mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication, said method being performed by a User Equipment, UE (115-b), the method comprising: monitoring a first set of decoding candidates within a first search space for receiving a physical downlink control channel message; receiving , from a base station, a signal within the first search space, the signal comprising a command for activating a second search space; monitoring a second set of decoding candidates within the second search space based at least in part on receiving the signal; receiving , from the base station, a second signal within the first search space, the second signal comprising a command for releasing the first search space; ceasing monitoring the first set of decoding candidates within the first search space based at least in part on receiving the second signal; and communicating , with the base station, based at least in part on monitoring the first set of decoding candidates within the first search space and the second set of decoding candidates within the second search space. monitoring a first set of decoding candidates within a first search space for receiving a physical downlink control channel message; receiving , from a base station, a signal within the first search space, the signal comprising a command for activating a second search space; monitoring a second set of decoding candidates within the second search space based at least in part on receiving the signal; receiving , from the base station, a second signal within the first search space, the second signal comprising a command for releasing the first search space; ceasing monitoring the first set of decoding candidates within the first search space based at least in part on receiving the second signal; and communicating , with the base station, based at least in part on monitoring the first set of decoding candidates within the first search space and the second set of decoding candidates within the second search space.
A portable electronic device, comprising: an outer periphery component , comprising: an antenna section having a first surface and a first coupling structure extending from the first surface; a conductive section having a second surface and a second coupling structure extending from the second surface; characterized by : a knuckle that completely surrounds the first and second coupling structures to physically couple and electrically isolate the antenna section and the conductive section, the knuckle separating the antenna section and the conductive section. an antenna section having a first surface and a first coupling structure extending from the first surface; a conductive section having a second surface and a second coupling structure extending from the second surface; characterized by : a knuckle that completely surrounds the first and second coupling structures to physically couple and electrically isolate the antenna section and the conductive section, the knuckle separating the antenna section and the conductive section.
A gas turbine engine , comprising: a buffer system that includes a first circuit that communicates a first buffer supply air to a first bearing compartment (BC) of the gas turbine engine; said first circuit including a first bleed air supply , a second bleed air supply and a valve ; characterised in that the buffer system further comprises a second circuit that communicates a second buffer supply air to a second bearing compartment (BC) of the gas turbine engine; said second circuit including a first bleed air supply , a second bleed air supply , a valve and a conditioning device . a buffer system that includes a first circuit that communicates a first buffer supply air to a first bearing compartment (BC) of the gas turbine engine; said first circuit including a first bleed air supply , a second bleed air supply and a valve ; characterised in that the buffer system further comprises a second circuit that communicates a second buffer supply air to a second bearing compartment (BC) of the gas turbine engine; said second circuit including a first bleed air supply , a second bleed air supply , a valve and a conditioning device .
A preparation method for an epoxy compound having an alkoxysilyl group, the method comprising: performing a ring opening step by reacting an epoxy compound having an epoxide group which is a starting material, with an aromatic alcohol ring-opening agent in the presence of a phosphine-based catalyst and an optional solvent so as to obtain an intermediate having a partially ring-opened epoxide group; and performing an alkoxysilylation step by reacting the intermediate having a partially ring-opened epoxide group with isocyanate alkoxysilane. performing a ring opening step by reacting an epoxy compound having an epoxide group which is a starting material, with an aromatic alcohol ring-opening agent in the presence of a phosphine-based catalyst and an optional solvent so as to obtain an intermediate having a partially ring-opened epoxide group; and performing an alkoxysilylation step by reacting the intermediate having a partially ring-opened epoxide group with isocyanate alkoxysilane.
A draw-off arrangement for a spinning machine for drawing off a yarn , - wherein the draw-off arrangement comprises at least one roller and one corresponding counter-roller , between which the yarn can be guided in a clamped manner, - wherein the draw-off arrangement comprises at least one loading element , by means of which a pressing force can be applied to the roller , and - wherein the roller is guided by means of at least one swivel lever which is mounted so as to be movable about a swivel axle , wherein the draw-off arrangement moreover comprises a force transmission element , wherein at least a portion of the force transmission element is operatively connected at one side to the loading element and at the other side to the swivel lever , characterized in that a pressing force generated by the loading element can be transmitted to the force transmission element operatively connected to the loading element and from there to the swivel lever operatively connected to the force transmission element and thus to the roller guided by the swivel lever . - wherein the draw-off arrangement comprises at least one roller and one corresponding counter-roller , between which the yarn can be guided in a clamped manner, - wherein the draw-off arrangement comprises at least one loading element , by means of which a pressing force can be applied to the roller , and - wherein the roller is guided by means of at least one swivel lever which is mounted so as to be movable about a swivel axle ,
An aluminum alloy, comprising: 4.0 to 10.0 weight % silicon (Si), 0.1 to 4.0 weight % magnesium (Mg), 0.1 to 1.0 weight % chromium (Cr), 0.05 to 1.0 weight % zinc (Zn), 0.05 to 1.0 weight % manganese (Mn), 0.01 to 1.0 weight % titanium (Ti), 0.001 to 0.5 weight % tin (Sn), 0.01 to 1 weight % zirconium (Zr), and balance aluminum and impurities, wherein at least one impurity included in the aluminum alloy is identified during a melting process through an ingredient analysis of each element included in the aluminum alloy, wherein the at least one impurity is at least one of copper (Cu), nickel (Ni), or iron (Fe), wherein the copper (Cu) or nickel (Ni) is adjusted to be equal to or less than 0.05 weight% of the aluminum alloy, and wherein the iron (Fe) is adjusted to be equal to or less than 0.3 weight% of the aluminum alloy. 4.0 to 10.0 weight % silicon (Si), 0.1 to 4.0 weight % magnesium (Mg), 0.1 to 1.0 weight % chromium (Cr), 0.05 to 1.0 weight % zinc (Zn), 0.05 to 1.0 weight % manganese (Mn), 0.01 to 1.0 weight % titanium (Ti), 0.001 to 0.5 weight % tin (Sn), 0.01 to 1 weight % zirconium (Zr), and balance aluminum and impurities, wherein at least one impurity included in the aluminum alloy is identified during a melting process through an ingredient analysis of each element included in the aluminum alloy, wherein the at least one impurity is at least one of copper (Cu), nickel (Ni), or iron (Fe), wherein the copper (Cu) or nickel (Ni) is adjusted to be equal to or less than 0.05 weight% of the aluminum alloy, and wherein the iron (Fe) is adjusted to be equal to or less than 0.3 weight% of the aluminum alloy.
Method for marking an object for traceability, authentication and anti-counterfeiting purposes, comprising the grafting by sol-gel process of a fluorescent, virtually indelible and solvent-insensitive identification marker onto said object , characterized in that it comprises the steps of : - spray deposition on at least part of the surface of said object of an ink comprising a fluorescent sol-gel precursor hydrolyzable by catalysis with a photogenerated acid (PAG), and an acid photogenerator (PAG), - polymerization by exposure to ultraviolet light of at least part of said deposited sol-gel precursor, by hydrolysis-polycondensation catalyzed by the acid photogenerator (PAG), so as to form a predetermined shape marker grafted onto said object, characterized in that the shape of the grafted marker comprises any of the following markings: alphanumeric characters, bar code, DotMatrix code, DataMatrix code, QR code, logo, Braille code. - spray deposition on at least part of the surface of said object of an ink comprising a fluorescent sol-gel precursor hydrolyzable by catalysis with a photogenerated acid (PAG), and an acid photogenerator (PAG), - polymerization by exposure to ultraviolet light of at least part of said deposited sol-gel precursor, by hydrolysis-polycondensation catalyzed by the acid photogenerator (PAG), so as to form a predetermined shape marker grafted onto said object,
A compound of Formula I or a pharmaceutically acceptable salt thereof for use in inhibiting vasculogenic mimicry formation associated with aggressive or metastatic tumor in a subject in need thereof: wherein R 2 ', R 3 ', R 4 ', R 5 ' and R 6 ' independently are H, (CH 2 ) n YH, Y(CH 2 ) n CH 3 , or X, or R 3 '= OP(=O)(O-benzyl) 2 , wherein n is an integer of 0-4, Y is O, X is F, Cl, or Br; R 2 , R 3 , R 4 and R 5 independently are H, (CH 2 ) n YH, Y(CH 2 ) n CH 3 , X, (CH 2 ) n NR 8 R 9 , or (CH 2 ) n N, or R 4 and R 5 together is -Y(CH 2 ) n Y-, or R 3 and R 4 together is -Y(CH 2 ) n Y-, wherein n, Y, X are as defined above, R 8 and R 9 independently are (CH 2 )nCH 3 . R 2 ', R 3 ', R 4 ', R 5 ' and R 6 ' independently are H, (CH 2 ) n YH, Y(CH 2 ) n CH 3 , or X, or R 3 '= OP(=O)(O-benzyl) 2 , wherein n is an integer of 0-4, Y is O, X is F, Cl, or Br; R 2 , R 3 , R 4 and R 5 independently are H, (CH 2 ) n YH, Y(CH 2 ) n CH 3 , X, (CH 2 ) n NR 8 R 9 , or (CH 2 ) n N, or R 4 and R 5 together is -Y(CH 2 ) n Y-, or R 3 and R 4 together is -Y(CH 2 ) n Y-, wherein n, Y, X are as defined above, R 8 and R 9 independently are (CH 2 )nCH 3 .
Organic electroluminescent device comprising anode, cathode, at least one emitting layer and at least one electron-transport layer which is directly adjacent to the emitting layer on the cathode side, characterised in that the electron-transport layer comprises a mixture of at least two materials ETM1 and ETM2, where the following conditions apply to ETM1 and ETM2: a) T 1 (ETM1) > 2.2 eV; and b) T 1 (ETM2) > 2.2 eV; and c) -3.2 eV < LUMO(ETM1) < -2.0 eV; and d) LUMO(ETM2) > LUMO(ETM1); where T 1 stands for the lowest triplet energy of the respective material and LUMO stands for the energy of the lowest unoccupied molecular orbital of the respective material and where ETM1 and ETM2 are purely organic materials, and where the triplet energies and the HOMO and LUMO values are determined using the time-dependant density functional theory method disclosed in the example part. a) T 1 (ETM1) > 2.2 eV; and b) T 1 (ETM2) > 2.2 eV; and c) -3.2 eV < LUMO(ETM1) < -2.0 eV; and d) LUMO(ETM2) > LUMO(ETM1);
A method for characterizing particles, the method comprising: generating a spatially modulated optical excitation region , creating relative movement between a particle and the excitation region , the particle being excited upon exposure to the excitation region to obtain a time modulated signal that is caused by light emission from the particle ; and recording the modulated signal; wherein said creating relative movement between the particle and the excitation region comprises moving said excitation region , characterised in that : said excitation region is generated by at least one of a shadow mask, a phase mask and a lens array. generating a spatially modulated optical excitation region , creating relative movement between a particle and the excitation region , the particle being excited upon exposure to the excitation region to obtain a time modulated signal that is caused by light emission from the particle ; and recording the modulated signal; wherein said creating relative movement between the particle and the excitation region comprises moving said excitation region , characterised in that : said excitation region is generated by at least one of a shadow mask, a phase mask and a lens array.
An assembly of a metal element comprising stainless steel and a metal part comprising a material different from stainless steel, characterized in that the metal part comprising stainless steel and the metal part are isolated from one another by an intermediate part comprising a steel substrate covered with a metal coating made from zinc alloy, the alloy comprising aluminum and magnesium.
A grease composition comprising a base oil and a thickener, the base oil including a fluorine oil, an ester oil, and a polyalphaolefin oil, and the thickener including a fluorine-based thickener, a urea-based thickener, and a barium complex soap thickener, the grease composition containing, relative to a total amount of the grease composition, from 70 to 90 mass% of the fluorine oil, the ester oil, and the polyalphaolefin oil in total; from 9 to 18 mass% of the fluorine-based thickener; from 3.6 to 6.9 mass% of the urea-based thickener; and from 0.3 to 3.6 mass% of the barium complex soap thickener. from 70 to 90 mass% of the fluorine oil, the ester oil, and the polyalphaolefin oil in total; from 9 to 18 mass% of the fluorine-based thickener; from 3.6 to 6.9 mass% of the urea-based thickener; and from 0.3 to 3.6 mass% of the barium complex soap thickener.
A catheter-based prosthetic heart valve comprising: a collapsible and expandable annular frame configured to be collapsed to a radially collapsed state for mounting on a balloon of a delivery apparatus and expanded to a radially expanded state inside the body, wherein the frame is made of a nickel-cobalt-chromium-molybdenum alloy; a leaflet structure comprising a plurality of leaflets ; wherein the frame comprises a plurality of rows of angled struts joined to each other to form a plurality of hexagonal cells, wherein the frame is honeycomb-structured, having a homogenous pattern of the hexagonal cells, meaning that the frame is made up entirely of the hexagonal cells and does not include any struts that do not form part of one of the hexagonal cells, except for any struts that extend axially away from an inflow end of the frame or an outflow end of the frame for mounting the frame to the delivery apparatus; wherein each of the hexagonal cells comprises two opposing side struts extending parallel to a flow axis of the valve , a pair of lower angled struts , extending downwardly from respective lower ends of the side struts and converging toward each other, and a pair of upper angled struts extending upwardly from respective upper ends of the side struts and converging toward each other. a collapsible and expandable annular frame configured to be collapsed to a radially collapsed state for mounting on a balloon of a delivery apparatus and expanded to a radially expanded state inside the body, wherein the frame is made of a nickel-cobalt-chromium-molybdenum alloy; a leaflet structure comprising a plurality of leaflets ; wherein the frame comprises a plurality of rows of angled struts joined to each other to form a plurality of hexagonal cells, wherein the frame is honeycomb-structured, having a homogenous pattern of the hexagonal cells, meaning that the frame is made up entirely of the hexagonal cells and does not include any struts that do not form part of one of the hexagonal cells, except for any struts that extend axially away from an inflow end of the frame or an outflow end of the frame for mounting the frame to the delivery apparatus; wherein each of the hexagonal cells comprises two opposing side struts extending parallel to a flow axis of the valve , a pair of lower angled struts , extending downwardly from respective lower ends of the side struts and converging toward each other, and a pair of upper angled struts extending upwardly from respective upper ends of the side struts and converging toward each other.
Vehicle seat with a spring device for cushioning tilting movements of an upper part of the vehicle seat relative to a lower part of the vehicle seat about a tilt axis arranged in a vehicle seat longitudinal direction (L) or vehicle seat width direction (B), characterised in that , the spring device comprises a first spring rod which is elastically deformable in the transverse direction and a second spring rod which is elastically deformable in the transverse direction, wherein the transverse direction corresponds to the radial direction of the respective spring rod, wherein the upper part has a first lower portion and a second lower portion , wherein the first lower portion is at least operatively connected to the first spring rod and the second lower portion is at least operatively connected to the second spring rod , in order to deform the first spring rod or the second spring rod when the upper part is tilted, wherein the first spring rod , the second spring rod and the tilt axis are arranged in a common plane , wherein the plane in a normal operating state of the vehicle seat is parallel to a basic plane formed from the longitudinal direction (L) of the vehicle seat and a vehicle seat width direction (B).
A solid oral formulation comprising Utidelone, or a pharmaceutically acceptable salt, solvate or ester thereof as an active ingredient and a pharmaceutically acceptable excipient, wherein the formulation is a micropellet capsule encapsulating micropellets, or a tablet prepared by micropellet compression, wherein the micropellets are pellet cores coated with a coating layer comprising the active ingredient and said pharmaceutically acceptable excipient, wherein the pharmaceutically acceptable excipient comprises a hydrophilic pharmaceutical excipient, a sustained-release pharmaceutical excipient, and optionally a surfactant, and wherein the ratio of the active ingredient to the pharmaceutically acceptable excipient is in the range of 1:1 to 1:30. wherein the pharmaceutically acceptable excipient comprises a hydrophilic pharmaceutical excipient, a sustained-release pharmaceutical excipient, and optionally a surfactant, and wherein the ratio of the active ingredient to the pharmaceutically acceptable excipient is in the range of 1:1 to 1:30.
A directional tendency prediction method that comprises: determining a geometry-based relationship between a borehole curvature and at least one geometric parameter of a bottomhole assembly, BHA, having a BHA axis , at least a stabilizer , a bit , and an eccentering mechanism operating on at least one elastic component, the at least one geometric parameter of the BHA comprising a distance of the BHA axis to a baseline and having an unknown value; determining a force-balance-based relationship between the borehole curvature and the at least one geometric parameter, the force-balance-based relationship accounting for borehole curvature based on a sum of a bit tilt angle θt and a force-based side-cutting angle θs, the bit tilt angle θt being the angle between the baseline and the BHA axis , the side-cutting angle θs being the angle between the BHA axis and the borehole axis , the baseline extending from the BHA axis at the stabilizer to the BHA axis at the tip of the bit , and the BHA axis 508, baseline 502 and borehole axis all intersecting at the tip 506 of the bit to define the angles θs and θt; finding a consistent solution for both the geometry-based relationship and the force-balance-based relationship, the consistent solution associating a borehole curvature value with a setting of the eccentering mechanism; and employing said setting of the eccentering mechanism while drilling to achieve a borehole curvature having said borehole curvature value. determining a geometry-based relationship between a borehole curvature and at least one geometric parameter of a bottomhole assembly, BHA, having a BHA axis , at least a stabilizer , a bit , and an eccentering mechanism operating on at least one elastic component, the at least one geometric parameter of the BHA comprising a distance of the BHA axis to a baseline and having an unknown value; determining a force-balance-based relationship between the borehole curvature and the at least one geometric parameter, the force-balance-based relationship accounting for borehole curvature based on a sum of a bit tilt angle θt and a force-based side-cutting angle θs, the bit tilt angle θt being the angle between the baseline and the BHA axis , the side-cutting angle θs being the angle between the BHA axis and the borehole axis , the baseline extending from the BHA axis at the stabilizer to the BHA axis at the tip of the bit , and the BHA axis 508, baseline 502 and borehole axis all intersecting at the tip 506 of the bit to define the angles θs and θt; finding a consistent solution for both the geometry-based relationship and the force-balance-based relationship, the consistent solution associating a borehole curvature value with a setting of the eccentering mechanism; and employing said setting of the eccentering mechanism while drilling to achieve a borehole curvature having said borehole curvature value.
A precoding information obtaining method, comprising: • separately precoding (S101), by a network device, by using each of N sub-codebooks, a same pilot group comprising K pilots to obtain N precoded pilot groups, wherein the sub-codebooks are subsets of a precoding codebook, the precoding codebook comprises M precoding vectors, each sub-codebook comprises K precoding vectors, K is a positive integer, N and M are integers greater than 1, and M is greater than K; • sending (S102), by the network device, in each of W resource block, RB, groups a precoded pilot group among the N precoded pilot groups to a terminal device, wherein W is a positive integer and is greater than N, wherein each RB group among the W RB groups includes at least one RB, and the W RB groups are in a same downlink subframe, wherein precoded pilot groups among the N precoded pilot groups in at least two of the W RB groups are obtained by performing precoding by using a same sub-codebook; • receiving (S103), by the network device, precoding information fed back by the terminal device for each of the W RB groups; • updating the N sub-codebooks according to the precoding information fed back by the terminal device for the W RB groups. • separately precoding (S101), by a network device, by using each of N sub-codebooks, a same pilot group comprising K pilots to obtain N precoded pilot groups, wherein the sub-codebooks are subsets of a precoding codebook, the precoding codebook comprises M precoding vectors, each sub-codebook comprises K precoding vectors, K is a positive integer, N and M are integers greater than 1, and M is greater than K; • sending (S102), by the network device, in each of W resource block, RB, groups a precoded pilot group among the N precoded pilot groups to a terminal device, wherein W is a positive integer and is greater than N, wherein each RB group among the W RB groups includes at least one RB, and the W RB groups are in a same downlink subframe, wherein precoded pilot groups among the N precoded pilot groups in at least two of the W RB groups are obtained by performing precoding by using a same sub-codebook; • receiving (S103), by the network device, precoding information fed back by the terminal device for each of the W RB groups; • updating the N sub-codebooks according to the precoding information fed back by the terminal device for the W RB groups.