mhurhangee/ep-ind-claims huggingface dataset:
A method for adjusting an uplink transmit power in a wireless communication system, the method performed by a user equipment, UE, and comprising: transmitting, by the UE configured with multiple time alignment groups, TAGs including a first TAG to which a primary cell belongs and a second TAG to which a secondary cell belongs, a random access preamble for the secondary cell; receiving, by the UE, a random access response through the primary cell in response to the random access preamble for the secondary cell, the random access response in response to the random access preamble for the secondary cell including a transmit power command; determining, by the UE, an uplink transmit power for an uplink signal based on which cell of the primary cell and the secondary cell, the uplink signal is to be transmitted to; wherein if the uplink signal includes a scheduled message in response to the random access response and is to be transmitted to the secondary cell to which the random access preamble is transmitted, the transmit power command in the received random access response is used to determine the uplink transmit power, and wherein if the uplink signal is to be transmitted to the primary cell other than the secondary cell to which the random access preamble is transmitted, the transmit power command in the received random access response is not used to determine the uplink transmit power; and transmitting, by the UE, an uplink signal, based on the adjusted uplink transmit power, to the secondary cell. transmitting, by the UE configured with multiple time alignment groups, TAGs including a first TAG to which a primary cell belongs and a second TAG to which a secondary cell belongs, a random access preamble for the secondary cell; receiving, by the UE, a random access response through the primary cell in response to the random access preamble for the secondary cell, the random access response in response to the random access preamble for the secondary cell including a transmit power command; determining, by the UE, an uplink transmit power for an uplink signal based on which cell of the primary cell and the secondary cell, the uplink signal is to be transmitted to; wherein if the uplink signal includes a scheduled message in response to the random access response and is to be transmitted to the secondary cell to which the random access preamble is transmitted, the transmit power command in the received random access response is used to determine the uplink transmit power, and wherein if the uplink signal is to be transmitted to the primary cell other than the secondary cell to which the random access preamble is transmitted, the transmit power command in the received random access response is not used to determine the uplink transmit power; and transmitting, by the UE, an uplink signal, based on the adjusted uplink transmit power, to the secondary cell.
Tire building drum (1, 101) that is rotatable about a central axis extending in an axial direction, wherein the tire building drum (1, 101) comprises a crown section and a bead-lock section adjacent to the crown section in the axial direction, wherein the bead-lock section defines a bead-lock position for engaging a bead of a tire, wherein the crown section comprises a plurality of crown segments (30, 130) distributed in a circumferential direction about the central axis and movable with respect to the central axis from a crown-down position into a crown-up position in a crown-up direction with at least a vector-component in a radial direction perpendicular to the central axis, wherein the crown segments (30, 130) together form a crown surface facing outwards in the radial direction, a leading edge facing towards the bead-lock section in the axial direction when the crown segments (30, 130) are in the crown-down position and a shoulder that defines the transition from the crown surface to the leading edge, wherein the tire building drum (1, 101) further comprises a sleeve (6, 106) that extends around the plurality of crown segments (30, 130) in the circumferential direction, characterized in that the sleeve comprises a first circumferential edge that is fixed to the plurality of crown segments (30, 130) at a side of the shoulder facing away from the bead-lock section and a second circumferential edge that is located between the shoulder and the bead-lock position when said plurality of crown segments (30, 130) are in the crown-down position, wherein the second circumferential edge is unfixed at least when the plurality of crown segments (30, 130) are in the crown-down position.
A steering apparatus (2; 2A; 2B) used for steering a vehicle, the steering apparatus (2; 2A; 2B) comprising: a steering wheel configured to rotate about a first rotation axis; a folding mechanism configured to rotate the steering wheel about a second rotation axis crossing the first rotation axis, so as to fold the steering wheel along the first rotation axis; a moving mechanism configured to move the steering wheel between a protruding position in which the steering wheel protrudes from a dashboard of the vehicle and a stored position that is closer to the dashboard than the protruding position; and an electronic control unit (84; 84A; 84B) configured to drive the folding mechanism and the moving mechanism, characterized by when the folded steering wheel is moved from the protruding position to the stored position, the electronic control unit (84; 84A; 84B) being configured to drive, in advance, a drive member mounted on the vehicle so that the steering wheel is retracted relative to a body of a driver. a steering wheel configured to rotate about a first rotation axis; a folding mechanism configured to rotate the steering wheel about a second rotation axis crossing the first rotation axis, so as to fold the steering wheel along the first rotation axis; a moving mechanism configured to move the steering wheel between a protruding position in which the steering wheel protrudes from a dashboard of the vehicle and a stored position that is closer to the dashboard than the protruding position; and an electronic control unit (84; 84A; 84B) configured to drive the folding mechanism and the moving mechanism, characterized by when the folded steering wheel is moved from the protruding position to the stored position, the electronic control unit (84; 84A; 84B) being configured to drive, in advance, a drive member mounted on the vehicle so that the steering wheel is retracted relative to a body of a driver.
Transmission mechanism for a drive system of a robot arm, which acts in two directions with at least one rope-like traction means, which runs between a driving roller and a driven roller for force transmission, and which contains two strands, with a frame that supports the driving roller and the driven roller, and with a spring coupling, which is inserted in one of the two strands and contains a non-linear load displacement curve, characterized in that - the spring coupling in the loaded strand of the rope-like traction means has a pretension, which effects a minimum tensioning force in the return strand in all load conditions, - the spring coupling includes a first spring element with an invariant spring constant in the operating range and a second spring element with a spring constant which is increasing in the case of increasing longitudinal expansion, wherein the ends of both spring elements (13, 15) are linked with each other, - the second spring element is configured to enter a non-elastic range when reaching a maximum predetermined expansion, before an over-expansion of the first spring element occurs, - the rope-like traction means contains a further tension spring with a linear load displacement curve in the other one of the two strands, so that the non-linear load displacement curve of the spring coupling is effective only if the strand included in the spring coupling operates as loaded strand. - the spring coupling in the loaded strand of the rope-like traction means has a pretension, which effects a minimum tensioning force in the return strand in all load conditions, - the spring coupling includes a first spring element with an invariant spring constant in the operating range and a second spring element with a spring constant which is increasing in the case of increasing longitudinal expansion, wherein the ends of both spring elements (13, 15) are linked with each other, - the second spring element is configured to enter a non-elastic range when reaching a maximum predetermined expansion, before an over-expansion of the first spring element occurs, - the rope-like traction means contains a further tension spring with a linear load displacement curve in the other one of the two strands, so that the non-linear load displacement curve of the spring coupling is effective only if the strand included in the spring coupling operates as loaded strand.
A method for delaminating a multilayer device comprising several layers, at least one of these layers being an organic layer, said method comprising at least the following successive steps: a) placing the multilayer device in contact with a fluid; b) performing a sudden and instantaneous compression of the fluid by suddenly and instantaneously increasing the pressure of the fluid to a pressure P1, at which the fluid is in a first physical state; c) performing a sudden and instantaneous decompression of the fluid by suddenly and instantaneously reducing the pressure of the fluid from the pressure P1 to a pressure P2 at which the fluid is in a second physical state, the pressure P2 being less than the pressure P1; d) repeating the sequence of step b) and step c), the sequence of steps b) and c) forming a pulse or cycle; e) recovering the delaminated multilayer device, the sudden and instantaneous compression of the fluid and the sudden and instantaneous decompression of the fluid each having a duration of 1 second to 30 seconds. a) placing the multilayer device in contact with a fluid; b) performing a sudden and instantaneous compression of the fluid by suddenly and instantaneously increasing the pressure of the fluid to a pressure P1, at which the fluid is in a first physical state; c) performing a sudden and instantaneous decompression of the fluid by suddenly and instantaneously reducing the pressure of the fluid from the pressure P1 to a pressure P2 at which the fluid is in a second physical state, the pressure P2 being less than the pressure P1; d) repeating the sequence of step b) and step c), the sequence of steps b) and c) forming a pulse or cycle; e) recovering the delaminated multilayer device,
Composition comprising a) from 30 to 99.799989% by weight of at least one linear or branched polyorganosiloxane comprising at least two alkenyl or alkynyl groups, as component A; b) from 0.1 to 30% by weight of at least one linear or branched polyorganosiloxane comprising at least 3 Si-H groups, as component B; c) from 0.000001 to 1% by weight of at least one hydrosilylation catalyst as component C; d) from 0.00001 to 5% by weight of at least one inhibitor or moderator selected from the groups D1 and D2, as component D: D1: organic compounds having at least one alkynyl group and at least one hydroxy group; D2: acyclic or cyclic organosiloxanes having from 1 to 5 Si atoms, comprising at least two alkenyl groups; e) from 0.2 to 5% by weight of at least one iron-doped pyrogenic titanium dioxide as component E, where the iron content of the iron-doped pyrogenic titanium dioxide is from 0.1 to 10% by weight, f) from 0 to 69.799989% by weight of one or more linear or branched polyorganosiloxanes comprising two terminal Si-H groups or one terminal Si-H group and one terminal alkenyl group, as component F; g) from 0 to 69.799989% by weight of one or more other linear or branched polyorganosiloxanes as component G; h) from 0 to 10% by weight of one or more additives as component H; where the entirety of components A to H gives 100% by weight. a) from 30 to 99.799989% by weight of at least one linear or branched polyorganosiloxane comprising at least two alkenyl or alkynyl groups, as component A; b) from 0.1 to 30% by weight of at least one linear or branched polyorganosiloxane comprising at least 3 Si-H groups, as component B; c) from 0.000001 to 1% by weight of at least one hydrosilylation catalyst as component C; d) from 0.00001 to 5% by weight of at least one inhibitor or moderator selected from the groups D1 and D2, as component D: D1: organic compounds having at least one alkynyl group and at least one hydroxy group; D2: acyclic or cyclic organosiloxanes having from 1 to 5 Si atoms, comprising at least two alkenyl groups; D1: organic compounds having at least one alkynyl group and at least one hydroxy group; D2: acyclic or cyclic organosiloxanes having from 1 to 5 Si atoms, comprising at least two alkenyl groups; e) from 0.2 to 5% by weight of at least one iron-doped pyrogenic titanium dioxide as component E, where the iron content of the iron-doped pyrogenic titanium dioxide is from 0.1 to 10% by weight, f) from 0 to 69.799989% by weight of one or more linear or branched polyorganosiloxanes comprising two terminal Si-H groups or one terminal Si-H group and one terminal alkenyl group, as component F; g) from 0 to 69.799989% by weight of one or more other linear or branched polyorganosiloxanes as component G; h) from 0 to 10% by weight of one or more additives as component H;
A system for cleaning dishes, comprising a dishwasher (150, 250) for batch-wise washing of pre-rinsed dishes, which dishwasher (150, 250) is provided with an outlet (177, 277) for used dishwater, the system (100, 200) further comprising a device for batch-wise pre-rinsing of dishes, which device comprises a spray means (70a-b) for spraying a rinsing liquid, wherein the spray means (70a-b) is arranged in a rinsing chamber, which is adapted to receive and enclose a batch of dishes, the rinsing chamber being adapted to be opened after the dishes has been rinsed for removal of the pre-rinsed dishes, an inlet (77, 209) for rinsing liquid that has been used in a washing or rinsing process of a separate dishwasher (150, 250) and an overflow pipe which is connectable to a drain, wherein said inlet (77, 209) for rinsing liquid is connected to the outlet (177, 277) for used dishwater of the dishwasher (150, 250). the system (100, 200) further comprising a device for batch-wise pre-rinsing of dishes, which device comprises a spray means (70a-b) for spraying a rinsing liquid, wherein the spray means (70a-b) is arranged in a rinsing chamber, which is adapted to receive and enclose a batch of dishes, the rinsing chamber being adapted to be opened after the dishes has been rinsed for removal of the pre-rinsed dishes, an inlet (77, 209) for rinsing liquid that has been used in a washing or rinsing process of a separate dishwasher (150, 250) and an overflow pipe which is connectable to a drain, wherein said inlet (77, 209) for rinsing liquid is connected to the outlet (177, 277) for used dishwater of the dishwasher (150, 250).
A method for producing the protein/polypeptide complex, in which nerve and skin tissues of hoofed farm embryos of gestation stage from the middle of the first third to the middle of the last third of pregnancy are stepwise: - homogenized in a buffer with a simultaneous extraction in the presence of reversible proteolysis inhibitors, nonionic detergents and solubilizers at the buffer: tissue ratio of at least 1:0.5, at minimum pH 5.2 and maximum pH 8.5, with further centrifugation at g ranging from 10 000 - 28 000 during 90 - 30 min; - the resulting supernatant is filtered; - the filtrate undergoes anion-exchange chromatography and separating associated proteins using an eluent with ionic strength ranging from 0.14 to 0.21 mmol/L at pH ranging from 5.2 to 8.5, starting to collect target fractions by a mobile phase at ionic strength of 0.175 mmol/L, increasing it smoothly or stepwise with 0.035 mmol/L increment up to 0.21 mmol/L ionic strength value, the resulting fractions are associated and undergo sterilization filtration. - homogenized in a buffer with a simultaneous extraction in the presence of reversible proteolysis inhibitors, nonionic detergents and solubilizers at the buffer: tissue ratio of at least 1:0.5, at minimum pH 5.2 and maximum pH 8.5, with further centrifugation at g ranging from 10 000 - 28 000 during 90 - 30 min; - the resulting supernatant is filtered; - the filtrate undergoes anion-exchange chromatography and separating associated proteins using an eluent with ionic strength ranging from 0.14 to 0.21 mmol/L at pH ranging from 5.2 to 8.5, starting to collect target fractions by a mobile phase at ionic strength of 0.175 mmol/L, increasing it smoothly or stepwise with 0.035 mmol/L increment up to 0.21 mmol/L ionic strength value, the resulting fractions are associated and undergo sterilization filtration.
Method of clock synchronization in a computer network, the method comprising a first grandmaster sending a first synchronization information for a first network segment of the computer network, a second grandmaster sending a second synchronization information for a second network segment of the computer network, wherein the first grandmaster and the second grandmaster exchange third synchronization information, wherein the first grandmaster and the second grandmaster transmit the third synchronization information on the physical layer and/or data link layer according to a first protocol, and wherein the first synchronization information and/or the second synchronization information is sent on the physical layer and/or data link layer according to a second protocol, different from the first protocol.
A computer implemented method, comprising: obtaining, in a remote computing system in near real time a set of machine performance metrics, from a plurality of different remote harvesting machines of a fleet of harvesting machines currently harvesting the same crop, indicative of performance of the plurality of different remote harvesting machines, via a communications system communicating with at least two of the different remote harvesting machines; aggregating the received sets of machine performance metrics to obtain aggregated machine performance metrics, aggregated across the plurality of different remote harvesting machines; generating a set of group performance metrics based on the aggregated machine performance metrics, controlling the communication system to send the set of group performance metrics to each of the plurality of different remote harvesting machines from which the set of performance metrics are obtained; and controlling the communication system to send the obtained machine performance metrics and the set of group performance metrics to a remote user computing system corresponding to the plurality of different remote harvesting machines, allowing a remote user of the remote user computing system to access information that compares the performance of various harvesting machines and their operators on a near real time basis; and wherein the group performance metrics are aggregated as average performance metrics for the harvesting machines over a recently passed time period. obtaining, in a remote computing system in near real time a set of machine performance metrics, from a plurality of different remote harvesting machines of a fleet of harvesting machines currently harvesting the same crop, indicative of performance of the plurality of different remote harvesting machines, via a communications system communicating with at least two of the different remote harvesting machines; aggregating the received sets of machine performance metrics to obtain aggregated machine performance metrics, aggregated across the plurality of different remote harvesting machines; generating a set of group performance metrics based on the aggregated machine performance metrics, controlling the communication system to send the set of group performance metrics to each of the plurality of different remote harvesting machines from which the set of performance metrics are obtained; and controlling the communication system to send the obtained machine performance metrics and the set of group performance metrics to a remote user computing system corresponding to the plurality of different remote harvesting machines, allowing a remote user of the remote user computing system to access information that compares the performance of various harvesting machines and their operators on a near real time basis; and wherein the group performance metrics are aggregated as average performance metrics for the harvesting machines over a recently passed time period.
Computer-implemented method for error correction encoding and encrypting of a file wherein a) the file is split into at least two blocks (C1,..., Cn), b) the first block is encrypted using a given encryption key resulting in an encrypted first block (C1*), the encrypted first block (C1*) is encoded twice using a first and second forward error correction code (FEC11, FEC12) of the first block resulting in a first and second encoded chunk (C11', C12') of the first encrypted block (C1*), c) for each subsequent block (C2,..., Cn), the subsequent block (Ci) is encrypted by performing an algebraic operation with the second encoded chunk of the previously processed encrypted block resulting in an encrypted subsequent block (Ci*), each encrypted subsequent block (Ci*) is encoded twice using a first and second forward error correction code (FECi1, FECi2) for this subsequent block resulting in a first and second encoded chunk (Ci1', Ci2') for this encrypted subsequent block (Ci*), wherein a cryptographic indexing function (Fii), which is parametrized by the encryption key, provides a set of indices used by the second forward error correction code (FECi2) for this subsequent block to produce the second encoded chunk (Ci2') for this subsequent block, and d) the first encoded chunks (C11',..., Cn1') of each encrypted block (C1*,..., Cn*) are outputted. a) the file is split into at least two blocks (C1,..., Cn), b) the first block is encrypted using a given encryption key resulting in an encrypted first block (C1*), the encrypted first block (C1*) is encoded twice using a first and second forward error correction code (FEC11, FEC12) of the first block resulting in a first and second encoded chunk (C11', C12') of the first encrypted block (C1*), c) for each subsequent block (C2,..., Cn), the subsequent block (Ci) is encrypted by performing an algebraic operation with the second encoded chunk of the previously processed encrypted block resulting in an encrypted subsequent block (Ci*), each encrypted subsequent block (Ci*) is encoded twice using a first and second forward error correction code (FECi1, FECi2) for this subsequent block resulting in a first and second encoded chunk (Ci1', Ci2') for this encrypted subsequent block (Ci*), wherein a cryptographic indexing function (Fii), which is parametrized by the encryption key, provides a set of indices used by the second forward error correction code (FECi2) for this subsequent block to produce the second encoded chunk (Ci2') for this subsequent block, and d) the first encoded chunks (C11',..., Cn1') of each encrypted block (C1*,..., Cn*) are outputted.