mhurhangee/ep-ind-claims huggingface dataset:
A method for calibrating an array path of beam forming test equipment for a base station, the method comprising: (a) receiving at a beam forming test equipment a signal y n (t) transmitted by a base station using a plurality of array antenna paths, wherein the received signal y n (t) includes a Synchronization Signal Block SSB signal Ŷ i,n; (b) detecting the SSB signal Ŷ i,n by analyzing the received signal y n (t); (c) measuring a path characteristic H̃ n of all array antenna paths of the base station by applying a beam forming coefficient W i,n to the SSB signal Ŷ i,n detected in (b), wherein the beam forming coefficient W i,n is a compensation coefficient applied to each array antenna path; (d) calculating a compensation coefficient C n = 1/ H̃ n for compensating the path characteristic H̃ n of the array antenna paths of the base station measured in (c); and (e) performing calibration on the received signal y n (t) by applying the compensation coefficient C n calculated in (d), wherein i represents the index of a beam and n represents the index of an array antenna path, wherein the path characteristic H n measured in (c) are calculated by H ̃ n = Y ^ n W i, n, n = 0, 1,... N − 1, and an actual path characteristic H n is calculated by H n = Y n W i, n ⋅ S i, n = 0, 1,... N − 1 wherein the connection between the path characteristic H̃ n and the actual path characteristic H n are H ̃ n ≈ 1 S i ⋅ H n, n = 0, 1,... N − 1 H ̃ 0 H ̃ 1 ⋮ H ̃ N − 1 ≈ 1 S i ⋅ H 0 H 1 ⋮ H N − 1 and S i is a reference symbol of the SSB included in an i-th beam forming target signal s i (t). (a) receiving at a beam forming test equipment a signal y n (t) transmitted by a base station using a plurality of array antenna paths, wherein the received signal y n (t) includes a Synchronization Signal Block SSB signal Ŷ i,n; (b) detecting the SSB signal Ŷ i,n by analyzing the received signal y n (t); (c) measuring a path characteristic H̃ n of all array antenna paths of the base station by applying a beam forming coefficient W i,n to the SSB signal Ŷ i,n detected in (b), wherein the beam forming coefficient W i,n is a compensation coefficient applied to each array antenna path; (d) calculating a compensation coefficient C n = 1/ H̃ n for compensating the path characteristic H̃ n of the array antenna paths of the base station measured in (c); and (e) performing calibration on the received signal y n (t) by applying the compensation coefficient C n calculated in (d), wherein the path characteristic H n measured in (c) are calculated by H ̃ n = Y ^ n W i, n, n = 0, 1,... N − 1, and an actual path characteristic H n is calculated by H n = Y n W i, n ⋅ S i, n = 0, 1,... N − 1 wherein the connection between the path characteristic H̃ n and the actual path characteristic H n are H ̃ n ≈ 1 S i ⋅ H n, n = 0, 1,... N − 1 H ̃ 0 H ̃ 1 ⋮ H ̃ N − 1 ≈ 1 S i ⋅ H 0 H 1 ⋮ H N − 1 and S i is a reference symbol of the SSB included in an i-th beam forming target signal s i (t).
An electric propulsion system for a bicycle and mountable to a frame of the bicycle to which a front wheel and a rear wheel are rotatably mounted, the electric propulsion system comprising: a housing mountable to the frame, the housing having a first side and a second side disposed on opposed transverse sides of a longitudinally extending centerline plane bisecting at least one of the housing and the frame; an electric motor disposed within the housing and having a motor output shaft rotatable about a motor shaft axis; the motor output shaft defining an output end disposed within the housing on the first side; and a transmission interconnecting the electric motor and a drive chain of the bicycle to transmit a drive of the electric motor to the rear wheel; the bicycle having a drive train having a crank shaft extending between the first and second sides and rotatably mounted within the bottom bracket shell, a pedal crank mounted to the crank shaft on the second side, the crank shaft and the pedal crank being rotated about a common crank shaft axis by a pedaling actuation, and the drive chain extending between and engaging the pedal crank and a rear sprocket of the rear wheel to transmit the pedaling actuation to the rear wheel; and the electric propulsion system characterised in that: the transmission has a rotatable driven member disposed within the housing on the first side and rotatably engaged with the output end of the motor output shaft to be rotated by the drive of the electric motor, and a drive sprocket disposed outside the housing on the second side and rotatable about a drive sprocket axis disposed forward of an axis of a bottom bracket shell of the frame, the drive sprocket connected to the driven member by a transversely extending transmission shaft disposed within the housing, the drive sprocket being coaxial with the driven member and engaging the drive chain to transmit the drive of the electric motor thereto. a housing mountable to the frame, the housing having a first side and a second side disposed on opposed transverse sides of a longitudinally extending centerline plane bisecting at least one of the housing and the frame; an electric motor disposed within the housing and having a motor output shaft rotatable about a motor shaft axis; the motor output shaft defining an output end disposed within the housing on the first side; and a transmission interconnecting the electric motor and a drive chain of the bicycle to transmit a drive of the electric motor to the rear wheel;
A method for acquiring data with a mobile computing device for generation of a three-dimensional facial scan of a user for obtaining a patient respiratory interface component, the method comprising: controlling an image sensor having a lens to capture two-dimensional video data of the user's face, the video data comprising a plurality of video frames; sensing with a motion sensor configured to sense movement data of at least one of a movement of the image sensor and a change in orientation of the image sensor; controlling, in a processor configured to receive the video data from the image sensor and to receive the movement data from the motion sensor, an association of each of the video data and the movement data with one another; characterized in that the method further comprises: selection of a subset of the plurality of video frames in the video data, wherein the video data is captured at a greater rate than the movement data and video frames having the same timestamp as the movement data are selected to select the subset of the plurality of video frames; and controlling, via a transmitter coupled with the processor, transmission of the subset of the plurality of video frames and the associated movement data to a system comprising a surface engine at a remote destination for generation of a three-dimensional representation of the user's face for obtaining a patient respiratory interface component based on the received selected subset of video frames and the received movement data. controlling an image sensor having a lens to capture two-dimensional video data of the user's face, the video data comprising a plurality of video frames; sensing with a motion sensor configured to sense movement data of at least one of a movement of the image sensor and a change in orientation of the image sensor; controlling, in a processor configured to receive the video data from the image sensor and to receive the movement data from the motion sensor, an association of each of the video data and the movement data with one another; selection of a subset of the plurality of video frames in the video data, wherein the video data is captured at a greater rate than the movement data and video frames having the same timestamp as the movement data are selected to select the subset of the plurality of video frames; and controlling, via a transmitter coupled with the processor, transmission of the subset of the plurality of video frames and the associated movement data to a system comprising a surface engine at a remote destination for generation of a three-dimensional representation of the user's face for obtaining a patient respiratory interface component based on the received selected subset of video frames and the received movement data.
Stator system for an electric motor, having several coil formers and stator windings wound thereon, - wherein the stator windings are distributed over the periphery of the stator system and are arranged to form a circular stator star, the axis of which concurs with an axial direction of the electric motor, - wherein a number of stator windings are electrically isolated in the axial direction, in each case by means of a phase splitter, - wherein the stator windings of at least two respective coil formers are connected in an electrically conductive manner as a coil pair by means of a conductor path, and - wherein each conductor path is secured by means of a dividing web that preferably runs radially and is arranged in the axial direction above the allocated phase splitter, - wherein the respective phase splitter is located between the respective conductor path and the respective stator winding, characterised in that the dividing web has a cavity opening out towards the phase splitter to receive the conductor path. - wherein the stator windings are distributed over the periphery of the stator system and are arranged to form a circular stator star, the axis of which concurs with an axial direction of the electric motor, - wherein a number of stator windings are electrically isolated in the axial direction, in each case by means of a phase splitter, - wherein the stator windings of at least two respective coil formers are connected in an electrically conductive manner as a coil pair by means of a conductor path, and - wherein each conductor path is secured by means of a dividing web that preferably runs radially and is arranged in the axial direction above the allocated phase splitter, - wherein the respective phase splitter is located between the respective conductor path and the respective stator winding, characterised in that the dividing web has a cavity opening out towards the phase splitter to receive the conductor path.
A bridging apparatus comprising: an address-table managing unit configured to manage an address table in which devices connected to a first network and a second network are registered; a presence-check-frame transmission control unit configured to transmit a presence check frame to a second device of the second network for checking whether the second device is connected to the second network; and at least one network transmission-reception control unit configured to call, upon receipt of a response request frame transmitted from a first device connected to the first network toward the second device connected to the second network, the address-table managing unit to register the first device in the address table and check whether the second device is registered in the address table, and when the second device is registered in the address table, transmit an acknowledgement to the first device and transfer the response request frame to the second device of the second network, whereas when the second device is not registered in the address table, instruct the presence-check-frame transmission control unit to transmit the presence check frame to the second device of the second network. an address-table managing unit configured to manage an address table in which devices connected to a first network and a second network are registered; a presence-check-frame transmission control unit configured to transmit a presence check frame to a second device of the second network for checking whether the second device is connected to the second network; and at least one network transmission-reception control unit configured to call, upon receipt of a response request frame transmitted from a first device connected to the first network toward the second device connected to the second network, the address-table managing unit to register the first device in the address table and check whether the second device is registered in the address table, and when the second device is registered in the address table, transmit an acknowledgement to the first device and transfer the response request frame to the second device of the second network, whereas when the second device is not registered in the address table, instruct the presence-check-frame transmission control unit to transmit the presence check frame to the second device of the second network.
A method for detecting tissue hyperplasia in a mammal, such as human being, diagnosing the presence or risk of solid tumors, or prognosing solid tumors, comprising: - detecting the level of ED-B protein in a blood sample, of the mammal, and - comparing with the level of ED-B protein in a healthy control blood sample, wherein the increased level of the ED-B protein in the detected sample in comparison to the healthy control is indicative of the presence of tissue hyperplasia or the presence or risk of solid tumors in the mammal, or poor prognosis, wherein the level of the ED-B protein in the biological sample is detected by means of a binding agent specifically detecting the ED-B protein, wherein the ED-B protein comprises: (a) SEQ ID NO:1, or (b) a sequence having at least 80%, 85%, 90%, 95%, 96%, 97%, 98%, 99% or more sequence identity with the sequence of (a), and wherein the binding agent specifically detecting the ED-B protein is an antibody to the ED-B protein, such as a monoclonal or polyclonal antibody. - detecting the level of ED-B protein in a blood sample, of the mammal, and - comparing with the level of ED-B protein in a healthy control blood sample, wherein the increased level of the ED-B protein in the detected sample in comparison to the healthy control is indicative of the presence of tissue hyperplasia or the presence or risk of solid tumors in the mammal, or poor prognosis, wherein the level of the ED-B protein in the biological sample is detected by means of a binding agent specifically detecting the ED-B protein, wherein the ED-B protein comprises: (a) SEQ ID NO:1, or (b) a sequence having at least 80%, 85%, 90%, 95%, 96%, 97%, 98%, 99% or more sequence identity with the sequence of (a), and wherein the binding agent specifically detecting the ED-B protein is an antibody to the ED-B protein, such as a monoclonal or polyclonal antibody.
Boat that comprises at least one hull (12.1, 12.2), a transom (16.1, 16.2), at least two walls (18.1, 18.2), as well as a propulsion system that comprises at least one internal combustion engine, positioned on or symmetrically relative to a vertical median plane of the boat, and at least two electric drives (30.1, 30.2) placed symmetrically relative to the vertical median plane and that each comprise a propeller placed in a duct that has: - a central section on which the propeller is positioned, longitudinally oriented, - a rear section in the extension of the central section, which leads via at least one rear opening to the transom (16.1, 16.2) of the hull (12.1, 12.2), - a front section that leads, via at least one side opening, to the wall (18.1, 18.2), characterized in that the side opening has a cross-section that is larger than the cross-section of the rear opening so that the duct comprises at least one converging section, in that the front section is bent and has a curved profile, and in that the front section is oriented in such a way that the stream of water exiting from the side opening is directed in a forward direction and forms an angle of between 20 and 60° relative to the wall (18.1, 18.2). - a central section on which the propeller is positioned, longitudinally oriented, - a rear section in the extension of the central section, which leads via at least one rear opening to the transom (16.1, 16.2) of the hull (12.1, 12.2), - a front section that leads, via at least one side opening, to the wall (18.1, 18.2),
A receiver assembly for a machine like a tracked vehicle employed in mining, agriculture, forestry, construction or shipping, the receiver assembly comprising: a mast; a receiver mounted on the mast for collecting, recording, storing, transmitting or receiving data pertaining to operation of a machine on a ground surface, for example a Global Positioning System receiver, a Universal Target System or a laser catcher; characterised by a bracket comprising: a base disposed on the machine; at least one arm extending from the base; a pivot pin disposed on the arm; wherein the mast is disposed alongside the arm and pivotally supported on the pivot pin; and a releasable attachment operable to enable the receiver to be attached to and removed from the mast, wherein the receiver together with the mast is pivotable about the pivot pin from an upright position to lower the receiver for removal from or installation onto the mast. a mast; a receiver mounted on the mast for collecting, recording, storing, transmitting or receiving data pertaining to operation of a machine on a ground surface, for example a Global Positioning System receiver, a Universal Target System or a laser catcher; characterised by a bracket comprising: a base disposed on the machine; at least one arm extending from the base; a pivot pin disposed on the arm; a base disposed on the machine; at least one arm extending from the base; a pivot pin disposed on the arm; wherein the mast is disposed alongside the arm and pivotally supported on the pivot pin; and a releasable attachment operable to enable the receiver to be attached to and removed from the mast, wherein the receiver together with the mast is pivotable about the pivot pin from an upright position to lower the receiver for removal from or installation onto the mast.
An apparatus for dispensing chilled beverage comprising: a display cabinet defining an enclosed volume; at least one holder (14, 16) for holding at least one bottle containing a beverage within the enclosed volume; a refrigerator for chilling the enclosed volume of the cabinet and the at least one bottle received therein; and at least one dispenser for dispensing beverage from a bottle, individually connectable to individual ones of the at least one bottle; wherein the at least one holder is configured to hold the at least one bottle in an inverted position and wherein the at least one dispenser is configured to dispense beverage on demand from a bottle connected to said dispenser by gravity, wherein the cabinet comprises a bottom wall, and the at least one dispenser extends through the bottom wall, characterised in that the at least one dispenser is enveloped by a deformable portion (22, 22A) being a resilient cuff. a display cabinet defining an enclosed volume; at least one holder (14, 16) for holding at least one bottle containing a beverage within the enclosed volume; a refrigerator for chilling the enclosed volume of the cabinet and the at least one bottle received therein; and at least one dispenser for dispensing beverage from a bottle, individually connectable to individual ones of the at least one bottle; wherein the at least one holder is configured to hold the at least one bottle in an inverted position and wherein the at least one dispenser is configured to dispense beverage on demand from a bottle connected to said dispenser by gravity, wherein the cabinet comprises a bottom wall, and the at least one dispenser extends through the bottom wall, characterised in that the at least one dispenser is enveloped by a deformable portion (22, 22A) being a resilient cuff.
An active implantable medical device, such as a pacemaker, defibrillator, cardioverter and/or multisite device, comprising: - means for detecting ventricular (R, V) and atrial (P, A) events, - means for signalling the delivery of a ventricular and/or atrial stimulation pulse, and - means for inhibiting the atrial event detection means, after the detection of a ventricular event, during the duration of a post-ventricular absolute atrial refractory period (PRAAPV), the atrial event detection means including means for protection against the detection of atrial signals that do not correspond to an atrial event having effectively occurred, in particular far-field ventricular signals, device wherein the protection means include means for dynamically adjusting the sensitivity of the atrial event detection means, adapted to temporarily rise the detection threshold, by a first increment (ΔS 1) during a first duration (t 1), after detection by the ventricular detection means of a ventricular event and detection by the atrial detection means of a previous atrial event, spontaneous or stimulated, during the same cycle, characterized in that the means for dynamically adjusting the sensitivity of the atrial event detection means are also adapted to temporarily rise the detection threshold, by a second increment (ΔS 2) during a second duration (t 2), after detection by the ventricular detection means of a ventricular event with no detection by the atrial detection means of a spontaneous previous atrial event during the same cycle. - means for detecting ventricular (R, V) and atrial (P, A) events, - means for signalling the delivery of a ventricular and/or atrial stimulation pulse, and - means for inhibiting the atrial event detection means, after the detection of a ventricular event, during the duration of a post-ventricular absolute atrial refractory period (PRAAPV),
Elasticized structure (1, 101, 201), including a first piece and at least one second piece, said first piece being superimposed and fixed onto the second piece in at least a first fixing zone (16, 16a, 16b, 16c, 19) and in at least a second fixing zone (18, 18a, 18b, 18c, 19), wherein the second piece is at least partially made of elastic material, said second piece having an internal zone comprised between the first fixing zone (16, 16a, 16b, 16c) and the second fixing zone (18, 18a, 18b, 18c), wherein said elasticized structure (1, 101, 201) is able to assume a tensioned position and a rest position, wherein, in said tensioned position, the first piece is in an at least partially tensioned position and the internal zone of the second piece is in a condition of elastic deformation, and wherein, in said rest position, the first piece has a hump comprised between the first fixing zone (16, 16a, 16b, 16c, 19) and the second fixing zone (18, 18a, 18b, 18c, 19), characterized in that, in said rest position, the first piece has parts which are flat (32, 33), or without humps, alongside said first fixing zone (16, 16a, 16b, 16c, 19) and said second fixing zone (18, 18a, 18b, 18c, 19), respectively.
Use as perfuming ingredient, to impart odor notes of the osmanthus type, of a composition of matter comprising: - at least 94% w/w of formula in the form of any one of its stereoisomers or a mixture thereof; and - at most 1% w/w of 2-methylpent-2-en-1-ol and 3-ethyl-4-methylhexan-2-one wherein the percentages are expressed in a weight to weight basis relative to the total weight of said composition of matter. - at least 94% w/w of formula in the form of any one of its stereoisomers or a mixture thereof; and - at most 1% w/w of 2-methylpent-2-en-1-ol and 3-ethyl-4-methylhexan-2-one