mhurhangee/ep-ind-claims huggingface dataset:
An oximeter device comprising: a housing (103, 705); and a probe tip, housed by the housing distal to a proximal end of the housing (103, 705) at a distal end of the housing (103, 705) and visible from the exterior of the housing (103, 705) at the distal end of the housing (103, 705), wherein the probe tip is coupled to a processor, the probe tip comprises a first printed circuit board, PCB,, a second PCB, and a first optical fiber for emitting light into patient tissue coupled to the first and second PCBs, the first PCB is positioned closer to the proximal end of the housing (103, 705) than the second PCB, the second PCB is positioned closer to the distal end of the housing (103, 705) than the first PCB, a first surface of the first PCB faces the distal end of the housing (103, 705), a second surface of the second PCB faces the proximal end of the housing (103, 705), characterised in that: an angle between the first and second surfaces is nonzero and less than ninety degrees, a first end portion of the first optical fiber located at the first PCB is approximately transverse to the first surface of the first PCB, a second end portion of the first optical fiber located at the second PCB is approximately transverse to the second surface of the second PCB, and a portion of the first optical fiber between the first and second end portions of the first optical fiber is curved. a housing (103, 705); and a probe tip, housed by the housing distal to a proximal end of the housing (103, 705) at a distal end of the housing (103, 705) and visible from the exterior of the housing (103, 705) at the distal end of the housing (103, 705), wherein the probe tip is coupled to a processor, the probe tip comprises a first printed circuit board, PCB,, a second PCB, and a first optical fiber for emitting light into patient tissue coupled to the first and second PCBs, the first PCB is positioned closer to the proximal end of the housing (103, 705) than the second PCB, the second PCB is positioned closer to the distal end of the housing (103, 705) than the first PCB, a first surface of the first PCB faces the distal end of the housing (103, 705), a second surface of the second PCB faces the proximal end of the housing (103, 705), characterised in that: an angle between the first and second surfaces is nonzero and less than ninety degrees, a first end portion of the first optical fiber located at the first PCB is approximately transverse to the first surface of the first PCB, a second end portion of the first optical fiber located at the second PCB is approximately transverse to the second surface of the second PCB, and a portion of the first optical fiber between the first and second end portions of the first optical fiber is curved.
Process for bonding a textile rigidity support to a rubber component by use of an adhesive composition, the adhesive composition containing at least one latex, at least one epoxide, at least one isocyanate and at least one maleated polybutadiene (MAPBD), wherein the at least one epoxide is at least bifunctional and the at least one isocyanate is at least bifunctional, characterised in that the textile rigidity support is wetted with the adhesive composition by a dip in a one-step process.
An apparatus for estimating error in an electric motor position sensor, the apparatus including a computer processor coupled to a computer readable storage medium, the computer readable storage medium including computer program instructions that when executed by the computer processor cause the apparatus to carry out the operations of: receiving, by an electronic control unit, i.e. ECU, for an electric motor during a first state of operation of the electric motor, a first plurality of time samples of a first output signal from a position sensor, the first output signal indicative of a rotational position of the electric motor during the first state; determining, by the ECU, an estimated error offset for the first plurality of time samples; storing the estimated error offset in a memory associated with the ECU; receiving, by the ECU during a second state of operation of the electric motor, a second plurality of time samples of a second output signal from the position sensor, the second output signal indicative of a rotational position of the electric motor during the second state; wherein the second state of operation is different from the first state of operation; determining, by the ECU, an estimated error for the second plurality of time samples; determining, by the ECU, whether a difference between the estimated error and the stored estimated error offset is greater than a predetermined threshold value. receiving, by an electronic control unit, i.e. ECU, for an electric motor during a first state of operation of the electric motor, a first plurality of time samples of a first output signal from a position sensor, the first output signal indicative of a rotational position of the electric motor during the first state; determining, by the ECU, an estimated error offset for the first plurality of time samples; storing the estimated error offset in a memory associated with the ECU; receiving, by the ECU during a second state of operation of the electric motor, a second plurality of time samples of a second output signal from the position sensor, the second output signal indicative of a rotational position of the electric motor during the second state; wherein the second state of operation is different from the first state of operation; determining, by the ECU, an estimated error for the second plurality of time samples; determining, by the ECU, whether a difference between the estimated error and the stored estimated error offset is greater than a predetermined threshold value.
A high-frequency heating device (1a; 1b; 1c; 1d) comprising: a generation unit configured to generate microwaves; a surface wave exciter including a periodic structure and configured to heat a heating subject by propagating the microwaves in a surface wave mode; a first connecting unit which is disposed at one end portion of the surface wave exciter and through which the microwaves generated by the generation unit are supplied to the surface wave exciter; and a reuse unit configured to reuse, for heating the heating subject, the microwaves in the surface wave mode that have reached an other end portion of the surface wave exciter, the other end portion being located in a propagation direction of the microwaves from the one end portion of the surface wave exciter, characterized in that the reuse unit includes a matching unit disposed at the other end portion of the surface wave exciter and configured to carry out, by impedance matching, mode conversion of the microwaves in the surface wave mode that have reached the other end portion. a generation unit configured to generate microwaves; a surface wave exciter including a periodic structure and configured to heat a heating subject by propagating the microwaves in a surface wave mode; a first connecting unit which is disposed at one end portion of the surface wave exciter and through which the microwaves generated by the generation unit are supplied to the surface wave exciter; and a reuse unit configured to reuse, for heating the heating subject, the microwaves in the surface wave mode that have reached an other end portion of the surface wave exciter, the other end portion being located in a propagation direction of the microwaves from the one end portion of the surface wave exciter, characterized in that the reuse unit includes a matching unit disposed at the other end portion of the surface wave exciter and configured to carry out, by impedance matching, mode conversion of the microwaves in the surface wave mode that have reached the other end portion.
Supporting structure of fire protection design, in particular a post-and-beam structure, having at least one post, to which at least one beam is fixed, an insert and a fire protection panel (11, 12), the at least one post being held on a ceiling of a building via a support and the insert being inserted in a hollow chamber of the post, characterized in that the fire protection panel (11, 12) is fixed to the insert via fastening means (10, 13, 14, 15) comprising an agraffe holder, which fastening means engage through an opening in the wall of the post.
Synthetic turf coating comprising, superposed one on top of the other in the thickness direction of said coating: - a support ply comprising: - a bottom sheet that is permeable to rainwater, intended, in a service position, to extend flat on the ground and to form a barrier to plant growth; - a lattice capable of draining rainwater, fixed to said bottom sheet; and - a layer of synthetic turf in contact with said support ply; the coating being characterized in that the bottom sheet is fixed to the lattice by bonding at bonding points spaced apart from one another by at least 1 cm. - a support ply comprising: - a bottom sheet that is permeable to rainwater, intended, in a service position, to extend flat on the ground and to form a barrier to plant growth; - a lattice capable of draining rainwater, fixed to said bottom sheet; and - a bottom sheet that is permeable to rainwater, intended, in a service position, to extend flat on the ground and to form a barrier to plant growth; - a lattice capable of draining rainwater, fixed to said bottom sheet; and - a layer of synthetic turf in contact with said support ply;
A pressure sensor unit to be attached to an air inlet port of an air tool, comprising: a unit main body including an induction pipe inserting portion configured to receive an air induction pipe projecting from the air tool, the unit main body configured to be detachably attached to the air tool by inserting the air induction pipe into the induction pipe inserting portion; an air passage (38A, 38B) configured to receive supply of air from the outside and configured to communicate with the induction pipe inserting portion; a pressure sensor configured to measure a pressure inside the air passage (38A, 38B); and characterised by a valve portion configured to shut off an air supply from the air passage (38A, 38B) through the induction pipe insertion portion when the air induction pipe is not inserted in the induction pipe inserting portion, and configured to open the air supply from the air passage (38A, 38) into the air induction pipe by the valve portion being pushed by the air induction pipe when the air induction pipe is inserted into the induction pipe inserting portion. a unit main body including an induction pipe inserting portion configured to receive an air induction pipe projecting from the air tool, the unit main body configured to be detachably attached to the air tool by inserting the air induction pipe into the induction pipe inserting portion; an air passage (38A, 38B) configured to receive supply of air from the outside and configured to communicate with the induction pipe inserting portion; a pressure sensor configured to measure a pressure inside the air passage (38A, 38B); and characterised by a valve portion configured to shut off an air supply from the air passage (38A, 38B) through the induction pipe insertion portion when the air induction pipe is not inserted in the induction pipe inserting portion, and configured to open the air supply from the air passage (38A, 38) into the air induction pipe by the valve portion being pushed by the air induction pipe when the air induction pipe is inserted into the induction pipe inserting portion.
A vehicle body structure for an aircraft or spacecraft, especially an airframe, fuselage or box structure, the body structure comprising: a composite panel member for an airframe of an aircraft or spacecraft, the composite panel member having a laminated or sandwich structure comprising: a first outer layer extending over a first side of the panel member; a second outer layer extending over a second side of the panel member; a core layer of a synthetic material between the first and second outer layers (4, 6); and at least one support element configured as an electrical conductor and provided in the core layer between the first and second outer layers (4, 6); wherein the at least one support element extends within the core layer substantially parallel to the first and second outer layers (4, 6), wherein the at least one support element is fully embedded within the core layer of the laminated or sandwich structure, the at least one support element being in contact with and/or connected to either or both of the first and second outer layers (4, 6), wherein either or both of the first and second outer layers (4, 6) includes an electrically conductive sheet or foil which is substantially coextensive therewith; and an elongate structural member which is attached to the panel member at the second side thereof, the elongate structural member being substantially aligned and/or connected with the at least one support element; wherein the at least one support element is configured and arranged to form an electrical conductor between the first side of the panel member and the elongate structural element at the second side of the panel member. a first outer layer extending over a first side of the panel member; a second outer layer extending over a second side of the panel member; a core layer of a synthetic material between the first and second outer layers (4, 6); and at least one support element configured as an electrical conductor and provided in the core layer between the first and second outer layers (4, 6); wherein the at least one support element extends within the core layer substantially parallel to the first and second outer layers (4, 6), wherein the at least one support element is fully embedded within the core layer of the laminated or sandwich structure, the at least one support element being in contact with and/or connected to either or both of the first and second outer layers (4, 6), wherein either or both of the first and second outer layers (4, 6) includes an electrically conductive sheet or foil which is substantially coextensive therewith; and an elongate structural member which is attached to the panel member at the second side thereof, the elongate structural member being substantially aligned and/or connected with the at least one support element; wherein the at least one support element is configured and arranged to form an electrical conductor between the first side of the panel member and the elongate structural element at the second side of the panel member.
Method for operating a network arrangement having network devices coupled to a communication network, comprising: providing network devices each having a first control device and a first switch device associated with the first control device and a second control device and a second switch device associated with the second control device, the switch devices (4, 5) each having a transmitting and receiving port (9, 10, 13, 14) for transmitting and receiving data via the communication network, a first internal transmitting and receiving port (15, 16, 17, 18) for transmitting and receiving data between the switch devices (4, 5) and a second internal transmitting and receiving port (7, 8, 11, 12) for transmitting and receiving data to/from the control device (2, 3); and prioritizing data interchange by the first and second internal receiving ports (8, 11, 15, 17) with respect to data interchange by the receiving ports (10, 14) for transmitting and receiving data via the communication network. providing network devices each having a first control device and a first switch device associated with the first control device and a second control device and a second switch device associated with the second control device, the switch devices (4, 5) each having a transmitting and receiving port (9, 10, 13, 14) for transmitting and receiving data via the communication network, a first internal transmitting and receiving port (15, 16, 17, 18) for transmitting and receiving data between the switch devices (4, 5) and a second internal transmitting and receiving port (7, 8, 11, 12) for transmitting and receiving data to/from the control device (2, 3); and prioritizing data interchange by the first and second internal receiving ports (8, 11, 15, 17) with respect to data interchange by the receiving ports (10, 14) for transmitting and receiving data via the communication network.
A fixing member for an implantable analyte sensor, wherein, the fixing member comprises a supporting portion, a receiving portion, a conductive path and a through hole; the supporting portion comprises supporting portion side walls, a supporting portion top and a supporting portion bottom; the receiving portion is located in the supporting portion side walls in a recessed manner, and the receiving portion comprises receiving portion side walls, a receiving portion inner wall, a receiving portion bottom and a receiving portion top; the conductive path comprises an input end and an output end, the input end is located on the receiving portion inner wall, and the output end is located on a surface of the supporting portion; the input end and the output end are electrically connected by a connecting portion; and an opening of the through hole is located at the receiving portion bottom, and the other opening is located at the supporting portion bottom. the fixing member comprises a supporting portion, a receiving portion, a conductive path and a through hole; the supporting portion comprises supporting portion side walls, a supporting portion top and a supporting portion bottom; the receiving portion is located in the supporting portion side walls in a recessed manner, and the receiving portion comprises receiving portion side walls, a receiving portion inner wall, a receiving portion bottom and a receiving portion top; the conductive path comprises an input end and an output end, the input end is located on the receiving portion inner wall, and the output end is located on a surface of the supporting portion; the input end and the output end are electrically connected by a connecting portion; and an opening of the through hole is located at the receiving portion bottom, and the other opening is located at the supporting portion bottom.
Apparatus for computing plural-network coverage data for connecting a mobile communication device to a communication network from among a plurality of communication networks serving an area, characterized in that the plurality of communication networks include communication networks of the same standard operated by a plurality of network operators, and the apparatus comprises: at least one input interface configured for acquiring current network-specific coverage data respectively from the plurality of communication networks; and circuitry configured for combining the acquired current network-specific coverage data from the plurality of communication networks and for determining, based on the combination, plural-network coverage data indicating current network connectivity at a location in the area. at least one input interface configured for acquiring current network-specific coverage data respectively from the plurality of communication networks; and circuitry configured for combining the acquired current network-specific coverage data from the plurality of communication networks and for determining, based on the combination, plural-network coverage data indicating current network connectivity at a location in the area.
Device for connecting a consumer to a packet-based power supply network comprising a network-side connection, a consumer-side connection and an energy store, characterized in that the energy store is connected between the network-side connection and the consumer-side connection in such a way that the power flows via the two connections (2, 3) are decoupled from one another, wherein the power inflow from the network-side connection to the energy store and power outflow from the energy store to the consumer-side connection can be controlled by a control device which has a network-side network interface for data connection to the power supply network and a consumer-side network interface, wherein the power outflow from the energy store to the consumer-side connection can be monitored and controlled exclusively via the consumer-side network interface.
A polyethylene terephthalate beverage container (100, 200, 300) comprising: a body structure having a top end (102, 302) that defines an opening, a sealed base end, and a sidewall structure (108, 208, 308) extending between the top and base ends, wherein the sidewall structure has an interior surface and an exterior surface (112, 212, 312), the interior surface defining an interior space; and a protective coating (116, 216, 316) on at least a portion of the exterior surface of the sidewall structure, the protective coating comprising diamond-like carbon having a thickness from about 0.01 μm to about 0.05 μm; characterised in that the protective coating is applied via a high-energy deposition process utilizing an energy value of 25 eV or greater, and in that one or more other coatings are disposed between the protective coating and the body structure, wherein the one or more other coatings comprise SnO 2 hot end coating and/or stearate cold end coating. a body structure having a top end (102, 302) that defines an opening, a sealed base end, and a sidewall structure (108, 208, 308) extending between the top and base ends, wherein the sidewall structure has an interior surface and an exterior surface (112, 212, 312), the interior surface defining an interior space; and a protective coating (116, 216, 316) on at least a portion of the exterior surface of the sidewall structure, the protective coating comprising diamond-like carbon having a thickness from about 0.01 μm to about 0.05 μm; characterised in that the protective coating is applied via a high-energy deposition process utilizing an energy value of 25 eV or greater, and in that one or more other coatings are disposed between the protective coating and the body structure, wherein the one or more other coatings comprise SnO 2 hot end coating and/or stearate cold end coating.
Method for removing particles from exhaust gas from an internal combustion engine, in which method an exhaust gas flow from an internal combustion engine is led to exhaust gas particle cleaning device, providing water supersaturation in the exhaust gas particle cleaning device, the exhaust gas flow is introduced into the exhaust gas particle cleaning device provided with a higher temperature section and a lower temperature section causing particle growth at the lower temperature section, characterised in that grown particles are removed from the exhaust gas flow in a centrifugal mist separator, and in that residence time of the exhaust gas in the exhaust gas particle cleaning device is adjusted by controlling the speed of a motor of the centrifugal mist separator.
A device comprising a switching power supply configured to have a first operating mode synchronized by a first clock signal having a duty cycle substantially equal to 50 % and being generated by a first clock signal generating circuit and a second Pulse Skipping asynchronous operating mode, wherein the first clock signal generating circuit is configured such that the first clock signal becomes equal, during transition from the second operating mode to the first operating mode, to the signal having the closest rising edge of a second clock signal and a third clock signal (/CLK1) complementary to the second clock signal.