mhurhangee/patent-ind-claim-en huggingface dataset:
A method for signal detection, comprising: receiving , by a terminal, system configuration information of a second Transmission Point, TP, from a first TP, wherein the system configuration information comprises sub-carrier spacing information of the second TP and configuration information on a synchronization signal of the second TP, and the configuration information on a synchronization signal of the second TP comprises resource position information of the synchronization signal; and performing , by the terminal, downlink signal detection of the second TP according to the system configuration information of the second TP. receiving , by a terminal, system configuration information of a second Transmission Point, TP, from a first TP, wherein the system configuration information comprises sub-carrier spacing information of the second TP and configuration information on a synchronization signal of the second TP, and the configuration information on a synchronization signal of the second TP comprises resource position information of the synchronization signal; and performing , by the terminal, downlink signal detection of the second TP according to the system configuration information of the second TP.
A pharmaceutical composition comprising: (a) one or more high polarity compounds isolated from Curcuma longa and selected from the group consisting of peptides, polysaccharides, and proteins; (b) one or more medium polarity compounds isolated from Curcuma longa and selected from the group consisting of polyphenols, curcumin, demethoxycurcumin, and bisdemethoxycurcumin; and (c) one or more non-polar compounds isolated from Curcuma longa and selected from the group consisting of terpenoids, ar-turmerone, α-turmerone, and β-turmerone; wherein the composition comprises a ratio of the high polarity compounds, medium polarity compounds and non-polar compounds selected from the group consisting of about : : by weight and about : : by weight.
A dryer stand comprising: a seating unit for mounting a dryer for discharging drying airthereon; a base disposed to be downwardly spaced apart from the seating unit ; a side cover exposed to the outside of the dryer stand and disposed at a side of the dryer stand between the base and the seating unit , having the dryer stand is characterized in that the side cover has a through hole formed thereon; and an air purifying device disposed in an inner space defined by the side cover , wherein the air purifying device comprises a blower fan for generating an air flow, and a filter disposed in a flow path of air flowing by the blower fan . a seating unit for mounting a dryer for discharging drying airthereon; a base disposed to be downwardly spaced apart from the seating unit ; a side cover exposed to the outside of the dryer stand and disposed at a side of the dryer stand between the base and the seating unit , having the dryer stand is characterized in that the side cover has a through hole formed thereon; and an air purifying device disposed in an inner space defined by the side cover , wherein the air purifying device comprises a blower fan for generating an air flow, and a filter disposed in a flow path of air flowing by the blower fan .
A barrier comprising at least two barrier sections , the barrier having only one connecting assembly at one or both ends of each barrier section , the connecting assembly having: - only one projecting portion located at one end of a first barrier section; - only one receiving portion located at one end of a second barrier section, adjacent the first barrier section, and - at least one connecting device; wherein at least two apertures pass through the projecting portion and at least two apertures pass through the receiving portion, wherein the projecting portion is a single centrally positioned protrusion and the receiving portion has a corresponding single recess with two sides having the apertures , wherein the at least one connecting device is a U-shaped staple with two shafts aligned in the same plane, wherein the shafts are adapted to be received through the apertures in the projecting portion and corresponding receiving portion, and wherein the projecting portion and the receiving portion are configured to selectively engage with a corresponding receiving portion or projecting portion respectively of an adjacent barrier section , via the at least one connecting device, the barrier being configured such that, when both apertures through the respective receiving portion and projecting portion are aligned and engaged, via the at least one connecting device, in a first selectable configuration, the barrier sections have a fixed relationship with one another, and when the outermost apertures through the respective receiving portion and projecting portion are aligned and engaged, via the at least one connecting device, in a second selectable configuration, the barrier sections have a pivotable relationship with one another. - only one projecting portion located at one end of a first barrier section; - only one receiving portion located at one end of a second barrier section, adjacent the first barrier section, and - at least one connecting device;
A method for obtaining channel conditions per antenna element, the method being performed by a wireless radio transceiver device comprising N antenna elements in an antenna array with analog beamforming and being configured to communicate using beams , the method comprising: obtaining (S104), for a stationary radio propagation channel and when verifying that the radio propagation channel is stationary, channel conditions for signals received by the wireless radio transceiver device in M beams , where M>i; and transforming (S106) the channel conditions for the M beams to channel conditions for the N antenna elements by using a relation based on beamforming weights that map the N antenna elements to the M beams . obtaining (S104), for a stationary radio propagation channel and when verifying that the radio propagation channel is stationary, channel conditions for signals received by the wireless radio transceiver device in M beams , where M>i; and transforming (S106) the channel conditions for the M beams to channel conditions for the N antenna elements by using a relation based on beamforming weights that map the N antenna elements to the M beams .
An ex vivo activation method, comprising: incubating a plasma sample obtained from a subject with an activator of the plasma kallikrein (pKal) system, wherein the activator is Factor XIIa (FXIIa); measuring the levels of intact high molecular weight kininogen (HMWK), cleaved HMWK, or both, in the plasma sample before and after the incubation; and determining the reduction of intact HMWK in the sample after the activation, optionally wherein the levels of intact HMWK and cleaved HMWK are measured by Western blot analysis which is preferably Protein Simple Western blot analysis. incubating a plasma sample obtained from a subject with an activator of the plasma kallikrein (pKal) system, wherein the activator is Factor XIIa (FXIIa); measuring the levels of intact high molecular weight kininogen (HMWK), cleaved HMWK, or both, in the plasma sample before and after the incubation; and determining the reduction of intact HMWK in the sample after the activation, optionally wherein the levels of intact HMWK and cleaved HMWK are measured by Western blot analysis which is preferably Protein Simple Western blot analysis.
A floating type disc brake comprising: an outer pad disposed on an axially outer side (ZO) relative to a rotor ; an inner pad disposed on an axially inner side (ZI) relative to the rotor ; a fixing member disposed on the axially inner side (ZI) relative to the rotor , supporting the inner pad to be movable in an axial direction (Z), and fixed to a vehicle body; and a yoke supported to the fixing member via a slide pin to be movable in the axial direction (Z) in a state where the yoke supports the outer pad , wherein the fixing member is provided with an anchor disposed on a radially outer side (YO) relative to the rotor , the anchor being configured to bear a brake tangential force that acts on the outer pad at the time of braking within a circumferential range of a lining provided in the outer pad , characterized in that the fixing member includes a support that supports the inner pad to be movable in the axial direction (Z), and a cylinder in which a piston is fitted, and the anchor is provided to the cylinder in a cantilever shape. an outer pad disposed on an axially outer side (ZO) relative to a rotor ; an inner pad disposed on an axially inner side (ZI) relative to the rotor ; a fixing member disposed on the axially inner side (ZI) relative to the rotor , supporting the inner pad to be movable in an axial direction (Z), and fixed to a vehicle body; and a yoke supported to the fixing member via a slide pin to be movable in the axial direction (Z) in a state where the yoke supports the outer pad , wherein the fixing member is provided with an anchor disposed on a radially outer side (YO) relative to the rotor , the anchor being configured to bear a brake tangential force that acts on the outer pad at the time of braking within a circumferential range of a lining provided in the outer pad , characterized in that the fixing member includes a support that supports the inner pad to be movable in the axial direction (Z), and a cylinder in which a piston is fitted, and the anchor is provided to the cylinder in a cantilever shape.
A tire with printed shear sensors , comprising: a pair of bead areas ; a ground-contacting tread disposed radially outwardly of the pair of bead areas ; a pair of sidewalls , including an inboard sidewall extending from a first one of the bead areas to the tread , and an outboard sidewall extending from a second one of the bead areas to the tread ; a carcass extending toroidally between each of the bead areas radially inwardly of the tread ; an innerliner formed on an inside surface of the carcass ; and a pair of resistive shear sensors printed on the innerliner , wherein a first sensor is printed in a sidewall zone of the inboard sidewall and a second sensor is printed in a sidewall zone of the outboard sidewall ; the first shear sensor being configured to measure deformation in the sidewall zone of the inboard sidewall and to transmit a first shear deformation signal and the second shear sensor being configured to measure deformation in the sidewall zone of the outboard sidewall and to transmit a second shear deformation signal, characterized in that first shear deformation signal includes a first maximum amplitude corresponding to a leading edge de-radialization angle and a second maximum amplitude corresponding to a trailing edge de-radialization angle; and the second shear deformation signal includes a third maximum amplitude corresponding to a leading edge de-radialization angle and a fourth maximum amplitude corresponding to a trailing edge de-radialization angle. a pair of bead areas ; a ground-contacting tread disposed radially outwardly of the pair of bead areas ; a pair of sidewalls , including an inboard sidewall extending from a first one of the bead areas to the tread , and an outboard sidewall extending from a second one of the bead areas to the tread ; a carcass extending toroidally between each of the bead areas radially inwardly of the tread ; an innerliner formed on an inside surface of the carcass ; and a pair of resistive shear sensors printed on the innerliner , wherein a first sensor is printed in a sidewall zone of the inboard sidewall and a second sensor is printed in a sidewall zone of the outboard sidewall ; the first shear sensor being configured to measure deformation in the sidewall zone of the inboard sidewall and to transmit a first shear deformation signal and the second shear sensor being configured to measure deformation in the sidewall zone of the outboard sidewall and to transmit a second shear deformation signal, characterized in that first shear deformation signal includes a first maximum amplitude corresponding to a leading edge de-radialization angle and a second maximum amplitude corresponding to a trailing edge de-radialization angle; and the second shear deformation signal includes a third maximum amplitude corresponding to a leading edge de-radialization angle and a fourth maximum amplitude corresponding to a trailing edge de-radialization angle.
A display module that can be integrated into a blank of a valuable or security document , having a display carrier and at least one display circuit arranged on the display carrier , the at least one display circuit being respectively formed by at least one antenna conductor and at least one display element that is electrically connected to the at least one antenna conductor , characterized in that the shape of the outline of the display module encodes information through formation of protruding fingers in one or more edges, with the number, arrangement, or width thereof and/or spacing thereof from one another encoding the information, or in that one or more edges of the display module are formed in regularly recurring patterns in the form of a sawtooth, wavy-lined, sinusoidal, or rectangular profile, with the profiles alternating and/or being interrupted by smooth straight sections.
Frying butter comprising 60 to 95 wt% fat, and 4 to 20 vol% gas wherein 20 to 90 % of the gas is present in the fat phase.
A system comprising: a sensor configured to detect in Animalia tissue (i) a first electromagnetic radiation extinction dominated by absorption of a first peak wavelength between approximately 800 nanometers and approximately 1,050 nanometers and (ii) a second electromagnetic radiation extinction dominated by scattering of a second peak wavelength between approximately 570 nanometers and approximately 620 nanometers, the sensor including: an emitter configured to emit a first signal at the first peak wavelength and to emit a second signal at the second peak wavelength, and a detector configured to detect a third signal at the first peak wavelength and to detect a fourth signal at the second peak wavelength, wherein the third signal includes a portion of the first signal that is redirected from the Animalia tissue, and the fourth signal includes a portion of the second signal that is redirected from the Animalia tissue; and a device coupled to the sensor and being configured to aid in diagnosing at least one of infiltration and extravasation in the Animalia tissue based on evaluating the first and second electromagnetic radiation extinctions detected by the sensor , the device including a processor and an indicator coupled to the processor . a sensor configured to detect in Animalia tissue (i) a first electromagnetic radiation extinction dominated by absorption of a first peak wavelength between approximately 800 nanometers and approximately 1,050 nanometers and (ii) a second electromagnetic radiation extinction dominated by scattering of a second peak wavelength between approximately 570 nanometers and approximately 620 nanometers, the sensor including: an emitter configured to emit a first signal at the first peak wavelength and to emit a second signal at the second peak wavelength, and a detector configured to detect a third signal at the first peak wavelength and to detect a fourth signal at the second peak wavelength, wherein an emitter configured to emit a first signal at the first peak wavelength and to emit a second signal at the second peak wavelength, and a detector configured to detect a third signal at the first peak wavelength and to detect a fourth signal at the second peak wavelength, wherein the third signal includes a portion of the first signal that is redirected from the Animalia tissue, and the fourth signal includes a portion of the second signal that is redirected from the Animalia tissue; and a device coupled to the sensor and being configured to aid in diagnosing at least one of infiltration and extravasation in the Animalia tissue based on evaluating the first and second electromagnetic radiation extinctions detected by the sensor , the device including a processor and an indicator coupled to the processor .
An apparatus comprising: a Local Oscillator, LO, generator configured to generate a distributed modulated LO signal by modulating an LO signal based on a reset signal ; and a plurality of Physical Layer, PHY, chains connected to the LO generator to receive the distributed modulated LO signal , which is distributed to the plurality of PHY chains by the LO generator , at least two PHY chains of the plurality of PHY chains comprising reset detectors configured to detect the reset signal based on the distributed modulated LO signal , and, based on a detection of the reset signal, to reset one or more Radio Frequency, RF, elements of the at least two PHY chains. a Local Oscillator, LO, generator configured to generate a distributed modulated LO signal by modulating an LO signal based on a reset signal ; and a plurality of Physical Layer, PHY, chains connected to the LO generator to receive the distributed modulated LO signal , which is distributed to the plurality of PHY chains by the LO generator , at least two PHY chains of the plurality of PHY chains comprising reset detectors configured to detect the reset signal based on the distributed modulated LO signal , and, based on a detection of the reset signal, to reset one or more Radio Frequency, RF, elements of the at least two PHY chains.
Commercial-vehicle tyre having a tread with at least one shoulder-side profileblock row which is delimited by a circumferential groove and has a shoulder flank and has transverse grooves extending parallel to one another, said transverse grooves in each case having two groove edges which extend straight, a groove mouth at the circumferential groove , and a groove exit at the shoulder flank , and have a width (b 1 ) which corresponds to the spacing between the groove edges or the extensions thereof in a circumferential direction, wherein the width (b 1 ) of the transverse grooves at the groove exit is 6.00 mm to 12.0 mm, characterized in that the width of the transverse grooves increases continuously from the groove exit to the groove mouth to a value 1.5 times to 1.7 times greater.
Journal bush for use as part of an oil film bearing in a roll stand for reception of a conical roll journal of a roll, particularly a backing roll; wherein the journal bush - is resiliently deformable under the action of a rolling force exerted by the roll stand; - is formed at its outer side to be cylindrical with an outer running diameter D; - has an inwardly conical length section which is formed at its inner side over a cone length a to be conical with a major cone diameter B and a cone angle β for reception of the conical roll pin of the rolls; and wherein the conical length section has at its inner side lubricant grooves for introduction of lubricant into the intermediate space between the inner side of the journal bush and the outer side of the conical roll journal; characterised in that for the journal bush there applies: 0.35 < 3.6 a D − B + kD < 0.5 wherein k = 0.15/m coefficient of sliding friction. - is resiliently deformable under the action of a rolling force exerted by the roll stand; - is formed at its outer side to be cylindrical with an outer running diameter D; - has an inwardly conical length section which is formed at its inner side over a cone length a to be conical with a major cone diameter B and a cone angle β for reception of the conical roll pin of the rolls; and wherein the conical length section has at its inner side lubricant grooves for introduction of lubricant into the intermediate space between the inner side of the journal bush and the outer side of the conical roll journal; characterised in that for the journal bush there applies: 0.35 < 3.6 a D − B + kD < 0.5 wherein k = 0.15/m coefficient of sliding friction.
Method for operating a processing system , in which material comprising hardness formers is abrasively removed by means of a processing tool and fed to, and separated in, a suction device which is connected to the processing tool via a liquid circuit in which a cleaning liquid is circulated, wherein at least one softening medium is contained in the liquid circuit, wherein the at least one softening medium is used at a fixed location in the liquid circuit and/or the at least one softening medium is added to the cleaning liquid upon start-up of the processing system.
A method for rotor bow mitigation for a gas turbine engine , the method comprising: determining an elapsed time since a shutdown of the engine ; determining an idle operation time of the engine prior to the shutdown; determining a rotor bow mitigation period based on the elapsed time and the idle operation time; and prior to initiating a start sequence of the engine , motoring the engine for a duration of the rotor bow mitigation period. determining an elapsed time since a shutdown of the engine ; determining an idle operation time of the engine prior to the shutdown; determining a rotor bow mitigation period based on the elapsed time and the idle operation time; and prior to initiating a start sequence of the engine , motoring the engine for a duration of the rotor bow mitigation period.
Vaporiser assembly for an aerosol-generating system, comprising: a capillary element made from porous glass, the capillary element having a first end and a second end ; and a heater element , wherein the first end of the capillary element is configured to be fluidly connected to a liquid storage portion , wherein the heater element is provided at the second end of the capillary element , and wherein the pore size of the capillary element is configured to allow a liquid aerosol-forming substrate from the liquid storage portion to be conveyed from the first end of the capillary element to the second end of the capillary element by capillary action, wherein the average pore size of the capillary element varies from large pores at the first end of the capillary element to small pores at the second end of the capillary element such that a pore size gradient from the first end of the capillary element to the second end of the capillary element is provided, wherein the average pore size of the small pores is between 2 and 8 microns, and wherein the average pore size of the large pores is between 5 and 500 microns. a capillary element made from porous glass, the capillary element having a first end and a second end ; and a heater element , wherein the first end of the capillary element is configured to be fluidly connected to a liquid storage portion , wherein the heater element is provided at the second end of the capillary element , and wherein the pore size of the capillary element is configured to allow a liquid aerosol-forming substrate from the liquid storage portion to be conveyed from the first end of the capillary element to the second end of the capillary element by capillary action, wherein the average pore size of the capillary element varies from large pores at the first end of the capillary element to small pores at the second end of the capillary element such that a pore size gradient from the first end of the capillary element to the second end of the capillary element is provided, wherein the average pore size of the small pores is between 2 and 8 microns, and wherein the average pore size of the large pores is between 5 and 500 microns.