mhurhangee/patent-ind-claim-en huggingface dataset:
A system , comprising: an expandable distal-end assembly coupled to a distal end of a shaft for insertion into a cavity of an organ of a patient, the expandable distal-end assembly comprising one or more electrodes ; and a processor , which is configured to: receive location signals from each of a distal and proximal location of the distal-end assembly; receive location signals indicative of a relative orientational angle from one or more sensors that are located at the distal-end assembly and configured to output signals indicative of the change in the relative orientation; estimate angular position in the azimuthal plane of each of a plurality of splines extending from the proximal to distal end of the distal-end assembly ; and estimate respective locations of one or more of the electrodes in three dimensional space based on the estimated angular position of each of the splines . an expandable distal-end assembly coupled to a distal end of a shaft for insertion into a cavity of an organ of a patient, the expandable distal-end assembly comprising one or more electrodes ; and a processor , which is configured to: receive location signals from each of a distal and proximal location of the distal-end assembly; receive location signals indicative of a relative orientational angle from one or more sensors that are located at the distal-end assembly and configured to output signals indicative of the change in the relative orientation; estimate angular position in the azimuthal plane of each of a plurality of splines extending from the proximal to distal end of the distal-end assembly ; and estimate respective locations of one or more of the electrodes in three dimensional space based on the estimated angular position of each of the splines . receive location signals from each of a distal and proximal location of the distal-end assembly; receive location signals indicative of a relative orientational angle from one or more sensors that are located at the distal-end assembly and configured to output signals indicative of the change in the relative orientation; estimate angular position in the azimuthal plane of each of a plurality of splines extending from the proximal to distal end of the distal-end assembly ; and estimate respective locations of one or more of the electrodes in three dimensional space based on the estimated angular position of each of the splines .
A pair of sliding components formed in an annular shape and disposed at a relatively rotating position of a rotary machine, wherein an outer radial side of the sliding component constituting the mechanical seal is described as an atmosphere side which is a leakage side and an inner radial side thereof is described as a sealed liquid side, the pair of sliding components is constituted by a first sliding component and a second sliding component , a sliding surface of the first sliding component is provided with a plurality of dynamic pressure generation mechanisms each of which includes at least a shallow groove communicating with a leakage side , a sliding surface of the second sliding component being provided with deep grooves each of which has a dimension deeper than that of the shallow groove of each of the dynamic pressure generation mechanisms and communicating with a leakage side , characterized in that each of the deep grooves overlaps with an entire area of each of the dynamic pressure generation mechanisms during relative rotation of the first and second sliding components . wherein an outer radial side of the sliding component constituting the mechanical seal is described as an atmosphere side which is a leakage side and an inner radial side thereof is described as a sealed liquid side, the pair of sliding components is constituted by a first sliding component and a second sliding component , a sliding surface of the first sliding component is provided with a plurality of dynamic pressure generation mechanisms each of which includes at least a shallow groove communicating with a leakage side , a sliding surface of the second sliding component being provided with deep grooves each of which has a dimension deeper than that of the shallow groove of each of the dynamic pressure generation mechanisms and communicating with a leakage side , characterized in that each of the deep grooves overlaps with an entire area of each of the dynamic pressure generation mechanisms during relative rotation of the first and second sliding components .
A magnetic flowmeter for measuring flow rate of a process fluid, comprising: two magnetic coils arranged to apply a magnetic field to the process fluid; a pair of electrodes electronically coupled to the process fluid and arranged to sense a voltage induced in the process fluid related to the applied magnetic field and the flow rate of the process fluid; a molded flow tube of a non-conductive material arranged to receive a flow of the process fluid therethrough, the molded flow tube molded around the magnetic coils and the pair of electrodes and configured to support the magnetic coils and the pair of electrodes ; and flowmeter circuitry configured to apply a current to the magnetic coils and receive the voltage sensed by the pair of electrodes ; wherein the flowmeter circuitry is further configured to detect a presence of magnetic material proximate the molded flow tube by measuring the inductance or hysteresis of a magnetic circuit made with the magnetic coils, wherein the magnetic flowmeter is further configured to calibrate the flowmeter for the magnetic material proximate the molded flow tube on the basis of the measured inductance or hysteresis. two magnetic coils arranged to apply a magnetic field to the process fluid; a pair of electrodes electronically coupled to the process fluid and arranged to sense a voltage induced in the process fluid related to the applied magnetic field and the flow rate of the process fluid; a molded flow tube of a non-conductive material arranged to receive a flow of the process fluid therethrough, the molded flow tube molded around the magnetic coils and the pair of electrodes and configured to support the magnetic coils and the pair of electrodes ; and flowmeter circuitry configured to apply a current to the magnetic coils and receive the voltage sensed by the pair of electrodes ; wherein the flowmeter circuitry is further configured to detect a presence of magnetic material proximate the molded flow tube by measuring the inductance or hysteresis of a magnetic circuit made with the magnetic coils, wherein the magnetic flowmeter is further configured to calibrate the flowmeter for the magnetic material proximate the molded flow tube on the basis of the measured inductance or hysteresis.
Method for profiling a turbine rotor blade for an axial flow machine with the steps of: - providing a geometrical model of a blade profile, which has a mean camber line of a profile section of the turbine rotor blade ; - determining boundary conditions for a flow flowing around the turbine rotor blade ; - changing the mean camber line in such a way that the flow that is established by the boundary conditions produces the maximum of the difference of the isentropic Mach number (22 to 25) between the pressure side and the suction side of the turbine rotor blade in a blade portion that extends from the blade trailing edge in the direction of the blade leading edge and the length of which is 65% of the length S of the blade chord, the mean camber line being formed by a first fourth-degree polynomial , which describes the mean camber line from the blade leading edge to an extreme point , and a second fourth-degree polynomial , which describes the mean camber line from the extreme point to the blade trailing edge , the extreme point being the point of the mean camber line that is at the maximum distance from the blade chord . - providing a geometrical model of a blade profile, which has a mean camber line of a profile section of the turbine rotor blade ; - determining boundary conditions for a flow flowing around the turbine rotor blade ; - changing the mean camber line in such a way that the flow that is established by the boundary conditions produces the maximum of the difference of the isentropic Mach number (22 to 25) between the pressure side and the suction side of the turbine rotor blade in a blade portion that extends from the blade trailing edge in the direction of the blade leading edge and the length of which is 65% of the length S of the blade chord, the mean camber line being formed by a first fourth-degree polynomial , which describes the mean camber line from the blade leading edge to an extreme point , and a second fourth-degree polynomial , which describes the mean camber line from the extreme point to the blade trailing edge , the extreme point being the point of the mean camber line that is at the maximum distance from the blade chord .
A method in a first network node for enabling soft combination in a wireless communication device , wherein the wireless communication device is connected to a plurality of network nodes including the first network node , the method comprising: transmitting a data packet to the wireless communication device ; generating assistance information indicating to the wireless communication device when to search for the same data packet from one or more second network nodes of the plurality of network nodes for soft combination, wherein when the first network node and the second network node transmit the same data packet to the wireless communication device in an asynchronous manner, the assistance information includes information regarding a search window within which the wireless communication device searches for the same data packet from the second network node , and wherein the information regarding the search window is used by the wireless communication device to derive the search window; and transmitting the assistance information to the wireless communication device , wherein the search window is indicated by [(x-y 1 ) ms, (x+y 2 ) ms], x ms representing a timing delay of the second network node relative to the first network node , y 1 ms representing a first scheduling window within which the first network node schedules the data packet and y 2 ms representing a second scheduling window within which the second network node schedules the same data packet, wherein y 1 and y 2 can be the same or different. transmitting a data packet to the wireless communication device ; generating assistance information indicating to the wireless communication device when to search for the same data packet from one or more second network nodes of the plurality of network nodes for soft combination, wherein when the first network node and the second network node transmit the same data packet to the wireless communication device in an asynchronous manner, the assistance information includes information regarding a search window within which the wireless communication device searches for the same data packet from the second network node , and wherein the information regarding the search window is used by the wireless communication device to derive the search window; and transmitting the assistance information to the wireless communication device , wherein the search window is indicated by [(x-y 1 ) ms, (x+y 2 ) ms], x ms representing a timing delay of the second network node relative to the first network node , y 1 ms representing a first scheduling window within which the first network node schedules the data packet and y 2 ms representing a second scheduling window within which the second network node schedules the same data packet, wherein y 1 and y 2 can be the same or different.
A random number generator , comprising: a counting value generator for generating a first random number (D1); an address generator for generating an address signal (A); a static entropy source connected with the address generator to receive the address signal (A) and generate a second random number (D2); and a processing circuit connected with the static entropy source and the counting value generator to receive the first random number (D1) and the second random number (D2), wherein after the first random number (D1) and the second random number (D2) are processed by the processing circuit , the processing circuit generates an output random number (Dout). a counting value generator for generating a first random number (D1); an address generator for generating an address signal (A); a static entropy source connected with the address generator to receive the address signal (A) and generate a second random number (D2); and a processing circuit connected with the static entropy source and the counting value generator to receive the first random number (D1) and the second random number (D2), wherein after the first random number (D1) and the second random number (D2) are processed by the processing circuit , the processing circuit generates an output random number (Dout).
A polymer for enhancing drug performance and improving processability comprising hydroxypropyl methyl cellulose acetate succinate (HPMC-AS), wherein a percentage of a total degree of substitution (DS) of succinoyl is - less than 12% at a C6-OH position (%C 6 DS Suc < 12%), and - greater than 53% at a C3-OH position (%C 3 DS Suc > 53%); and a percentage of a total DS of acetyl is greater than 32% at a C6-OH position (%C 6 DS Ac > 32%). a percentage of a total degree of substitution (DS) of succinoyl is - less than 12% at a C6-OH position (%C 6 DS Suc < 12%), and - greater than 53% at a C3-OH position (%C 3 DS Suc > 53%); and - less than 12% at a C6-OH position (%C 6 DS Suc < 12%), and - greater than 53% at a C3-OH position (%C 3 DS Suc > 53%); and a percentage of a total DS of acetyl is greater than 32% at a C6-OH position (%C 6 DS Ac > 32%).
A cathode active material for lithium secondary battery, which is a cathode active material having a layered structure of a rhombohedral crystal structure of an R3m structure containing a transition metal and is secondary particles formed by aggregation of primary particles, wherein: an aspect ratio of the primary particles is more than 1; an a-axis direction that is a lithium ion diffusion path in the primary particles is formed in a direction towards the longitudinal axis of the primary particles; an a-axis direction that is a lithium ion diffusion path in the primary particles is a direction towards the center of the secondary particles; and the secondary particles are represented by the following Formula 1 and a concentration of transition metal is constant in the entire particles, <Formula 1> Li x Ni 1-a-b-c Co a Mn b Me c O 2 wherein in Formula 1, 0.9≤x≤1.15, 0<a≤0.5, 0≤b≤0.65, 0≤c≤0.15 and Me is at least one or more elements selected from the group consisting of Al, Mg, B, P, Ti, Si, Zr, Ba and any combination thereof. an aspect ratio of the primary particles is more than 1; an a-axis direction that is a lithium ion diffusion path in the primary particles is formed in a direction towards the longitudinal axis of the primary particles; an a-axis direction that is a lithium ion diffusion path in the primary particles is a direction towards the center of the secondary particles; and the secondary particles are represented by the following Formula 1 and a concentration of transition metal is constant in the entire particles, <Formula 1> Li x Ni 1-a-b-c Co a Mn b Me c O 2 wherein in Formula 1, 0.9≤x≤1.15, 0<a≤0.5, 0≤b≤0.65, 0≤c≤0.15 and Me is at least one or more elements selected from the group consisting of Al, Mg, B, P, Ti, Si, Zr, Ba and any combination thereof.
A torque transmission device mountable on a truck with demountable or interchangeable body , said device comprising torque transmission means aboard the truck and torque reception means aboard the body, said torque reception and transmission means each comprising a coupling member to transmit a rotary motion from the truck to the body, said transmission means and said reception means each comprising supporting means for the coupling member , said supporting means for the coupling member of said reception means being provided with at least one bearing and with an annular supporting bracket , whereby said supporting means for the coupling member of said transmission means are provided with at least one bearing and said reception means comprise at least one bearings arranged inside the annular supporting bracket , characterized in that said coupling member of the reception means comprises a longitudinally grooved shaft adapted to be coupled to another member configured to transmit the rotary motion to the user of the body, said another member having a tubular grooved cavity configured to be coupled to the shaft , said at least one bearing being arranged about a sleeve , slidingly fitted in turn on the outer part of a grooved tubular cavity
A mould for moulding at least portion of a curved part , the part having a first part surface and a second part surface separated by a thickness, the mould comprising: • a shell comprising: ∘ a first portion comprising a first moulding surface for moulding the first part surface , and a first outer surface opposite the first moulding surface , ∘ a second portion comprising a second moulding surface for moulding the second part surface , and a second outer surface opposite the second moulding surface , at least one of the first and second outer surfaces being non-planar; • a bearing system comprising: ∘ a first bearing device mechanically coupled to the first portion and configured to press on the first portion along a first direction , and ∘ a second bearing device mechanically coupled to the second portion and configured to press on the second portion along the first direction ; the mould being configured to allow sliding in at least one direction perpendicular to the first direction between the first portion of the shell and the first bearing device , and between the second portion of the shell and the second bearing device . • a shell comprising: ∘ a first portion comprising a first moulding surface for moulding the first part surface , and a first outer surface opposite the first moulding surface , ∘ a second portion comprising a second moulding surface for moulding the second part surface , and a second outer surface opposite the second moulding surface , at least one of the first and second outer surfaces being non-planar; ∘ a first portion comprising a first moulding surface for moulding the first part surface , and a first outer surface opposite the first moulding surface , ∘ a second portion comprising a second moulding surface for moulding the second part surface , and a second outer surface opposite the second moulding surface , at least one of the first and second outer surfaces being non-planar; • a bearing system comprising: ∘ a first bearing device mechanically coupled to the first portion and configured to press on the first portion along a first direction , and ∘ a second bearing device mechanically coupled to the second portion and configured to press on the second portion along the first direction ; ∘ a first bearing device mechanically coupled to the first portion and configured to press on the first portion along a first direction , and ∘ a second bearing device mechanically coupled to the second portion and configured to press on the second portion along the first direction ;
A fixture for supporting an object on a build platform of an additive manufacturing (AM) system, the fixture being suitable to support an object , which is to be additively manufactured thereon, during its building process and comprising: a body having a hollow portion therein, an upper surface shaped to support the object to be additively manufactured thereon by the AM system and a lower portion configured to be supported on the build platform of the AM system; wherein the hollow portion includes a plurality of vanes that define passages extending entirely through the body from the lower portion to the upper surface of the body and provide line of sight and access from the lower portion to a lowermost portion of an object allowing a post-manufacturing process through the hollow portion of the body , when the object is supported on the upper surface of the body ; wherein the fixture is additively manufactured and an object is additively manufactured so as to lay upon the upper surface and adhere to the fixture , the fixture and the object obtained by an additive metal powder melting process; wherein the upper surface includes a sacrificial cutting layer at an uppermost extent thereof and interposed between the fixture and the object , the sacrificial cutting layer having a thickness configured for cutting by a cutting tool to remove the fixture from the object , the sacrificial cutting layer formed by an additive metal powder melting process using adjusted AM system parameters so as to have a lower density than the additively manufactured object . a body having a hollow portion therein, an upper surface shaped to support the object to be additively manufactured thereon by the AM system and a lower portion configured to be supported on the build platform of the AM system; wherein the hollow portion includes a plurality of vanes that define passages extending entirely through the body from the lower portion to the upper surface of the body and provide line of sight and access from the lower portion to a lowermost portion of an object allowing a post-manufacturing process through the hollow portion of the body , when the object is supported on the upper surface of the body ; wherein the fixture is additively manufactured and an object is additively manufactured so as to lay upon the upper surface and adhere to the fixture , the fixture and the object obtained by an additive metal powder melting process; wherein the upper surface includes a sacrificial cutting layer at an uppermost extent thereof and interposed between the fixture and the object , the sacrificial cutting layer having a thickness configured for cutting by a cutting tool to remove the fixture from the object , the sacrificial cutting layer formed by an additive metal powder melting process using adjusted AM system parameters so as to have a lower density than the additively manufactured object .
A multi-modality medical imaging system comprising: a first module having a first catcher detector , a position for a first scatter detector spaced from the catcher detector , and a position for a first physical aperture between a patient space and the first catcher detector ; and an image processor configured to determine angles of incidence for Compton events where the first scatter detector is included in the first module and to count photoelectric events where the first physical aperture is included in the first module ; wherein the first physical aperture is at the position of the first physical aperture and the first physical aperture comprises a coded aperture of lead or tungsten, wherein the coded aperture comprises a time-encoded aperture rotatable about an axis and/or translatable in a plane perpendicular to the axis to cast shadows with different positions on the first catcher detector . a first module having a first catcher detector , a position for a first scatter detector spaced from the catcher detector , and a position for a first physical aperture between a patient space and the first catcher detector ; and an image processor configured to determine angles of incidence for Compton events where the first scatter detector is included in the first module and to count photoelectric events where the first physical aperture is included in the first module ; wherein the first physical aperture is at the position of the first physical aperture and the first physical aperture comprises a coded aperture of lead or tungsten, wherein the coded aperture comprises a time-encoded aperture rotatable about an axis and/or translatable in a plane perpendicular to the axis to cast shadows with different positions on the first catcher detector .