and wherein the catalyst composition does not comprise diisobutylaluminum hydride.
A device for controlling electrical power supply in response to air pressure measurement, the device comprising: an airflow path; a chamber; an aperture opening from the airflow path into the chamber; a liquid flow restrictor positioned across the aperture, the liquid flow restrictor being permeable to air and impermeable to liquid and inhibiting ingress of liquid into the chamber; a pressure sensor located in the chamber and operable to detect, in the presence of the liquid flow restrictor, air pressure changes caused by air flow in the airflow path; and a circuit for converting air pressure changes detected by the pressure sensor to control signals for controlling output of power from a battery located outside the chamber. an airflow path; a chamber; an aperture opening from the airflow path into the chamber; a liquid flow restrictor positioned across the aperture, the liquid flow restrictor being permeable to air and impermeable to liquid and inhibiting ingress of liquid into the chamber; a pressure sensor located in the chamber and operable to detect, in the presence of the liquid flow restrictor, air pressure changes caused by air flow in the airflow path; and a circuit for converting air pressure changes detected by the pressure sensor to control signals for controlling output of power from a battery located outside the chamber.
An assembly for a gas turbine engine comprising a rigid electrical raft mountable to a body, wherein: the rigid electrical raft is, when mounted, at least a part of an electrical harness of the gas turbine engine and comprises electrical conductors that are embedded in a rigid material so as to be surrounded by and fixed in position by the rigid material; the rigid electrical raft is mechanically attachable to the body using at least one fusible mount arrangement; and the fusible mount arrangement is constructed and arranged to break when a predetermined load is applied to the assembly, and at a lower load than the rigid electrical raft when a load is applied through the fusible mount arrangement. the rigid electrical raft is, when mounted, at least a part of an electrical harness of the gas turbine engine and comprises electrical conductors that are embedded in a rigid material so as to be surrounded by and fixed in position by the rigid material; the rigid electrical raft is mechanically attachable to the body using at least one fusible mount arrangement; and the fusible mount arrangement is constructed and arranged to break when a predetermined load is applied to the assembly, and at a lower load than the rigid electrical raft when a load is applied through the fusible mount arrangement.
A piece of furniture with support legs and with a joint arrangement for connecting the support legs (2, 4), which are held pivotably via pivot joints (9, 10), with a coupling link arrangement which has a pivotable coupling arm mounted on a base the end sections of which are articulated indirectly or directly on the support legs (2, 4) in such a way that these can be pivoted for height adjustment between a scissor or a cross-over position and a parallel, U or V position, and with a pretensioning device for pretensioning a support leg (2, 4) at least in the direction of one of the positions, characterized in that the coupling link arrangement is arranged offset approximately transversely to the pivoting plane of the support legs (2, 4) relative to the pretensioning device, one support leg (2, 4) having a laterally projecting lever arm which is arranged offset with respect to the pivot joint (9, 10) and on which the pretensioning device engages.
A rotor blade of a wind power installation having a tip or a tip end plate which rises out of the plane of the rotor blade in the manner of a winglet, characterised in that said end plate is turned about the thread axis in its central plane by about 4° to 8°, preferably 4° to 6°, particularly preferably about 5°.
A chimeric antigen receptor which comprises an antigen binding domain which selectively binds to Receptor Tyrosine Kinase Like Orphan Receptor 1, wherein the antigen binding domain comprises a light chain variable domain and a heavy chain variable domain, wherein the light chain variable domain comprises a light chain complementarity determining region (LCDR)1, an LCDR2 and an LCDR3, wherein LCDR1 comprises the amino acid sequence set forth in SEQ ID NO: 16; LCDR2 comprises the amino acid sequence set forth in SEQ ID NO: 18; and LCDR3 comprises the amino acid sequence set forth in SEQ ID NO: 20; and wherein the heavy chain variable domain comprises a heavy chain complementarity determining region (HCDR)1, an HCDR2 and an HCDR3, wherein HCDR1 comprises the amino acid sequence set forth in SEQ ID NO: 23; HCDR2 comprises the amino acid sequence set forth in SEQ ID NO: 25; and HCDR3 comprises the amino acid sequence set forth in SEQ ID NO: 57.
An operational state estimating apparatus for an electrical device, comprising: a current-voltage measuring unit configured to measure current and voltage as time-series from an electrical power line to which a plurality of electrical devices is connected; a filtering unit configured to filter signal components of power frequency and harmonics thereof from the time-series of the measured current and voltage; an admittance calculating unit configured to calculate admittance vector time-series from both the filtered power frequency and harmonics, the admittance vector time-series including admittances of both the power frequency and harmonics thereof; a feature vector retaining unit configured to retain feature vectors of the plurality of electrical devices; a combination calculating unit configured to calculate combination patterns of the retained feature vectors of the plurality of electrical devices; and a comparing unit configured to compare the combined feature vectors and the calculated admittance vector time-series to obtain an estimated result of the operational states of the plurality of electrical devices. a current-voltage measuring unit configured to measure current and voltage as time-series from an electrical power line to which a plurality of electrical devices is connected; a filtering unit configured to filter signal components of power frequency and harmonics thereof from the time-series of the measured current and voltage; an admittance calculating unit configured to calculate admittance vector time-series from both the filtered power frequency and harmonics, the admittance vector time-series including admittances of both the power frequency and harmonics thereof; a feature vector retaining unit configured to retain feature vectors of the plurality of electrical devices; a combination calculating unit configured to calculate combination patterns of the retained feature vectors of the plurality of electrical devices; and a comparing unit configured to compare the combined feature vectors and the calculated admittance vector time-series to obtain an estimated result of the operational states of the plurality of electrical devices.
A coated optical semiconductor element, in an order in a thickness direction comprising: an optical semiconductor element comprising an upper surface, a lower surface, and a side surface; a phosphor layer arranged on and covering the upper surface and the side surface of the optical semiconductor element, the phosphor layer comprising an upper surface, a lower surface, and a side surface; a light diffusion layer comprising a resin, light-diffusing particles dispersed in the resin, a light diffusion layer upper part, and a light diffusion layer side part, the light diffusion layer covering the upper surface of the phosphor layer and the side surface of the phosphor layer; and a white layer comprising white particles, the white layer covering the upper surface of the light diffusion layer; wherein the optical semiconductor element has a planar shape along a surface direction and a rectangular shape in a plan view; wherein the upper surface of the optical semiconductor element is a light-emitting surface for emitting light upward, and the upper surface of the optical semiconductor element is a flat shape; wherein the phosphor layer has a rectangular shape in a plan view, and covers the optical semiconductor element in a direction projected in the vertical direction, wherein the coated optical semiconductor element has a white appearance at the time of non-light emission, and wherein the light-diffusing particles and the resin have an absolute value of the refractive index difference larger than 0.04. an optical semiconductor element comprising an upper surface, a lower surface, and a side surface; a phosphor layer arranged on and covering the upper surface and the side surface of the optical semiconductor element, the phosphor layer comprising an upper surface, a lower surface, and a side surface; a light diffusion layer comprising a resin, light-diffusing particles dispersed in the resin, a light diffusion layer upper part, and a light diffusion layer side part, the light diffusion layer covering the upper surface of the phosphor layer and the side surface of the phosphor layer; and a white layer comprising white particles, the white layer covering the upper surface of the light diffusion layer; wherein the optical semiconductor element has a planar shape along a surface direction and a rectangular shape in a plan view; wherein the upper surface of the optical semiconductor element is a light-emitting surface for emitting light upward, and the upper surface of the optical semiconductor element is a flat shape; wherein the phosphor layer has a rectangular shape in a plan view, and covers the optical semiconductor element in a direction projected in the vertical direction, wherein the coated optical semiconductor element has a white appearance at the time of non-light emission, and wherein the light-diffusing particles and the resin have an absolute value of the refractive index difference larger than 0.04.
Metal wire supply machine especially connected to devices for inserting, defining and fixing metal wire crosspieces into plastic materials enclosed between twinned metal grids, particularly for introducing, defining and welding crosspieces in automatic "sewing" machines for producing prefabricated sandwich panels made of metal nettings and expanded plastic material, which provide for inserting metal wires through the layer of expanded plastic material, cutting the inserted sections and welding them to the grids on the two sides, so as to constitute the joint crosspieces to constrain the structure, comprising at least one pair of branches (6, 7) arranged adjacent to the trajectory of moving at least one metal wire, one of said branches being fixed and the other constituting a pivoting lever having a central fulcrum and being actuated on its upper end by actuating means, wherein on the lower end, corresponding to the resistance for the lever, of both branches (6, 7) a drawing wheel (13, 14) is rotably mounted circumferentially carrying a groove adapted to engage, together with the groove of the opposite wheel (13, 14), the metal wire, drawing it from a storage reel and moving it according to a rectilinear trajectory, characterised in that said actuating means are pneumatic pistons and that both drawing wheels (13, 14) are coaxially integral with mutually meshing gear wheels (11, 12) one of which is driven, the meshing gears (11, 12) are engaging with clearance such that the branch may pivote on its fulcrum.
A solenoid fluid control valve comprising: a transceiver configured to receive a signal via a controller area network bus; the transceiver further configured to forward the signal received via the CAN bus to a micro controller unit; the micro controller unit configured to decode the signal received from the transceiver to determine a current temperature, to compare the current temperature to a pre-determined threshold temperature, and to encode and send a signal to the transceiver; the transceiver configured to broadcast the signal received from the micro controller unit over the CAN bus; the micro controller unit further configured to send a signal to a driver circuit based on the temperature; the driver circuit configured to send a current through a coil (312, 404) in response to the signal received from the micro controller unit; and an armature configured to move in response to the current through the coil (312, 404), wherein the movement of the armature directs a cooling fluid flow. a transceiver configured to receive a signal via a controller area network bus; the transceiver further configured to forward the signal received via the CAN bus to a micro controller unit; the micro controller unit configured to decode the signal received from the transceiver to determine a current temperature, to compare the current temperature to a pre-determined threshold temperature, and to encode and send a signal to the transceiver; the transceiver configured to broadcast the signal received from the micro controller unit over the CAN bus; the micro controller unit further configured to send a signal to a driver circuit based on the temperature; the driver circuit configured to send a current through a coil (312, 404) in response to the signal received from the micro controller unit; and an armature configured to move in response to the current through the coil (312, 404), wherein the movement of the armature directs a cooling fluid flow.
A downhole tool comprising: a switch sub having a bore and a bulkhead extending along a longitudinal axis, wherein the bulkhead has a bulkhead bore that fluidly communicates with (i) the bore and (ii) an outside of the switch sub; and an adapter having a bore, wherein the adapter attaches to the switch sub; and an igniter system located inside the bulkhead and having a housing that extends partially inside the bulkhead and partially inside the bore of the adapter, and wherein the igniter system is configured to ignite an energetic material. a switch sub having a bore and a bulkhead extending along a longitudinal axis, wherein the bulkhead has a bulkhead bore that fluidly communicates with (i) the bore and (ii) an outside of the switch sub; and an adapter having a bore, wherein the adapter attaches to the switch sub; and an igniter system located inside the bulkhead and having a housing that extends partially inside the bulkhead and partially inside the bore of the adapter, and wherein the igniter system is configured to ignite an energetic material.
A soft textured product comprising: (a) a biscuit having a slowly available glucose of greater than 12 g per 100 g of biscuit and a water activity of less than 0.3; and (b) a filler having a water activity of 0.6 or greater, wherein the biscuit and filler are combined to form a soft textured product having a water activity of 0.4 to 0.8, a residual force ratio of greater than 32 and an SAG of greater than 12. (a) a biscuit having a slowly available glucose of greater than 12 g per 100 g of biscuit and a water activity of less than 0.3; and (b) a filler having a water activity of 0.6 or greater,
A method of sidelink communication by a first scheduled entity, the method comprising: receiving, from a scheduling entity, sidelink grant information in a downlink control channel; after receiving the sidelink grant information in the downlink control channel, transmitting a request signal comprising an indication of a requested duration of time to reserve a sidelink channel for sidelink data; and communicating, with a second scheduled entity, the sidelink data using the sidelink channel during the requested duration of time, wherein the receiving the sidelink grant information from the scheduling entity, the transmitting the request signal to the second scheduled entity, and the communicating the sidelink data with the second scheduled entity occur in a single transmission time interval, TTI, consisting of a single subframe. receiving, from a scheduling entity, sidelink grant information in a downlink control channel; after receiving the sidelink grant information in the downlink control channel, transmitting a request signal comprising an indication of a requested duration of time to reserve a sidelink channel for sidelink data; and communicating, with a second scheduled entity, the sidelink data using the sidelink channel during the requested duration of time, wherein the receiving the sidelink grant information from the scheduling entity, the transmitting the request signal to the second scheduled entity, and the communicating the sidelink data with the second scheduled entity occur in a single transmission time interval, TTI, consisting of a single subframe.
One component reaction system for production of rigid polyurethane foams that comprises the following constituents: A) an organic polyisocyanate component partially or completely in the form of a prepolymer, B) an isocyanate-reactive component whose functional groups are exclusively those having at least one Zerewitinoff-reactive hydrogen atom and also, optionally, at least one halogen atom, C) at least one stabilizer, D) at least one catalyst suitable for catalysing the reaction of said polyisocyanate component A) with said isocyanate-reactive component B), and also E) optionally auxiliary and added-substance materials and also blowing agent and co-blowing agent, characterized in that the monomeric polyisocyanate content is not more than 1 wt% based on the reaction system, and in that said organic polyisocyanate component A) has an isocyanate content of less than 8 wt% based on said polyisocyanate component A), and in that the one component reaction system comprises less than 5 wt% of a flame retardant selected from the group of compounds consisting of halogenated phosphates, aryl phosphates, alkyl phosphates, alkyl aryl phosphates, phosphonates and also flame retardants without groups reactive toward polyisocyanates and/or polyols, preferably less than 2 wt%, more preferably less than 1 wt% and yet more preferably no flame retardant selected from this group. A) an organic polyisocyanate component partially or completely in the form of a prepolymer, B) an isocyanate-reactive component whose functional groups are exclusively those having at least one Zerewitinoff-reactive hydrogen atom and also, optionally, at least one halogen atom, C) at least one stabilizer, D) at least one catalyst suitable for catalysing the reaction of said polyisocyanate component A) with said isocyanate-reactive component B), and also E) optionally auxiliary and added-substance materials and also blowing agent and co-blowing agent,