mhurhangee/patent-ind-claim-en huggingface dataset:
A method for machining a surface of a workpiece with the aid of a brush unit , with a rotationally driveable brush holder and a circular brush with a bristle ring with bristles projecting outwards, according to which the bristles are elastically deformed by employing adjustable stop means dipping into the rotating bristle ring and by storing movement energy, so that the bristles , after their release, machine the surface of the workpiece not only rotating, but at the same time beating as a result of the stored movement energy being released after passing the stop means , characterised in that the stop means and/or the circular brush is adjusted depending on the roughness of the surface of the workpiece , wherein the roughness of the machined surface of the workpiece is detected in a tactile and/or contactless manner and, with the aid of a control/regulating unit , is converted into adjustment movements of the stop means and/or the circular brush according to the desired roughness profile of the surface. the stop means and/or the circular brush is adjusted depending on the roughness of the surface of the workpiece , wherein the roughness of the machined surface of the workpiece is detected in a tactile and/or contactless manner and, with the aid of a control/regulating unit , is converted into adjustment movements of the stop means and/or the circular brush according to the desired roughness profile of the surface.
An exhaust system for treating an exhaust gas produced by a lean burn engine comprising: (i) a NO x absorber catalyst comprising a molecular sieve catalyst disposed on a substrate, wherein the molecular sieve catalyst comprises a noble metal and a molecular sieve, wherein the molecular sieve contains the noble metal; (ii) means for introducing hydrocarbons into the exhaust gas ; and (iii) a lean NO x trap ; characterised in that the NO x absorber catalyst is upstream of both the means for introducing hydrocarbons into the exhaust gas and the lean NO x trap . (i) a NO x absorber catalyst comprising a molecular sieve catalyst disposed on a substrate, wherein the molecular sieve catalyst comprises a noble metal and a molecular sieve, wherein the molecular sieve contains the noble metal; (ii) means for introducing hydrocarbons into the exhaust gas ; and (iii) a lean NO x trap ;
A method for operating a mobile station, MS , in a wireless network, the method comprising: transmitting, to a base station, BS , using beamformed transmissions, one or more first sounding reference signals, SRSs. by using a set of beams of the MS in one or more configured bandwidths corresponding to an entire usable bandwidth; receiving, from the BS, configuration information including: information for indicating at least one specific transmit beam of the set of beams of the MS, the at least one specific transmit beam used for a transmission of a SRS in the one or more first SRSs; information for indicating a bandwidth corresponding to the at least one specific transmit beam used for the transmission of the SRS in the one or more first SRSs, the bandwidth being a fraction of the one or more configured bandwidths; and information for indicating a periodicity and an offset in a time domain; and transmitting, to the BS, one or more second SRSs by using the at least one specific transmit beam of the MS on sounding slots based on the configuration information. transmitting, to a base station, BS , using beamformed transmissions, one or more first sounding reference signals, SRSs. by using a set of beams of the MS in one or more configured bandwidths corresponding to an entire usable bandwidth; receiving, from the BS, configuration information including: information for indicating at least one specific transmit beam of the set of beams of the MS, the at least one specific transmit beam used for a transmission of a SRS in the one or more first SRSs; information for indicating a bandwidth corresponding to the at least one specific transmit beam used for the transmission of the SRS in the one or more first SRSs, the bandwidth being a fraction of the one or more configured bandwidths; and information for indicating a periodicity and an offset in a time domain; and information for indicating at least one specific transmit beam of the set of beams of the MS, the at least one specific transmit beam used for a transmission of a SRS in the one or more first SRSs; information for indicating a bandwidth corresponding to the at least one specific transmit beam used for the transmission of the SRS in the one or more first SRSs, the bandwidth being a fraction of the one or more configured bandwidths; and information for indicating a periodicity and an offset in a time domain; and transmitting, to the BS, one or more second SRSs by using the at least one specific transmit beam of the MS on sounding slots based on the configuration information.
A storage system comprising: a first set of parallel rails or tracks and a second set of parallel rails or tracks extending transverse to the first set in a substantially horizontal plane to form a grid pattern comprising a plurality of grid spaces; a plurality of stackable storage containers arranged in stacks the stacks being located beneath the rails or tracks , each stack being located within the footprint of a grid space and; at least one load handling device disposed on the rails or tracks , above the stacks and arranged to move laterally above the stacks of stackable containers on the rails or tracks , the or each load handling device comprising a lifting device arranged to lift one or more containers , or parts thereof, from the top of a stack ; wherein a number of the containers within the or each stack , comprise service means for providing services to the or each container , thereby enabling individual containers within the stacks to perform additional functions; the lifting device comprising releasably connecting means for connecting a load handling device to the container to be lifted, the releasable connecting means adapted to connect the container to be lifted to a power or data or signal or other service provided by the load handling device thereby maintaining power, or data or signal or other service to the container to be lifted when said container is lifted from the top of a stack , through the grid spaces, in to the load handling device . a first set of parallel rails or tracks and a second set of parallel rails or tracks extending transverse to the first set in a substantially horizontal plane to form a grid pattern comprising a plurality of grid spaces; a plurality of stackable storage containers arranged in stacks the stacks being located beneath the rails or tracks , each stack being located within the footprint of a grid space and; at least one load handling device disposed on the rails or tracks , above the stacks and arranged to move laterally above the stacks of stackable containers on the rails or tracks , the or each load handling device comprising a lifting device arranged to lift one or more containers , or parts thereof, from the top of a stack ; wherein a number of the containers within the or each stack , comprise service means for providing services to the or each container , thereby enabling individual containers within the stacks to perform additional functions; the lifting device comprising releasably connecting means for connecting a load handling device to the container to be lifted, the releasable connecting means adapted to connect the container to be lifted to a power or data or signal or other service provided by the load handling device thereby maintaining power, or data or signal or other service to the container to be lifted when said container is lifted from the top of a stack , through the grid spaces, in to the load handling device .
Hybrid vehicle power train comprising: - three drive sources (MT, ME1, ME2) including a main electric machine (ME1), a secondary electric machine (ME2) and a heat engine (MT) having parallel shafts; - and a gearbox with parallel shafts and with gear sets, which comprises three parallel and laterally offset input shafts , each of which is connected to one of the three drive sources, and two couplings (C1, C2) for selectively transferring the torque supplied by the input shaft of the secondary electric machine (ME2) and the heat engine (MT) to a common output shaft leading to the vehicle wheels, wherein, in the axial direction common to the input shafts of the gearbox , the gearbox is arranged axially between the heat engine (MT) and the two electric machines (ME1, ME2), characterized in that the torque of the heat engine (MT) is sent to the common output shaft via: - two idler gears which are supported by the input shaft of the heat engine (MT) and between which the first coupling (C1) is positioned; - and two idler gears which are supported by the common output shaft , between which the second coupling (C2) is positioned, and each of which gears permanently meshes with an associated idler gear supported by the input shaft of the heat engine (MT). - three drive sources (MT, ME1, ME2) including a main electric machine (ME1), a secondary electric machine (ME2) and a heat engine (MT) having parallel shafts; - and a gearbox with parallel shafts and with gear sets, which comprises three parallel and laterally offset input shafts , each of which is connected to one of the three drive sources, and two couplings (C1, C2) for selectively transferring the torque supplied by the input shaft of the secondary electric machine (ME2) and the heat engine (MT) to a common output shaft leading to the vehicle wheels, wherein, in the axial direction common to the input shafts of the gearbox , the gearbox is arranged axially between the heat engine (MT) and the two electric machines (ME1, ME2), characterized in that the torque of the heat engine (MT) is sent to the common output shaft via: - two idler gears which are supported by the input shaft of the heat engine (MT) and between which the first coupling (C1) is positioned; - and two idler gears which are supported by the common output shaft , between which the second coupling (C2) is positioned, and each of which gears permanently meshes with an associated idler gear supported by the input shaft of the heat engine (MT). - two idler gears which are supported by the input shaft of the heat engine (MT) and between which the first coupling (C1) is positioned; - and two idler gears which are supported by the common output shaft , between which the second coupling (C2) is positioned, and each of which gears permanently meshes with an associated idler gear supported by the input shaft of the heat engine (MT).
A composite comprising a ceramic body , comprising a) a ceramic; b) a first surface ; c) a hole, comprising a front face , an end face and a lateral surface , wherein the front face is an opening in the first surface ; d) a second surface ; e) a first conductor , wherein the first conductor i) electrically connects the second surface to the lateral surface , and ii) comprises a cermet; f) a third surface ; and g) at least one further conductor , wherein each further conductor comprises a cermet, characterized in that each further conductor electrically connects the third surface to the lateral surface . a) a ceramic; b) a first surface ; c) a hole, comprising a front face , an end face and a lateral surface , wherein the front face is an opening in the first surface ; d) a second surface ; e) a first conductor , wherein the first conductor i) electrically connects the second surface to the lateral surface , and ii) comprises a cermet; i) electrically connects the second surface to the lateral surface , and ii) comprises a cermet; f) a third surface ; and g) at least one further conductor , wherein each further conductor comprises a cermet,
Method for protecting a microbially produced substance against oxidation, comprising a) transforming a microorganism capable of producing said substance with a recombinant nucleic acid comprising a catalase gene coding for a polypeptide operably linked to one or more control sequences that direct the production of the polypeptide in an expression host, wherein the polypeptide is i) a catalase having at least 95% amino acid sequence identity to SEQ ID NO.1, or ii) a fragment of the catalase according to i), wherein the fragment has catalase activity, or providing a microorganism comprising, as a heterologous gene, a catalase gene coding for i) a catalase having at least 95% amino acid sequence identity to SEQ ID NO.1, or ii) a fragment of the catalase according to i), wherein the fragment has catalase activity, and b) cultivating the microorganism under conditions allowing for the expression of said catalase gene; wherein the microbially produced substance is an enzyme selected from the group consisting of protease, amylase, carbohydrase, lipase, cellulase, pullulanase, cutinase, pectinase, mannanase, arabinase, galactanase, xylanase, oxidase, e.g. laccase, peroxidase, isomerase, transferase, kinase, and phosphatase. a) transforming a microorganism capable of producing said substance with a recombinant nucleic acid comprising a catalase gene coding for a polypeptide operably linked to one or more control sequences that direct the production of the polypeptide in an expression host, wherein the polypeptide is i) a catalase having at least 95% amino acid sequence identity to SEQ ID NO.1, or ii) a fragment of the catalase according to i), wherein the fragment has catalase activity, or providing a microorganism comprising, as a heterologous gene, a catalase gene coding for i) a catalase having at least 95% amino acid sequence identity to SEQ ID NO.1, or ii) a fragment of the catalase according to i), wherein the fragment has catalase activity, and i) a catalase having at least 95% amino acid sequence identity to SEQ ID NO.1, or ii) a fragment of the catalase according to i), wherein the fragment has catalase activity, or i) a catalase having at least 95% amino acid sequence identity to SEQ ID NO.1, or ii) a fragment of the catalase according to i), wherein the fragment has catalase activity, and b) cultivating the microorganism under conditions allowing for the expression of said catalase gene;
Voltage transformer comprising: a first parallel circuit comprising a first capacitor (C1) with a number of N: > 1 parallel-connected converters with N input voltages (U 1 ...U n ) and N input currents (I 1 ...I n ), wherein the converters operate as input converters, characterized in that a second capacitor (C2) is connected in series with the first parallel circuit, wherein a capacitor voltage (U C2 ) applied to the second capacitor (C2) is less than or equal to the lowest input voltage (U 1 ...U n ) of the converters, and at least one converter is in the form of a two-quadrant converter in such a manner that the current is reversible and at least one input converter operates as an output converter. a first parallel circuit comprising a first capacitor (C1) with a number of N: > 1 parallel-connected converters with N input voltages (U 1 ...U n ) and N input currents (I 1 ...I n ), wherein the converters operate as input converters, characterized in that a second capacitor (C2) is connected in series with the first parallel circuit, wherein a capacitor voltage (U C2 ) applied to the second capacitor (C2) is less than or equal to the lowest input voltage (U 1 ...U n ) of the converters, and at least one converter is in the form of a two-quadrant converter in such a manner that the current is reversible and at least one input converter operates as an output converter.
An outsole being formed from a viscoelastic body containing a rubber component, characterized by the viscoelastic body having a loss factor [tan δ] measured by a dynamic viscoelasticity measurement under conditions of a temperature of 23°C, a frequency of 10 Hz, a static strain of 10%, and a dynamic strain of 7% being 0.17 or more, a storage elastic modulus [E'] measured by the dynamic viscoelasticity measurement being 5.7 MPa or less, and a ratio of a tensile stress at 300% elongation to a tensile stress at 100% elongation [M300/M100] being 4.4 or more.
System for replacing a reel of material for the production of electrical energy storage devices, the system comprising: - a vehicle , preferably a self-driving vehicle, for transporting a reel from a storage or receiving station to a change station; the system being characterized by further comprising: - at least one support shaft or spindle carried by the vehicle and configured to support the reel and to transfer it, at the change station, to a feeding unit of an automatic machine for the production of the electrical energy storage devices; and - a gripping member (11; 11') carried by the vehicle and comprising at least one gripper configured to receive and grip an initial flap of the reel supported by the support spindle and to keep such initial flap tensioned along an unwinding path (T) of the same. - a vehicle , preferably a self-driving vehicle, for transporting a reel from a storage or receiving station to a change station; - at least one support shaft or spindle carried by the vehicle and configured to support the reel and to transfer it, at the change station, to a feeding unit of an automatic machine for the production of the electrical energy storage devices; and - a gripping member (11; 11') carried by the vehicle and comprising at least one gripper configured to receive and grip an initial flap of the reel supported by the support spindle and to keep such initial flap tensioned along an unwinding path (T) of the same.
A fan section for a gas turbine engine comprising: a fan hub having a slot; a spinner secured to a forward end of the fan hub ; a plurality of fan blades , each including an airfoil extending from a root to a tip , wherein the airfoil has a leading edge and the root is received in the slot; a platform secured to the fan hub and arranged between adjacent fan blades ; a spinner seal axially located between the spinner and the platform , characterised in that : the spinner seal has a plurality of castellations to correspond with the locations of the blade roots ; and the fan section further comprises a flap seal having a base secured to the airfoil and a flap integral with and extending from the base portion and canted toward the root and engaging a side of the platform , the flap seal being trimmed back at a leading edge of the platform to provide a smooth continuous surface for a castellation of the spinner seal , wherein the castellation is contoured to fit the fan blade root and the flap seal to prevent leakage around the blade root . a fan hub having a slot; a spinner secured to a forward end of the fan hub ; a plurality of fan blades , each including an airfoil extending from a root to a tip , wherein the airfoil has a leading edge and the root is received in the slot; a platform secured to the fan hub and arranged between adjacent fan blades ; a spinner seal axially located between the spinner and the platform , characterised in that : the spinner seal has a plurality of castellations to correspond with the locations of the blade roots ; and the fan section further comprises a flap seal having a base secured to the airfoil and a flap integral with and extending from the base portion and canted toward the root and engaging a side of the platform , the flap seal being trimmed back at a leading edge of the platform to provide a smooth continuous surface for a castellation of the spinner seal , wherein the castellation is contoured to fit the fan blade root and the flap seal to prevent leakage around the blade root . the spinner seal has a plurality of castellations to correspond with the locations of the blade roots ; and the fan section further comprises a flap seal having a base secured to the airfoil and a flap integral with and extending from the base portion and canted toward the root and engaging a side of the platform , the flap seal being trimmed back at a leading edge of the platform to provide a smooth continuous surface for a castellation of the spinner seal , wherein the castellation is contoured to fit the fan blade root and the flap seal to prevent leakage around the blade root .
Data transmitter of a communication system , wherein the communication system communicates in a wireless manner in a frequency band used for communication by a plurality of communication systems, wherein the data transmitter is configured to transmit a data signal according to a hopping pattern , wherein the data signal comprises a plurality of sub-data packets transmitted in a distributed way according to a frequency hop-based and/or time hop-based occupancy (118_1-118_4) of the frequency band, indicated by the hopping pattern , wherein the data transmitter is configured to derive the hopping pattern from a base hopping pattern on the basis of a shift of the base hopping pattern in frequency and/or time, wherein the data transmitter is configured to, when deriving the hopping pattern from the base hopping pattern, if at least one hop of the hopping pattern , due to deriving the hopping pattern from the base hopping pattern, is outside of the admissible frequency range on the basis of the shift of the base hopping pattern in frequency, shift only the at least one hop that is outside of the admissible frequency range due to deriving the hopping pattern from the base hopping pattern, - into the admissible frequency range on the basis of a cyclic shift in frequency, and - additionally shift the same in time on the basis of a linear shift. wherein the communication system communicates in a wireless manner in a frequency band used for communication by a plurality of communication systems, wherein the data transmitter is configured to transmit a data signal according to a hopping pattern , wherein the data signal comprises a plurality of sub-data packets transmitted in a distributed way according to a frequency hop-based and/or time hop-based occupancy (118_1-118_4) of the frequency band, indicated by the hopping pattern , wherein the data transmitter is configured to derive the hopping pattern from a base hopping pattern on the basis of a shift of the base hopping pattern in frequency and/or time, wherein the data transmitter is configured to, when deriving the hopping pattern from the base hopping pattern, if at least one hop of the hopping pattern , due to deriving the hopping pattern from the base hopping pattern, is outside of the admissible frequency range on the basis of the shift of the base hopping pattern in frequency, shift only the at least one hop that is outside of the admissible frequency range due to deriving the hopping pattern from the base hopping pattern, - into the admissible frequency range on the basis of a cyclic shift in frequency, and - additionally shift the same in time on the basis of a linear shift. - into the admissible frequency range on the basis of a cyclic shift in frequency, and - additionally shift the same in time on the basis of a linear shift.