mhurhangee/ep-ind-claims huggingface dataset:
A fixture (2, 102) and an axially asymmetrical dental component (4, 104), such as an abutment, an abutment replica, a healing cap or an impression pick-up element, to be installed in the fixture which is to be installed in a jawbone of a patient, said fixture being provided with a first thread having a first thread start, wherein the first thread start has a known rotational position in relation to a distinguishable fixture index, the dental component being provided at an apical end with a second thread with a second thread start having a rotational position which is known in relation to the asymmetrical shape of the dental component, for engagement with the first thread, the position of the second thread start being adapted to the position of the first thread start such that prior to installation of the dental component in the fixture the rotational orientation between the asymmetrical shape of the dental component and the fixture index after final installation is known, wherein said fixture has a geometrical fixture axis, wherein said dental component has a geometrical component axis coinciding with said fixture axis and said dental component has an outer surface, and wherein, said asymmetrical shape of the dental component is such that, measured from inside the component at a point on said component axis, a radial distance in a first direction from said point to said outer surface is different from a radial distance in a second direction from said point to said outer surface.
A castor for furniture comprising: • a wheel housing, • a hole made in the housing along an axis known as the "rolling" axis, said hole having a cross-section with a determined value and opening out onto the lateral wall of said housing, said rolling axis being substantially perpendicular to at least one portion of this lateral wall, • at least one wheel (30-1, 30-2), • a shaft with a cross-section that is complementary to that of said hole, mounted at least by sliding through said hole, said shaft being designed to have a portion (41-1, 41-2) that protrudes out of the lateral wall of said housing onto which said hole opens out, • means for securing said shaft to said housing, • means for rotationally mounting said wheel (30-1, 30-2) on said protruding shaft portion (41-1, 41-2), these means being made up of a device with two elements (33, 34) joined to each other by rolling means, a first of the two elements being located at the centre of the second element, means for mounting the first element to cooperate with said protruding shaft portion (41-1, 41-2), and means for connecting the second element to said wheel (30-1, 30-2), and • a plug mounted to cooperate with the free end of the protruding shaft portion (41-1, 41-2), characterised in that it further comprises means for fastening said first element directly to said lateral wall portion of the housing, and in that the means for mounting said first element to cooperate with said protruding shaft portion (41-1, 41-2) are made up of means for securing said first element to said protruding shaft portion. • a wheel housing, • a hole made in the housing along an axis known as the "rolling" axis, said hole having a cross-section with a determined value and opening out onto the lateral wall of said housing, said rolling axis being substantially perpendicular to at least one portion of this lateral wall, • at least one wheel (30-1, 30-2), • a shaft with a cross-section that is complementary to that of said hole, mounted at least by sliding through said hole, said shaft being designed to have a portion (41-1, 41-2) that protrudes out of the lateral wall of said housing onto which said hole opens out, • means for securing said shaft to said housing, • means for rotationally mounting said wheel (30-1, 30-2) on said protruding shaft portion (41-1, 41-2), these means being made up of a device with two elements (33, 34) joined to each other by rolling means, a first of the two elements being located at the centre of the second element, means for mounting the first element to cooperate with said protruding shaft portion (41-1, 41-2), and means for connecting the second element to said wheel (30-1, 30-2), and • a plug mounted to cooperate with the free end of the protruding shaft portion (41-1, 41-2),
A fuel tank inerting system for an aircraft, the system comprising: a fuel tank; a catalytic heat exchanger comprising a first flow path and a second flow path for heat exchange with the first flow path; a first inlet arranged upstream of the first flow path of the catalytic heat exchanger for providing a mixture of fuel vapour and oxygen to the first flow path for sustaining a catalysed reaction; characterised in that a second inlet is arranged upstream of the second flow path for providing a flow of fuel from the fuel tank to the second flow path of the catalytic heat exchanger for exchanging heat with the first flow path; a transfer pipe is in heat exchange with the fuel tank, wherein the transfer pipe is arranged to receive fuel from the second flow path of the catalytic heat exchanger. a fuel tank; a catalytic heat exchanger comprising a first flow path and a second flow path for heat exchange with the first flow path; a first inlet arranged upstream of the first flow path of the catalytic heat exchanger for providing a mixture of fuel vapour and oxygen to the first flow path for sustaining a catalysed reaction; characterised in that a second inlet is arranged upstream of the second flow path for providing a flow of fuel from the fuel tank to the second flow path of the catalytic heat exchanger for exchanging heat with the first flow path; a transfer pipe is in heat exchange with the fuel tank, wherein the transfer pipe is arranged to receive fuel from the second flow path of the catalytic heat exchanger.
Propulsive assembly of an aircraft comprising a nacelle, a pylon and a connecting fairing having an aerodynamic surface ensuring a continuity between the nacelle and the pylon, the connecting fairing comprising a fixed frame, linked to the nacelle and to the pylon by a link system configured to absorb any deformations and/or misalignments between the nacelle and the pylon in operation, characterized in that the fixed frame has an outer wall comprising an opening, and in that the connecting fairing further comprises - a cover, that is movable between a closed position in which the cover closes the opening and an open position in which the cover at least partially frees the opening, which has a panel, - the outer wall of the fixed frame and the panel of the cover having outer surfaces which form the aerodynamic surface of the connecting fairing. - a cover, that is movable between a closed position in which the cover closes the opening and an open position in which the cover at least partially frees the opening, which has a panel, - the outer wall of the fixed frame and the panel of the cover having outer surfaces which form the aerodynamic surface of the connecting fairing.
A system for detecting tissue in a patient comprising: a surgical instrument configured for selective insertion into a patient, the surgical instrument further comprising a cannula (420, 460) having a tissue cutting opening positioned adjacent to a distal end of the cannula (420, 460); and a sensor configured to detect at least one property of the tissue of said patient, the sensor being positioned on the cannula (420, 460), so as to contact tissue when the surgical instrument is inserted within a patient, wherein the surgical instrument is a tissue resection device including a sampling aperture, and wherein the sensor is located substantially proximal to the sampling aperture. a surgical instrument configured for selective insertion into a patient, the surgical instrument further comprising a cannula (420, 460) having a tissue cutting opening positioned adjacent to a distal end of the cannula (420, 460); and a sensor configured to detect at least one property of the tissue of said patient, the sensor being positioned on the cannula (420, 460), so as to contact tissue when the surgical instrument is inserted within a patient, wherein the surgical instrument is a tissue resection device including a sampling aperture, and wherein the sensor is located substantially proximal to the sampling aperture.
A liquid washing or cleaning agent, comprising a) 5 to 85 wt.%, based on the total washing or cleaning agent, of surfactant selected from the group consisting of non-ionic surfactants, anionic surfactants, cationic surfactants, zwitterionic surfactants and mixtures thereof, b) 0.1 to 10 wt.%, based on the total washing or cleaning agent, of particles, c) 0.1 to 10 wt.%, based on the total washing or cleaning agent, of pyrogenic, hydrophobically surface-modified silicon dioxide, and d) up to 15 wt.%, based on the total washing or cleaning agent, of water, with the proviso that mixtures of anionic and non-ionic surfactants are contained and the total amount of anionic surfactant and non-ionic surfactant is 40 to 75 wt.%, based on the total washing and cleaning agent. a) 5 to 85 wt.%, based on the total washing or cleaning agent, of surfactant selected from the group consisting of non-ionic surfactants, anionic surfactants, cationic surfactants, zwitterionic surfactants and mixtures thereof, b) 0.1 to 10 wt.%, based on the total washing or cleaning agent, of particles, c) 0.1 to 10 wt.%, based on the total washing or cleaning agent, of pyrogenic, hydrophobically surface-modified silicon dioxide, and d) up to 15 wt.%, based on the total washing or cleaning agent, of water, with the proviso that mixtures of anionic and non-ionic surfactants are contained and the total amount of anionic surfactant and non-ionic surfactant is 40 to 75 wt.%, based on the total washing and cleaning agent.
Apparatus for the electrolysis of hydrogen chloride gas or solutions containing hydrogen chloride, in particular for the electrolysis of hydrochloric acid having an HCl concentration in the range from 10 to 25% by weight, having an electrode chamber having a cathode and a further electrode chamber having an anode, with electrode chamber and electrode chamber being separated by an ion-conducting membrane and the electrodes ( 1 and 2) being electrically conductively connected to a power supply, characterized in that the cathode has an electrically conductive core on which a layer at least comprising a proportion of nitrogen-doped carbon nanotubes and at least one perfluorinated polymer, and, if appropriate, a further layer between core and layer has been applied, with the nitrogen-doped carbon nanotubes having functional groups containing nitrogen.
A transmission method performed by a base station simultaneously supporting two types of terminals, the two types of terminals being a first type and a second type, comprising: determining whether or not to use an enhanced-physical downlink control channel, E-PDCCH, based on a number of terminals; if it is determined to use the E-PDCCH: allocating resource blocks, RBs, to at least one data stream transmitted via an enhanced-physical downlink shared channel, E-PDSCH; generating control information for each of the RBs; allocating the control information for each of the RBs to a resource region for the enhanced-physical downlink control channel, E-PDCCH; and performing one of: beamforming of the control information associated with the RBs based on the resource region, spatial-multiplexing of the control information associated with the RBs based on the resource region, and beamforming-based spatial-multiplexing of the control information associated with the RBs based on the resource region; and if it is determined not to use the E-PDCCH: transmitting control information via a physical downlink control channel, PDCCH, wherein terminals of the first type are capable of decoding information transmitted from the base station via the E-PDCCH, and terminals of the second type are not capable of decoding or fail in decoding information transmitted from the base station via the E-PDCCH. allocating resource blocks, RBs, to at least one data stream transmitted via an enhanced-physical downlink shared channel, E-PDSCH; generating control information for each of the RBs; allocating the control information for each of the RBs to a resource region for the enhanced-physical downlink control channel, E-PDCCH; and performing one of: beamforming of the control information associated with the RBs based on the resource region, spatial-multiplexing of the control information associated with the RBs based on the resource region, and beamforming-based spatial-multiplexing of the control information associated with the RBs based on the resource region; and beamforming of the control information associated with the RBs based on the resource region, spatial-multiplexing of the control information associated with the RBs based on the resource region, and beamforming-based spatial-multiplexing of the control information associated with the RBs based on the resource region; and if it is determined not to use the E-PDCCH: transmitting control information via a physical downlink control channel, PDCCH, wherein terminals of the first type are capable of decoding information transmitted from the base station via the E-PDCCH, and terminals of the second type are not capable of decoding or fail in decoding information transmitted from the base station via the E-PDCCH. transmitting control information via a physical downlink control channel, PDCCH, wherein terminals of the first type are capable of decoding information transmitted from the base station via the E-PDCCH, and terminals of the second type are not capable of decoding or fail in decoding information transmitted from the base station via the E-PDCCH.
A mixed signal integrated circuit comprising a digital processor and memory; an analog to digital converter coupled with the digital processor and a temperature measurement circuit comprising: a first operational amplifier having first and second inputs and an output, a third resistor coupled between the output and the second input of the first operational amplifier, a second operational amplifier having first and second inputs and an output, first and second transistors (316, 318) having sources coupled together, gates coupled to an output of the second operational amplifier, and drains coupled to ground via first and second resistors (R1; R2), wherein a first node between the drain of the first transistor and the first resistor is coupled with the second input of the second operational amplifier and a second node between the drain of the second transistor and the second resistor is coupled with the second input of the first operational amplifier; wherein the first input of the second operational amplifier is configured to be coupled with a temperature sensor, and a reference voltage is coupled to the first input of the first operational amplifier; wherein the output of the first operational amplifier provides an output voltage proportional to a temperature measured by the temperature sensor, wherein an input of the analog to digital converter is configured to receive an output voltage of the first operational amplifier, wherein the first, second and third resistors are programmable resistors (810, 812, 814) and controlled by the digital processor. a first operational amplifier having first and second inputs and an output, a third resistor coupled between the output and the second input of the first operational amplifier, a second operational amplifier having first and second inputs and an output, first and second transistors (316, 318) having sources coupled together, gates coupled to an output of the second operational amplifier, and drains coupled to ground via first and second resistors (R1; R2), wherein a first node between the drain of the first transistor and the first resistor is coupled with the second input of the second operational amplifier and a second node between the drain of the second transistor and the second resistor is coupled with the second input of the first operational amplifier; wherein the first input of the second operational amplifier is configured to be coupled with a temperature sensor, and a reference voltage is coupled to the first input of the first operational amplifier; wherein the output of the first operational amplifier provides an output voltage proportional to a temperature measured by the temperature sensor,
An automatic curved plate forming apparatus, comprising: a bed on which a curved plate is loaded; a rail installed in a lengthwise direction on left and right sides of the bed; a carrier movably mounted on the two rails; a guide beam installed across two columns that extend upward from each carrier; a carriage movably connected to the guide beam; a rotation axis base mounted on a side of the carriage; a 6-axis robotic arm including a first arm connected to the rotation axis base rotatably around a first axis; a mount connected to a working terminal of the robotic arm rotatably and pivotably in a vertical direction; and a heating head mounted on a support that extends down from the mount to perform high frequency induction heating, facing the curved plate, characterized in that the first axis is perpendicular to the side of the carriage on which the rotation axis base is mounted, and the first axis extends in a direction parallel to a ground. a bed on which a curved plate is loaded; a rail installed in a lengthwise direction on left and right sides of the bed; a carrier movably mounted on the two rails; a guide beam installed across two columns that extend upward from each carrier; a carriage movably connected to the guide beam; a rotation axis base mounted on a side of the carriage; a 6-axis robotic arm including a first arm connected to the rotation axis base rotatably around a first axis; a mount connected to a working terminal of the robotic arm rotatably and pivotably in a vertical direction; and a heating head mounted on a support that extends down from the mount to perform high frequency induction heating, facing the curved plate, characterized in that the first axis is perpendicular to the side of the carriage on which the rotation axis base is mounted, and the first axis extends in a direction parallel to a ground.
A device for treating painful trigger points with low-level optical radiation, comprising: a carrier; a plurality of fiber optic output tips for delivering optical treatment doses to living tissue, the plurality of fiber optic output tips being affixed to the carrier; wherein the carrier is separated into portions, which are defined at a time of manufacture of the carrier, the portions corresponding to different fiber optic output tips; a photo detector for detecting a level of return light from the tissue; and a microprocessor, which is configured to: perform a detection protocol for detecting a location of a trigger point in the living tissue by identifying an area of tissue corresponding to a return of scattered light back to the photo detector having a power level that is smaller than 9.5% of the power of the incident light beam; and based upon the detection protocol, automatically adjust the treatment doses provided by one or more of the fiber optic output tips to direct therapeutic doses of optical energy into the detected trigger point. a carrier; a plurality of fiber optic output tips for delivering optical treatment doses to living tissue, the plurality of fiber optic output tips being affixed to the carrier; wherein the carrier is separated into portions, which are defined at a time of manufacture of the carrier, the portions corresponding to different fiber optic output tips; a photo detector for detecting a level of return light from the tissue; and a microprocessor, which is configured to: perform a detection protocol for detecting a location of a trigger point in the living tissue by identifying an area of tissue corresponding to a return of scattered light back to the photo detector having a power level that is smaller than 9.5% of the power of the incident light beam; and based upon the detection protocol, automatically adjust the treatment doses provided by one or more of the fiber optic output tips to direct therapeutic doses of optical energy into the detected trigger point. perform a detection protocol for detecting a location of a trigger point in the living tissue by identifying an area of tissue corresponding to a return of scattered light back to the photo detector having a power level that is smaller than 9.5% of the power of the incident light beam; and based upon the detection protocol, automatically adjust the treatment doses provided by one or more of the fiber optic output tips to direct therapeutic doses of optical energy into the detected trigger point.
Polyisocyanurate foam obtainable by reacting a mixture in the presence of a catalyst and optionally an initiator, comprising: A) a polyisocyanate component comprising at least one aliphatic polyisocyanate; B) an isocyanate-reactive component comprising at least one polyol and/or an alcohol and also optionally an amine; C) at least one blowing agent; D) at least one foam stabilizer and E) optionally at least one additive, characterized in that the mixture has an index of at least 500. A) a polyisocyanate component comprising at least one aliphatic polyisocyanate; B) an isocyanate-reactive component comprising at least one polyol and/or an alcohol and also optionally an amine; C) at least one blowing agent; D) at least one foam stabilizer and E) optionally at least one additive, characterized in that the mixture has an index of at least 500. characterized in that the mixture has an index of at least 500.
A method in an user equipment for estimating a primary and a secondary channel, wherein the secondary channel is a subset of the primary channel and wherein the primary and secondary channels belong to respective spectrum resources which are respectively allocated to a primary and a secondary system, the user equipment being comprised in a Radio Network, the method comprising: receiving a primary signal from one or more transmitters, including receiving the primary signal from at least one of said transmitters as a combined wireless communication signal that further includes a secondary signal; and characterised in that the method further comprises: determining an estimation of the primary channel based on pilot resources in the primary signal, as received from the one or more transmitters transmitting the primary signal; determining an estimation of the secondary channel based on pilot resources in the secondary signal, as received from the at least one of said transmitters transmitting the combined wireless communication signal; identifying a portion of the estimation of the primary channel that corresponds with the estimation of the secondary channel, said portion stemming from receipt of the primary signal in the combined signal; and determining an updated estimation of the secondary channel using the identified portion of the estimation of the primary channel. receiving a primary signal from one or more transmitters, including receiving the primary signal from at least one of said transmitters as a combined wireless communication signal that further includes a secondary signal; and determining an estimation of the primary channel based on pilot resources in the primary signal, as received from the one or more transmitters transmitting the primary signal; determining an estimation of the secondary channel based on pilot resources in the secondary signal, as received from the at least one of said transmitters transmitting the combined wireless communication signal; identifying a portion of the estimation of the primary channel that corresponds with the estimation of the secondary channel, said portion stemming from receipt of the primary signal in the combined signal; and determining an updated estimation of the secondary channel using the identified portion of the estimation of the primary channel.