mhurhangee/ep-ind-claims huggingface dataset:
Propulsion system for an electric or hybrid vehicle, comprising, in an orthogonal reference frame: - an assembly of n electric propulsion machines, n being an integer greater than or equal to 2, each electric machine comprising a stator, a rotor having an output shaft that is rotatable about a rotor axis and a protective casing surrounding the stator; - a gear train kinematically connected to the n output shafts and adapted to receive the drive torque supplied by the n electric machines; - a transmission housing supporting the protective casings of the n electric machines and, at least in part, the gear train; characterized in that the protective casings of the n electric machines are connected to one another by at least one noise reduction element positioned geometrically between the axes of rotation of the rotors of the n electric machines. - an assembly of n electric propulsion machines, n being an integer greater than or equal to 2, each electric machine comprising a stator, a rotor having an output shaft that is rotatable about a rotor axis and a protective casing surrounding the stator; - a gear train kinematically connected to the n output shafts and adapted to receive the drive torque supplied by the n electric machines; - a transmission housing supporting the protective casings of the n electric machines and, at least in part, the gear train;
A thyroid phantom (1; 201, 202, 203, 204), the phantom comprising a body comprising at least two parts (3, 4) between them defining a thyroid cavity and means for fixing the two parts together to close the cavity in a sealed manner, the phantom further comprising means for filling the cavity with a solution, said filling means comprising at least one canal (19, 20) extending from outside the body into the cavity and means for temporarily hermetically plugging said canal.
A device for continuous producing coils of wound strips, comprising means for continuously depositing a protective film on a sticky face of a web, characterized in that the means for continuously depositing a protective film are connected to means for slitting the web and its protective film into several longitudinal strips, the slitting means being connected to winding means configured to wind each strip in the form of a coil, the means for continuously depositing a protective film comprising an automatic loader of protective film) configured to allow the continuous deposition of the protective film.
A method of managing power headroom reporting associated with a wireless transmit/receive unit (WTRU), the method comprising: determining a value of Power Management Power Reduction, P-MPR; determining a backoff value for reducing a maximum transmit power for the WTRU by: comparing the P-MPR value to a further value; responsive to the further value being less than the P-MPR value, calculating the backoff value in accordance with the P-MPR value, exclusive of the further value, and responsive to the further value being greater than the P-MPR, calculating the backoff value in accordance with the further value, exclusive of the P-MPR value; determining a configured maximum output power, P CMAX, of the WTRU that is within specified limits and whether the P CMAX of the WTRU is impacted by the P-MPR value using the determined backoff value; and sending, by the WTRU to a network entity, a power headroom report including the determined P CMAX and an indicator that indicates whether the P CMAX of the WTRU is impacted by the P-MPR value, wherein: the further value is associated with maximum power reduction, MPR, and an additional MPR, A-MPR, as defined by LTE or LTE-A, and the P-MPR value is a value that is in accordance with a specific absorption rate, SAR requirement and that is not related to MPR or A-MPR. determining a value of Power Management Power Reduction, P-MPR; determining a backoff value for reducing a maximum transmit power for the WTRU by: comparing the P-MPR value to a further value; responsive to the further value being less than the P-MPR value, calculating the backoff value in accordance with the P-MPR value, exclusive of the further value, and responsive to the further value being greater than the P-MPR, calculating the backoff value in accordance with the further value, exclusive of the P-MPR value; comparing the P-MPR value to a further value; responsive to the further value being less than the P-MPR value, calculating the backoff value in accordance with the P-MPR value, exclusive of the further value, and responsive to the further value being greater than the P-MPR, calculating the backoff value in accordance with the further value, exclusive of the P-MPR value; determining a configured maximum output power, P CMAX, of the WTRU that is within specified limits and whether the P CMAX of the WTRU is impacted by the P-MPR value using the determined backoff value; and sending, by the WTRU to a network entity, a power headroom report including the determined P CMAX and an indicator that indicates whether the P CMAX of the WTRU is impacted by the P-MPR value, wherein: the further value is associated with maximum power reduction, MPR, and an additional MPR, A-MPR, as defined by LTE or LTE-A, and the P-MPR value is a value that is in accordance with a specific absorption rate, SAR requirement and that is not related to MPR or A-MPR.
A heat transfer assembly comprising a plurality of heat transfer devices, each heat transfer device comprising a body bounding a cavity of substantially constant volume for receiving a heat transfer fluid or medium, wherein a gap or spacing is provided between opposing heat transfer surfaces of adjacent heat transfer devices, each heat transfer device being fluidly connected via an interconnection means with an adjacent heat transfer device, wherein the interconnection means is configured to maintain a consistent fluid connection and permit variation in the spacing between opposing surfaces of adjacent heat transfer devices, wherein securing means comprising end plates are provided to limit displacement of the heat transfer devices, and wherein biasing means are provided to provide an even pressure on the heat transfer devices, the biasing means comprising springs located between the end plates and an outermost of the heat transfer devices.
A gated time of flight camera operable to determine distances to features in a scene, the gated time of flight camera comprising: a light source configured to transmit at least one train (40, 50, 60, 70) of light pulses to illuminate the scene; a photosensor comprising pixels configured to register amounts of light reflected from transmitted light pulses (41, 51, 61, 71) in the at least one light pulse train by features in the scene imaged on the pixels; a controller configured to control the light source to transmit the at least one train of light pulse trains to illuminate the scene, the controller being further configured to gate ON and gate OFF the photosensor, such that the photosensor is gated ON following each of a first plurality of transmitted light pulses in the at least one light pulse train for a first multi-exposure gate having a plurality of exposure periods to register first amounts of light reflected by features in the scene from the first plurality of light pulses, consecutive exposure periods being separated by a hiatus during which the photosensor is gated OFF; characterized in that the controller is further configured to gate ON the photosensor following each of a second plurality of transmitted light pulses in the at least one light pulse train for a first single-exposure gate having a single exposure period to register second amounts of light reflected by features in the scene from the second plurality of light pulses. a light source configured to transmit at least one train (40, 50, 60, 70) of light pulses to illuminate the scene; a photosensor comprising pixels configured to register amounts of light reflected from transmitted light pulses (41, 51, 61, 71) in the at least one light pulse train by features in the scene imaged on the pixels; a controller configured to control the light source to transmit the at least one train of light pulse trains to illuminate the scene, the controller being further configured to gate ON and gate OFF the photosensor, such that the photosensor is gated ON following each of a first plurality of transmitted light pulses in the at least one light pulse train for a first multi-exposure gate having a plurality of exposure periods to register first amounts of light reflected by features in the scene from the first plurality of light pulses, consecutive exposure periods being separated by a hiatus during which the photosensor is gated OFF; characterized in that the controller is further configured to gate ON the photosensor following each of a second plurality of transmitted light pulses in the at least one light pulse train for a first single-exposure gate having a single exposure period to register second amounts of light reflected by features in the scene from the second plurality of light pulses.
A method for computed tomography prediction from surface data in a medical imaging system, the method comprising: capturing, with a sensor, an outer surface of a patient; determining a segmentation and/or a landmark location; generating, by an image processor, a first three-dimensional CT representation of the patient by a first machine-learned generative network in response to input of the surface data and the segmentation and/or landmark location to the first machine-learned generative network, the surface data being from an output of the sensor for the outer surface; and displaying, by a display device, an image from the first 3D CT representation, wherein determining comprises determining with a second machine-learned generative network, the second machine-learned generative network outputting a segmentation map and/or landmark location map based on, and in response to input of, the surface data and a second 3D CT representation (53, 57) of the patient, and wherein generating comprises generating by the first machine-learned generative network in response to input of the segmentation map as the segmentation and/or the landmark location map as the landmark location and input of the surface data. capturing, with a sensor, an outer surface of a patient; determining a segmentation and/or a landmark location; generating, by an image processor, a first three-dimensional CT representation of the patient by a first machine-learned generative network in response to input of the surface data and the segmentation and/or landmark location to the first machine-learned generative network, the surface data being from an output of the sensor for the outer surface; and displaying, by a display device, an image from the first 3D CT representation, wherein determining comprises determining with a second machine-learned generative network, the second machine-learned generative network outputting a segmentation map and/or landmark location map based on, and in response to input of, the surface data and a second 3D CT representation (53, 57) of the patient, and wherein generating comprises generating by the first machine-learned generative network in response to input of the segmentation map as the segmentation and/or the landmark location map as the landmark location and input of the surface data.
A method for tightening a threaded connection, for connecting pipe conduit components, wherein the threaded connection to be tightened has a connecting element unit with an outer thread, a connecting element unit with an inner thread, and a sealing element arranged inbetween these, wherein the method has the following steps: • positioning the connecting element units (5, 6) with inner or outer thread until contacting the sealing element and reaching the starting point for compressing the sealing element, wherein the sealing element is arranged on or in at least one of the connecting element units (5, 6) and is in contact with the other element, characterized by • tightening one of the connecting element units (5, 6) with inner or outer thread up to a predefined threshold level, wherein on reaching the threshold level one end side of one or other connecting element units (5, 6) stands against the other end side of the other connecting element unit (5, 6), • wherein during the entire tightening process, the prevailing or applied torque and rotation angle are constantly monitored, • and wherein the starting point for compressing the sealing element and the threshold level are determined as a result of the ratio changes which occur between the rotation angle and torque during positioning and tightening the threaded connection. • positioning the connecting element units (5, 6) with inner or outer thread until contacting the sealing element and reaching the starting point for compressing the sealing element, wherein the sealing element is arranged on or in at least one of the connecting element units (5, 6) and is in contact with the other element, characterized by • tightening one of the connecting element units (5, 6) with inner or outer thread up to a predefined threshold level, wherein on reaching the threshold level one end side of one or other connecting element units (5, 6) stands against the other end side of the other connecting element unit (5, 6), • wherein during the entire tightening process, the prevailing or applied torque and rotation angle are constantly monitored, • and wherein the starting point for compressing the sealing element and the threshold level are determined as a result of the ratio changes which occur between the rotation angle and torque during positioning and tightening the threaded connection.
A negative electrode for an electric device, comprising a current collector and an electrode layer containing a negative electrode active material, a conductive auxiliary agent and a binder and formed on a surface of the current collector, wherein the negative electrode active material contains an alloy represented by the following formula: Si x Ti y M z A a in the formula, M is Sn, A is an inevitable impurity, and x, y, z and a represent mass percent values and satisfy any one of the following mathematical formulae to; 35 ≤ x ≤ 78, 0 < y ≤ 37, 7 ≤ z ≤ 30 35 ≤ x ≤ 52, 0 < y ≤ 35, 30 ≤ z ≤ 51 35 ≤ x ≤ 78, 7 ≤ y ≤ 37, 7 ≤ z ≤ 30 35 ≤ x ≤ 52, 7 ≤ y ≤ 35, 30 ≤ z ≤ 51 35 ≤ x ≤ 68, 18 ≤ y ≤ 37, 7 ≤ z ≤ 30 39 ≤ x ≤ 52, 7 ≤ y ≤ 20, 30 ≤ z ≤ 51 46 ≤ x ≤ 58, 24 ≤ y ≤ 37, 7 ≤ z ≤ 21 and conditions of 0≤a<0.5 and x+y+z+a=100, and elastic elongation of the current collector is 1.30% or greater, and the elastic elongation of the current collector is measured at 25 °C in accordance with a tension test method prescribed in JIS K 6251.
A turboengine blading member, the blading member comprising at least one platform member and at least one airfoil member, the airfoil member comprising an airfoil extending along a spanwidth from a first end to a second end, and a connector post being attached to at least one of the first and second ends of the airfoil, wherein the airfoil extends along the spanwidth direction from the connector post, the platform member comprising a first face and a second face, and a receiver through opening extending from the first face to the second face, wherein the connector post is received within the receiver through opening, each of the connector post and the receiver through opening exhibiting a circumferential wall, and a joint gap (51; 52) being formed between said walls, wherein each of the connector post and the receiver through opening comprises a retainer flute (25, 35) provided on the circumferential wall and extending along at least a part of the circumferential extent, wherein for each retainer flute (25, 35) provided on the circumferential wall of one of the connector post and the receiver through opening a corresponding retainer flute (25, 35) is provided on the circumferential wall of the other one of the connector post and the receiver through opening, within each pair of corresponding retainer flutes (25, 35) the retainer flutes being arranged juxtaposed each other with the open sides facing each other such as to jointly form a joint retainer cavity, characterized in that a first retainer member is provided in one of the corresponding retainer flutes, a second retainer member is provided in the other one of the corresponding retainer flutes, and the first and second retainer members are bonded to each other to provide a common retainer member extending into both corresponding retainer flutes (25, 35), thereby retaining the connector post within the receiver through opening and interlocking the airfoil member and the platform member.
A disposable absorbent article having a first waist region longitudinally opposed to a second waist region and a crotch region between the first and second waist regions, and having a longitudinal axis and a lateral axis, the absorbent article comprising: a topsheet; a backsheet; a liquid acquisition layer; and a substantially cellulose free absorbent core; wherein the absorbent core is positioned between the topsheet and the backsheet and the acquisition layer is disposed between the topsheet and a wearer facing side of the absorbent core; wherein the topsheet includes discrete indented regions and unindented regions; characterized in that the depth of the discrete indented regions are greater than 100 μm; and wherein the liquid acquisition layer comprises a first density, D1, of less than 0.1 gm/cc below the unindented regions of the topsheet and comprises a second density, D2, of less than 0.1 gm/cc below the discrete indented regions of the topsheet; wherein the liquid acquisition layer comprises an upper acquisition layer and a lower acquisition layer, wherein the upper acquisition layer defines the first surface of the liquid acquisition layer and the lower acquisition layer defines the second surface of the liquid acquisition layer, D1 and D2 are measured in the lower acquisition layer. a topsheet; a backsheet; a liquid acquisition layer; and a substantially cellulose free absorbent core; wherein the absorbent core is positioned between the topsheet and the backsheet and the acquisition layer is disposed between the topsheet and a wearer facing side of the absorbent core; wherein the topsheet includes discrete indented regions and unindented regions; characterized in that the depth of the discrete indented regions are greater than 100 μm; and wherein the liquid acquisition layer comprises a first density, D1, of less than 0.1 gm/cc below the unindented regions of the topsheet and comprises a second density, D2, of less than 0.1 gm/cc below the discrete indented regions of the topsheet; wherein the liquid acquisition layer comprises an upper acquisition layer and a lower acquisition layer, wherein the upper acquisition layer defines the first surface of the liquid acquisition layer and the lower acquisition layer defines the second surface of the liquid acquisition layer, D1 and D2 are measured in the lower acquisition layer.
A method for wireless communication in a 3GPP system, comprising: identifying a timing advance, TA, value associated with a wireless transmission; identifying a TA threshold value based at least in part on a transmission time interval, TTI, of the wireless transmission, wherein the identifying the TA threshold value comprises identifying the TA threshold value as a first TA threshold when the TTI of the wireless transmission is a two-symbol TTI, and identifying the TA threshold value as a second TA threshold when the TTI of the wireless transmission is a one-slot TTI or a 1 ms TTI, and wherein the first TA threshold is different from the second TA threshold; setting HARQ-ACK timing associated with the wireless transmission based at least in part on the TA value and the TA threshold value, wherein when the TA value is above the TA threshold value, the HARQ-ACK timing is increased; and transmitting, by a wireless transmitter, one or more signals in accordance with the HARQ-ACK timing associated with the wireless transmission. identifying a timing advance, TA, value associated with a wireless transmission; identifying a TA threshold value based at least in part on a transmission time interval, TTI, of the wireless transmission, wherein the identifying the TA threshold value comprises identifying the TA threshold value as a first TA threshold when the TTI of the wireless transmission is a two-symbol TTI, and identifying the TA threshold value as a second TA threshold when the TTI of the wireless transmission is a one-slot TTI or a 1 ms TTI, and wherein the first TA threshold is different from the second TA threshold; setting HARQ-ACK timing associated with the wireless transmission based at least in part on the TA value and the TA threshold value, wherein when the TA value is above the TA threshold value, the HARQ-ACK timing is increased; and transmitting, by a wireless transmitter, one or more signals in accordance with the HARQ-ACK timing associated with the wireless transmission.
An apparatus for treating a mat of mineral fibers, in particular of glass fibers or of rock fibers, moving along a plane (X, Y) and a run direction, by detection and elimination of localized defects, in particular hot spots or wet spots, the apparatus comprising: - a first member for transporting the mat of mineral fibers, - a second member for transporting the mat of mineral fibers, the second transport member being positioned after the first transport member in the run direction and separated therefrom in said direction by a treatment zone, - a device for detecting localized defects in the mat of mineral fibers, located upstream of the treatment zone in the run direction, and - in the treatment zone, a device for eliminating defects suitable for eliminating, in-line, in other words during the transportation of the mat of fibers and without interruption of this transportation, a defect detected by the detection device by eliminating the portion of mat containing it. - a first member for transporting the mat of mineral fibers, - a second member for transporting the mat of mineral fibers, the second transport member being positioned after the first transport member in the run direction and separated therefrom in said direction by a treatment zone, - a device for detecting localized defects in the mat of mineral fibers, located upstream of the treatment zone in the run direction, and - in the treatment zone, a device for eliminating defects suitable for eliminating, in-line, in other words during the transportation of the mat of fibers and without interruption of this transportation, a defect detected by the detection device by eliminating the portion of mat containing it.
A method for determining a correspondence between a transport block and a codeword, comprising: receiving (S102, S202), by a terminal device, first downlink control information, DCI, wherein the first DCI is used to indicate the terminal device to receive a first transport block on a first time-frequency resource; and determining (S105, S203), by the terminal device based on first information, that the first transport block is mapped to a first codeword, wherein the first information comprises a first bit field comprised in the first DCI, wherein the first bit field comprised in the first DCI comprises at least one of the following: a first count downlink assignment index, C-DAI, and a first total downlink assignment index, T-DAI. receiving (S102, S202), by a terminal device, first downlink control information, DCI, wherein the first DCI is used to indicate the terminal device to receive a first transport block on a first time-frequency resource; and determining (S105, S203), by the terminal device based on first information, that the first transport block is mapped to a first codeword, wherein the first information comprises a first bit field comprised in the first DCI, wherein the first bit field comprised in the first DCI comprises at least one of the following: a first count downlink assignment index, C-DAI, and a first total downlink assignment index, T-DAI.