mhurhangee/patent-ind-claim-en huggingface dataset:
Method for measuring the mass of a plasticizer and the moisture content in a filter rod comprising the following steps: • The total mass (M) and the draw resistance (PD) of the filter rod are measured, and • a microwave measuring instrument measures a resonance frequency shift (A) and a widening of the resonance curve (B) of a resonance generated in a microwave resonator in the presence of the filter rod to be measured, wherein the moisture content in the filter rod is determined from the measured values of the microwave measuring instrument (A, B) and the measured total mass (M), and the mass (M triacetin ) of plasticiser in the filter rod is determined from the measured values (A, B) of the microwave gauge and the values of the total mass (M) and the draw resistance (PD), • - wherein the calculation of the mass of plasticizer in the filter rod (M triacetin ) is carried out by: M triacetin = a 0 + a 1 A + a 2 B + a 3 M + a 4 PD , with a coefficient set (a0, a1, a2, a3, a4) dependent on the titer of the material, and the coefficient set for determining the mass of plasticizer changes within a period of time after the application of the triacetine, but is time-independent within the first ten minutes. • The total mass (M) and the draw resistance (PD) of the filter rod are measured, and • a microwave measuring instrument measures a resonance frequency shift (A) and a widening of the resonance curve (B) of a resonance generated in a microwave resonator in the presence of the filter rod to be measured, wherein the moisture content in the filter rod is determined from the measured values of the microwave measuring instrument (A, B) and the measured total mass (M), and the mass (M triacetin ) of plasticiser in the filter rod is determined from the measured values (A, B) of the microwave gauge and the values of the total mass (M) and the draw resistance (PD), • - wherein the calculation of the mass of plasticizer in the filter rod (M triacetin ) is carried out by: M triacetin = a 0 + a 1 A + a 2 B + a 3 M + a 4 PD , with a coefficient set (a0, a1, a2, a3, a4) dependent on the titer of the material, and the coefficient set for determining the mass of plasticizer changes within a period of time after the application of the triacetine, but is time-independent within the first ten minutes.
An ophthalmic lens comprising: a lens body having a chamber therein, at least a portion of the lens body being flexible, the lens body having a lens body index of refraction; a reservoir module coupled with the lens body, the reservoir module including a heat sensitive portion and having a reservoir therein, the reservoir being fluidically connected with the chamber of the lens body and having a reservoir volume, the heat sensitive portion of the reservoir module bordering at least a portion of the reservoir, the heat sensitive portion having a shape responsive to a temperature of at least forty five degrees Celsius such that the reservoir volume changes in response to at least a part of the heat sensitive portion reaching the temperature; and an optical fluid residing in the chamber and the reservoir, the optical fluid having an optical fluid index of refraction, a change in the reservoir volume flowing a portion of the optical fluid between the reservoir and the chamber such that at least the portion of the lens body undergoes a shape change corresponding to a base power change, the optical fluid index of refraction being within 0.1 of the lens body index of refraction. a lens body having a chamber therein, at least a portion of the lens body being flexible, the lens body having a lens body index of refraction; a reservoir module coupled with the lens body, the reservoir module including a heat sensitive portion and having a reservoir therein, the reservoir being fluidically connected with the chamber of the lens body and having a reservoir volume, the heat sensitive portion of the reservoir module bordering at least a portion of the reservoir, the heat sensitive portion having a shape responsive to a temperature of at least forty five degrees Celsius such that the reservoir volume changes in response to at least a part of the heat sensitive portion reaching the temperature; and an optical fluid residing in the chamber and the reservoir, the optical fluid having an optical fluid index of refraction, a change in the reservoir volume flowing a portion of the optical fluid between the reservoir and the chamber such that at least the portion of the lens body undergoes a shape change corresponding to a base power change, the optical fluid index of refraction being within 0.1 of the lens body index of refraction.
A combine harvester comprising - a feederhouse mounted to a chassis and being adapted at a front end to support a crop gathering header in a manner that places a front inlet in communication with a discharge opening of the header, the feederhouse defining a crop conveying passage and housing a conveyor ; - a duct mounted on the feederhouse and defining a channel that is in communication with the crop conveying passage via a first opening ; - a fan arranged to move air through the duct , the fan being operable in a first direction to create a suction airflow (S) to extract dust from the crop conveying passage and discharge the dust through the duct ; - a second opening is provided in the duct ; characterised in that the first opening has associated therewith a first closure element that is movable between an open position and a closed position, and in that the second opening having associated therewith a second closure element that is movable between an open position and a closed position, wherein the fan is selectively operable in a second direction to create a blowing airflow to open the second closure element and vent air through the second opening , wherein the second opening is configured to direct the vented air across a top surface of the feederhouse . - a feederhouse mounted to a chassis and being adapted at a front end to support a crop gathering header in a manner that places a front inlet in communication with a discharge opening of the header, the feederhouse defining a crop conveying passage and housing a conveyor ; - a duct mounted on the feederhouse and defining a channel that is in communication with the crop conveying passage via a first opening ; - a fan arranged to move air through the duct , the fan being operable in a first direction to create a suction airflow (S) to extract dust from the crop conveying passage and discharge the dust through the duct ; - a second opening is provided in the duct ;
A toner container comprising: a rotation shaft (b1, b2); a rotation restriction member (A) comprising, a shaft insertion hole which has a shape corresponding to a shape of the rotation shaft (b1, b2) and into which the rotation shaft is inserted with a predetermined angle relationship, and a plurality of rotation restriction portions , each of which is provided at a different position around the shaft insertion hole ; and an engaging portion (b3, b4) that engages with any of the plurality of rotation restriction portions while the rotation shaft (b1, b2) is inserted into the insertion hole ; wherein each of the plurality of rotation restriction portions performs a rotation restriction function of the rotation shaft (b1, b2) by engaging with the engaging portion (b3, b4), characterised in that a spring hole for applying elasticity to the rotation restriction member (A) is provided corresponding to each of the plurality of rotation restriction portions . a rotation shaft (b1, b2); a rotation restriction member (A) comprising, a shaft insertion hole which has a shape corresponding to a shape of the rotation shaft (b1, b2) and into which the rotation shaft is inserted with a predetermined angle relationship, and a plurality of rotation restriction portions , each of which is provided at a different position around the shaft insertion hole ; and a shaft insertion hole which has a shape corresponding to a shape of the rotation shaft (b1, b2) and into which the rotation shaft is inserted with a predetermined angle relationship, and a plurality of rotation restriction portions , each of which is provided at a different position around the shaft insertion hole ; and an engaging portion (b3, b4) that engages with any of the plurality of rotation restriction portions while the rotation shaft (b1, b2) is inserted into the insertion hole ; wherein each of the plurality of rotation restriction portions performs a rotation restriction function of the rotation shaft (b1, b2) by engaging with the engaging portion (b3, b4), characterised in that a spring hole for applying elasticity to the rotation restriction member (A) is provided corresponding to each of the plurality of rotation restriction portions .
A method for downlink data transmission, comprising: receiving , by a terminal, DCI for scheduling multiple PDSCHs, wherein the DCI contains a TCI state indication; and determining , by the terminal, a TCI state which is applied to each of the multiple PDSCHs according to at least one TCI state indicated by the TCI state indication; wherein the multiple PDSCHs are N PDSCHs, the at least one TCI state is K TCI states and K equals to 2; and the K TCI states are applied to the N PDSCHs in circular or in sequence; under the condition that the K TCI states are applied to the multiple PDSCHs in circular: when N = K =2, an index sequence of the TCI states corresponding to the two PDSCHs is ; and characterized in that when N>K =2 , the n-th PDSCH in the multiple PDSCHs corresponds to the k-th TCI state in the at least one TCI state, and k=[(n-1) mod K +1]; under the condition that the K TCI states are applied to the N PDSCHs in sequence, the n-th PDSCH in the multiple PDSCHs corresponds to the k-th TCI state in the at least one TCI state, and k = ⌈ n / m ⌉ , when N = K * m and m is an integer greater than 1. receiving , by a terminal, DCI for scheduling multiple PDSCHs, wherein the DCI contains a TCI state indication; and determining , by the terminal, a TCI state which is applied to each of the multiple PDSCHs according to at least one TCI state indicated by the TCI state indication; wherein the multiple PDSCHs are N PDSCHs, the at least one TCI state is K TCI states and K equals to 2; and the K TCI states are applied to the N PDSCHs in circular or in sequence; under the condition that the K TCI states are applied to the multiple PDSCHs in circular: when N = K =2, an index sequence of the TCI states corresponding to the two PDSCHs is ; and characterized in that when N>K =2 , the n-th PDSCH in the multiple PDSCHs corresponds to the k-th TCI state in the at least one TCI state, and k=[(n-1) mod K +1]; when N = K =2, an index sequence of the TCI states corresponding to the two PDSCHs is ; and characterized in that when N>K =2 , the n-th PDSCH in the multiple PDSCHs corresponds to the k-th TCI state in the at least one TCI state, and k=[(n-1) mod K +1]; under the condition that the K TCI states are applied to the N PDSCHs in sequence, the n-th PDSCH in the multiple PDSCHs corresponds to the k-th TCI state in the at least one TCI state, and k = ⌈ n / m ⌉ , when N = K * m and m is an integer greater than 1.
A method of semi-persistently scheduled, SPS, release, the method comprising: receiving , by a user equipment, UE , occasions of SPS physical downlink shared channels, PDSCHs, over multiple slots for a transport block, TB, according to an SPS configuration; receiving , by the UE , a physical downlink control channel, PDCCH, including a downlink control information, DCI, format such that an end of a last symbol of the PDCCH is received before or at a same time as an end of a last symbol of a first occasion of the received occasions of the SPS PDSCHs; and releasing , by the UE , the SPS configuration in response to receiving the PDCCH which overlaps with the slots, wherein the UE stops PDSCH decoding and does not generate HARQ-ACK feedback information for the received occasions of SPS PDSCHs. receiving , by a user equipment, UE , occasions of SPS physical downlink shared channels, PDSCHs, over multiple slots for a transport block, TB, according to an SPS configuration; receiving , by the UE , a physical downlink control channel, PDCCH, including a downlink control information, DCI, format such that an end of a last symbol of the PDCCH is received before or at a same time as an end of a last symbol of a first occasion of the received occasions of the SPS PDSCHs; and releasing , by the UE , the SPS configuration in response to receiving the PDCCH which overlaps with the slots, wherein the UE stops PDSCH decoding and does not generate HARQ-ACK feedback information for the received occasions of SPS PDSCHs.
A cosmetic composition comprising a hyperbranched copolymer of the monomers (i) dodecenyl succinic acid anhydride (ii) diisopropanol amine (iii) bis-dimethylaminopropyl amine having terminal groups of formula and having a molecular weight Mn of between 1200 and 4000 g/mol; and at least one liquid organic UV filter and/or at least one solid organic UV filter. (i) dodecenyl succinic acid anhydride (ii) diisopropanol amine (iii) bis-dimethylaminopropyl amine having terminal groups of formula and having a molecular weight Mn of between 1200 and 4000 g/mol; and at least one liquid organic UV filter and/or at least one solid organic UV filter.
A method of detecting contamination on a steel part prior to austenitization and press-hardening and/or on steel cold-forming machinery, in which the steel part is exposed to ultra violet light to highlight contamination, or to highlight splits or cracks, on the surface of the part and/or in which at least parts of the machinery are exposed to ultraviolet light wherein the steel part is coated with a zinc, zinc based alloy, aluminum or aluminum based alloy coating and wherein the steel part and/or machinery is exposed to ultra violet light to highlight contamination, or to highlight splits or cracks, on the surface of the part, wherein UV-A and UV-C light are used for the detection on steel parts coated with zinc or zinc based alloys or machinery processing the same and wherein the steel part and/or machinery is exposed to ultra violet light to highlight contamination, or to highlight splits or cracks, on the surface of the part, wherein UV-B light is used for the detection on steel parts coated with aluminum or aluminum based alloys or machinery processing the same, wherein the detected contamination is removed and wherein the steel part is austenitized and press-hardened after removing of the detected contamination. wherein the steel part is coated with a zinc, zinc based alloy, aluminum or aluminum based alloy coating and wherein the steel part and/or machinery is exposed to ultra violet light to highlight contamination, or to highlight splits or cracks, on the surface of the part, wherein UV-A and UV-C light are used for the detection on steel parts coated with zinc or zinc based alloys or machinery processing the same and wherein the steel part and/or machinery is exposed to ultra violet light to highlight contamination, or to highlight splits or cracks, on the surface of the part, wherein UV-B light is used for the detection on steel parts coated with aluminum or aluminum based alloys or machinery processing the same, wherein the detected contamination is removed and wherein the steel part is austenitized and press-hardened after removing of the detected contamination.
A method for determining and/or tracing the biodegradability of a polymeric material, the method comprising the steps of: (i) providing a hydrogel composition comprising: - 0.05 to 10.0 wt.% of a cutinase; - a pH indicator suitable for visually indicating the cutinase's enzymatic activity, wherein the pH indicator is selected from bromothymol blue,bromocresol purple, litmus, anthocyanin, and/or methyl red; - a thickening agent comprising sodium carboxymethyl cellulose (CMC) present in an amount of at least 0.05 to at most 5.0 wt.%; and, - a buffer and/or pH adjustment agent comprising sodium bicarbonate (NaHCO3) and/or sodium hydroxide (NaOH) present in a concentration of at least 1.0 mM to at most 5.0 mM; (ii) applying the hydrogel composition on a polymeric material; and, (iii) determining and/or tracing the biodegradability of said polymeric material responsive to the visual indication of the biodegradability composition. (i) providing a hydrogel composition comprising: - 0.05 to 10.0 wt.% of a cutinase; - a pH indicator suitable for visually indicating the cutinase's enzymatic activity, wherein the pH indicator is selected from bromothymol blue,bromocresol purple, litmus, anthocyanin, and/or methyl red; - a thickening agent comprising sodium carboxymethyl cellulose (CMC) present in an amount of at least 0.05 to at most 5.0 wt.%; and, - a buffer and/or pH adjustment agent comprising sodium bicarbonate (NaHCO3) and/or sodium hydroxide (NaOH) present in a concentration of at least 1.0 mM to at most 5.0 mM; - 0.05 to 10.0 wt.% of a cutinase; - a pH indicator suitable for visually indicating the cutinase's enzymatic activity, wherein the pH indicator is selected from bromothymol blue,bromocresol purple, litmus, anthocyanin, and/or methyl red; - a thickening agent comprising sodium carboxymethyl cellulose (CMC) present in an amount of at least 0.05 to at most 5.0 wt.%; and, - a buffer and/or pH adjustment agent comprising sodium bicarbonate (NaHCO3) and/or sodium hydroxide (NaOH) present in a concentration of at least 1.0 mM to at most 5.0 mM; (ii) applying the hydrogel composition on a polymeric material; and, (iii) determining and/or tracing the biodegradability of said polymeric material responsive to the visual indication of the biodegradability composition.
An energy delivery console comprising: a catheter connection configured to receive a catheter cable assembly having a wire configuration that includes a shared power delivery and communication ground wire; an energy delivery console CPU disposed within the energy delivery console ; and a shared power delivery and communication legitimizer - SPDCL - in electrical communication with the energy delivery console CPU and the catheter connection, wherein the SPDCL is configured to filter communication signals sent over the shared power delivery and communication ground wire to the catheter connection , characterized in that : the catheter connection is a catheter plug-in jack connection, the energy delivery console CPU is configured to send signals to the catheter plug-in jack connection through an EMI filter to filter out electromagnetic interference from the signals, and the SPDCL further includes a low pass filter , a discriminator , and a Schmitt buffer . a catheter connection configured to receive a catheter cable assembly having a wire configuration that includes a shared power delivery and communication ground wire; an energy delivery console CPU disposed within the energy delivery console ; and a shared power delivery and communication legitimizer - SPDCL - in electrical communication with the energy delivery console CPU and the catheter connection, wherein the SPDCL is configured to filter communication signals sent over the shared power delivery and communication ground wire to the catheter connection , characterized in that : the catheter connection is a catheter plug-in jack connection, the energy delivery console CPU is configured to send signals to the catheter plug-in jack connection through an EMI filter to filter out electromagnetic interference from the signals, and the SPDCL further includes a low pass filter , a discriminator , and a Schmitt buffer . the catheter connection is a catheter plug-in jack connection, the energy delivery console CPU is configured to send signals to the catheter plug-in jack connection through an EMI filter to filter out electromagnetic interference from the signals, and the SPDCL further includes a low pass filter , a discriminator , and a Schmitt buffer .
A power screw driver comprising a housing having a vacuum chamber arranged to communicate with a source of sub-atmospheric pressure, a motor, a drive spindle , a screw engaging bit connected to the drive spindle , a suction nozzle surrounding a forward bit portion ), and a bit supporting sleeve having a forward end part surrounding a rear bit portion and a rear end part connected to the drive spindle , • the rear end part of the bit supporting sleeve is surrounded by the vacuum chamber , and the forward end part of the bit supporting sleeve is in endwise contact with the suction nozzle ; characterized in that • the bit supporting sleeve is in endwise contact with the suction nozzle via a seal element such that there is no axial overlap between said bit supporting sleeve and said suction nozzle, • the suction nozzle 28 comprising at least one internal passage (47 a-d) arranged in an inner surface of the suction nozzle, and • in that the bit supporting sleeve comprises at least one longitudinal internal passage (44 a-d) arranged in an inner surface of the sleeve and extending from its rear end part to its forward end part to communicate with said at least one longitudinal internal passage 47 a-d in the suction nozzle 28, said at least one passage (44 a-d) extending from the vacuum chamber to the suction nozzle . • the rear end part of the bit supporting sleeve is surrounded by the vacuum chamber , and the forward end part of the bit supporting sleeve is in endwise contact with the suction nozzle ; • the bit supporting sleeve is in endwise contact with the suction nozzle via a seal element such that there is no axial overlap between said bit supporting sleeve and said suction nozzle, • the suction nozzle 28 comprising at least one internal passage (47 a-d) arranged in an inner surface of the suction nozzle, and • in that the bit supporting sleeve comprises at least one longitudinal internal passage (44 a-d) arranged in an inner surface of the sleeve and extending from its rear end part to its forward end part to communicate with said at least one longitudinal internal passage 47 a-d in the suction nozzle 28, said at least one passage (44 a-d) extending from the vacuum chamber to the suction nozzle .