mhurhangee/patent-ind-claim-en huggingface dataset:
A corner piece for interconnecting frame members, comprising: a first plate member defining an inner face , an opposite outer face , a first side face , an opposite second side face , and an end face , the first plate member including a bolt-receiving bore therethrough extending along a first axis at an acute angle to the inner face ; a second plate member defining an inner face contiguous with the inner face of the first plate member , an outer face , a first side face , an opposite second side face , and an end face , the second plate member including a bolt-receiving bore extending between the inner face and the outer face thereof along a second axis at an acute angle to the inner face thereof and generally parallel to the inner face of the first plate member ; a first lip extending along a first lip axis, projecting outwardly from the outer face of the first plate member along a plane generally perpendicular to the outer face of the first plate member , and being disposed along the entire length of the outer face of the first plate member ; and a second lip extending along a second lip axis, projecting outwardly from the outer face of the second plate member along the plane, and being disposed along the entire length of the outer face of the second plate member , the plane being generally perpendicular to the outer face of the second plate member ; wherein the first axis is generally parallel to the inner face of the second plate member . a first plate member defining an inner face , an opposite outer face , a first side face , an opposite second side face , and an end face , the first plate member including a bolt-receiving bore therethrough extending along a first axis at an acute angle to the inner face ; a second plate member defining an inner face contiguous with the inner face of the first plate member , an outer face , a first side face , an opposite second side face , and an end face , the second plate member including a bolt-receiving bore extending between the inner face and the outer face thereof along a second axis at an acute angle to the inner face thereof and generally parallel to the inner face of the first plate member ; a first lip extending along a first lip axis, projecting outwardly from the outer face of the first plate member along a plane generally perpendicular to the outer face of the first plate member , and being disposed along the entire length of the outer face of the first plate member ; and a second lip extending along a second lip axis, projecting outwardly from the outer face of the second plate member along the plane, and being disposed along the entire length of the outer face of the second plate member , the plane being generally perpendicular to the outer face of the second plate member ; wherein the first axis is generally parallel to the inner face of the second plate member .
Crystal form A of citrate salt of a compound of Formula I, characterized in that , in an X-ray powder diffraction pattern with Cu Kα radiation, characteristic peaks are present at 2θ angles of 12.78, 14.61, 17.63, 18.98, 21.42 and 23.47 degrees, wherein the compound of Formula I has the following structure,
Method for operating a cooktop having multiple heating devices , wherein the cooktop has a cooktop plate with a plurality of heating devices arranged underneath, comprising the steps: - placing a cooking vessel onto the cooktop plate in a first position thereby covering at least one heating device , - operating the at least one heating device with a certain predefined first area power density for heating the cooking vessel and the contents therein, respectively, characterized in that by - displacing the cooking vessel on the cooktop plate by an operator at least along a certain minimum displacement path to a second position, wherein in a step with case discrimination as a function of the certain predefined first area power density for the at least one heating device and by which the cooking vessel is heated, a future area power density for the heating of the cooking vessel in the second position is determined, - wherein, in a first case of previous heating of the cooking vessel with a small area power density, the cooking vessel is further heated with the previous first area power density also on the second position, - wherein, in a second case of previous heating of the cooking vessel with a great area power density, the future area power density by which the cooking vessel is heated in the second position, is reduced. - placing a cooking vessel onto the cooktop plate in a first position thereby covering at least one heating device , - operating the at least one heating device with a certain predefined first area power density for heating the cooking vessel and the contents therein, respectively, characterized in that by - displacing the cooking vessel on the cooktop plate by an operator at least along a certain minimum displacement path to a second position, wherein in a step with case discrimination as a function of the certain predefined first area power density for the at least one heating device and by which the cooking vessel is heated, a future area power density for the heating of the cooking vessel in the second position is determined, - wherein, in a first case of previous heating of the cooking vessel with a small area power density, the cooking vessel is further heated with the previous first area power density also on the second position, - wherein, in a second case of previous heating of the cooking vessel with a great area power density, the future area power density by which the cooking vessel is heated in the second position, is reduced.
A cardiac diagnostic and therapeutic system , comprising: a display ; and a processor , configured to: receive multiple electrophysiological (EP) signals acquired by multiple electrodes of a multi-electrode catheter that are in contact with tissue of a cardiac chamber ; reject one or more of the EP signals using a set of rejection criteria, and further process the EP signals that are not rejected; and visualize to a user , on the display, (i) a current setting of the rejection criteria, and (ii) a rejection effectiveness of each of the rejection criteria at the current setting. a display ; and a processor , configured to: receive multiple electrophysiological (EP) signals acquired by multiple electrodes of a multi-electrode catheter that are in contact with tissue of a cardiac chamber ; reject one or more of the EP signals using a set of rejection criteria, and further process the EP signals that are not rejected; and visualize to a user , on the display, (i) a current setting of the rejection criteria, and (ii) a rejection effectiveness of each of the rejection criteria at the current setting. receive multiple electrophysiological (EP) signals acquired by multiple electrodes of a multi-electrode catheter that are in contact with tissue of a cardiac chamber ; reject one or more of the EP signals using a set of rejection criteria, and further process the EP signals that are not rejected; and visualize to a user , on the display, (i) a current setting of the rejection criteria, and (ii) a rejection effectiveness of each of the rejection criteria at the current setting.
Cable including a plurality of litz wires , wherein the litz wires form several litz wire groups (4a - 4d, 6a - 6k), in which respectively two or more of the plurality of litz wires are stranded with one another, wherein the several litz wire groups (4a - 4d, 6a - 6k) are stranded overall around a common stranding centre and the litz wires of at least two of the several litz wire groups (4a - 4d, 6a - 6k) are stranded with one another with a different lay length (I_kurz, I_lang), wherein the lay length (I_kurz, I_lang)of the at least two of the several litz wire groups (4a - 4d, 6a - 6k) is adapted according to their position in the cable in a radial direction.
A cylindrical secondary battery comprising: an electrode assembly; a case for accommodating the electrode assembly; a cap assembly which is coupled to an upper part of the case so as to seal the case, and has a terminal part; a conductive cover which is coupled to an upper part of the case and fixed to a lateral plate of the case; and an insulation member which is positioned between the upper part of the case and the conductive cover, wherein the conductive cover comprises: a flat part covering the upper part of the case and flatly formed; an extending part downwardly extending from the flat part; and a coupling part inwardly protruding from the extending part and contacting the lateral plate of the case, wherein a hole exposing the terminal part to the outside is formed in the flat part, and, wherein the hole has a larger diameter than the terminal part, wherein the electrode assembly includes a first electrode, a second electrode and a separator interposed between the first electrode and the second electrode, wherein the terminal part is electrically connected to the first electrode, and the conductive cover is electrically connected to the second electrode. an electrode assembly; a case for accommodating the electrode assembly; a cap assembly which is coupled to an upper part of the case so as to seal the case, and has a terminal part; a conductive cover which is coupled to an upper part of the case and fixed to a lateral plate of the case; and an insulation member which is positioned between the upper part of the case and the conductive cover, wherein the conductive cover comprises: a flat part covering the upper part of the case and flatly formed; an extending part downwardly extending from the flat part; and a flat part covering the upper part of the case and flatly formed; an extending part downwardly extending from the flat part; and a coupling part inwardly protruding from the extending part and contacting the lateral plate of the case, wherein a hole exposing the terminal part to the outside is formed in the flat part, and, wherein the hole has a larger diameter than the terminal part, wherein the electrode assembly includes a first electrode, a second electrode and a separator interposed between the first electrode and the second electrode, wherein the terminal part is electrically connected to the first electrode, and the conductive cover is electrically connected to the second electrode.
A patella bone plate comprising: a fixation body including: a fixation hub having an inner surface configured to face the patella bone and an outer surface opposite the inner surface , and an array of fixation holes that extend through the fixation hub from the inner surface to the outer surface; and a plurality of fixation nodes that extend from the fixation hub , each of the plurality of fixation nodes defining a respective fixation hole ; and at least one leg that extends out from the body , the at least one leg being deformable and having a length sufficient so as to wrap around an inferior rim of the patella , the at least one leg including at least one fixation hole , characterized in that each of the fixation nodes is secured to the fixation hub by a respective pair of arms . a fixation body including: a fixation hub having an inner surface configured to face the patella bone and an outer surface opposite the inner surface , and an array of fixation holes that extend through the fixation hub from the inner surface to the outer surface; and a plurality of fixation nodes that extend from the fixation hub , each of the plurality of fixation nodes defining a respective fixation hole ; and a fixation hub having an inner surface configured to face the patella bone and an outer surface opposite the inner surface , and an array of fixation holes that extend through the fixation hub from the inner surface to the outer surface; and a plurality of fixation nodes that extend from the fixation hub , each of the plurality of fixation nodes defining a respective fixation hole ; and at least one leg that extends out from the body , the at least one leg being deformable and having a length sufficient so as to wrap around an inferior rim of the patella , the at least one leg including at least one fixation hole , characterized in that each of the fixation nodes is secured to the fixation hub by a respective pair of arms .
A magnetic coupling reactor apparatus comprising at least one pair of E-shaped three-leg core members made of an iron-based material, each E-shaped three-leg core member comprising: a base core part (101A4, 101B4); and three leg core parts (101A1, 101A2, 101A3, 101B1, 101B2, 101B3) projecting from the base core part in an identical extending direction, thereby spanning a plane of extension, wherein the three leg core parts comprise two outer leg core parts (101A1, 101A2, 101B1, 101B2) and a middle leg core part (101A3, 101B3) in between the outer leg parts; with the respective height of the three leg core parts extending orthogonal to said plane of extension and the respective width of the three leg core parts extending orthogonal to the respective height and orthogonal to the extending direction; the three leg core parts of one of the pair of E-shaped core members abut with the respective end faces to respective end faces of the three leg core parts of the other one of the pair of E-shaped core members; wherein around each of the middle leg core parts (101A3, 101B3) a respective coil of the reactor apparatus is wound so as to form a magnetic coupling structure, and for a cross-sectional area of each middle leg core part (101A3, 101B3) orthogonal to an extending direction of the middle leg core part being Si, and a cross-sectional area of each of the outer leg core parts orthogonal to an extending direction of the outer leg core parts being So, the conditional expression below holds: 1.0 ≤ Si / So ≤ 5.0 characterized in that the lower face of each middle leg core part (101A3, 101B3) is offset upward at least by a winding width of the respective coil with respect to the lower faces of the respective outer leg core parts (101A1, 101A2, 101B1, 10182), wherein the terms "lower" and "upward" refer to the height direction of the three leg core parts, and wherein the winding width is in a direction orthogonal to the extending direction of the three leg core parts.
A cryptographic method involving the computation of a square root of an element q of a prime finite field F p of characteristic p, with p ≡ 1 mod 4, where q represents coordinates of points which lie on an elliptic curve over the prime field F p , the method comprising a processor carrying out the steps: determining a value of a finite field element t yielding an initial value P=q*t*t-2 such that P-2 is not a quadratic residue, wherein P is an initial parameter of a Lucas function, and wherein the Lucas function has two parameters, P and Q; calculating a factored representation of (p-1)/4, the factored representation consisting of a set of factors f i that, when multiplied together, yield (p-1)/4; calculating the value V fi (P,1) of the Lucas function of P for one of the factors f i of the set of factors, where Q=1; setting P to the computed Lucas function value; computing the Lucas function value V fi (P,1) of P for another factor f i of the set of factors, where Q=1; repeating the setting and computing steps for all remaining factors of the set of factors in the factored representation of (p-1)/4 to generate a final Lucas function value; outputting the square root of the finite field element q as the final Lucas function value divided by the element t. determining a value of a finite field element t yielding an initial value P=q*t*t-2 such that P-2 is not a quadratic residue, wherein P is an initial parameter of a Lucas function, and wherein the Lucas function has two parameters, P and Q; calculating a factored representation of (p-1)/4, the factored representation consisting of a set of factors f i that, when multiplied together, yield (p-1)/4; calculating the value V fi (P,1) of the Lucas function of P for one of the factors f i of the set of factors, where Q=1; setting P to the computed Lucas function value; computing the Lucas function value V fi (P,1) of P for another factor f i of the set of factors, where Q=1; repeating the setting and computing steps for all remaining factors of the set of factors in the factored representation of (p-1)/4 to generate a final Lucas function value; outputting the square root of the finite field element q as the final Lucas function value divided by the element t.
A system for preserving a blood sample and removing red blood cells, comprising: a casing , the casing having a sample port ; a lateral flow strip in the casing, the lateral flow strip receiving a sample through the sample port and flowing the sample down a length of the lateral flow strip; a blood separation layer configured to remove red blood cells in the casing on top of the lateral flow strip, oriented in line with the sample port such that the blood separation layer serves to contact the sample; a sealable sample preservation enclosure; and a desiccant received within the sample preservation enclosure; the casing and contained lateral flow strip and blood separation layer having a first condition of being separate from the sample preservation enclosure for reception of a sample, the casing and contained lateral flow strip and blood separation layer having a second condition, after having received a sample, of being sealed within the sample preservation enclosure, the desiccant being effective to dry the sample within the sealed sample preservation enclosure; characterised in that : the blood separation layer includes a screen side and an opposed felt side, and the lateral flow strip includes a screen side and an opposed felt side, the screen side of the blood separation and the uniform screen side of the lateral flow strip facing each other; and a nylon layer oriented in the casing under the lateral flow test strip. a casing , the casing having a sample port ; a lateral flow strip in the casing, the lateral flow strip receiving a sample through the sample port and flowing the sample down a length of the lateral flow strip; a blood separation layer configured to remove red blood cells in the casing on top of the lateral flow strip, oriented in line with the sample port such that the blood separation layer serves to contact the sample; a sealable sample preservation enclosure; and a desiccant received within the sample preservation enclosure; the casing and contained lateral flow strip and blood separation layer having a first condition of being separate from the sample preservation enclosure for reception of a sample, the casing and contained lateral flow strip and blood separation layer having a second condition, after having received a sample, of being sealed within the sample preservation enclosure, the desiccant being effective to dry the sample within the sealed sample preservation enclosure; characterised in that : the blood separation layer includes a screen side and an opposed felt side, and the lateral flow strip includes a screen side and an opposed felt side, the screen side of the blood separation and the uniform screen side of the lateral flow strip facing each other; and a nylon layer oriented in the casing under the lateral flow test strip.
A saccharide syrup composition for preventing oligosaccharide decomposition, comprising raw material saccharide syrup comprising allulose syrup and an oligosaccharide; and an organic acid or its salt, wherein the organic acid or its salt is contained in an amount of 0.001 to 1.0 wt%, wherein the raw material saccharide syrup comprises 20 to 90 wt% of the oligosaccharide and 10 to 80 wt% of allulose syrup, based on 100 wt% of the raw material saccharide syrup, wherein the allulose syrup has an electrical conductivity of 1 to 50 μS/cm, and wherein the saccharide syrup composition has a pH of 5.5 to 6.5, an electrical conductivity of 100 to 1000 μS/cm and a content of the oligosaccharide of 80% or more, based on 100% of the initial content of the oligosaccharide under storage conditions of a temperature of 45 °C and 42 days. wherein the organic acid or its salt is contained in an amount of 0.001 to 1.0 wt%, wherein the raw material saccharide syrup comprises 20 to 90 wt% of the oligosaccharide and 10 to 80 wt% of allulose syrup, based on 100 wt% of the raw material saccharide syrup, wherein the allulose syrup has an electrical conductivity of 1 to 50 μS/cm, and wherein the saccharide syrup composition has a pH of 5.5 to 6.5, an electrical conductivity of 100 to 1000 μS/cm and a content of the oligosaccharide of 80% or more, based on 100% of the initial content of the oligosaccharide under storage conditions of a temperature of 45 °C and 42 days.
A method for determining a position of a wireless device , the method being performed in a network node connected to a plurality of remote radio heads (1, 1a-c) via a combiner , the method comprising the steps of: adjusting a weighting of an uplink signal for at least one of the remote radio heads; measuring a signal quality of a combined uplink signal received via the combiner ; repeating the steps of adjusting and measuring until an exit condition is true; and determining a position of the wireless device based on how the measured signal quality differs for adjustments of weighting of the uplink signal for different remote radio heads. adjusting a weighting of an uplink signal for at least one of the remote radio heads; measuring a signal quality of a combined uplink signal received via the combiner ; repeating the steps of adjusting and measuring until an exit condition is true; and determining a position of the wireless device based on how the measured signal quality differs for adjustments of weighting of the uplink signal for different remote radio heads.
An apparatus for determining fluid flow in a pipe comprising: an ultrasonic flow meter which communicates with the interior of the pipe through at least one pair of apertures , where each aperture of the one pair of apertures has an effective diameter; and a turbulence conditioner disposed in the pipe having openings , wherein the pitch between openings is less than the effective diameter of the aperture ; characterized in that the conditioner extends across the internal diameter of the pipe and has an axial length that is 5 to 20 times the pitch. an ultrasonic flow meter which communicates with the interior of the pipe through at least one pair of apertures , where each aperture of the one pair of apertures has an effective diameter; and a turbulence conditioner disposed in the pipe having openings , wherein the pitch between openings is less than the effective diameter of the aperture ; characterized in that the conditioner extends across the internal diameter of the pipe and has an axial length that is 5 to 20 times the pitch.