mhurhangee/patent-ind-claim-en huggingface dataset:
A method of converting a planetary gear system to an improved planetary gear system , comprising: providing a planetary gear system having a first planet gear having a first rim with a first rim thickness , a first backup ratio of at least 1.0, and first roller elements allowing rotation of the first planet gear about a post of a carrier of the planetary gear system, wherein the first backup ratio is calculated by dividing the first rim thickness by a first tooth depth of the first planet gear ; replacing the first planet gear with a second planet gear comprising a second rim with a second rim thickness and a second backup ratio of less than 1.0 but at least 0.5, wherein the backup ratio is calculated by dividing the second rim thickness by a second tooth depth of the second planet gear , wherein the second planet gear is configured to receive roller elements having a relatively larger outer diameter as compared to an outer diameter of the first roller elements by having a reduced second rim thickness of the second planet gear as compared to the first rim thickness of the first planet gear ; replacing the first roller elements with second roller elements having a relatively larger outer diameter as compared to an outer diameter of the first roller elements by an amount not greater than the difference in the first rim thickness and the second rim thickness ; and holding other planetary gear system dimensions constant when converting the planetary gear system to the improved planetary gear system . providing a planetary gear system having a first planet gear having a first rim with a first rim thickness , a first backup ratio of at least 1.0, and first roller elements allowing rotation of the first planet gear about a post of a carrier of the planetary gear system, wherein the first backup ratio is calculated by dividing the first rim thickness by a first tooth depth of the first planet gear ; replacing the first planet gear with a second planet gear comprising a second rim with a second rim thickness and a second backup ratio of less than 1.0 but at least 0.5, wherein the backup ratio is calculated by dividing the second rim thickness by a second tooth depth of the second planet gear , wherein the second planet gear is configured to receive roller elements having a relatively larger outer diameter as compared to an outer diameter of the first roller elements by having a reduced second rim thickness of the second planet gear as compared to the first rim thickness of the first planet gear ; replacing the first roller elements with second roller elements having a relatively larger outer diameter as compared to an outer diameter of the first roller elements by an amount not greater than the difference in the first rim thickness and the second rim thickness ; and holding other planetary gear system dimensions constant when converting the planetary gear system to the improved planetary gear system .
A post-processing apparatus , comprising: a knocking section configured to knock a staple in a sheet; a receiving section , facing the knocking section, configured to receive the sheet in which the staple is knocked from the knocking section; a driving section configured to change an interval between the knocking section and the receiving section in an opposite direction in which the knocking section and the receiving section face each other; and a pressing section , extending continuously in a sheet width direction, configured to press the sheet before the staple is knocked in the sheet. a knocking section configured to knock a staple in a sheet; a receiving section , facing the knocking section, configured to receive the sheet in which the staple is knocked from the knocking section; a driving section configured to change an interval between the knocking section and the receiving section in an opposite direction in which the knocking section and the receiving section face each other; and a pressing section , extending continuously in a sheet width direction, configured to press the sheet before the staple is knocked in the sheet.
A printing ink or printing varnish, in particular for offset printing, comprising a binder and optionally one or more pigments, wherein the binder comprises: - one or more solvent components which are selected from liquid (at 25 °C) alcohols and/or amines which can be saturated or unsaturated and linear or branched, wherein alcohols and/or amines with 12 or more C atoms are contained in a proportion of at least 30 % by weight in relation to the binder, and - one or more resin components dissolved in the solvent component(s), which are selected from solid (at 25 °C) carboxylic acids with 12 or more C atoms in a proportion of at least 15 % by weight in relation to the binder, and wherein the printing ink or the printing varnish has an OH number and an amine number of which the sum is more than 100 mg(KOH)/g. - one or more solvent components which are selected from liquid (at 25 °C) alcohols and/or amines which can be saturated or unsaturated and linear or branched, wherein alcohols and/or amines with 12 or more C atoms are contained in a proportion of at least 30 % by weight in relation to the binder, and - one or more resin components dissolved in the solvent component(s), which are selected from solid (at 25 °C) carboxylic acids with 12 or more C atoms in a proportion of at least 15 % by weight in relation to the binder,
A method for performing a random access procedure by a user equipment, UE, in a wireless communication system supporting coverage enhancement, the method comprising: receiving a physical downlink control channel, PDCCH, order from a base station , the PDCCH order initiating the random access procedure; selecting a physical random access channel, PRACH, resource indicated by the PDCCH order from among a plurality of PRACH resources configured for the UE ; and repeating a PRACH preamble transmission for a number of repetitions corresponding to the selected PRACH resource, characterized in that : each of the plurality of PRACH resources comprises a different number of repetitions for transmitting a PRACH preamble, and the number of repetitions for the PRACH preamble transmission is indicated by the PDCCH order. receiving a physical downlink control channel, PDCCH, order from a base station , the PDCCH order initiating the random access procedure; selecting a physical random access channel, PRACH, resource indicated by the PDCCH order from among a plurality of PRACH resources configured for the UE ; and repeating a PRACH preamble transmission for a number of repetitions corresponding to the selected PRACH resource, characterized in that : each of the plurality of PRACH resources comprises a different number of repetitions for transmitting a PRACH preamble, and the number of repetitions for the PRACH preamble transmission is indicated by the PDCCH order. each of the plurality of PRACH resources comprises a different number of repetitions for transmitting a PRACH preamble, and the number of repetitions for the PRACH preamble transmission is indicated by the PDCCH order.
A vacuum pump , in particular a turbomolecular pump, comprising a pump body and a fastening apparatus formed thereat for handling and/or installing the vacuum pump , wherein the fastening apparatus has at least one engagement structure for connecting a fastening element to the pump body; wherein the engagement structure extends at the outer periphery of the pump body at least section-wise at an angle to its longitudinal extent ; and wherein a position and/or an arrangement of the fastening apparatus along the longitudinal extent of the pump body is/are selected in dependence on the center of gravity of the pump body, characterized in that the engagement structure is configured to displaceably guide the fastening element .
A method for manufacturing a magnetostrictive torque sensor shaft to which a sensor portion of a magnetostrictive torque sensor is to be attached, the method comprising: a heat treatment step of subjecting an iron-based shaft member to a carburizing, quenching, and tempering process; a shot peening step of performing shot peening at least in a position on the shaft member, after the heat treatment step, to which the sensor portion is to be attached; and a surface polishing step of subjecting the shaft member after the shot peening to surface polishing, characterized in that a steel shot media containing boron and having a Vickers hardness at least equal to 1100 HV and at most equal to 1300 HV is used in the shot peening step, and the surface polishing step removes Fe 2 B formed on a surface of the shaft member in the shot peening. a heat treatment step of subjecting an iron-based shaft member to a carburizing, quenching, and tempering process; a shot peening step of performing shot peening at least in a position on the shaft member, after the heat treatment step, to which the sensor portion is to be attached; and a surface polishing step of subjecting the shaft member after the shot peening to surface polishing, characterized in that a steel shot media containing boron and having a Vickers hardness at least equal to 1100 HV and at most equal to 1300 HV is used in the shot peening step, and the surface polishing step removes Fe 2 B formed on a surface of the shaft member in the shot peening.
A dispensing device comprising: a first container having a sidewall that defines a reservoir , the first container having an upper opening to the reservoir at a top of the first container; a first liquid in the reservoir , wherein the first liquid comprises a dermatological agent; and a porous applicator in the reservoir , wherein the porous applicator comprises an injection-molded polyethylene body having open-celled pores, wherein the open-celled pores extend from a bottom of the porous applicator to a top surface of the porous applicator , wherein the open-celled pores comprise varying pore sizes throughout the porous applicator, wherein the open-celled pores are filled with the first liquid such that the pores deliver the first liquid to the top surface of the porous applicator by capillary action without externally-applied pressure, wherein the porous applicator substantially fills the reservoir and the upper opening at the top of the first container such that the first liquid is prevented from free-flowing out of the reservoir . a first container having a sidewall that defines a reservoir , the first container having an upper opening to the reservoir at a top of the first container; a first liquid in the reservoir , wherein the first liquid comprises a dermatological agent; and a porous applicator in the reservoir , wherein the porous applicator comprises an injection-molded polyethylene body having open-celled pores, wherein the open-celled pores extend from a bottom of the porous applicator to a top surface of the porous applicator , wherein the open-celled pores comprise varying pore sizes throughout the porous applicator, wherein the open-celled pores are filled with the first liquid such that the pores deliver the first liquid to the top surface of the porous applicator by capillary action without externally-applied pressure, wherein the porous applicator substantially fills the reservoir and the upper opening at the top of the first container such that the first liquid is prevented from free-flowing out of the reservoir .
A computer implemented method for health calculations, the method comprising: receiving a health input from a wearable device worn by a user, the health input including one or more measurements from one or more health sensors , and wherein the health input includes movement data; obtaining location-based information associated with the wearable device ; segmenting the movement data into one or more segments based on characteristics of the movement data by analyzing and identifying the movement data within temporal ranges that have similar amplitudes and/or frequencies; categorizing the one or more segments as matching one or more activities; refining the categorization of the segmented movement data based on the location-based information, which comprises disregarding or eliminating certain segments of the movement data representing false positive secenarios from the calculation of the health parameter based on the location-based information, wherein a false positive scenario represents a scenario where the user is performing an activity with an amplitude or frequency profile that matches that of another activity; and calculating a health parameter based on the refined categorization of the movement data, wherein the health parameter includes one of distance travelled, calorie expenditure, heart rate, blood pressure, hydration percentage, rest state time, and respiration. receiving a health input from a wearable device worn by a user, the health input including one or more measurements from one or more health sensors , and wherein the health input includes movement data; obtaining location-based information associated with the wearable device ; segmenting the movement data into one or more segments based on characteristics of the movement data by analyzing and identifying the movement data within temporal ranges that have similar amplitudes and/or frequencies; categorizing the one or more segments as matching one or more activities; refining the categorization of the segmented movement data based on the location-based information, which comprises disregarding or eliminating certain segments of the movement data representing false positive secenarios from the calculation of the health parameter based on the location-based information, wherein a false positive scenario represents a scenario where the user is performing an activity with an amplitude or frequency profile that matches that of another activity; and calculating a health parameter based on the refined categorization of the movement data, wherein the health parameter includes one of distance travelled, calorie expenditure, heart rate, blood pressure, hydration percentage, rest state time, and respiration.
A method for controlling communications over a plurality of subscriber lines (L1 .. LN), the communications making use of communication signals that are jointly processed through a linear precoder for crosstalk pre-compensation, wherein the method comprises updating one or more coupling coefficients of the precoder for mitigating crosstalk from a subscriber line (Li) into one or more victim lines, sending signal adjustment information to a receiver (xTU-Ri) remotely coupled to the subscriber line indicative of a signal compensation factor (γi) to be applied to a receive communication signal to compensate for a channel equalization bias caused by crosstalk pre-compensation signals superimposed over the one or more victim lines and corresponding to the respective one or more updated coupling coefficients of the precoder, and time-coordinating the precoder update with the enforcement of the signal compensation factor at the receiver.
A method for monitoring the compaction process of an asphalt layer to be compacted in road construction, comprising the steps: a) detecting the edges limiting the hot asphalt layer transversely to the road pathway by means of a temperature sensor arranged on a road roller compacting the asphalt layer ; and b) dividing the detected asphalt layer into at least two width segments across the road pathway; in which d) the working operation of the road roller on the width segment is quantified by means of an operating parameter and stored ; and e) the quantified working operation for each width segment is displayed for at least one past working interval. characterized in that the position of the road roller on the asphalt layer transversely to the road pathway is determined from the measurement of the temperature sensor and assigned to one of the width segments ; a) detecting the edges limiting the hot asphalt layer transversely to the road pathway by means of a temperature sensor arranged on a road roller compacting the asphalt layer ; and b) dividing the detected asphalt layer into at least two width segments across the road pathway; in which d) the working operation of the road roller on the width segment is quantified by means of an operating parameter and stored ; and e) the quantified working operation for each width segment is displayed for at least one past working interval.
A flat-tipped end farrier shears comprising a first arm , a second arm and a connector pin , the first arm and the second arm being rotatably connected to each other through the connector pin , wherein the flat-tipped end farrier shears further comprises: the first arm having a first handle , a first shoulder , and a first jaw ; the second arm having a second handle , a second shoulder , and a second jaw ; the first handle and the first jaw being oppositely connected to each other through the first shoulder ; the second handle and the second jaw being oppositely connected to each other through the second shoulder ; the first shoulder and the second shoulder being rotatably mounted to each other through the connector pin ; a first shear-cutting edge of the first jaw being positioned offset from a second shear-cutting edge of the second jaw characterized in that the flat-tipped end farrier shears further comprises: an upper prong-receiving indentation ; the upper prong-receiving indentation being integrated into a free end of the first jaw ; the second shear-cutting edge being positioned atop the upper prong-receiving indentation ; a height of the first shear-cutting edge being larger than a height of the second shear-cutting edge ; and the height of the second shear-cutting edge being equal to a depth of the upper prong-receiving indentation . the first arm having a first handle , a first shoulder , and a first jaw ; the second arm having a second handle , a second shoulder , and a second jaw ; the first handle and the first jaw being oppositely connected to each other through the first shoulder ; the second handle and the second jaw being oppositely connected to each other through the second shoulder ; the first shoulder and the second shoulder being rotatably mounted to each other through the connector pin ; a first shear-cutting edge of the first jaw being positioned offset from a second shear-cutting edge of the second jaw characterized in that the flat-tipped end farrier shears further comprises: an upper prong-receiving indentation ; the upper prong-receiving indentation being integrated into a free end of the first jaw ; the second shear-cutting edge being positioned atop the upper prong-receiving indentation ; a height of the first shear-cutting edge being larger than a height of the second shear-cutting edge ; and the height of the second shear-cutting edge being equal to a depth of the upper prong-receiving indentation . an upper prong-receiving indentation ; the upper prong-receiving indentation being integrated into a free end of the first jaw ; the second shear-cutting edge being positioned atop the upper prong-receiving indentation ; a height of the first shear-cutting edge being larger than a height of the second shear-cutting edge ; and the height of the second shear-cutting edge being equal to a depth of the upper prong-receiving indentation .
Device for transporting textile articles, preferably items of clothing, hanging on carriers , having a conveying path which has at least one support section on which the carriers are able to be moved along the conveying path in a transport direction , and at least one conveying section which is able to be driven in a transport direction , and having entrainment elements which are disposed so as to be spaced apart on the conveying section , wherein individual entrainment elements are able to be coupled in a targeted manner to carriers that are to be moved in the transport direction along the support section , characterized in that the entrainment elements have entrainment element members which are formed by a plurality of entrainment element parts that are connected by a damping seam in such a manner that upon connecting the entrainment element parts a permanently single-piece entrainment element member is created by the damping seam , wherein the damping seam in the region of a gap contributes towards forming part of a front side and of a rear side of the entrainment element member .
A composition comprising centhaquin or a salt thereof for use in treating an individual suffering acute kidney function decline.
Method for determining at least one test position for a test measurement to be recorded by means of a magnetic resonance system, comprising the steps: - recording a test image (B), - selecting at least one test position (P, P1, P1', P2) on the basis of the test image (B), wherein the selection of test positions (P, P1, P1', P2) comprises an assignment of test positions (P, P1, P1', P2) to permitted test positions and blocked test positions, according to an assignment function (M) based on intensity values of the test image (B) at test positions (P, P1, P1', P2). - recording a test image (B), - selecting at least one test position (P, P1, P1', P2) on the basis of the test image (B),
An antibacterial composition comprising at least two bacteriophages having lytic activity against a Pseudomonas aeruginosa (P. aeruginosa) strain, said at least two bacteriophages being selected from the bacteriophages having a genome comprising a nucleotide sequence of any one of SEQ ID NOs: 1 to 7 or a sequence having at least 97% identity to SEQ ID NOs: 2 to 7.
A method of filling a container with liquid compositions, comprising the step of: (A) providing a container that has an opening having a centroid, a supporting plane and a longitudinal axis that extends through the centroid of said opening and is perpendicular to said supporting plane, wherein the total volume of said container ranges from 10ml to 10 liters; (B) providing a first liquid feed composition and a second liquid feed composition that is different from said first liquid feed composition; (C) partially filling said container with the first liquid feed composition to from 0.01% to 50% of the total volume of said container; and (D) subsequently, filling the remaining volume of the container, or a portion thereof, with the second liquid feed composition, wherein during step (D), the second liquid feed composition is filled through the opening into said container by one or more liquid nozzles that are positioned immediately above the opening or inserted into the opening, and wherein said one or more liquid nozzles are arranged to generate one or more liquid influxes that are offset from the longitudinal axis of the container by an offset angle (α) ranging from 5° to 50°. (A) providing a container that has an opening having a centroid, a supporting plane and a longitudinal axis that extends through the centroid of said opening and is perpendicular to said supporting plane, wherein the total volume of said container ranges from 10ml to 10 liters; (B) providing a first liquid feed composition and a second liquid feed composition that is different from said first liquid feed composition; (C) partially filling said container with the first liquid feed composition to from 0.01% to 50% of the total volume of said container; and (D) subsequently, filling the remaining volume of the container, or a portion thereof, with the second liquid feed composition,
Balancing mass for balancing a component which can be rotated about a rotational axis, in particular a component of a torque transmission device , such as a friction clutch device, the balancing mass having a longitudinal axis and a shank section , the shank section having a knurled portion with grooves which are inclined with respect to the longitudinal axis, characterized in that the grooves are wound around the longitudinal axis with a pitch which is so high that the shank section is wrapped around only partially by each groove .