mhurhangee/ep-ind-claims huggingface dataset:
A riding lawn care vehicle comprising: a battery power source; an electric drive motor powered by the battery power source, the electric drive motor being operably coupled to a wheel of the riding lawn care vehicle to provide drive power for the riding lawn care vehicle; at least one blade drive motor powered by the battery power source and controlled via one or more blade motor controllers for operating the blade drive motor(s) at a fixed speed, the at least one blade drive motor being operably coupled to at least one cutting blade of the riding lawn care vehicle; a current sensor disposed to monitor total current drawn from the battery power source; and a drive controller receiving total current data from the current sensor and providing a drive control signal related to operation of the electric drive motor based on the total current data, wherein the drive controller is configured to compare the total current data to a threshold value or to a predefined operational range for the riding lawn care vehicle, and wherein the drive controller is configured to communicate a drive control signal including instructions that cause the electric drive motor to slow down, in response to the threshold value being exceeded or the total current being outside of the predefined operational range, respectively, whilst additional current is provided to the blade drive motor(s) in order to attempt to maintain the speed of rotation of the blade drive motor(s). a battery power source; an electric drive motor powered by the battery power source, the electric drive motor being operably coupled to a wheel of the riding lawn care vehicle to provide drive power for the riding lawn care vehicle; at least one blade drive motor powered by the battery power source and controlled via one or more blade motor controllers for operating the blade drive motor(s) at a fixed speed, the at least one blade drive motor being operably coupled to at least one cutting blade of the riding lawn care vehicle; a current sensor disposed to monitor total current drawn from the battery power source; and a drive controller receiving total current data from the current sensor and providing a drive control signal related to operation of the electric drive motor based on the total current data, wherein the drive controller is configured to compare the total current data to a threshold value or to a predefined operational range for the riding lawn care vehicle, and wherein the drive controller is configured to communicate a drive control signal including instructions that cause the electric drive motor to slow down, in response to the threshold value being exceeded or the total current being outside of the predefined operational range, respectively, whilst additional current is provided to the blade drive motor(s) in order to attempt to maintain the speed of rotation of the blade drive motor(s).
Method for the serial heating of sheet steel blanks, and in particular of shaped blanks in a continuous plant, wherein after heating the sheet steel blanks have a temperature distribution comprising different temperature zones for subsequent hot forming, and in particular press hardening, characterized in that for heating the steel sheet blanks are moved relative to at least one first inductor, which is operated as a longitudinal field inductor, and are then moved relative to at least one second inductor, which is operated as a transverse field inductor, wherein, due to the arrangement of the two inductors (110, 120) relative to one another, and/or due to a coordinated mode of operation of the inductors (110, 120), the generation of a specific temperature distribution comprising different temperature zones is brought about in such a manner that the sheet steel blanks are heated homogeneously to a temperature of up to 770 °C at the first inductor, and then heating to a temperature above 770 °C takes place regionally at the second inductor.
A method for increasing haptic stability in a system having a plurality of transmission mechanisms and a plurality of joints, said method comprising the steps of: tracking a position of a physical point associated with a surgical tool; defining a haptic interaction point position in virtual space based on the position of the physical point; determining a proxy position as a projection of the HIP position onto a proxy plane; calculating a spring force in response to the distance between a proxy position and a HIP position; calculating a joint space spring torque for the system in response to the spring force; calculating a joint space damping torque for the system in response to a joint velocity; and adding the joint space damping torque and the joint space spring torque. tracking a position of a physical point associated with a surgical tool; defining a haptic interaction point position in virtual space based on the position of the physical point; determining a proxy position as a projection of the HIP position onto a proxy plane; calculating a spring force in response to the distance between a proxy position and a HIP position; calculating a joint space spring torque for the system in response to the spring force; calculating a joint space damping torque for the system in response to a joint velocity; and adding the joint space damping torque and the joint space spring torque.
Receiving apparatus for receiving items to be washed in a receptacle for items to be washed of a water-conducting domestic appliance, with a first support device for supporting the items to be cleaned, a second support device for supporting the items to be cleaned and a guiding device, along which the support devices (23, 24) can be displaced, wherein the first support device is coupled to the second support device with the aid of at least one coupling element (44, 45) and wherein the first support device can be displaced from a pushed-together state of the receiving apparatus, in which the first support device is arranged adjacent to the second support device, in a pull-out direction into a pulled-apart state of the receiving apparatus, in which the first support device is arranged at a distance from the second support device, characterised in that the first support device is coupled to the second support device such that starting from the pulled-apart state of the receiving apparatus, when the first support device is further displaced in the pull-out direction, the second support device can be displaced together with the first support device in the pull-out direction along the guiding device, wherein the second support device has at least one second guiding element (46, 47), which encloses the at least one coupling element (44, 45) with a form fit, and wherein the at least one coupling element (44, 45) has an agitator, which is configured to bring with it the second support device when the first support device is further displaced in the pull-out direction.
A synchronizer assembly comprising: a hub including external teeth formed thereon, the hub having at least one recess formed therein; and a shift sleeve including internal teeth formed thereon, the shift sleeve disposed about the hub; a pre-energizer assembly disposed in the at least one recess, the pre-energizer assembly including a housing disposed in the recess, characterized in that the housing has two separated bores formed therein, springs disposed in each of the two separated bores, bearing members disposed in each of the two separated bores and biased by the two springs applying a force to the shift sleeve, wherein each of the bearing members apply the force in parallel to the other bearing member. a hub including external teeth formed thereon, the hub having at least one recess formed therein; and a shift sleeve including internal teeth formed thereon, the shift sleeve disposed about the hub; a pre-energizer assembly disposed in the at least one recess, the pre-energizer assembly including a housing disposed in the recess, characterized in that the housing has two separated bores formed therein, springs disposed in each of the two separated bores, bearing members disposed in each of the two separated bores and biased by the two springs applying a force to the shift sleeve, wherein each of the bearing members apply the force in parallel to the other bearing member.
An assessment generation system (10, 700) configured to evaluate an exercise activity comprising one or more sets of exercise repetitions performed by a user when the user exercises, via at least one biometric sensor and at least one motion sensor comprised in a wearable monitoring device, the assessment generation system (10, 700) comprising one or more processing circuits configured to: process a motion signal output by the at least one motion sensor and a biometric signal output by the at least one biometric sensor to identify the exercise activity, said motion signal being used to identify a type of the exercise activity output by the respective motion and biometric sensors responsive to the user exercising; process the motion signal using the identified exercise activity to determine an exercise cadence corresponding to the identified exercise activity; process the biometric signal to determine at least one biometric parameter; characterised in that the one or more processing circuits are configured to: estimate a number of repetitions of the identified exercise activity using an integral of the exercise cadence; and estimate a number of sets of the identified exercise activity using a time-dependent change of the at least one biometric parameter. process a motion signal output by the at least one motion sensor and a biometric signal output by the at least one biometric sensor to identify the exercise activity, said motion signal being used to identify a type of the exercise activity output by the respective motion and biometric sensors responsive to the user exercising; process the motion signal using the identified exercise activity to determine an exercise cadence corresponding to the identified exercise activity; process the biometric signal to determine at least one biometric parameter; estimate a number of repetitions of the identified exercise activity using an integral of the exercise cadence; and estimate a number of sets of the identified exercise activity using a time-dependent change of the at least one biometric parameter.
A bast fiber nonwoven fabric comprising at least about 5% bast fibers, where said bast fibers have a mean length of greater than about 6mm and are coated to render the fiber compatible with quaternary ammonium based sanitizers, where said coated bast fibers have been coated with a thermoplastic resin.
A method of extracting (meth)acrylic acid from an aqueous reaction medium, the aqueous reaction medium being formed from at least one base catalyst and at least one dicarboxylic acid selected from maleic, fumaric, malic, itaconic, citraconic, mesaconic, and citramalic acid or mixtures thereof in aqueous solution and containing the base catalysed decarboxylation products thereof including (meth)acrylic acid and/or (meth)acrylate base salt, the method comprising the step of solvent extraction of the (meth)acrylic acid into an organic phase comprising an organic solvent in contact with the said aqueous reaction medium wherein the method is characterised in that there is added an additional amount of at least one of the said dicarboxylic acids and/or a pre-cursor thereof to the said aqueous reaction medium containing the said base catalysed decarboxylation products thereof to enhance the solvent extraction of the (meth)acrylic acid into the organic phase, wherein the pre-cursor will decompose under suitable conditions of temperature and pressure to produce the said dicarboxylic acids.
Valve insert construction kit system of a valve insert with axial throughflow having a non-return valve characterised in that - the valve insert construction kit system has a cover, a bypass valve and a blind plug, which can alternatively be attached coaxially onto the non-return valve, - the non-return valve can be connected via a clip connection to the bypass valve, the cover or the blind plug. - the valve insert construction kit system has a cover, a bypass valve and a blind plug, which can alternatively be attached coaxially onto the non-return valve, - the non-return valve can be connected via a clip connection to the bypass valve, the cover or the blind plug.
A method for controlling uplink power allocation in a user equipment operating in a communication network, the method comprising: selecting between at least a first uplink power allocation technique and a second power allocation technique for use in the user equipment, wherein the first uplink power allocation technique allocates, to frequency i, power P i according to: P i = P remaining, s P DPCCH, target, i SG i ∑ k P DPCCH, target, k SG k, where P remaining,s is the remaining power for scheduled transmissions once the power for non-scheduled transmissions has been taken into account, P DPCCH,target,i is the filtered dedicated physical control channel power, and SG i is the Serving Grant on frequency i; and using the selected power allocation technique in the user equipment to transmit uplink data by allocating transmit power between at least two uplink carriers on which the uplink data is transmitted, wherein the selection of the uplink power allocation technique is based at least in part on measured signal-to-interference-and-noise ratios, SINR, for downlink carriers corresponding to the uplink carriers. selecting between at least a first uplink power allocation technique and a second power allocation technique for use in the user equipment, wherein the first uplink power allocation technique allocates, to frequency i, power P i according to: P i = P remaining, s P DPCCH, target, i SG i ∑ k P DPCCH, target, k SG k, where P remaining,s is the remaining power for scheduled transmissions once the power for non-scheduled transmissions has been taken into account, P DPCCH,target,i is the filtered dedicated physical control channel power, and SG i is the Serving Grant on frequency i; and using the selected power allocation technique in the user equipment to transmit uplink data by allocating transmit power between at least two uplink carriers on which the uplink data is transmitted, wherein the selection of the uplink power allocation technique is based at least in part on measured signal-to-interference-and-noise ratios, SINR, for downlink carriers corresponding to the uplink carriers.
A lubricating oil supply unit comprising: a holding portion which holds a lubricating oil supplied to inside of a bearing; a supply portion which supplies the lubricating oil to the inside of the bearing from the holding portion; and a control unit for controlling operations of the supply portion, whereby the lubricating oil supply unit is adapted for being arranged between an inner ring spacer and an outer ring spacer which are arranged adjacently to the bearing, the lubricating oil supply unit further comprising a power generation portion which generates electric power for activating the supply portion and a power storage portion charged with electric power generated by the power generation portion, the power generation portion including a thermoelectric element fixable with the outer ring spacer on an inner circumferential side and a heat conductor connected to the thermoelectric element on the inner ring spacer side, characterized in that the control unit is configured to obtain data on a condition of supply of the lubricating oil and to output the data to outside of the control unit. a holding portion which holds a lubricating oil supplied to inside of a bearing; a supply portion which supplies the lubricating oil to the inside of the bearing from the holding portion; and a control unit for controlling operations of the supply portion, whereby the lubricating oil supply unit is adapted for being arranged between an inner ring spacer and an outer ring spacer which are arranged adjacently to the bearing, the lubricating oil supply unit further comprising a power generation portion which generates electric power for activating the supply portion and a power storage portion charged with electric power generated by the power generation portion, the power generation portion including a thermoelectric element fixable with the outer ring spacer on an inner circumferential side and a heat conductor connected to the thermoelectric element on the inner ring spacer side, characterized in that the control unit is configured to obtain data on a condition of supply of the lubricating oil and to output the data to outside of the control unit.
Composition for coating substrates, in particular for coating thermoplastic substrates, containing at least one aqueous optionally hydroxy-functional, anionic or nonionic polyurethane dispersion and at least one anionic styrene-polybutadiene copolymer dispersion, characterized in that the composition comprises the at least one polyurethane dispersion in a range from 33% to 90% by weight, based on the nonvolatile proportion of the composition, determined after evaporation of the solvents or dispersants and treatment of 1 g of the composition for 1 h at 125°C in accordance with DIN EN ISO 32511.
A method of discarding logged measurements of a user equipment in a wireless communication system, the method comprising: receiving, by a user equipment in a RRC connected mode from a base station, a first Minimization of Drive Tests, hereinafter briefly MDT, configuration; upon receiving the first MDT configuration, starting a validity timer; upon receiving a second MDT configuration, discarding logged measurement according to the first MDT configuration and restarting the validity timer; when the validity timer is expired, discarding the second MDT configuration and starting a conservation timer; and when the conservation timer is expired, discarding the logged measurements. receiving, by a user equipment in a RRC connected mode from a base station, a first Minimization of Drive Tests, hereinafter briefly MDT, configuration; upon receiving the first MDT configuration, starting a validity timer; upon receiving a second MDT configuration, discarding logged measurement according to the first MDT configuration and restarting the validity timer; when the validity timer is expired, discarding the second MDT configuration and starting a conservation timer; and when the conservation timer is expired, discarding the logged measurements.
A process for preparing a pet food composition based on a meat portion and one or more carbohydrate sources, the process comprising (a) pre-coagulating the meat portion by heating the meat portion to form a coagulated meat composition, wherein the temperature of heating is above the thermal denaturation temperature of the meat having the highest thermal denaturation temperature, wherein said thermal denaturation temperature ranges from 48°C for fish protein to 80°C for skeletal muscle protein of cattle, and lying somewhere in between the range from 48°C to 80°C the thermal denaturation temperature of muscles from chicken and pigs; (b) combining the one or more carbohydrate sources and water to form a carbohydrate composition, wherein the one or more carbohydrate sources comprise starch or flour; (c) heating the carbohydrate composition to a temperature of gelatinization; and (d) combining the meat composition and the carbohydrate composition. (a) pre-coagulating the meat portion by heating the meat portion to form a coagulated meat composition, wherein the temperature of heating is above the thermal denaturation temperature of the meat having the highest thermal denaturation temperature, wherein said thermal denaturation temperature ranges from 48°C for fish protein to 80°C for skeletal muscle protein of cattle, and lying somewhere in between the range from 48°C to 80°C the thermal denaturation temperature of muscles from chicken and pigs; (b) combining the one or more carbohydrate sources and water to form a carbohydrate composition, wherein the one or more carbohydrate sources comprise starch or flour; (c) heating the carbohydrate composition to a temperature of gelatinization; and (d) combining the meat composition and the carbohydrate composition.
A method for performing an uplink transmission to a base station by a user equipment through an unlicensed cell in a wireless communication system, the method comprising: receiving an uplink grant that schedules an uplink transmission in one or more subframes from the base station; and performing the uplink transmission in the one or more subframes using at least one of a first type channel access or a second type channel access, wherein the first type channel access is a Listen Before Talk, LBT, with random back-off with a contention window, CW, of a variable size, wherein the second type channel access is based on an LBT without random back-off, wherein a size of the contention window is determined based on a channel access priority class used in the first type channel access, characterized in that performing the uplink transmission comprises performing the uplink transmission using the second type channel access when all of the one or more subframes are before a last subframe indicated by a common control channel regardless of a channel access type indicated for the one or more subframes by the uplink grant. receiving an uplink grant that schedules an uplink transmission in one or more subframes from the base station; and performing the uplink transmission in the one or more subframes using at least one of a first type channel access or a second type channel access, wherein the first type channel access is a Listen Before Talk, LBT, with random back-off with a contention window, CW, of a variable size, wherein the second type channel access is based on an LBT without random back-off, wherein a size of the contention window is determined based on a channel access priority class used in the first type channel access, characterized in that performing the uplink transmission comprises performing the uplink transmission using the second type channel access when all of the one or more subframes are before a last subframe indicated by a common control channel regardless of a channel access type indicated for the one or more subframes by the uplink grant.