mhurhangee/ep-ind-claims huggingface dataset:
A steering wheel of a vehicle, comprising a steering wheel armature made of metal, a steering wheel rear cover made of plastic, an airbag module and an airbag decoration cover), wherein the steering wheel rear cover is located on a bottom of the steering wheel armature, the airbag module mounted above the steering wheel armature; and the airbag decoration cover is used to package the airbag module and is located at a central position above the steering wheel armature; a Ω spring is provided onto the steering wheel armature, two hooks extending downward from the airbag decoration cover and inserting into the steering wheel armature, and two free ends of the Ω spring engage with the two hooks, characterized in that, at least a rib extends from the steering wheel rear cover and is located between the Ω spring and the steering wheel armature for supporting the Ω spring. a Ω spring is provided onto the steering wheel armature, two hooks extending downward from the airbag decoration cover and inserting into the steering wheel armature, and two free ends of the Ω spring engage with the two hooks, characterized in that, at least a rib extends from the steering wheel rear cover and is located between the Ω spring and the steering wheel armature for supporting the Ω spring.
A method for controlling a manipulator, in particular a robot, comprising the step: detecting a contact force between the manipulator and a workpiece (2; 20) based on real driving forces ( τ) and on driving forces ( τ Modell) of a dynamic model ( M d 2 q / dt 2 + h(q, d q / dt) = τ Modell) of the manipulator that describes the relationship between kinematic quantities and driving forces; characterized by the step: joining a workpiece (4; 40) under a compliant control (S130; S230), wherein a joining state of the workpiece, which is joined under elastic or plastic deformation, is monitored based on a detected decrease of the contact force. detecting a contact force between the manipulator and a workpiece (2; 20) based on real driving forces ( τ) and on driving forces ( τ Modell) of a dynamic model ( M d 2 q / dt 2 + h(q, d q / dt) = τ Modell) of the manipulator that describes the relationship between kinematic quantities and driving forces; characterized by the step: joining a workpiece (4; 40) under a compliant control (S130; S230), wherein a joining state of the workpiece, which is joined under elastic or plastic deformation, is monitored based on a detected decrease of the contact force.
A computer-implemented method comprising: detecting (i) congestion in uplink traffic from a plurality of user equipments, UEs, to a base station, BS, and (ii) a level of the congestion in the uplink traffic from the plurality of UEs to the BS; based at least in part on the detected level of congestion exceeding a first threshold, modifying a network or UE setting to generate a modified setting; and transmitting the modified setting to a first UE of the plurality of UEs, to facilitate the first UE to transmit to the BS in accordance with the modified setting, characterized in that the network or UE setting comprises a timer based at least in part on which the first UE enters a sleep mode, and wherein modifying the network or UE setting comprises modifying the network or UE setting to increase a value of the timer. detecting (i) congestion in uplink traffic from a plurality of user equipments, UEs, to a base station, BS, and (ii) a level of the congestion in the uplink traffic from the plurality of UEs to the BS; based at least in part on the detected level of congestion exceeding a first threshold, modifying a network or UE setting to generate a modified setting; and transmitting the modified setting to a first UE of the plurality of UEs, to facilitate the first UE to transmit to the BS in accordance with the modified setting, characterized in that the network or UE setting comprises a timer based at least in part on which the first UE enters a sleep mode, and wherein modifying the network or UE setting comprises modifying the network or UE setting to increase a value of the timer.
A base station (101, 504) for use in a telecommunications system (100, 500) wherein the base station is operable to communicate data to and from a plurality of terminals (104, 214, 508), the base station being configured to transmit downlink signals using downlink resources in a frequency band and in a time period, wherein the base station is configured to: identify uplink data to be transmitted by a first terminal of the plurality of terminals; dynamically select, upon identification of uplink data to be transmitted by a first terminal of the plurality of terminals, a set of resources for transmitting the uplink data, wherein the base station is being configured to dynamically select the set of resources comprises the base station being configured to select a subset of the frequency band and a subset of the time period of the downlink resources, the selected set of resources being based on the subset of the frequency band and the subset of the time period, wherein one or more frequency guard bands are inserted around the selected set of resources; notify the first terminal of the selected set of resources; receive the uplink data from the first terminal transmitted using the selected set of resources, wherein the downlink resources comprise a reserved set of resources selected based on information about uplink transmissions for a neighbouring base station so as to reduce interferences between transmissions for the base station and the neighbouring base station, the base station being configured to use the reserved set of resources exclusively for downlink transmissions, and the selected set of resources is selected from resources of the downlink resources outside of the reserved set of resources. identify uplink data to be transmitted by a first terminal of the plurality of terminals; dynamically select, upon identification of uplink data to be transmitted by a first terminal of the plurality of terminals, a set of resources for transmitting the uplink data, wherein the base station is being configured to dynamically select the set of resources comprises the base station being configured to select a subset of the frequency band and a subset of the time period of the downlink resources, the selected set of resources being based on the subset of the frequency band and the subset of the time period, wherein one or more frequency guard bands are inserted around the selected set of resources; notify the first terminal of the selected set of resources; receive the uplink data from the first terminal transmitted using the selected set of resources, wherein the downlink resources comprise a reserved set of resources selected based on information about uplink transmissions for a neighbouring base station so as to reduce interferences between transmissions for the base station and the neighbouring base station, the base station being configured to use the reserved set of resources exclusively for downlink transmissions, and the selected set of resources is selected from resources of the downlink resources outside of the reserved set of resources.
A drying method to dry a to-be-dried object by allowing the to-be-dried object to contact with gas having a different temperature, comprising: an introduction process of introducing the to-be-dried object; a first temperature heating/cooling process of heating or cooling the to-be-dried object to have a first temperature; a transportation process of transporting the heated or cooled to-be-dried object; a humidity comparison process of comparing the to-be-dried object humidity of the to-be-dried object with the gas humidity of gas used for dehumidification; the method being characterized in that it further comprises: an atmosphere temperature adjustment process of adjusting, when the to-be-dried object humidity exceeds the gas humidity, the temperature of the gas used for dehumidification to a second temperature lower than the first temperature and adjusting, when the gas humidity exceeds the humidity of the to-be-dried object, the temperature of the gas used for dehumidification to the second temperature higher than the first temperature; a dehumidification process of allowing the to-be-dried object to contact with the gas of the second temperature to thereby dehumidify the to-be-dried object; and a removal process of removing the to-be-dried object. an introduction process of introducing the to-be-dried object; a first temperature heating/cooling process of heating or cooling the to-be-dried object to have a first temperature; a transportation process of transporting the heated or cooled to-be-dried object; a humidity comparison process of comparing the to-be-dried object humidity of the to-be-dried object with the gas humidity of gas used for dehumidification; the method being characterized in that it further comprises: an atmosphere temperature adjustment process of adjusting, when the to-be-dried object humidity exceeds the gas humidity, the temperature of the gas used for dehumidification to a second temperature lower than the first temperature and adjusting, when the gas humidity exceeds the humidity of the to-be-dried object, the temperature of the gas used for dehumidification to the second temperature higher than the first temperature; a dehumidification process of allowing the to-be-dried object to contact with the gas of the second temperature to thereby dehumidify the to-be-dried object; and a removal process of removing the to-be-dried object. an atmosphere temperature adjustment process of adjusting, when the to-be-dried object humidity exceeds the gas humidity, the temperature of the gas used for dehumidification to a second temperature lower than the first temperature and adjusting, when the gas humidity exceeds the humidity of the to-be-dried object, the temperature of the gas used for dehumidification to the second temperature higher than the first temperature; a dehumidification process of allowing the to-be-dried object to contact with the gas of the second temperature to thereby dehumidify the to-be-dried object; and a removal process of removing the to-be-dried object.
A piston pin, having an anti-seize coating limited to an angular sector corresponding at least to a friction area submitted to a contact pressure along a preferential direction, characterized in that the angular sector is in the range from 15° to 240°, and in that outside of said friction area, the pin optionally has a coated area having a thickness characteristic and/or hardness characteristic and/or a friction coefficient characteristic lower than the corresponding characteristic(s) of the anti-seize coating of the considered angular sector.
Method for preparing carbon nanotubes, nanofibers or nanofilaments by decomposition of at least one carbon precursor in the presence of a catalyst, in which method continuously: - a first gas stream comprising a precursor of a catalyst is brought into contact with a porous substrate (43, 64); - a second gas stream including at least one carbon precursor is brought into contact with said porous substrate (43, 64), knowing that said first gas stream and said second gas stream may be represented by the same gas stream mixture; - said porous substrate (43, 64) is heated to a temperature leading to the deposition of catalyst particles and to the catalytic growth of carbon nanotubes, • and in which method said first gas stream and, if present, said second gas stream are supplied in vicinity of said porous substrate. - a first gas stream comprising a precursor of a catalyst is brought into contact with a porous substrate (43, 64); - a second gas stream including at least one carbon precursor is brought into contact with said porous substrate (43, 64), knowing that said first gas stream and said second gas stream may be represented by the same gas stream mixture; - said porous substrate (43, 64) is heated to a temperature leading to the deposition of catalyst particles and to the catalytic growth of carbon nanotubes, • and in which method said first gas stream and, if present, said second gas stream are supplied in vicinity of said porous substrate.
Vehicle with - a plurality of vehicle parts, which are interconnected along a direction of travel of the vehicle, - at least one fuel cell for converting hydrogen and oxygen into water, and characterised by - at least one transport hose between the vehicle parts for transporting a carrier gas for the hydrogen to the fuel cell, wherein - the transport hose is mechanically flexible and therefore can be reversibly bent by at least 10°, - the transport hose comprises an outer hose, in which an inner hose for the carrier gas for the hydrogen lies, and - the transport hose is configured between the outer hose and the inner hose for transporting a further gas. - a plurality of vehicle parts, which are interconnected along a direction of travel of the vehicle, - at least one fuel cell for converting hydrogen and oxygen into water, and characterised by - at least one transport hose between the vehicle parts for transporting a carrier gas for the hydrogen to the fuel cell, - the transport hose is mechanically flexible and therefore can be reversibly bent by at least 10°, - the transport hose comprises an outer hose, in which an inner hose for the carrier gas for the hydrogen lies, and - the transport hose is configured between the outer hose and the inner hose for transporting a further gas.
A dispersed composition comprising: titanium black; a polymer compound comprising a constituent component having a side chain structure to which an acidic group is linked via a linking group; and a solvent, wherein the polymer compound, comprising a constituent component having a side chain structure to which an acidic group is linked via a linking group, is a polymer compound comprising a constituent component represented by the following formula: wherein, in the formula, R 1 represents an alkyl group, an aryl group, an alkoxy group, an aryloxy group, a heteroaryloxy group, an alkyloxycarbonyl group, an aryloxycarbonyl group, an alkylamide group, an arylamide group, a halogen atom or a nitro group; Q represents a carboxylic acid group; n represents an integer of from 0 to 4; m represents an integer of from 1 to 5; R 2 represents a hydrogen atom or an alkyl group; and Y represents a divalent linking group and wherein the polymer compound, comprising a constituent component having a side chain structure to which an acidic group is linked via a linking group, further comprises a graft chain, wherein the number of atoms other than hydrogen atoms per one graft chain is from 40 to 10000, wherein a dispersed composition is excluded which contains titanium black, a solvent and one of the following resins as the polymer compounds:
A method in a remote unit, the method comprising: determining that a channel parameter corresponding to an active uplink bandwidth part of a serving cell is greater than a predetermined value at a time in which the active uplink bandwidth part is a first bandwidth part, wherein the serving cell is an unlicensed cell; and in response to determining that the channel parameter is greater than the predetermined value: autonomously switching the active uplink bandwidth part from the first uplink bandwidth part to a second uplink bandwidth part configured for the serving cell, wherein switching the active uplink bandwidth part comprises deactivating the first uplink bandwidth part; suspending configured uplink grants on the first uplink bandwidth part; and performing a random access procedure on the unlicensed cell, wherein the channel parameter comprises a measure of listen before talk failures. determining that a channel parameter corresponding to an active uplink bandwidth part of a serving cell is greater than a predetermined value at a time in which the active uplink bandwidth part is a first bandwidth part, wherein the serving cell is an unlicensed cell; and in response to determining that the channel parameter is greater than the predetermined value: autonomously switching the active uplink bandwidth part from the first uplink bandwidth part to a second uplink bandwidth part configured for the serving cell, wherein switching the active uplink bandwidth part comprises deactivating the first uplink bandwidth part; suspending configured uplink grants on the first uplink bandwidth part; and performing a random access procedure on the unlicensed cell, wherein the channel parameter comprises a measure of listen before talk failures. autonomously switching the active uplink bandwidth part from the first uplink bandwidth part to a second uplink bandwidth part configured for the serving cell, wherein switching the active uplink bandwidth part comprises deactivating the first uplink bandwidth part; suspending configured uplink grants on the first uplink bandwidth part; and performing a random access procedure on the unlicensed cell, wherein the channel parameter comprises a measure of listen before talk failures.
Holding apparatus for an ultrasonic probe for image-based representation of a body part to be examined of a person comprising a base body having a base area, wherein the base body comprises a receiving opening for receiving an ultrasonic probe, wherein a bearing surface is formed to support the body part to be examined, and wherein the receiving opening is arranged in the bearing surface and the body part to be examined is treatable with sound with a received ultrasonic probe in the receiving opening out of the bearing surface, characterized in that, the body part to be examined is a thigh of a person. a base body having a base area, wherein the base body comprises a receiving opening for receiving an ultrasonic probe, wherein a bearing surface is formed to support the body part to be examined, and wherein the receiving opening is arranged in the bearing surface and the body part to be examined is treatable with sound with a received ultrasonic probe in the receiving opening out of the bearing surface, characterized in that, the body part to be examined is a thigh of a person.
A test circuit, comprising: a first input bus, a second input bus, a first output bus, a second output bus, a first dynamic routing unit DRU, and a first register, wherein the first input bus is configured to be coupled to an input channel of a tested circuit through the first DRU, and the first output bus is configured to be coupled to an output channel of the tested circuit through the first DRU; the second input bus is configured to be coupled to the second output bus through the first register; and in a clock cycle: the first DRU is configured to output test excitation from the first input bus to the input channel, and output a test response from the output channel to the first output bus; or the first DRU is configured to output data from the first input bus to the first output bus; and the first register is configured to output data from the second input bus to the second output bus. the first input bus is configured to be coupled to an input channel of a tested circuit through the first DRU, and the first output bus is configured to be coupled to an output channel of the tested circuit through the first DRU; the second input bus is configured to be coupled to the second output bus through the first register; and in a clock cycle: the first DRU is configured to output test excitation from the first input bus to the input channel, and output a test response from the output channel to the first output bus; or the first DRU is configured to output data from the first input bus to the first output bus; and the first register is configured to output data from the second input bus to the second output bus.
A ventilator for providing ventilatory support to a patient comprising means configured for supplying breathable gas to a patient's airway with a pressure waveform (Π(Φ)) which has an adjustable squareness; means (15, 16, 18) configured for continuously determining minute ventilation and comparing the minute ventilation to a target ventilation; characterized in that the ventilator further comprises a servo-controller configured for controlling the pressure waveform (Π(Φ)) to become gradually more square if the minute ventilation is below the target ventilation.
A method of flushing a reactor used in the production of linear alpha olefins, comprising: flushing reactor equipment used in the production of linear alpha olefins, with toluene from a solvent source, wherein the reactor contains by-products from the production of the linear alpha olefins, wherein the by-products include a polymeric material; directing the flushed toluene containing polymeric material into a separation train containing the linear alpha olefins, wherein the polymeric material is soluble in at least one of the linear alpha olefins; separating the linear alpha olefins from the toluene; and recycling the toluene to the solvent source. flushing reactor equipment used in the production of linear alpha olefins, with toluene from a solvent source, wherein the reactor contains by-products from the production of the linear alpha olefins, wherein the by-products include a polymeric material; directing the flushed toluene containing polymeric material into a separation train containing the linear alpha olefins, wherein the polymeric material is soluble in at least one of the linear alpha olefins; separating the linear alpha olefins from the toluene; and recycling the toluene to the solvent source.
A method for the production of titanium metal, characterized by electrochemically dissolving, in a molten salt electrolyte, an anode formed of a titanium suboxide/carbon composite, and reducing the dissolved titanium suboxide, at a cathode, to titanium metal.
A kit for locking an implanted catheter, said kit comprising: a container holding a volume of a solution comprising: a) a tocopherol compound; and b) at least one saturated carboxylic acid with an aliphatic chain of 8-14 carbon atoms; and an implantable catheter lumen which receives the solution. a container holding a volume of a solution comprising: a) a tocopherol compound; and b) at least one saturated carboxylic acid with an aliphatic chain of 8-14 carbon atoms; and a) a tocopherol compound; and b) at least one saturated carboxylic acid with an aliphatic chain of 8-14 carbon atoms; and an implantable catheter lumen which receives the solution.