mhurhangee/ep-ind-claims huggingface dataset:
Method for assembling an axial-flux electric machine having permanent magnets, the electric machine comprising two stators (12, 14) and a rotor between the two stators being circular and capable of turning around an axis, the rotor comprising a plurality of sites intended to each receive a permanent magnet positioned in the radial plane of said rotor, including: - pre-assembling the stators (12, 14) and the rotor devoid of permanent magnets, the rotor comprising a plurality of pre-arranged sites being capable of receiving each a permanent magnet, - applying a rotation means capable of rotating the rotor so as to match one said pre-arranged site devoid of permanent magnet with a predetermined insertion spatial site, and - inserting a permanent magnet into said pre-arranged site of the rotor matched with said insertion spatial site predetermined according to the radial direction. - pre-assembling the stators (12, 14) and the rotor devoid of permanent magnets, the rotor comprising a plurality of pre-arranged sites being capable of receiving each a permanent magnet, - applying a rotation means capable of rotating the rotor so as to match one said pre-arranged site devoid of permanent magnet with a predetermined insertion spatial site, and - inserting a permanent magnet into said pre-arranged site of the rotor matched with said insertion spatial site predetermined according to the radial direction.
A method of controlling an uplink transmission power for Sounding Reference Signal, SRS, transmission at a user equipment, UE, in a wireless communication system, the method comprising: receiving a first power offset value for a periodic SRS transmission and a second power offset value for an aperiodic SRS transmission from a base station, BS,; receiving a downlink control information, DCI, format including an indicator, the indicator triggering the aperiodic SRS transmission; and when the periodic SRS transmission overlaps the aperiodic SRS transmission in a subframe, while cancelling the periodic SRS transmission, transmitting the aperiodic SRS in the subframe according to the indicator to the BS. receiving a first power offset value for a periodic SRS transmission and a second power offset value for an aperiodic SRS transmission from a base station, BS,; receiving a downlink control information, DCI, format including an indicator, the indicator triggering the aperiodic SRS transmission; and when the periodic SRS transmission overlaps the aperiodic SRS transmission in a subframe, while cancelling the periodic SRS transmission, transmitting the aperiodic SRS in the subframe according to the indicator to the BS.
A method for a user equipment, UE, to transmit a periodic sounding reference signal, P-SRS, comprising: monitoring a physical downlink control channel, PDCCH, for a downlink, DL, control information, DCI, format, wherein the DCI format indicates a set of time resources that include time resources with fixed DL direction, time resources with fixed uplink, UL, direction, and time resources with flexible direction, wherein the time resources correspond to transmission time intervals; if the DCI format is detected and indicates an UL direction for a time resource with flexible direction, transmitting the P-SRS in the time resource with flexible direction, and if the DCI format is not detected or the DCI format is detected and indicates a DL direction for a time resource with flexible direction, not transmitting the P-SRS in the time resource with flexible direction. monitoring a physical downlink control channel, PDCCH, for a downlink, DL, control information, DCI, format, wherein the DCI format indicates a set of time resources that include time resources with fixed DL direction, time resources with fixed uplink, UL, direction, and time resources with flexible direction, wherein the time resources correspond to transmission time intervals; if the DCI format is detected and indicates an UL direction for a time resource with flexible direction, transmitting the P-SRS in the time resource with flexible direction, and if the DCI format is not detected or the DCI format is detected and indicates a DL direction for a time resource with flexible direction, not transmitting the P-SRS in the time resource with flexible direction.
Exhaust gas aftertreatment system for a spark-ignition internal combustion engine, in the case of which exhaust gas aftertreatment system, in an exhaust gas system which is connected to an outlet of the internal combustion engine, an electrically heatable three-way catalytic converter which is close to the engine is arranged downstream of the outlet, a four-way catalytic converter is arranged downstream of the electrically heatable three-way catalytic converter, and a further three-way catalytic converter is arranged downstream of the four-way catalytic converter, a secondary air system being provided on the exhaust gas system, by way of which secondary air system secondary air can be blown or is blown downstream of the electrically heatable three-way catalytic converter into the exhaust gas system of the internal combustion engine, and a burner being provided in the exhaust gas system downstream of the electrically heatable three-way catalytic converter and upstream of the four-way catalytic converter, by way of which burner the four-way catalytic converter can be heated.
A method of transmitting modulation and coding scheme, MCS, feedback, MFB, performed by a first station, in a wireless local area network system, the method comprising: receiving, from a second station, a physical layer convergence procedure protocol data unit, PPDU; estimating a MFB based on the PPDU; and, transmitting, to the second station, feedback information including a MFB field and a MFB type field, the MFB field including the MFB, the MFB type field indicating whether or not the MFB is in response to a MFB request, MRQ, of the second station, the method being characterised in that: if the MFB type field indicates that the MFB is not in response to the MRQ of the second station, the feedback information further includes coding type information of the PPDU from which the MCS feedback is estimated. receiving, from a second station, a physical layer convergence procedure protocol data unit, PPDU; estimating a MFB based on the PPDU; and, transmitting, to the second station, feedback information including a MFB field and a MFB type field, the MFB field including the MFB, the MFB type field indicating whether or not the MFB is in response to a MFB request, MRQ, of the second station, the method being characterised in that: if the MFB type field indicates that the MFB is not in response to the MRQ of the second station, the feedback information further includes coding type information of the PPDU from which the MCS feedback is estimated.
Exchangeable piston-cylinder unit for a dispenser, which has at least one radially oriented information carrier section, which partially specifies the type of the piston-cylinder unit and which has a geometrical extent in the radial direction (R k) by means of which an acquirable information item is encoded, and at least one axially oriented information carrier section, which partially specifies the type of the piston-cylinder unit and which has a geometrical extent in the axial direction (A k) by means of which an acquirable information item is encoded, characterized in that the radially oriented information carrier section and the axially oriented information carrier section are provided on a piston head of the piston-cylinder unit.
Cutting device for cutting-off a length of a continuous strip to form a tire component, wherein the cutting device comprises a cutting member for cutting the continuous strip at a cutting position and a feeding member that is movable in a feeding direction past the cutting position for feeding the length of the continuous strip in said feeding direction past said cutting position, wherein the feeding member is at least partially retractable in a retraction direction for exposing the length of the continuous strip to the cutting member at the cutting position and wherein the cutting device further comprises a manipulator for taking over and retaining the length of the continuous strip from the feeding member as the feeding member is retracted in the retraction direction, wherein the cutting position is located on the manipulator and wherein the cutting member and the manipulator are movable together in the feeding direction to cut-off of the length of the continuous strip at the cutting position on the manipulator while moving the length of the continuous strip in said feeding direction.
An electronic throttle comprising a plastic cover and a metal body, the plastic cover is cooperated with the metal body to form a closed electrical chamber, wherein an electrical element is arranged on the plastic cover and located in the electrical chamber, and a plurality of separate support protrusions (9, 14) are provided on an inner surface of the plastic cover to support the electrical element and form, between the plastic cover and the electrical element, a passage for the circulation of a convection gas in the electrical chamber, wherein the metal body having a gas passage and a cooling pipe arranged in the metal body, at least one protrusion (11, 12) extending beyond a planar surface cooperating with the plastic cover, the at least one protrusion (11, 12) is provided on the metal body in a position corresponding to the cooling pipe.
A spark plug comprising a center electrode; an insulator which has an axial hole extending along an axial direction and holds the center electrode in the axial hole; a metallic shell which circumferentially surrounds and holds the insulator; and a ground electrode whose base end portion is joined to the metallic shell and which is bent at an intermediate portion thereof between the base end portion and a distal end portion of the ground electrode such that the distal end portion faces a front end portion of the center electrode, wherein a noble metal tip is disposed on the distal end portion of the ground electrode at a position which faces the front end portion of the center electrode, and a spark gap is formed between the front end portion of the center electrode and the noble metal tip, wherein the noble metal tip is joined to a top surface of an intermediate member, which is a member separate from the ground electrode, to thereby be united with the intermediate member, and a bottom surface of the intermediate member is joined to the ground electrode, whereby the noble metal tip is fixed to the ground electrode; and the spark plug being characterized in that the intermediate member has an average hardness higher than an average hardness of a portion of the ground electrode, excluding the intermediate portion.
A method for increasing an accuracy of position estimation, performed by a user equipment and comprising: receiving configuration data of a downlink positioning reference signal resource set, wherein the configuration data indicates an association between a first downlink positioning reference signal resource and a second downlink positioning reference signal resource; obtaining a first reference signal received power measurement of the first downlink positioning reference signal resource and a second reference signal received power measurement of the second downlink positioning reference signal resource; and if the user equipment transmits the first reference signal received power measurement, the user equipment shall also transmit the second reference signal received power measurement to a transmission/reception point based on the association between the first downlink positioning reference signal resource and the second downlink positioning reference signal resource. receiving configuration data of a downlink positioning reference signal resource set, wherein the configuration data indicates an association between a first downlink positioning reference signal resource and a second downlink positioning reference signal resource; obtaining a first reference signal received power measurement of the first downlink positioning reference signal resource and a second reference signal received power measurement of the second downlink positioning reference signal resource; and if the user equipment transmits the first reference signal received power measurement, the user equipment shall also transmit the second reference signal received power measurement to a transmission/reception point based on the association between the first downlink positioning reference signal resource and the second downlink positioning reference signal resource.
A method comprises: 1) heating at a temperature of 150°C to 400°C, ingredients comprising a) a hydrocarbyl carbonate, and b) a source of silicon and catalyst, where starting material b) is selected from the group consisting of copper silicide and a contact mass used in the Mueller-Rochow Direct Process, which comprises silicon metal and a copper catalyst, thereby forming a reaction product comprising an hydrocarbylhydrocarbyloxysilane of formula R a H b Si (4-a-b), where each R is independently a hydrocarbyl group and subscript a is 1 to 4 and subscript b is 0 to 2. 1) heating at a temperature of 150°C to 400°C, ingredients comprising a) a hydrocarbyl carbonate, and b) a source of silicon and catalyst, where starting material b) is selected from the group consisting of copper silicide and a contact mass used in the Mueller-Rochow Direct Process, which comprises silicon metal and a copper catalyst, a) a hydrocarbyl carbonate, and b) a source of silicon and catalyst, where starting material b) is selected from the group consisting of copper silicide and a contact mass used in the Mueller-Rochow Direct Process, which comprises silicon metal and a copper catalyst,
A medical device delivery system, the system comprising: a catheter shaft; at least one loop attached to the catheter shaft; a medical device having an interior and an exterior; at least one opening through the medical device configured to allow the loop to extend from the interior to the exterior of the medical device; and a release line exterior to the medical device held in place by passing through the loop, wherein the at least one loop is flexible and includes at least two flexible loops aligned relative to a longitudinal axis of the medical device; and wherein the at least one flexible loop is configured to form a lumen for the release line. a catheter shaft; at least one loop attached to the catheter shaft; a medical device having an interior and an exterior; at least one opening through the medical device configured to allow the loop to extend from the interior to the exterior of the medical device; and a release line exterior to the medical device held in place by passing through the loop, wherein the at least one loop is flexible and includes at least two flexible loops aligned relative to a longitudinal axis of the medical device; and wherein the at least one flexible loop is configured to form a lumen for the release line.
A method performed by a network node configured to communicate with a wireless device, the method comprising: determining a fixed size resource block, RB, assignment for an uplink transmission by the wireless device, the uplink transmission corresponding to a message 3, MSG3, transmission of a New Radio, NR, random access procedure and being scheduled by a random access response, RAR, corresponding to a message 2, MSG2, transmission of the NR random access procedure in which the fixed size RB assignment is indicated to the wireless device, wherein the fixed size RB assignment is based at least in part on: whether the uplink transmission is a slot transmission having a time duration of a slot or a non-slot transmission having a time duration less than a slot; and/or resource allocation type used in the RAR. determining a fixed size resource block, RB, assignment for an uplink transmission by the wireless device, the uplink transmission corresponding to a message 3, MSG3, transmission of a New Radio, NR, random access procedure and being scheduled by a random access response, RAR, corresponding to a message 2, MSG2, transmission of the NR random access procedure in which the fixed size RB assignment is indicated to the wireless device, wherein the fixed size RB assignment is based at least in part on: whether the uplink transmission is a slot transmission having a time duration of a slot or a non-slot transmission having a time duration less than a slot; and/or resource allocation type used in the RAR. whether the uplink transmission is a slot transmission having a time duration of a slot or a non-slot transmission having a time duration less than a slot; and/or resource allocation type used in the RAR.
Apparatus for use with a tracheal ventilation tube and a suction source, the apparatus comprising: a cleaning catheter, which (a) is insertable into the ventilation tube, (b) is shaped so as to define one or more distal suction orifices, and (c) which comprises: an elongate, flexible, tubular main body; and an inflatable element, which is mounted to the main body at a location within 3 cm of at least one of the one or more distal suction orifices; and an input module, which is coupled to the cleaning catheter, and comprises a flow regulator, which is shaped so as to define a suction port coupleable in fluid communication with the suction source, characterised in that the flow regulator is configured to assume at least first and second activation states, such that: the flow regulator, when in the first activation state, effects fluid communication between the suction source and an interior of the inflatable element, thereby deflating the inflatable element, and the flow regulator, when in the second activation state, effects fluid communication between the suction source and the distal suction orifices, and does not effect the fluid communication between the suction source and the interior of the inflatable element. a cleaning catheter, which (a) is insertable into the ventilation tube, (b) is shaped so as to define one or more distal suction orifices, and (c) which comprises: an elongate, flexible, tubular main body; and an inflatable element, which is mounted to the main body at a location within 3 cm of at least one of the one or more distal suction orifices; and an elongate, flexible, tubular main body; and an inflatable element, which is mounted to the main body at a location within 3 cm of at least one of the one or more distal suction orifices; and an input module, which is coupled to the cleaning catheter, and comprises a flow regulator, which is shaped so as to define a suction port coupleable in fluid communication with the suction source, the flow regulator, when in the first activation state, effects fluid communication between the suction source and an interior of the inflatable element, thereby deflating the inflatable element, and the flow regulator, when in the second activation state, effects fluid communication between the suction source and the distal suction orifices, and does not effect the fluid communication between the suction source and the interior of the inflatable element.
Method for operating a hearing device, in particular a hearing aid, in which - a first analogue signal is provided, - the first analogue signal is taken as a basis for producing a second analogue signal by means of an analogue preamplifier, - an A/D converter is used to produce a first digital signal on the basis of the second analogue signal, - the first digital signal is taken as a basis for producing a second digital signal by means of a digital amplifier, and - the second digital signal is taken as a basis for producing a third digital signal by means of a noise rejection unit, a noise being reduced in said third digital signal in comparison with the second digital signal, wherein the analogue preamplifier, the digital amplifier and the noise rejection unit are adjusted on the basis of a value characterizing the first digital signal, wherein the characterizing value used is a level of the first digital signal, wherein the second digital signal is taken as a basis for producing a first digital auxiliary signal by means of a first level matching unit of the noise rejection unit, wherein the first digital auxiliary signal is taken as a basis for producing a second digital auxiliary signal by means of a noise level meter of the noise rejection unit, said second digital auxiliary signal corresponding to a background noise within the first digital auxiliary signal, by virtue of the noise level meter being used to identify a noise within the first digital auxiliary signal and said noise being routed as second digital auxiliary signal to a second level matching unit, wherein the second digital auxiliary signal is taken as a basis for producing a background noise by means of the second level matching unit, said background noise corresponding to the noise of the second digital signal, wherein the first level matching unit and the second level matching unit are adjusted on the basis of the characterizing value, wherein a Wiener filter is used to produce the third digital signal on the basis of the second digital signal, and wherein the Wiener filter is adjusted on the basis of the background noise. - a first analogue signal is provided, - the first analogue signal is taken as a basis for producing a second analogue signal by means of an analogue preamplifier, - an A/D converter is used to produce a first digital signal on the basis of the second analogue signal, - the first digital signal is taken as a basis for producing a second digital signal by means of a digital amplifier, and - the second digital signal is taken as a basis for producing a third digital signal by means of a noise rejection unit, a noise being reduced in said third digital signal in comparison with the second digital signal,