mhurhangee/patent-ind-claim-en huggingface dataset:
A method of preparing a lens blank (BLA) for a further operation of surfacing of said lens blank configured to transform the lens blank into a surfaced lens (SLE) at the end thereof for further transformation into a lens (LEN) having a lens shape and destined to be coupled to a frame, the operation of surfacing including processing the lens blank (BLA) so that the surfaced lens exhibits a crib diameter (D crib ), the method being implemented using a processing module and comprising : - based on input data (ID) which define the lens shape, defining a temporary crib diameter (D temp ) so that said temporary crib diameter satisfies a set of constraints which includes at least: - a first constraint whereby the temporary crib diameter (D temp ) is large enough for the surfaced lens having said temporary crib diameter to be suitable to be processed into said lens (LEN), - a second constraint whereby the temporary crib diameter is large enough for the surfaced lens having said temporary crib diameter to include a plurality of reference points (PREF) defined on the lens blank and which together identify an optical center of the lens, - choosing the crib diameter (D crib ) as a function of the temporary crib diameter (D temp ), said choosing the crib diameter being configured so that, when a step cribbing configuration is destined to be applied to the operation of surfacing, said crib diameter is chosen among at least one predetermined discrete value (Val i ). - based on input data (ID) which define the lens shape, defining a temporary crib diameter (D temp ) so that said temporary crib diameter satisfies a set of constraints which includes at least: - a first constraint whereby the temporary crib diameter (D temp ) is large enough for the surfaced lens having said temporary crib diameter to be suitable to be processed into said lens (LEN), - a second constraint whereby the temporary crib diameter is large enough for the surfaced lens having said temporary crib diameter to include a plurality of reference points (PREF) defined on the lens blank and which together identify an optical center of the lens, - a first constraint whereby the temporary crib diameter (D temp ) is large enough for the surfaced lens having said temporary crib diameter to be suitable to be processed into said lens (LEN), - a second constraint whereby the temporary crib diameter is large enough for the surfaced lens having said temporary crib diameter to include a plurality of reference points (PREF) defined on the lens - choosing the crib diameter (D crib ) as a function of the temporary crib diameter (D temp ), said choosing the crib diameter being configured so that, when a step cribbing configuration is destined to be applied to the operation of surfacing, said crib diameter is chosen among at least one predetermined discrete value (Val i ).
Portable expansion unit , which is configured to control safety-relevant functions of medical devices , having: - a retaining device which is adjustable to the size of a flat, portable operating unit of the medical device , said retaining device being configured to mechanically connect the expansion unit detachably with the portable operating unit , and - a first communication module , which is configured to establish a safety-related data connection with the medical device . - a retaining device which is adjustable to the size of a flat, portable operating unit of the medical device , said retaining device being configured to mechanically connect the expansion unit detachably with the portable operating unit , and - a first communication module , which is configured to establish a safety-related data connection with the medical device .
An apparatus comprising; a pulse monitoring module comprising detecting means for detecting a user's pulse and feedback means for providing haptic feedback to the user indicative of the detected pulse wherein the detecting means and the feedback means share at least one piezoelectric transducer ; and controlling circuitry arranged to control the pulse monitoring module so that during a first time period the at least one piezoelectric transducer is arranged to detect a user's pulse and during a second time period the at least one piezoelectric transducer is arranged to provide haptic feedback indicative of the detected pulse. a pulse monitoring module comprising detecting means for detecting a user's pulse and feedback means for providing haptic feedback to the user indicative of the detected pulse wherein the detecting means and the feedback means share at least one piezoelectric transducer ; and controlling circuitry arranged to control the pulse monitoring module so that during a first time period the at least one piezoelectric transducer is arranged to detect a user's pulse and during a second time period the at least one piezoelectric transducer is arranged to provide haptic feedback indicative of the detected pulse.
A reactor for the continuous hydrothermal carbonization of biomass or biomaterial (HTC process), which is formed in a tubular manner from straight or curved pipe pieces, wherein the pipe pieces are connected to each other by means of right-angled or inclined T-pieces to give such a form that they form a continuous reactor body and at least the majority of the pipe pieces comprises mixing and conveyor devices, characterized in that the reactor comprises, in a partial area of a reactor pipe , - a cylindrical sieve which sits flush with the reactor wall in the partial area of the reactor pipe by means of an annular web on both sides of the sieve and thus forms an interspace between the sieve and the reactor wall in the partial area of the reactor pipe , - a pipeline for withdrawing liquid from the interspace between the sieve and the reactor wall in the partial area of the reactor pipe , and - a pump for supplying the withdrawn liquid, which pump is provided downstream of the sieve in the flow direction of the biomass, wherein the area between the pipeline and the pump is established as a temperature zone, comprising a heat exchanger , that is independent from the other process of the hydrothermal carbonization of biomass or biomaterial (HTC process). - a cylindrical sieve which sits flush with the reactor wall in the partial area of the reactor pipe by means of an annular web on both sides of the sieve and thus forms an interspace between the sieve and the reactor wall in the partial area of the reactor pipe , - a pipeline for withdrawing liquid from the interspace between the sieve and the reactor wall in the partial area of the reactor pipe , and - a pump for supplying the withdrawn liquid, which pump is provided downstream of the sieve in the flow direction of the biomass,
A laminate structure comprising, from the outside to the inside, a paperboard substrate with a weight of 200 to 650 g/m 2 , an oxygen barrier layer, and a polymer layer comprising a blend of 50-89% by weight polyolefin, 10- 50% by weight plastomer and 1 -10% by weight anti-blocking agent. a paperboard substrate with a weight of 200 to 650 g/m 2 , an oxygen barrier layer, and a polymer layer comprising a blend of 50-89% by weight polyolefin, 10- 50% by weight plastomer and 1 -10% by weight anti-blocking agent.
An α-β titanium alloy consisting of, in percent by mass: 0.1 to 2.0% of Cu; 2.0 to 8.5% of Al; 0.08 to 0.25% of C; 2.0 to 7.0% in total of at least one element of 0 to 4.5% of Cr and 0 to 2.5% of Fe, 0.005% or less of P; 0.05% or less of N; 0.05% or less of S; 0.25% or less of O; optionally more than 0% and 10% or less in total of one or more elements selected from the group consisting of more than 0% and 5.0% or less of V; more than 0% and 5.0% or less of Mo; more than 0% and 5.0% or less of Nb; and more than 0% and 5.0% or less of Ta; and optionally more than 0% and 0.8% or less of Si, with the balance being Ti and inevitable impurities. 0.1 to 2.0% of Cu; 2.0 to 8.5% of Al; 0.08 to 0.25% of C; 2.0 to 7.0% in total of at least one element of 0 to 4.5% of Cr and 0 to 2.5% of Fe, 0.005% or less of P; 0.05% or less of N; 0.05% or less of S; 0.25% or less of O; optionally more than 0% and 10% or less in total of one or more elements selected from the group consisting of more than 0% and 5.0% or less of V; more than 0% and 5.0% or less of Mo; more than 0% and 5.0% or less of Nb; and more than 0% and 5.0% or less of Ta; and optionally more than 0% and 0.8% or less of Si, with the balance being Ti and inevitable impurities.
Assembly for the creation of a tread groove surface structure, comprising a laser device comprising a machining head wherein a laser beam output window is formed, wherein the emission modes thereof have been programmed using appropriate software; said assembly being characterized in that in comprises a plurality of adapter elements wherein each thereof comprises an upper surface that is suitable for being connected to said machining head and an alignment portion defined by a rigid structure that is suitable for being inserted, without freedom of transverse movement, within a groove (S) of a pneumatic tyre tread (T), and in that said machining head comprises at least one pair of retractable drive pins arranged on opposite sides in relation to the window and having the function of actuating the emission of the laser itself, and by the fact that upon said upper surface of each of the adapter elements a cavity is formed that is suitable for housing with adherence a respective retractable actuating pin and wherein the height thereof is less than that of the respective retractable actuating pin in an extended position thereof.
A detector assembly for an analyzer device for analysis of elemental composition of a sample using optical emission spectroscopy, the detector assembly comprising an exciter for generating an excitation focused at a target position to invoke an optical emission from a surface of the sample at the target position; and a light collection arrangement comprising a folding mirror including at least one aperture, a concave spherical mirror , and an optical receiver arranged in an image point in the principal axis of the concave spherical mirror at which an image of the optical emission at the target position is formed in a desired size, wherein the exciter is arranged with respect to the light collection arrangement such that the excitation is transferred towards the target position through said at least one aperture, and wherein the folding mirror is arranged between the concave spherical mirror and the optical receiver such that the folding mirror folds the principal axis of the concave spherical mirror towards the target position and such that said at least one aperture is aligned with the principal axis of the concave spherical mirror to allow transferring optical emission reflected from the concave spherical mirror therethrough towards the optical receiver . an exciter for generating an excitation focused at a target position to invoke an optical emission from a surface of the sample at the target position; and a light collection arrangement comprising a folding mirror including at least one aperture, a concave spherical mirror , and an optical receiver arranged in an image point in the principal axis of the concave spherical mirror at which an image of the optical emission at the target position is formed in a desired size, wherein the exciter is arranged with respect to the light collection arrangement such that the excitation is transferred towards the target position through said at least one aperture, and wherein the folding mirror is arranged between the concave spherical mirror and the optical receiver such that the folding mirror folds the principal axis of the concave spherical mirror towards the target position and such that said at least one aperture is aligned with the principal axis of the concave spherical mirror to allow transferring optical emission reflected from the concave spherical mirror therethrough towards the optical receiver .
A hemostatic material composition comprising: a polysaccharide having a reactive group that reacts with a protein to form a crosslinking structure; and a hydrophobic solvent. a polysaccharide having a reactive group that reacts with a protein to form a crosslinking structure; and a hydrophobic solvent.
A composition for use in reconstructing an injured or severed nerve in a mammal, wherein said composition comprises: a decellularized nerve graft of the same species as said mammal, wherein said decellularized nerve graft was prepared by contacting nerve tissue with from 0.01 units/mL to 1 unit/mL of elastase for at least four hours to prepare said decellularized nerve graft, wherein said decellularized nerve graft was not frozen and was stored under cold conditions of from 1.5 °C to 6.5 °C, and wherein said decellularized nerve graft is to be implanted into said mammal to repair said injured or severed nerve, wherein motor function of said nerve is observed after said implanting of said decellularized nerve graft. a decellularized nerve graft of the same species as said mammal, wherein said decellularized nerve graft was prepared by contacting nerve tissue with from 0.01 units/mL to 1 unit/mL of elastase for at least four hours to prepare said decellularized nerve graft, wherein said decellularized nerve graft was not frozen and was stored under cold conditions of from 1.5 °C to 6.5 °C, and wherein said decellularized nerve graft is to be implanted into said mammal to repair said injured or severed nerve, wherein motor function of said nerve is observed after said implanting of said decellularized nerve graft.
A multiway switch , comprising: eight T ports and four P ports; the eight T ports comprising four first T ports and each of the four first T ports being coupled with all of the four P ports; the four first T ports supporting only a transmission function; and the multiway switch being configured to be coupled, through said T ports, with a radio frequency circuit and, through said P ports, with an antenna system of a wireless communication device operable in a dual-frequency dual-transmit mode, to implement a preset function of the wireless communication device , the antenna system comprising four antennas corresponding to the four P 2. ports and each of the four P ports is configured to be coupled with a corresponding antenna of the four antennas; characterized in that the eight T ports further comprise four second T ports; the four second T ports are coupled with the four P ports in one-to-one correspondence; the preset function is a function of transmitting a sounding reference signal, SRS, through the four antennas in turn; and the four second T ports support only a reception function. eight T ports and four P ports; the eight T ports comprising four first T ports and each of the four first T ports being coupled with all of the four P ports; the four first T ports supporting only a transmission function; and the multiway switch being configured to be coupled, through said T ports, with a radio frequency circuit and, through said P ports, with an antenna system of a wireless communication device operable in a dual-frequency dual-transmit mode, to implement a preset function of the wireless communication device , the antenna system comprising four antennas corresponding to the four P 2. ports and each of the four P ports is configured to be coupled with a corresponding antenna of the four antennas; characterized in that the eight T ports further comprise four second T ports; the four second T ports are coupled with the four P ports in one-to-one correspondence; the preset function is a function of transmitting a sounding reference signal, SRS, through the four antennas in turn; and the four second T ports support only a reception function.
A method of drilling a third well with respect to a first offset well and a second offset well , comprising: providing a first casing having a first magnetic signature in the first offset well ; providing a second casing having a second magnetic signature in the second offset well , wherein the second magnetic signature is different from the first magnetic signature; drilling the third well using a drill string that includes a magnetometer , wherein the third well is located between the first offset well and the second offset well , wherein the magnetometer is provided for magnetic ranging of the third well with respect to the first casing and the second casing ; determining, by the magnetometer , distortions in the earth's magnetic field caused by the magnetic signatures of the first casing and second casing located in the proximity to the drill string ; determining distances and directions from the third well to the first casing and from the third well to the second casing based on the distorted magnetic field data, using the distances and confidence factors associated with the distances to produce guidance instructions; and steering the drill string to drill the third well based on the guidance instructions . providing a first casing having a first magnetic signature in the first offset well ; providing a second casing having a second magnetic signature in the second offset well , wherein the second magnetic signature is different from the first magnetic signature; drilling the third well using a drill string that includes a magnetometer , wherein the third well is located between the first offset well and the second offset well , wherein the magnetometer is provided for magnetic ranging of the third well with respect to the first casing and the second casing ; determining, by the magnetometer , distortions in the earth's magnetic field caused by the magnetic signatures of the first casing and second casing located in the proximity to the drill string ; determining distances and directions from the third well to the first casing and from the third well to the second casing based on the distorted magnetic field data, using the distances and confidence factors associated with the distances to produce guidance instructions; and steering the drill string to drill the third well based on the guidance instructions .
A method, comprising: receiving data from a submersible remote operated vehicle, i.e., "ROV" about the operation of an arm of the ROV; and automatically controlling, based on the data, movement of the arm relative to a target; where receiving data comprises receiving data from a camera , the data comprising an image of an alignment fiducial associated with the target; and where automatically controlling movement of the arm comprises automatically controlling the movement of the arm to align the arm relative to the target. receiving data from a submersible remote operated vehicle, i.e., "ROV" about the operation of an arm of the ROV; and automatically controlling, based on the data, movement of the arm relative to a target; where receiving data comprises receiving data from a camera , the data comprising an image of an alignment fiducial associated with the target; and where automatically controlling movement of the arm comprises automatically controlling the movement of the arm to align the arm relative to the target.
An exhaust gas purification system of a working machine , comprising: a common rail type engine which is mounted to a working machine ; an exhaust gas purification device which is arranged in an exhaust system of the engine, and in which a diesel oxidation catalyst and a soot filter are arranged in series, the diesel oxidation catalyst being arranged in an upstream side; and at least one of an intake air throttle device and an exhaust gas throttle device which are arranged in intake and exhaust systems of the engine, wherein the exhaust gas purification system is structured so as to execute an auxiliary renewing mode which raises a temperature of an exhaust gas from the engine by closing the at least one throttle device to a predetermined opening degree, on the basis of detected information of a differential pressure sensor , which is structured so as to detect a pressure difference between upstream and downstream sides with respect to the soot filter , and a forced renewing mode which supplies a fuel into the exhaust gas purification device on the basis of a post injection, and the exhaust gas purification system includes mode selection input means which selects whether the auxiliary renewing mode is executed or the forced renewing mode is executed in the case that a clogged state of the exhaust gas purification device is equal to or more than a prescribed level. a common rail type engine which is mounted to a working machine ; an exhaust gas purification device which is arranged in an exhaust system of the engine, and in which a diesel oxidation catalyst and a soot filter are arranged in series, the diesel oxidation catalyst being arranged in an upstream side; and at least one of an intake air throttle device and an exhaust gas throttle device which are arranged in intake and exhaust systems of the engine, wherein the exhaust gas purification system is structured so as to execute an auxiliary renewing mode which raises a temperature of an exhaust gas from the engine by closing the at least one throttle device to a predetermined opening degree, on the basis of detected information of a differential pressure sensor , which is structured so as to detect a pressure difference between upstream and downstream sides with respect to the soot filter , and a forced renewing mode which supplies a fuel into the exhaust gas purification device on the basis of a post injection, and the exhaust gas purification system includes mode selection input means which selects whether the auxiliary renewing mode is executed or the forced renewing mode is executed in the case that a clogged state of the exhaust gas purification device is equal to or more than a prescribed level.
A computer-implemented method for determining printing parameter values of an inkjet printing device for printing a pattern on a surface of a spectacle lens substrate comprising a curved surface, the inkjet printing device including a printhead as one single component with a plurality of printing nozzles , characterized in that the method comprises the following method steps: - (S2): grouping the plurality of printing nozzles into at least two printing nozzle groups , and - (S3): individually determining a printing parameter value for at least one adjustable printing parameter of each printing nozzle group , wherein the at least one adjustable printing parameter is selected from the group consisting of ejection temperature, jetting duration, jetting frequency, norm value, a wave form parameter, and an adjustable ink property. - (S2): grouping the plurality of printing nozzles into at least two printing nozzle groups , and - (S3): individually determining a printing parameter value for at least one adjustable printing parameter of each printing nozzle group ,