mhurhangee/ep-ind-claims huggingface dataset:
A transmitter device for causing a receiver device to change states after the transmitter device receives a control signal via bi-directional wireless data communications, the receiver device configured to change states upon receipt of an expected transmission, the transmitter device comprising: a radio frequency circuit configured to transmit the expected transmission to the receiver device; a second data communication device (604; 606) configured to establish a bi-directional wireless data communication link with a first data communication device (602; 608) and configured to use the bi-directional wireless data communication link with the first data communication device to request and receive configuration information, and wherein the control signal is received via bi-directional data communication; a memory unit configured to store the configuration information received via the bi-directional wireless data communication link; a processing system communicably connected to the radio frequency circuit, the memory unit, and the second data communication device, the processing system configured to cause the radio frequency circuit to transmit the expected transmission to the receiver device in response to receiving the control signal via the bi-directional wireless data communication, characterized in, that the control signal comprises a command message and the expected transmission comprises an RF signal created and transmitted based upon the command message, wherein the RF signal is formatted using the configuration information received via the bi-directional wireless data communication link. a radio frequency circuit configured to transmit the expected transmission to the receiver device; a second data communication device (604; 606) configured to establish a bi-directional wireless data communication link with a first data communication device (602; 608) and configured to use the bi-directional wireless data communication link with the first data communication device to request and receive configuration information, and wherein the control signal is received via bi-directional data communication; a memory unit configured to store the configuration information received via the bi-directional wireless data communication link; a processing system communicably connected to the radio frequency circuit, the memory unit, and the second data communication device, the processing system configured to cause the radio frequency circuit to transmit the expected transmission to the receiver device in response to receiving the control signal via the bi-directional wireless data communication, characterized in, that the control signal comprises a command message and the expected transmission comprises an RF signal created and transmitted based upon the command message, wherein the RF signal is formatted using the configuration information received via the bi-directional wireless data communication link.
An L-shaped cutting insert (23, 123, 123', 123", 123"', 223, 323, 423), comprising a top side on a first leg of the insert, the top side comprising a plurality of cutting edges, the cutting edges being arranged one after another in a longitudinally axial direction of the insert and extending substantially perpendicularly to a longitudinal, vertical axial plane, and a side wall (29, 129, 329, 429) forming a second leg of the insert and extending downwardly relative to a plane of the top side of the insert, the side wall comprising a side supporting surface (37, 137, 237,337,437) for supporting the insert against a side abutment surface (41, 141, 341, 441) of a toolholder (39, 139, 139', 130", 139"', 239, 339, 439) and a clamping surface for being contacted by a clamp to clamp the side supporting surface against the side abutment surface (41, 141, 341,441), the first leg of the insert comprising a bottom supporting surface (71, 71', 171 ', 171 ", 171 "') for supporting the insert against a bottom abutment surface (69, 169', 169", 169"') of a toolholder, characterized in that the side wall is offset to one side of the vertical axial plane, towards the second, opposite, side wall of the second leg of the insert.
A router tool for edging the peripheral edge of eyeglass lenses, comprising: a longitudinally extending body rotatable on the axis thereof; a first blade (128, 128') extending axially and radially from said body, said first blade (128, 128') having a first cutting portion for shaping an edge of a lens to a first configuration; and a second blade (128, 128') axially spaced from said first blade (128, 128'), said second blade (128, 128') extending axially and radially from said body, said second blade (128, 128') having a second cutting portion for shaping an edge of a lens to a second configuration different than said first configuration, characterized in that each of said first and second cutting portions extend axially from said body, and each of said first and second cutting portions include a first edge, a second edge spaced from said first edge, and a contoured edge (152, 152') integral with and intermediate said first and second edges (148, 150), said first and second edges (148, 150) lying on a plane parallel to the axis of said body; and a groove formed peripherally about said body and aligned axially with said contoured edge (152, 152'). a longitudinally extending body rotatable on the axis thereof; a first blade (128, 128') extending axially and radially from said body, said first blade (128, 128') having a first cutting portion for shaping an edge of a lens to a first configuration; and a second blade (128, 128') axially spaced from said first blade (128, 128'), said second blade (128, 128') extending axially and radially from said body, said second blade (128, 128') having a second cutting portion for shaping an edge of a lens to a second configuration different than said first configuration, characterized in that each of said first and second cutting portions extend axially from said body, and each of said first and second cutting portions include a first edge, a second edge spaced from said first edge, and a contoured edge (152, 152') integral with and intermediate said first and second edges (148, 150), said first and second edges (148, 150) lying on a plane parallel to the axis of said body; and a groove formed peripherally about said body and aligned axially with said contoured edge (152, 152').
A gear (111, 112, 211, 212) which is a molded resin constructed of a resin composition comprising a thermoplastic resin and cellulose nanofibers with an average fiber diameter of 1000 nm or smaller, wherein the thermoplastic resin includes a polyamide resin, characterized in that: the gear has a roundness of 400 μm or smaller, and the resin composition has a thixotropic index of 2 to 10 at a temperature of 25°C higher than the melting point of the thermoplastic resin. the gear has a roundness of 400 μm or smaller, and the resin composition has a thixotropic index of 2 to 10 at a temperature of 25°C higher than the melting point of the thermoplastic resin.
A process for fabricating an optoelectronic device based on nanowire-type semiconductors having an axial functional structure, comprising the following steps: - obtaining nanowires on a substrate on which a first electrical contact zone is produced, said nanowires being capable of emitting a light beam; and - depositing a layer of material in order to fill the interstices between the nanowires, said layer being optionally planarized subsequently, characterized in that it includes steps for obtaining a layer of an electrically conducting material on the periphery of the nanowires and in direct contact with the nanowires, over a defined height (h) thereof and close to their end on the opposite side from said substrate, and also between said nanowires, the upper face of the nanowires being bared, in such a way that a second electrical contact zone is formed on said nanowires. - obtaining nanowires on a substrate on which a first electrical contact zone is produced, said nanowires being capable of emitting a light beam; and - depositing a layer of material in order to fill the interstices between the nanowires, said layer being optionally planarized subsequently, characterized in that it includes steps for obtaining a layer of an electrically conducting material on the periphery of the nanowires and in direct contact with the nanowires, over a defined height (h) thereof and close to their end on the opposite side from said substrate, and also between said nanowires, the upper face of the nanowires being bared, in such a way that a second electrical contact zone is formed on said nanowires.
A pellicle frame with an anodized film on a surface of an aluminum alloy frame, characterized in that: the aluminum alloy frame comprises an aluminum alloy which contains 5.0 to 10.0% by mass of Ca, optionally 0.0001 to 0.005% by mass of V, and optionally 0.05 to 1.0% by mass of Fe with the remainder being aluminum and unavoidable impurities, and which has a volume ratio of a dispersed Al 4 Ca phase greater than or equal to 25%, a crystal structure of a part of the Al 4 Ca phase being monoclinic; wherein the anodized film has Al 4 Ca particles. the aluminum alloy frame comprises an aluminum alloy which contains 5.0 to 10.0% by mass of Ca, optionally 0.0001 to 0.005% by mass of V, and optionally 0.05 to 1.0% by mass of Fe with the remainder being aluminum and unavoidable impurities, and which has a volume ratio of a dispersed Al 4 Ca phase greater than or equal to 25%, a crystal structure of a part of the Al 4 Ca phase being monoclinic; wherein the anodized film has Al 4 Ca particles.
A method comprising: transfecting or transforming a host cell in vitro with an expression vector encoding an amino acid sequence of SEQ ID NO.37, or a variant of amino acid sequence of SEQ ID NO. 37 having amino acid substitutions up to 15 or any amino acid additions or deletions up to 15 at its N-terminus or C-terminus, being free of an interchain binding region of the cell surface receptor to the extent necessary to prevent spontaneous binding between them; and facilitating expression of the peptide by the cell so that the cell expresses the peptide as a transmembrane peptide on the cell surface. transfecting or transforming a host cell in vitro with an expression vector encoding an amino acid sequence of SEQ ID NO.37, or a variant of amino acid sequence of SEQ ID NO. 37 having amino acid substitutions up to 15 or any amino acid additions or deletions up to 15 at its N-terminus or C-terminus, being free of an interchain binding region of the cell surface receptor to the extent necessary to prevent spontaneous binding between them; and facilitating expression of the peptide by the cell so that the cell expresses the peptide as a transmembrane peptide on the cell surface.
Centrifugal force pendulum for damping rotational non-uniformities which are introduced via a drive shaft of a motor vehicle engine, having a carrier flange which can be rotated about a rotational axis, a first pendulum mass which is guided on the carrier flange such that it can swing relative to the carrier flange for the generation of a self-aligning torque which is directed counter to the rotational nonuniformity, a second pendulum mass which is guided on the carrier flange such that it can swing relative to the carrier flange and which is arranged offset in the circumferential direction with respect to the first pendulum mass for the generation of a self-aligning torque which is directed counter to the rotational nonuniformity, and a stop damper which can come into contact with the first pendulum mass and with the second pendulum mass for damping a contact of the pendulum masses (18, 20), characterized in that, on a first end side which points away from a majority of the first pendulum mass, the stop damper can come into contact with a first stop face of the first pendulum mass and, on a second end side which points away from a majority of the second pendulum mass, can come into contact with a second stop face of the second pendulum mass.
An electronic device comprising a touch-screen interface wherein the external surface of said touch-screen interface is a thermoformed biaxially oriented coextruded polyester film comprising a copolyester base layer B, a first polyester outer layer A1 and a second polyester outer layer A2, wherein said outer layers are disposed on opposite surfaces of said base layer, and wherein: (i) said base layer B comprises a copolyester derived from terephthalic acid and a second aromatic dicarboxylic acid and one or more diol(s), wherein said second aromatic dicarboxylic acid is present in the copolyester in an amount of from about 5 to about 20 mol% of the acid fraction of the copolyester; (ii) the polyester of each of said outer layers A1 and A2 is selected from polyethylene terephthalate; and (iii) the thickness of the base layer constitutes at least 90% of the total thickness of the coextruded multi-layer polyester film. (i) said base layer B comprises a copolyester derived from terephthalic acid and a second aromatic dicarboxylic acid and one or more diol(s), wherein said second aromatic dicarboxylic acid is present in the copolyester in an amount of from about 5 to about 20 mol% of the acid fraction of the copolyester; (ii) the polyester of each of said outer layers A1 and A2 is selected from polyethylene terephthalate; and (iii) the thickness of the base layer constitutes at least 90% of the total thickness of the coextruded multi-layer polyester film.
Use of a parallel connection apparatus for performing voltage leveling, the apparatus comprising: a cathode terminal connection unit; and an anode terminal connection unit, wherein each of the connection units has a plurality of connection members connected to cathode terminals and anode terminals of unit cells, the connection members being electrically connected with each other. a cathode terminal connection unit; and an anode terminal connection unit, wherein each of the connection units has a plurality of connection members connected to cathode terminals and anode terminals of unit cells, the connection members being electrically connected with each other.
A loudspeaker device comprising: a loudspeaker housing; a first loudspeaker unit provided in a first wall of the loudspeaker housing; and an acoustic tube communicating an inside and an outside of the loudspeaker housing to each other, wherein the acoustic tube has a predetermined length, and is accommodated in the loudspeaker housing while defining a helical shape, characterized in that the loudspeaker device further comprising a second loudspeaker unit provided in a second wall of the loudspeaker housing, the second wall being disposed opposite to the first wall, and wherein the acoustic tube is disposed between the first loudspeaker unit and the second loudspeaker unit, the first loudspeaker unit and the second loudspeaker unit being disposed opposite to each other. a loudspeaker housing; a first loudspeaker unit provided in a first wall of the loudspeaker housing; and an acoustic tube communicating an inside and an outside of the loudspeaker housing to each other, wherein the acoustic tube has a predetermined length, and is accommodated in the loudspeaker housing while defining a helical shape, characterized in that the loudspeaker device further comprising a second loudspeaker unit provided in a second wall of the loudspeaker housing, the second wall being disposed opposite to the first wall, and wherein the acoustic tube is disposed between the first loudspeaker unit and the second loudspeaker unit, the first loudspeaker unit and the second loudspeaker unit being disposed opposite to each other.
An assembly for a turbine engine, comprising: a primary duct; a bleed duct extending from a bleed duct inlet to a bleed duct outlet, the bleed duct inlet fluidly coupled with the primary duct; a plurality of secondary ducts (14, 15) arranged in parallel between the bleed duct outlet and the primary duct, the plurality of secondary ducts (14, 15) including a first duct and a second duct; a heat exchanger configured with the second duct; and a flow regulator configured to direct at least a majority of fluid flowing through the bleed duct outlet to: the first duct during a first mode of operation; and the second duct during a second mode of operation; characterised in that the flow regulator is configured as a valve arranged at an intersection between the bleed duct outlet and inlets (50, 58) of the secondary ducts (14, 15). a primary duct; a bleed duct extending from a bleed duct inlet to a bleed duct outlet, the bleed duct inlet fluidly coupled with the primary duct; a plurality of secondary ducts (14, 15) arranged in parallel between the bleed duct outlet and the primary duct, the plurality of secondary ducts (14, 15) including a first duct and a second duct; a heat exchanger configured with the second duct; and a flow regulator configured to direct at least a majority of fluid flowing through the bleed duct outlet to: the first duct during a first mode of operation; and the second duct during a second mode of operation; the first duct during a first mode of operation; and the second duct during a second mode of operation; characterised in that the flow regulator is configured as a valve arranged at an intersection between the bleed duct outlet and inlets (50, 58) of the secondary ducts (14, 15).
A flow meter for measuring flow rate of a process fluid, comprising: a microwave source configured to generate a microwave signal; a probe tip coupled to the microwave source, immersed in the process fluid and in near field proximity to the process fluid configured to apply the microwave signal to the process fluid; a microwave detector coupled to the probe tip configured to detect a reflected near field microwave signal from the process fluid in response to the applied microwave signal; and a flow calculation circuitry configured to determine at least one of flow rate and flow composition of the process fluid as a function of the detected microwave signal; wherein the flow calculation circuitry calculates a statistical parameter of the reflected near field microwave signal and correlates the calculated statistical parameter to a flow rate. a microwave source configured to generate a microwave signal; a probe tip coupled to the microwave source, immersed in the process fluid and in near field proximity to the process fluid configured to apply the microwave signal to the process fluid; a microwave detector coupled to the probe tip configured to detect a reflected near field microwave signal from the process fluid in response to the applied microwave signal; and a flow calculation circuitry configured to determine at least one of flow rate and flow composition of the process fluid as a function of the detected microwave signal; wherein the flow calculation circuitry calculates a statistical parameter of the reflected near field microwave signal and correlates the calculated statistical parameter to a flow rate.
A rig control interface comprising: an emergency disconnect sequence button configured to initiate an emergency disconnect sequence signal to be sent to multiplex pods resulting in an emergency disconnect sequence including a plurality of functions being performed by devices in one or both of a lower marine riser package and a blowout preventer stack; and an emergency disconnect sequence timer display triggered by initiation of the emergency disconnect sequence signal, the emergency disconnect sequence timer display configured to indicate one or both of time elapsed after initiation of the emergency disconnect sequence signal and a status of the plurality of functions being performed by the devices in the one or both of the lower marine riser package and the blowout preventer stack. an emergency disconnect sequence button configured to initiate an emergency disconnect sequence signal to be sent to multiplex pods resulting in an emergency disconnect sequence including a plurality of functions being performed by devices in one or both of a lower marine riser package and a blowout preventer stack; and an emergency disconnect sequence timer display triggered by initiation of the emergency disconnect sequence signal, the emergency disconnect sequence timer display configured to indicate one or both of time elapsed after initiation of the emergency disconnect sequence signal and a status of the plurality of functions being performed by the devices in the one or both of the lower marine riser package and the blowout preventer stack.
A stent comprising: a body having distal and proximal ends and defining a central lumen along a longitudinal axis, the body having an insertion configuration with a reduced profile and a deployed configuration with an enlarged profile greater than the insertion profile, the body comprising a plurality of spaced apart, undulating circumferential members having one undulating helical turn and one or more undulating circumferential rings; and a plurality of closed cell connectors extending substantially parallel to the longitudinal axis that form connections between internal apices of the undulating helical turn and an adjacent undulating circumferential ring in the circumferential member; the undulating circumferential members defining a closed cell structure comprising a plurality of closed cells, and an undulating helical element extending helically about the longitudinal axis, axially interposed between and directly connected to the undulating helical turn of the circumferential members; the undulating helical element having a plurality of helical turns (121, 122); and the undulating helical element defining an open cell structure comprising a plurality of open cells; wherein, in the deployed configuration, the plurality of helical turns (121, 122) of the undulating helical element and the undulating helical turn of circumferential members have a uniform apex geometry throughout the body of the stent, wherein the apex geometry is defined by an apex radius, width and thickness and an angle of the struts forming a said apex. a body having distal and proximal ends and defining a central lumen along a longitudinal axis, the body having an insertion configuration with a reduced profile and a deployed configuration with an enlarged profile greater than the insertion profile, the body comprising a plurality of spaced apart, undulating circumferential members having one undulating helical turn and one or more undulating circumferential rings; and a plurality of closed cell connectors extending substantially parallel to the longitudinal axis that form connections between internal apices of the undulating helical turn and an adjacent undulating circumferential ring in the circumferential member; the undulating circumferential members defining a closed cell structure comprising a plurality of closed cells, and an undulating helical element extending helically about the longitudinal axis, axially interposed between and directly connected to the undulating helical turn of the circumferential members; the undulating helical element having a plurality of helical turns (121, 122); and the undulating helical element defining an open cell structure comprising a plurality of open cells; wherein, in the deployed configuration, the plurality of helical turns (121, 122) of the undulating helical element and the undulating helical turn of circumferential members have a uniform apex geometry throughout the body of the stent, wherein the apex geometry is defined by an apex radius, width and thickness and an angle of the struts forming a said apex.