mhurhangee/ep-ind-claims huggingface dataset:
Fan wheel (1; 42) with a support part and several blades attached to the support part, wherein a hub is attached to the support part, which is designed for coupling with a drive shaft and which defines a rotational axis aligned transversely to a front side of the support part, wherein the blades each have a first blade section, which is arranged in a space section adjacent to the front side and is fixed to a front side of the support part, wherein the first blade section extends from a radially inner end region of the first blade section beyond a diameter of the support part to a radially outer end region of the first blade section, wherein at least one blade has a second blade section which extends beyond a rear side of the support part facing away from the front side into a space section adjacent to the rear side, wherein the second blade section extends radially outwards from the diameter of the support part to the radially outer end region of the first blade section, wherein a ring part is arranged along the axis of rotation at a distance from the support part and an axis of rotational symmetry of the ring part is aligned coaxially with the axis of rotation and wherein the first blade section is arranged between the support part and the ring part, wherein the support part is designed as a flat circular disc and/or the ring part is designed as a flat parallel plate, characterised in that the blades are arranged in blade planes which enclose the axis of rotation.
An electromechanical apparatus comprising: a motor that includes a rotation shaft and that applies to the rotation shaft a torque in a direction toward an angular position of a stop position target in accordance with control; a rotation sensor detecting an angular position of the rotation shaft; and a motor control unit controlling rotation of the rotation shaft of the motor in accordance with the angular position detected by the rotation sensor, wherein the motor control unit, in a case where the rotation shaft is to be stopped, applies a torque in a direction toward the angular position of the stop position target to the rotation shaft, characterised in that when the angular position detected by the rotation sensor exceeds the angular position of the stop position target by a predetermined amount, the motor control unit moves the angular position of the stop position target to an angular position between the angular position of the stop position target and the angular positior detected by the rotation sensor, wherein the stop position target is shifted stepwise in the rotation direction. a motor that includes a rotation shaft and that applies to the rotation shaft a torque in a direction toward an angular position of a stop position target in accordance with control; a rotation sensor detecting an angular position of the rotation shaft; and a motor control unit controlling rotation of the rotation shaft of the motor in accordance with the angular position detected by the rotation sensor, wherein the motor control unit, in a case where the rotation shaft is to be stopped, applies a torque in a direction toward the angular position of the stop position target to the rotation shaft, characterised in that when the angular position detected by the rotation sensor exceeds the angular position of the stop position target by a predetermined amount, the motor control unit moves the angular position of the stop position target to an angular position between the angular position of the stop position target and the angular positior detected by the rotation sensor, wherein the stop position target is shifted stepwise in the rotation direction.
A method for the determination of the object distance between an optoelectronic sensor working according to the principle of triangulation and a sensed object, - wherein the sensor has at least one measuring channel between a transmission unit for the transmission of electromagnetic sensing rays into the measuring zone and a reception unit for the detection of sensing rays reflected and/or remitted from the measuring zone; - wherein the sensor has at least one additional channel which has a further transmission unit; and - wherein the received signals of the measuring channel and of the additional channel are jointly evaluated in the determination of the object distance; characterized in that - only the received signal of the measuring channel is used for the determination of a distance value; - a determination is made by means of the received signal of the additional channel as to whether the received signals satisfy at least one additional criterion, with mutually corresponding characteristic regions of the received signals of the measuring channel and of the additional channel each being examined in the joint evaluation as to whether they are displaced with respect to one another by an expected measure (a·ΔX), where ΔX is the distance of the two transmission units (S1, S2) and the proportionality factor a is dependent on the imaging properties of the transmission optics or reception optics present in the measuring channel and in the additional channel; and - the distance value is used as a measure for the object distance when an additional criterion is satisfied. - wherein the sensor has at least one measuring channel between a transmission unit for the transmission of electromagnetic sensing rays into the measuring zone and a reception unit for the detection of sensing rays reflected and/or remitted from the measuring zone; - wherein the sensor has at least one additional channel which has a further transmission unit; and - wherein the received signals of the measuring channel and of the additional channel are jointly evaluated in the determination of the object distance; - only the received signal of the measuring channel is used for the determination of a distance value; - a determination is made by means of the received signal of the additional channel as to whether the received signals satisfy at least one additional criterion, with mutually corresponding characteristic regions of the received signals of the measuring channel and of the additional channel each being examined in the joint evaluation as to whether they are displaced with respect to one another by an expected measure (a·ΔX), where ΔX is the distance of the two transmission units (S1, S2) and the proportionality factor a is dependent on the imaging properties of the transmission optics or reception optics present in the measuring channel and in the additional channel; and - the distance value is used as a measure for the object distance when an additional criterion is satisfied.
A power conversion device comprising: a leak-current detecting unit that detects a zero-phase current flowing from either an electric-motor driving device (100; 100a; 100b; 100c; 100d), which drives an electric motor with electric power from an alternating-current power supply, or the electric motor to a ground; a leak-current control unit (22; 22a) that inputs the zero-phase current detected by the leak-current detecting unit, and generates a control signal having cyclicity that is synchronized with the alternating-current power supply; and an anti-phase current generating unit (23; 23a) that inputs the control signal, generates an anti-phase current that is in anti-phase with respect to the zero-phase current, and outputs the anti-phase current, characterized in that the leak-current control unit (22; 22a) includes an accumulating unit configured to accumulate data detected by the leak-current detecting unit, and the leak-current control unit configured to output the zero-phase current detected by the leak-current detecting unit as the data to the accumulating unit and to output the control signal based on a leak-current data accumulated in the accumulating unit, the data of which is data obtained by one of several samples before reaching one cycle of samples, to the anti-phase current generating unit. a leak-current detecting unit that detects a zero-phase current flowing from either an electric-motor driving device (100; 100a; 100b; 100c; 100d), which drives an electric motor with electric power from an alternating-current power supply, or the electric motor to a ground; a leak-current control unit (22; 22a) that inputs the zero-phase current detected by the leak-current detecting unit, and generates a control signal having cyclicity that is synchronized with the alternating-current power supply; and an anti-phase current generating unit (23; 23a) that inputs the control signal, generates an anti-phase current that is in anti-phase with respect to the zero-phase current, and outputs the anti-phase current, characterized in that the leak-current control unit (22; 22a) includes an accumulating unit configured to accumulate data detected by the leak-current detecting unit, and the leak-current control unit configured to output the zero-phase current detected by the leak-current detecting unit as the data to the accumulating unit and to output the control signal based on a leak-current data accumulated in the accumulating unit, the data of which is data obtained by one of several samples before reaching one cycle of samples, to the anti-phase current generating unit.
A transmitting device for a communication system, the transmitting device being configured to obtain an information message comprising information bits addressed for a receiving device; encode the information message so as to obtain a codeword; rate-match the codeword so as to produce a rate-matched codeword comprising systematic bits and parity-check bits; jointly interleave the systematic bits and parity-check bits of the rate-matched codeword so as to obtain an interleaved codeword, wherein the rate-matched codeword is interleaved by writing it column-wise to a matrix, starting from the upper left corner and proceeding top-to-bottom first and then left-to-right, wherein the interleaved codeword is a matrix having m columns and s rows, wherein m is the number of bits in labels of the modulation constellation, and wherein s times m is at least equal to the length of the codeword; and map the systematic bits of the interleaved codeword to modulation label positions of a modulation constellation with first reliabilities, and map the parity-check bits of the interleaved codeword to modulation label positions of the modulation constellation with second reliabilities, wherein the content of the matrix is read out row-wise, starting from the first row, wherein each first reliability is higher than any second reliability in an initial transmission, and each first reliability is lower than any second reliability in a re-transmission. obtain an information message comprising information bits addressed for a receiving device; encode the information message so as to obtain a codeword; rate-match the codeword so as to produce a rate-matched codeword comprising systematic bits and parity-check bits; jointly interleave the systematic bits and parity-check bits of the rate-matched codeword so as to obtain an interleaved codeword, wherein the rate-matched codeword is interleaved by writing it column-wise to a matrix, starting from the upper left corner and proceeding top-to-bottom first and then left-to-right, wherein the interleaved codeword is a matrix having m columns and s rows, wherein m is the number of bits in labels of the modulation constellation, and wherein s times m is at least equal to the length of the codeword; and map the systematic bits of the interleaved codeword to modulation label positions of a modulation constellation with first reliabilities, and map the parity-check bits of the interleaved codeword to modulation label positions of the modulation constellation with second reliabilities, wherein the content of the matrix is read out row-wise, starting from the first row, wherein each first reliability is higher than any second reliability in an initial transmission, and each first reliability is lower than any second reliability in a re-transmission.
A photovoltaic module comprising: a solar cell having a light receiving surface allowing light to enter therein, and a back surface provided on the opposite side of the light receiving surface; a light receiving surface side supporting member provided at the light receiving surface side of the solar cell; a back surface side supporting member provided at the back surface side of the solar cell; and a polymeric sealing material for sealing the solar cell between the light receiving surface side supporting member and the back surface side supporting member; wherein the sealing material includes a first region that is in contact with the whole light receiving surface, and a second region that is in contact with the whole back surface, and the degree of cross-linkage of the second region is smaller than the degree of cross-linkage of the first region. a solar cell having a light receiving surface allowing light to enter therein, and a back surface provided on the opposite side of the light receiving surface; a light receiving surface side supporting member provided at the light receiving surface side of the solar cell; a back surface side supporting member provided at the back surface side of the solar cell; and a polymeric sealing material for sealing the solar cell between the light receiving surface side supporting member and the back surface side supporting member; wherein the sealing material includes a first region that is in contact with the whole light receiving surface, and a second region that is in contact with the whole back surface, and the degree of cross-linkage of the second region is smaller than the degree of cross-linkage of the first region.
A joint distractor device comprising: a longitudinal guiding element, and a longitudinal rotatable driving element arranged substantially parallel to the guiding element such that the driving element may rotate about a rotation axis substantially parallel to the longitudinal axis of the guiding element; a first distractor arm and a second distractor arm both connected to the driving element, the first and second distractor arms (7, 9) extending along a first, respectively second lateral axis from the guiding element, the first and second lateral axes being substantially orthogonal to the longitudinal axis of the guiding element, and the first and second distractor arms (5, 7) being captively displaceable along the guiding element, characterised in that the driving element is configured to translate the first and second distractor arms (5, 7) away from each other along the said longitudinal axis by rotating the driving element in a first rotational direction, and towards each other along the said longitudinal axis by rotating the driving element in a second rotational direction, the second rotational direction being opposite to the first rotational direction. a longitudinal guiding element, and a longitudinal rotatable driving element arranged substantially parallel to the guiding element such that the driving element may rotate about a rotation axis substantially parallel to the longitudinal axis of the guiding element; a first distractor arm and a second distractor arm both connected to the driving element, the first and second distractor arms (7, 9) extending along a first, respectively second lateral axis from the guiding element, the first and second lateral axes being substantially orthogonal to the longitudinal axis of the guiding element, and the first and second distractor arms (5, 7) being captively displaceable along the guiding element, characterised in that the driving element is configured to translate the first and second distractor arms (5, 7) away from each other along the said longitudinal axis by rotating the driving element in a first rotational direction, and towards each other along the said longitudinal axis by rotating the driving element in a second rotational direction, the second rotational direction being opposite to the first rotational direction.
An apparatus for the labelling of containers, with a storage unit, in which a store of label material is received, with a labelling device, which is arranged downstream of the storage unit in the conveying direction of the label material and which attaches the label material to the containers, and with a printing device, which provides the label material with an imprint, wherein the printing device is arranged between the storage unit and the labelling device in the conveying direction of the label material and is arranged at a distance from the labelling device in the conveying direction of the label material, wherein the apparatus has a buffering device for the label material, in which buffering device a variable length of the label material is capable of being received, wherein this buffering device is arranged between the storage unit and the labelling device in the conveying direction of the label material characterized in that the buffering device has a plurality of upper and lower reversing shafts (14, 15) around which the label material is guided, wherein the complete set of the upper and/or lower reversing shafts are varied by displacement in vertical direction, wherein the storage unit is decoupled from the labelling device at least temporarily with respect to their operating speed, wherein differences in speed which occur by this temporarily de-coupling are absorbed by the buffering device, wherein subsequently to the printing device a drying device is provided which dries the label material or the prints applied thereto respectively.
A method for measurement gap configuration carried out by a user equipment, UE (301, 401, 1001, 1101) that is served by a base station (302, 402, 1002, 1102), wherein the UE comprises one or more radio frequency modules (313, 315) that support a list of frequency bands and a list of carrier aggregation, CA, band combinations, the method, comprising: when the need of measurement gap, MG, is changed, transmitting a message triggering the base station (302, 402, 1002, 1102) to re-enquire the UE the need of MG; receiving (411, 1012, 1301) a capability enquiry message from the serving base station (302, 402, 1002, 1102) in response to the triggering message; transmitting (341, 412, 1013, 1302) UE capability information containing measurement parameters (331, 421) to the base station (302, 402, 1002, 1102), wherein the measurement parameters (331, 421) comprise need-for-gap parameters (501,601, 701, 801, 901) for each supported frequency band and each supported CA band combination associated with a list of to-be-measured frequency bands of target cells; and receiving (342, 413, 1111, 1303) a measurement configuration message (332, 442) from the base station (302, 402, 1002, 1102). when the need of measurement gap, MG, is changed, transmitting a message triggering the base station (302, 402, 1002, 1102) to re-enquire the UE the need of MG; receiving (411, 1012, 1301) a capability enquiry message from the serving base station (302, 402, 1002, 1102) in response to the triggering message; transmitting (341, 412, 1013, 1302) UE capability information containing measurement parameters (331, 421) to the base station (302, 402, 1002, 1102), wherein the measurement parameters (331, 421) comprise need-for-gap parameters (501,601, 701, 801, 901) for each supported frequency band and each supported CA band combination associated with a list of to-be-measured frequency bands of target cells; and receiving (342, 413, 1111, 1303) a measurement configuration message (332, 442) from the base station (302, 402, 1002, 1102).
Locking unit for a vehicle seat, comprising a housing with at least one side plate and preferably with at least one cover plate, and at least one bearing bolt (51, 52) having a bearing axis which, in the axial direction, is penetrated by a through-opening having a through-axis, wherein the through-axis of the through-opening extends offset to the bearing axis of the bearing bolt (51, 52), wherein the bearing bolt (51, 52) is inserted into a first bearing bore of the side plate and preferably into a second bearing bore of the cover plate, characterized in that the side plate on the edge of the first bearing bore has at least one press-fit region, material of the bearing bolt (51, 52) passing therein by means of compression.
A fluid conduit assembly, comprising: a first conduit coupler; a second conduit coupler mated with the first conduit coupler at a threaded interface; and a lock configured to rotationally fix the first conduit coupler with the second conduit coupler, the lock including a flange, a clip and a fastener (82, 131); the flange arranged with the first conduit coupler, and the flange configured with a plurality of flange apertures arranged circumferentially about an axis of the first conduit coupler; the clip arranged with the second conduit coupler, and the clip configured with a clip aperture (112, 114); and the fastener (82, 131) mated with the clip aperture (112, 114) and any one of the plurality of flange apertures; the assembly characterised by: a clamp clamped on the first conduit coupler, the flange connected to and projecting radially out from the clamp. a first conduit coupler; a second conduit coupler mated with the first conduit coupler at a threaded interface; and a lock configured to rotationally fix the first conduit coupler with the second conduit coupler, the lock including a flange, a clip and a fastener (82, 131); the flange arranged with the first conduit coupler, and the flange configured with a plurality of flange apertures arranged circumferentially about an axis of the first conduit coupler; the clip arranged with the second conduit coupler, and the clip configured with a clip aperture (112, 114); and the fastener (82, 131) mated with the clip aperture (112, 114) and any one of the plurality of flange apertures; the assembly characterised by: a clamp clamped on the first conduit coupler, the flange connected to and projecting radially out from the clamp.
A posterior spinal fastener for securing to a single vertebra of a mammalian body having a vertebral body and posterior elements that include a pedicle and for use with a fastening member comprising an elongate member adapted for insertion into the vertebra, the elongate member having an anterior portion and a posterior portion, the anterior portion being arcuate in shape for placement in the vertebral body, characterized in that the posterior portion extends in a linear direction and has a length so as to extend through the pedicle and be accessible at the posterior elements when the anterior portion is disposed in the vertebral body, at least a portion of the posterior portion being externally threaded for securing the elongate member within the posterior elements when the anterior portion is disposed in the vertebral body and the posterior portion having a head accessible outside of the posterior elements when the anterior portion is disposed in the vertebral body for coupling to the fastening member.