mhurhangee/patent-ind-claim-en huggingface dataset:
An asymmetric pair of shoes, comprising: a first shoe having a first upper and a first sole attached to the first upper , wherein the first upper comprises a first support feature configured to provide increased support to at least one portion of the first upper during performance of a first predetermined action of a first foot of a wearer, and the first sole comprises a first traction feature configured to provide increased traction to at least one portion of the first sole during performance of the first predetermined action of the first foot; and a second shoe having a second upper and a second sole attached to the second upper, wherein the first support feature and first traction feature are not present at corresponding mirror-image locations of the second shoe, characterized by the first support feature comprising a first enhanced support zone located at a lateral middle to forefoot area of the first upper , wherein the first enhanced support zone is stronger and more flexible than other areas of the first upper . a first shoe having a first upper and a first sole attached to the first upper , wherein the first upper comprises a first support feature configured to provide increased support to at least one portion of the first upper during performance of a first predetermined action of a first foot of a wearer, and the first sole comprises a first traction feature configured to provide increased traction to at least one portion of the first sole during performance of the first predetermined action of the first foot; and a second shoe having a second upper and a second sole attached to the second upper, wherein the first support feature and first traction feature are not present at corresponding mirror-image locations of the second shoe, characterized by the first support feature comprising a first enhanced support zone located at a lateral middle to forefoot area of the first upper , wherein the first enhanced support zone is stronger and more flexible than other areas of the first upper .
Current transfer system between a rotating element and a fixed element, the rotating element being moved with a movement of rotation with respect to the fixed element, said transfer system comprising - a support having an overall shape of a plate on the periphery of the axis of rotation of the rotating element, comprising a conductive portion electrically connected to one out of the fixed element and the rotating element, - at least one brush-holder mounted on and supported by, or integrated into, the support , and shaped to hold at least one conductive sliding contact element , - the conductive sliding contact element , supported by the brush-holder and intended to be pushed into contact against the other out of the fixed element and the rotating element, characterized in that said transfer system further comprises : - a resistance element located between this conductive sliding contact element and the conductive portion of the support when the conductive sliding contact element is pushed into contact, to limit the passage of current directly between the conductive portion and the conductive sliding contact element , - means for electric connection of the conductive portion of the support to a flexible rigidly connected to the conductive sliding contact element for the transfer of current between this conductive portion and the conductive sliding contact element . - a support having an overall shape of a plate on the periphery of the axis of rotation of the rotating element, comprising a conductive portion electrically connected to one out of the fixed element and the rotating element, - at least one brush-holder mounted on and supported by, or integrated into, the support , and shaped to hold at least one conductive sliding contact element , - the conductive sliding contact element , supported by the brush-holder and intended to be pushed into contact against the other out of the fixed element and the rotating element, - a resistance element located between this conductive sliding contact element and the conductive portion of the support when the conductive sliding contact element is pushed into contact, to limit the passage of current directly between the conductive portion and the conductive sliding contact element , - means for electric connection of the conductive portion of the support to a flexible rigidly connected to the conductive sliding contact element for the transfer of current between this conductive portion and the conductive sliding contact element .
A staple cartridge assembly for use with a surgical stapler, comprising: a cartridge body having a plurality of staple cavities, each staple cavity having a surgical staple disposed therein; a biocompatible adjunct material releasably retained on the cartridge body and configured to be delivered to tissue by deployment of the staples in the cartridge body, the adjunct material including a plurality of distinct reservoirs formed therein, and the adjunct material including at least one biocompatible polymer; and an effective amount of at least one medicant selected from the list consisting of hemostatic agents, pro-inflammatory medicants, metalloproteinase inhibitors, antiinflammatory agents and growth factors, the at least one medicant being disposed within a plurality of vessels disposed within at least one of the reservoirs, the at least one medicant being effective to affect tissue in-growth, wherein disruption of the at least one polymer is configured to allow release of the vessels from the at least one of the reservoirs. a cartridge body having a plurality of staple cavities, each staple cavity having a surgical staple disposed therein; a biocompatible adjunct material releasably retained on the cartridge body and configured to be delivered to tissue by deployment of the staples in the cartridge body, the adjunct material including a plurality of distinct reservoirs formed therein, and the adjunct material including at least one biocompatible polymer; and an effective amount of at least one medicant selected from the list consisting of hemostatic agents, pro-inflammatory medicants, metalloproteinase inhibitors, antiinflammatory agents and growth factors, the at least one medicant being disposed within a plurality of vessels disposed within at least one of the reservoirs, the at least one medicant being effective to affect tissue in-growth, wherein disruption of the at least one polymer is configured to allow release of the vessels from the at least one of the reservoirs.
Lighting device for a vehicle comprising a cup-shaped housing body designed to be mounted on the vehicle and a plurality of rotating lighting modules arranged within the housing body facing a front inlet opening thereof, the rotating lighting modules being held by at least one support (4b;4c) arranged inside the housing body rigid therewith, each rotating lighting module comprising at least one first light source held rigid in a fixed position by the support and one rotating unit operatively associated to the at least one first light source, the support (4b;4c) bearing in idling manner the rotating unit, which is free to rotate relative to the respective first light source around a respective first axis (A), the first axes (A1,A2,A3) of the rotating units of all the lighting modules being parallel to each other and arranged side by side; wherein each rotating unit includes at least one first toothed gear arranged rigid therewith and coaxial with the respective first axis, the lighting device further including one single first motor to rotate all the rotating units simultaneously around the respective first axes, the first motor being operationally associated with one shaft rotatably supported within the housing body to rotate the shaft around its longitudinal symmetry axis (B); characterized in that, in combination: i)- the shaft is operationally associated with the first toothed gears of all the rotating units via an endless screw coupling ; ii)- a longitudinal symmetry axis (B) of said shaft is arranged perpendicular to and radially offset from the first axes (A1,A2,A3); and iii)- the endless screw coupling comprises a plurality of stretches of said shaft, present in the same number of the said rotating units, each stretch of the shaft being threaded to provide a coaxial endless screw which meshes, either directly or via a first gearing , with said first toothed gear of a respective rotating unit . i)- the shaft is operationally associated with the first toothed gears of all the rotating units via an endless screw coupling ; ii)- a longitudinal symmetry axis (B) of said shaft is arranged perpendicular to and radially offset from the first axes (A1,A2,A3); and iii)- the endless screw coupling comprises a plurality of stretches of said shaft, present in the same number of the said rotating units, each stretch of the shaft being threaded to provide a coaxial endless screw which meshes, either directly or via a first gearing , with said first toothed gear of a respective rotating unit .
A collimated light generating apparatus comprising: a lens including both an incidence surface having a cylindrical concave shape, and an emitting surface having a convex shape axially symmetric with respect to an optical axis; and a light source (20; 30) such that divergence angle in a first direction in a plane perpendicular to the optical axis differs from divergence angle in a second direction different from the first direction by 90 degrees, wherein the light source is placed at a position of incidence-surface-side focal length for the second direction of the lens, and the first direction of the light source is aligned with curvature direction of the cylindrical shape of the lens, characterized in that the radius of curvature Rh1 in the first direction of the incidence surface, the radius of curvature Rh2 in the first direction of the emitting surface, the thickness d of the lens, and the refractive index n of the lens are designed to satisfy the relation shown in Equation , R h 1 − R h 2 + n − 1 n d = 0 the focal length f for the second direction, the radius of curvature Rv1 in the second direction of the incidence surface, the radius of curvature Rv2 in the second direction of the emitting surface, and the thickness d of the lens, and the refractive index n of the lens are designed to satisfy the relation shown in Equation , f = R v 1 R v 2 n − 1 R v 1 − R v 2 + n − 1 n d _ a lens including both an incidence surface having a cylindrical concave shape, and an emitting surface having a convex shape axially symmetric with respect to an optical axis; and a light source (20; 30) such that divergence angle in a first direction in a plane perpendicular to the optical axis differs from divergence angle in a second direction different from the first direction by 90 degrees, wherein the light source is placed at a position of incidence-surface-side focal length for the second direction of the lens, and the first direction of the light source is aligned with curvature direction of the cylindrical shape of the lens, characterized in that the radius of curvature Rh1 in the first direction of the incidence surface, the radius of curvature Rh2 in the first direction of the emitting surface, the thickness d of the lens, and the refractive index n of the lens are designed to satisfy the relation shown in Equation , R h 1 − R h 2 + n − 1 n d = 0 the focal length f for the second direction, the radius of curvature Rv1 in the second direction of the incidence surface, the radius of curvature Rv2 in the second direction of the emitting surface, and the thickness d of the lens, and the refractive index n of the lens are designed to satisfy the relation shown in Equation , f = R v 1 R v 2 n − 1 R v 1 − R v 2 + n − 1 n d _
A crystalline form of the mono-phosphate salt of 6-fluoro-2-[4-(pyridin-2-yl)but-3-yn-1-yl]imidazo[1,2-a]pyridine characterized by at least 3 peaks selected from X-Ray diffraction peaks obtained with a Cu Kα radiation at 2 θ (2 Theta (deg)) = 8.4, 10.2, 12.5, 15.7, 16.8, 18.6, 20.5, 21.3, 28.1, 29.4.
A loading equipment intended for use with working machines such as telehandlers, aerial work platforms or the like, comprising a loading basket equipped with a bottom plane able to support operators and a plurality of lateral walls arranged at the sides of a perimeter of said bottom plane , wherein said perimeter is provided with a profile that has a recess (R), defining in the basket a housing space (S) intended to receive a chimneypot (C) or other similar objects; said equipment comprising one or more reducing elements , adapted to be removably fixed to the basket , at the housing space (S), thereby allowing the gap between the basket and the surface of said chimneypot (C) to be reduced or cancelled; the equipment being characterized in that said reducing elements are rigid and elongated and are adapted to be mounted parallel to respective sides (R1, R2, R3) of the recess (R).
A method of detecting a polynucleotide analyte comprising: a) combining the polynucleotide analyte with at least two chromophores comprising a fluorophore and a quencher, wherein the fluorophore and quencher are each attached to a separate forward and reverse primers that are complementary to a region within the polynucleotide analyte, wherein the separate forward and reverse primers are complementary to regions of the analyte at 20 base pairs apart to less than 100 base pairs apart; b) performing PCR cycles to incorporate the fluorophore and quencher into the same PCR product; and c) detecting a fluorescent intensity of an annealing signal from the fluorophore and quencher at a first timepoint and a second timepoint, wherein the second timepoint is later than the first timepoint after one or more PCR cycles, and wherein a decrease in fluorescent intensity at the second timepoint relative to the first timepoint is indicative of the presence of the polynucleotide analyte. a) combining the polynucleotide analyte with at least two chromophores comprising a fluorophore and a quencher, wherein the fluorophore and quencher are each attached to a separate forward and reverse primers that are complementary to a region within the polynucleotide analyte, wherein the separate forward and reverse primers are complementary to regions of the analyte at 20 base pairs apart to less than 100 base pairs apart; b) performing PCR cycles to incorporate the fluorophore and quencher into the same PCR product; and c) detecting a fluorescent intensity of an annealing signal from the fluorophore and quencher at a first timepoint and a second timepoint, wherein the second timepoint is later than the first timepoint after one or more PCR cycles, and wherein a decrease in fluorescent intensity at the second timepoint relative to the first timepoint is indicative of the presence of the polynucleotide analyte. wherein the second timepoint is later than the first timepoint after one or more PCR cycles, and wherein a decrease in fluorescent intensity at the second timepoint relative to the first timepoint is indicative of the presence of the polynucleotide analyte.
A semiconductor device , comprising: conductive lines over a semiconductor substrate including memory cells, wherein: at least some of the conductive lines, in a first group, include a conductive contact on an enlarged portion of the respective conductive line at an end portion thereof; at least some of the conductive lines, in a second group, include a conductive contact on an enlarged portion located between end portions of the respective conductive line, wherein the enlarged portion is wider than other portions of the respective conductive line, wherein each conductive line of the second group of conductive lines is located adjacent to at least one conductive line of the first group of conductive lines, at least one conductive line of the second group of conductive lines comprising a first portion connected to a second portion by its respective enlarged portion, wherein a longitudinal axis of the first portion is offset from a longitudinal axis of the second portion in a second direction perpendicular to a first direction, the longitudinal axis of the first portion and the longitudinal axis of the second portion extending in the first direction, wherein the enlarged portions of the second group of conductive lines are longitudinally offset from one another in the first direction and laterally offset from one another in the second direction; and wherein the conductive lines are arranged such that every other conductive line of the conductive lines comprises a first conductive line of the first group of conductive lines. at least some of the conductive lines, in a first group, include a conductive contact on an enlarged portion of the respective conductive line at an end portion thereof; at least some of the conductive lines, in a second group, include a conductive contact on an enlarged portion located between end portions of the respective conductive line, wherein the enlarged portion is wider than other portions of the respective conductive line, wherein each conductive line of the second group of conductive lines is located adjacent to at least one conductive line of the first group of conductive lines, at least one conductive line of the second group of conductive lines comprising a first portion connected to a second portion by its respective enlarged portion, wherein a longitudinal axis of the first portion is offset from a longitudinal axis of the second portion in a second direction perpendicular to a first direction, the longitudinal axis of the first portion and the longitudinal axis of the second portion extending in the first direction, wherein the enlarged portions of the second group of conductive lines are longitudinally offset from one another in the first direction and laterally offset from one another in the second direction; and wherein the conductive lines are arranged such that every other conductive line of the conductive lines comprises a first conductive line of the first group of conductive lines.
An inflammatory marker measurement method carried out by a controller, comprising calculating an inflammatory marker using a nonlinear regression formula including, as variables, a parameter associated with an erythrocyte aggregation and another parameter associated with an erythrocyte density, wherein the parameter associated with the erythrocyte aggregation is calculated based on a syllectogram measured from a blood specimen, and the parameter associated with the erythrocyte density is measured from the blood specimen, wherein the inflammatory marker comprises at least one of an erythrocyte sedimentation rate and a fibrinogen concentration, and wherein the nonlinear regression formula is formed as a nonlinear formula in which a square sum of deviations with respect to the erythrocyte sedimentation rate of a reference method is made minimum by a least square method, or in which a square sum of deviations with respect to the fibrinogen concentration of a Clauss method is made minimum by the least square method. wherein the inflammatory marker comprises at least one of an erythrocyte sedimentation rate and a fibrinogen concentration, and wherein the nonlinear regression formula is formed as a nonlinear formula in which a square sum of deviations with respect to the erythrocyte sedimentation rate of a reference method is made minimum by a least square method, or in which a square sum of deviations with respect to the fibrinogen concentration of a Clauss method is made minimum by the least square method.
A method for wirelessly transmitting focused data, comprising: tuning a plurality of antenna array elements to form a plurality of coverage lobes in 3-dimensional space, wherein the plurality of antenna array elements receive electromagnetic radiation; detecting one or more first new client devices in at least one of the plurality of coverage lobes ; receiving, by each of the plurality of antenna array elements , a first message from the one or more first new client devices , wherein the first message is received first by an earliest antenna element and last by a last antenna element; tracking input time offsets of the first message traversing the plurality of antenna array elements ; recording the input time offset of the first message for each of the plurality of antenna array elements as a respective ClientTimeOffset for the first message; calculating a first reverse timing for each of the plurality of antenna array elements based on the respective ClientTimeOffset for the first message, wherein the first reverse timing for each of the plurality of antenna array elements is calculated using: ReverseTiming = MaxClientTimeOffset − ClientTimeOffset for the first message , wherein MaxClientTimeOffset is a difference in time from the earliest antenna element to the latest antenna element for receiving the first message; tuning each of the plurality of antenna array elements based on the respective ReverseTiming calculated; and transmitting, by the plurality of antenna array elements , the electromagnetic wave to the one or more first new devices . tuning a plurality of antenna array elements to form a plurality of coverage lobes in 3-dimensional space, wherein the plurality of antenna array elements receive electromagnetic radiation; detecting one or more first new client devices in at least one of the plurality of coverage lobes ; receiving, by each of the plurality of antenna array elements , a first message from the one or more first new client devices , wherein the first message is received first by an earliest antenna element and last by a last antenna element; tracking input time offsets of the first message traversing the plurality of antenna array elements ; recording the input time offset of the first message for each of the plurality of antenna array elements as a respective ClientTimeOffset for the first message; calculating a first reverse timing for each of the plurality of antenna array elements based on the respective ClientTimeOffset for the first message, wherein the first reverse timing for each of the plurality of antenna array elements is calculated using: ReverseTiming = MaxClientTimeOffset − ClientTimeOffset for the first message , wherein MaxClientTimeOffset is a difference in time from the earliest antenna element to the latest antenna element for receiving the first message; tuning each of the plurality of antenna array elements based on the respective ReverseTiming calculated; and transmitting, by the plurality of antenna array elements , the electromagnetic wave to the one or more first new devices .
Method for operating a linear motor compressor comprising an electric linear motor , a cylinder and a linearly movable free piston arrangement with a piston , wherein the cylinder and the piston form a compression chamber , wherein the free piston arrangement is directly driven by the linear motor and is reciprocated along a stroke path (X) between a top dead point (X OTP ) and a bottom dead point (X UTP ), wherein a fluid is supplied to the compression chamber from the outside, wherein the supplied fluid is compressed or expanded in the compression chamber and then discharged to the outside again, wherein at least one state variable (Z soll ) is preset for the linear motor compressor , and wherein the linear motor is controlled in such a way that the linear motor compressor has the predetermined state variable (Z soll ), characterized in that in that the free piston arrangement , starting from the bottom dead point (X UTP ) during a compression phase (AB) up to the opening point (B) of the outlet valve and subsequently during an ejection phase (BC) up to the closing point (C) of the outlet valve , is driven in such a way with a predetermined state variable (Z soll ), a predetermined velocity-path curve, in such a way that the average velocity (V m1 ) during the compression phase (AB) is higher than the average velocity (V m2 ) during the ejection phase (BC).