mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting channel status information, CSI, of downlink transmission via uplink in a wireless communication system, the method comprising: transmitting (S2210) a rank indicator, RI, at a first subframe; and transmitting (S2220) a first precoding matrix indicator, PMI, a second PMI, and a wideband, WB, channel quality indicator, CQI, at a second subframe, wherein a user equipment, UE, preferred precoding matrix is indicated by a combination of the first PMI and the second PMI, characterized in that , when the RI corresponds to one of Rank-1 to Rank-4, a subsampled codebook for each precoding codebook of ranks from Rank-1 to Rank-4 is applied to the first PMI and the second PMI, and a sum of the first PMI and the second PMI for each of Rank-1 to Rank-4 is comprised of 4 bits, and when the RI corresponds to one of Rank-5 to Rank-7, a full set of each precoding codebook of ranks from Rank-5 to Rank-7 is applied to the first PMI and the second PMI, and a sum of the first PMI and the second PMI for each of Rank-5 to Rank-7 is comprised of 2 bits. transmitting (S2210) a rank indicator, RI, at a first subframe; and transmitting (S2220) a first precoding matrix indicator, PMI, a second PMI, and a wideband, WB, channel quality indicator, CQI, at a second subframe, wherein a user equipment, UE, preferred precoding matrix is indicated by a combination of the first PMI and the second PMI, characterized in that , when the RI corresponds to one of Rank-1 to Rank-4, a subsampled codebook for each precoding codebook of ranks from Rank-1 to Rank-4 is applied to the first PMI and the second PMI, and a sum of the first PMI and the second PMI for each of Rank-1 to Rank-4 is comprised of 4 bits, and when the RI corresponds to one of Rank-5 to Rank-7, a full set of each precoding codebook of ranks from Rank-5 to Rank-7 is applied to the first PMI and the second PMI, and a sum of the first PMI and the second PMI for each of Rank-5 to Rank-7 is comprised of 2 bits.
An implantable pacing and/or defibrillation lead, said lead extending from a proximal end to a distal end , wherein the proximal end of the lead is configured to be connected to an implantable medical device, the lead comprising: - an active fixation electrode at the distal end of the lead , which is mechanically and electrically coupled to a conductive driver shaft moveably arranged in a distal housing portion of the lead , wherein the active fixation electrode is movable from a retracted position in which the active fixation electrode is completely housed inside the distal housing portion , to an extended position, in which the active fixation electrode extends in a distal direction at least partially beyond the distal housing portion , and - an electrically conductive compression spring , said lead further comprising: - a guiding member arranged inside the distal housing portion and comprising a tubular body electrically connected with the distal housing portion , wherein the conductive driver shaft is slideably arranged through a lumen extending through the tubular body , wherein the tubular body further comprises a radial opening in communication with the lumen , and wherein the electrically conductive compression spring is partially radially arranged around the tubular body and its radial opening , such that the electrically conductive compression spring is forced by its restoring force against the conductive driver shaft . - an active fixation electrode at the distal end of the lead , which is mechanically and electrically coupled to a conductive driver shaft moveably arranged in a distal housing portion of the lead , wherein the active fixation electrode is movable from a retracted position in which the active fixation electrode is completely housed inside the distal housing portion , to an extended position, in which the active fixation electrode extends in a distal direction at least partially beyond the distal housing portion , and - an electrically conductive compression spring , - a guiding member arranged inside the distal housing portion and comprising a tubular body electrically connected with the distal housing portion , wherein the conductive driver shaft is slideably arranged through a lumen extending through the tubular body , wherein the tubular body further comprises a radial opening in communication with the lumen , and wherein the electrically conductive compression spring is partially radially arranged around the tubular body and its radial opening , such that the electrically conductive compression spring is forced by its restoring force against the conductive driver shaft .
A plasmid coding for a soluble form of an agonist of GITR, CD137, CD134, CD40L, or CD27 for use in a method of treating a subject having a cancerous tumor, the method comprising: injecting the cancerous tumor with an effective dose of said plasmid and a nucleic acid encoding at least one immunostimulatory cytokine; and administering electroporation therapy to the tumor, the electroporation therapy further comprising the administration of at least one voltage pulse of 200 V/cm to 1500 V/cm over a pulse width of 100 microseconds to 20 milliseconds.
A production method for an Fe-Ni based heat-resistant superalloy having a composition comprising 0.08 % by mass or less of C, 0.35 % by mass or less of Si, 0.35 % by mass or less of Mn, 0.015 % by mass or less of P, 0.015 % by mass or less of S, 50.0 to 55.0 % by mass of Ni, 17.0 to 21.0 % by mass of Cr, 2.8 to 3.3 % by mass of Mo, 1.0 % by mass or less of Co, 0.30 % by mass or less of Cu, 0.20 to 0.80 % by mass of Al, 0.65 to 1.15 % by mass of Ti, 4.75 to 5.50 % by mass of Nb + Ta, 0.006 % by mass or less of B, and the balance of Fe and unavoidable impurities and having an ASTM crystal grain size number of 9 or higher, wherein the production method comprising at least a hot working step in which a material having the composition described above is subjected to hot working, wherein the hot working step comprises at least subjecting the above material to hot working at 930 to 1010°C so that a relation of (effective strain) ≥ 0.139 x (effective strain rate (/sec)) -0.30 is satisfied in an entirety of the above material; wherein the method further comprises a solution treatment step in which the material is subjected to solution treatment for 0.5 to 10 hours at a range of 950 to 1000°C after the hot working step; and wherein the method further comprises a heat treatment step in which the material is subjected to heat treatment for 5 to 60 hours in a range of 600 to 930°C after the hot working step and before the solution treatment step.
A helper plasmid comprising at least one adeno-associated virus (AAV) rep gene encoding at least one functional AAV Rep protein and at least one helper virus gene, and which does not comprise a cap gene encoding a functional set of Cap proteins.
A method for generating audio object metadata of an audio object corresponding to a sound source, the method comprising: receiving input audio data comprising sound from the sound source (715a; 715b; 715c), said input audio data including first microphone audio signals and second microphone audio signals output by a pair of coincident, vertically-stacked directional microphones , forming an XY stereo microphone system; determining , based at least in part on an intensity difference between the first microphone audio signals and the second microphone audio signals, an azimuthal angle corresponding to a sound source location; determining , based at least in part on a temporal difference between the first microphone audio signals and the second microphone audio signals and at least in part on a vertical distance between a first microphone and a second microphone of the pair of coincident, vertically-stacked directional microphones, an elevation angle corresponding to the sound source location; and generating output audio data including at least one audio object comprising the audio object metadata, the audio object metadata including at least audio object location data corresponding to the sound source location, wherein the audio object location data is based, at least in part, on the azimuthal angle and the elevation angle. receiving input audio data comprising sound from the sound source (715a; 715b; 715c), said input audio data including first microphone audio signals and second microphone audio signals output by a pair of coincident, vertically-stacked directional microphones , forming an XY stereo microphone system; determining , based at least in part on an intensity difference between the first microphone audio signals and the second microphone audio signals, an azimuthal angle corresponding to a sound source location; determining , based at least in part on a temporal difference between the first microphone audio signals and the second microphone audio signals and at least in part on a vertical distance between a first microphone and a second microphone of the pair of coincident, vertically-stacked directional microphones, an elevation angle corresponding to the sound source location; and generating output audio data including at least one audio object comprising the audio object metadata, the audio object metadata including at least audio object location data corresponding to the sound source location, wherein the audio object location data is based, at least in part, on the azimuthal angle and the elevation angle.
A lens configured for implantation into an eye of a human, said lens, comprising: an optic comprising transparent material, said optic having an anterior surface , a posterior surface , and an exit pupil, each of said anterior surface and said posterior surface having a surface vertex, said optic having an optical axis through said surface vertices and a thickness (TC) along said optical axis between 100-400 micrometers, haptic portions disposed about the optic to affix the optic in the eye when implanted therein, wherein said anterior surface comprises an aspheric surface, and characterized in that the anterior and posterior surfaces are shaped to provide a radial power profile characterized by Φ(r) = a + br 2 + cr 4 + dr 6 + er 8 for wavefront at the exit pupil of the optic for an object vergence within the range of 0 Diopter to 2.5 Diopter, where r is the radial distance from the optical axis and a, b, c, d, and e are real number coefficients. an optic comprising transparent material, said optic having an anterior surface , a posterior surface , and an exit pupil, each of said anterior surface and said posterior surface having a surface vertex, said optic having an optical axis through said surface vertices and a thickness (TC) along said optical axis between 100-400 micrometers, haptic portions disposed about the optic to affix the optic in the eye when implanted therein, wherein said anterior surface comprises an aspheric surface, and characterized in that the anterior and posterior surfaces are shaped to provide a radial power profile characterized by Φ(r) = a + br 2 + cr 4 + dr 6 + er 8 for wavefront at the exit pupil of the optic for an object vergence within the range of 0 Diopter to 2.5 Diopter, where r is the radial distance from the optical axis and a, b, c, d, and e are real number coefficients.
Method for controlling a turbocharger for an internal-combustion engine of a motor vehicle, of the type comprising a turbine and a variable-geometry compressor, in which the boost pressure is adjusted by adjusting the geometry of the variable-geometry compressor on the basis of a value of adjustment of the geometry of the compressor, said adjustment value being derived from a first mapping (C1) of values of adjustment of the geometry of the compressor as a function of the speed of rotation of the engine, corresponding to an optimized efficiency of the compressor for a stabilized operation of the engine, and a transient operation of the engine is detected (E1) following a sudden demand for acceleration of the engine, characterized in that : - upon detection, a modification of the adjustment of the geometry of the variable-geometry compressor is controlled (E3) on the basis of a second mapping (C2) of values of adjustment of the geometry of the compressor as a function of the speed of rotation of the engine, corresponding to an optimized efficiency of the compressor for a transient operation of the engine, and - a progressive switching is performed (E4) of the adjustment of the geometry of the compressor according to the second mapping toward the adjustment according to the first mapping, by detection of the evolution over time of the level of torque realized by the engine in comparison with a maximum level of torque obtained when the engine speed is stabilized. - upon detection, a modification of the adjustment of the geometry of the variable-geometry compressor is controlled (E3) on the basis of a second mapping (C2) of values of adjustment of the geometry of the compressor as a function of the speed of rotation of the engine, corresponding to an optimized efficiency of the compressor for a transient operation of the engine, and - a progressive switching is performed (E4) of the adjustment of the geometry of the compressor according to the second mapping toward the adjustment according to the first mapping, by detection of the evolution over time of the level of torque realized by the engine in comparison with a maximum level of torque obtained when the engine speed is stabilized.
A method of manufacturing a guard element , wherein the guard element is configured to be used in a hair-cutting unit as a guard for a movable hair-cutting element of the hair-cutting unit , and wherein the design of the guard element includes a shaving track with a plurality of hair-entry apertures , the shaving track having a thickness profile with at least one thickness value, the method comprising: an initial step of providing a sheet from which the guard element is to be formed, and the method comprising steps aimed at creating the shaving track according to the design of the guard element in the sheet , including a thickness-adapting step of realizing the at least one thickness value of the thickness profile of the shaving track according to the design of the guard element in the sheet at a position where the shaving track is to be formed, and a material-removing step of removing material from the sheet at the position where the shaving track is to be formed so as to form the hair-entry apertures , characterised in that : the thickness-adapting step is performed prior to the material-removing step without any thickness-adapting action as finishing action being performed on the guard element as a near-final product which has already been provided with the hair-entry apertures .
Workpiece which is reversibly deformable by pressure for the strong reversible connection of machine components, comprising: (i) an essentially cylindrical base body which has on its periphery a pressing area against an area of the machine component to be connected, (ii) at least one displacement space in the interior of the base body, which is fully or partly filled with a displacement medium in powder form or granulated form, (iii) pressure and tensioning means - , and (iv) at least one pressure ram which is designed in shape and size in such a way that it can be pushed into the displacement space by means of the pressure and tensioning means in order to compress the displacement medium located therein, causing an expansion of the periphery of the base body over the pressing area and thus formation of a very strong reversible connection to the machine component to be connected, characterised in that the displacement medium employed in the at least one displacement space has a total effective modulus of elasticity of at most 20% of the modulus of elasticity of the material of the base body and has a total effective coefficient of expansion which deviates by a maximum of 10% from the coefficient of expansion of the base body, where the displacement medium is a single component or is a mixture of at least two components, each with different moduli of elasticity and/or coefficients of expansion. (i) an essentially cylindrical base body which has on its periphery a pressing area against an area of the machine component to be connected, (ii) at least one displacement space in the interior of the base body, which is fully or partly filled with a displacement medium in powder form or granulated form, (iii) pressure and tensioning means - , and (iv) at least one pressure ram which is designed in shape and size in such a way that it can be pushed into the displacement space by means of the pressure and tensioning means in order to compress the displacement medium located therein, causing an expansion of the periphery of the base body over the pressing area and thus formation of a very strong reversible connection to the machine component to be connected,
A levelling system for forming a planar surface from a plurality of panels (P) on a substrate (U), the levelling system comprising a. a rail extending along a longitudinal axis, the rail comprising i. a rail foot for arrangement on the substrate (U) with a flat upper side , ii. a rail web arranged along a normal axis on the upper side of the rail foot and iii. a rail head arranged on the edge of the rail web facing away from the rail foot , and b. a clamping device , the clamping device comprising i. a guide element positively held by the rail head in a direction along the normal axis away from the rail foot and guided for displacement along the longitudinal axis and ii. a clamping element that can be clamped onto the rail foot relative to the guide element , the clamping element comprising two clamping surfaces arranged on both sides of the rail web in a plane parallel to the upper side of the rail foot for clamping the panels (P) between the clamping surfaces and the rail foot . a. a rail extending along a longitudinal axis, the rail comprising i. a rail foot for arrangement on the substrate (U) with a flat upper side , ii. a rail web arranged along a normal axis on the upper side of the rail foot and iii. a rail head arranged on the edge of the rail web facing away from the rail foot , and i. a rail foot for arrangement on the substrate (U) with a flat upper side , ii. a rail web arranged along a normal axis on the upper side of the rail foot and iii. a rail head arranged on the edge of the rail web facing away from the rail foot , and b. a clamping device , the clamping device comprising i. a guide element positively held by the rail head in a direction along the normal axis away from the rail foot and guided for displacement along the longitudinal axis and ii. a clamping element that can be clamped onto the rail foot relative to the guide element , the clamping element comprising two clamping surfaces arranged on both sides of the rail web in a plane parallel to the upper side of the rail foot for clamping the panels (P) between the clamping surfaces and the rail foot . i. a guide element positively held by the rail head in a direction along the normal axis away from the rail foot and guided for displacement along the longitudinal axis and ii. a clamping element that can be clamped onto the rail foot relative to the guide element , the clamping element comprising two clamping surfaces arranged on both sides of the rail web in a plane parallel to the upper side of the rail foot for clamping the panels (P) between the clamping surfaces and the rail foot .
Monitoring method for electrical insulations (1-36) of an industrial electric furnace , particularly a reduction furnace, which has predetermined measuring points (Mx) on several sections (Sx) electrically insulated from one another by the electrical insulations (1-36), wherein during ongoing production operation of the industrial electric furnace a monitoring device (200; 200A), which is electrically couplable or coupled with the predetermined measuring points (Mx), in a respective test cycle automatically determines resistance measurement values (R1-R36, Rx) of the electrical insulations (1-36) between the predetermined measuring points (Mx) of the industrial electric furnace in that the monitoring device in a respective test cycle temporarily electrically connects the predetermined measuring points (Mx), preferably in pairs, in accordance with a predetermined sequence with an insulation measuring instrument and the insulation measuring instrument measures the resistance measurement values (Rx) between the measuring points (Mx) connected with the insulation measuring instrument and wherein the monitoring device checks the electrical insulations (1-36) with respect to the insulating properties thereof on the basis of the determined resistance measurement values (R1-R36, Rx).
A vacuum pump with at least one pumping stage, a motor and motor control, wherein the vacuum pump is configured as a dry-running vacuum pump with seals, in which there is arranged at least one pressure sensor before the first pumping stage and/or in at least one sealing space (23a, 23b; 54a, 54b; 55a, 55b) of the vacuum pump, and the pressure sensor is connected to an evaluation unit , wherein a display device is provided for indicating a non-performance and/or underperformance of the vacuum pump , characterised in that the seals are seals which are subject to wear and in that a single line leads from the pressure sensor to an evaluation unit , which in turn is connected to a motor control and in that a wear of the seals is detected thereby.
Anchoring and bearing system , comprising a first construction element and a second construction element , which is connectable to the first construction element , and at least one force transmission element and an accommodation for the at least one force transmission element , whereby the accommodation is designed as a groove on a first connection face of the first construction element , and the at least one force transmission element is provided protruding on a second connection face of the second construction element , whereby the at least one force transmission element is insertable at least partially into the groove and is able to be received in a displaceabe way along the groove in the longitudinal direction of the first connection face , characterized in that , as a means for force transmission, at least one reinforcing element is arranged in the region of the first construction element in which the at least one force transmission element is held in an end position in the groove . a first construction element and a second construction element , which is connectable to the first construction element , and at least one force transmission element and an accommodation for the at least one force transmission element , whereby the accommodation is designed as a groove on a first connection face of the first construction element , and the at least one force transmission element is provided protruding on a second connection face of the second construction element , whereby the at least one force transmission element is insertable at least partially into the groove and is able to be received in a displaceabe way along the groove in the longitudinal direction of the first connection face , characterized in that , as a means for force transmission, at least one reinforcing element is arranged in the region of the first construction element in which the at least one force transmission element is held in an end position in the groove .
Inner boot for an item of sports footwear, comprising at least one outer layer consisting of a lower part and an upper part , and comprising a padding layer having at least two elements, respectively an upper element and a lower element , the upper end of the lower element of said padding layer being positioned above a region of rotation of the heel when the foot is introduced into the inner boot, and extending at least above a connection region between the lower part and the upper part of the said outer layer of the inner boot, the inner boot including an articulation region close to the connection region between the lower part and the upper part of the outer layer .