mhurhangee/patent-ind-claim-en huggingface dataset:
A dosing system comprising: a dispensing tube to dispense a viscous liquid from a holding container to an output container, said tube comprising an upper and a lower valve ; a peristaltic pump to push against said dispensing tube and to cause said viscous liquid to open said lower valve ; and characterised by a hall effect sensor to measure the strength of a front sensor magnet of said pump and to determine the presence of said dispensing tube . a dispensing tube to dispense a viscous liquid from a holding container to an output container, said tube comprising an upper and a lower valve ; a peristaltic pump to push against said dispensing tube and to cause said viscous liquid to open said lower valve ; and characterised by a hall effect sensor to measure the strength of a front sensor magnet of said pump and to determine the presence of said dispensing tube .
A storage device , comprising a body enclosing an accommodation cavity , a pair of guiding mechanisms and a first partition frame for dividing the accommodation cavity , the body comprising a bottom wall, a pair of first side walls (3 1a) and a pair of second side walls , wherein the pair of guiding mechanisms is arranged at the pair of second side walls respectively, the guiding mechanism comprises a guiding element which slides in a front-rear direction with respect to the body , the guiding element comprises a mounting portion and a limiting portion ; the first partition frame comprises a partition element, a pair of fixing portions and limited portions , the partition element extends in a left-right direction, for dividing the accommodation cavity , the fixing portions are provided to be a long rod extending in a front-rear direction, the pair of fixing portions and the limited portions being formed at two ends in the left-right direction of the first partition frame ; wherein the fixing portion is fitted and connected with the mounting portion, such that the first partition frame is connected onto the guiding element , and the limiting portion is fitted and connected with the limited portion , such that the first partition frame is limited from moving in the front-rear direction with respect to the guiding element ; wherein the guiding element comprises a guiding body , a hook extending out of the guiding body , a mounting groove enclosed by the hook for constituting the mounting portion, and an opening , wherein the mounting groove extends in the front-rear direction, the fixing portion is fastened into the mounting groove through the opening in the first direction, and the first direction is perpendicular to the front-rear direction; wherein the hook is provided to be an elastic structure; characterized in that the fixing portion is provided to be a cylindrical bar with a diameter of D; in the first direction, an aperture of the opening decreases gradually to a minimal value W, wherein W<D. wherein the guiding element comprises a guiding body , a hook extending out of the guiding body , a mounting groove enclosed by the hook for constituting the mounting portion, and an opening , wherein the mounting groove extends in the front-rear direction, the fixing portion is fastened into the mounting groove through the opening in the first direction, and the first direction is perpendicular to the front-rear direction; wherein the hook is provided to be an elastic structure; characterized in that the fixing portion is provided to be a cylindrical bar with a diameter of D; in the first direction, an aperture of the opening decreases gradually to a minimal value W, wherein W<D.
A fan assembly for cooling a radiator, a radiator-condenser assembly, or a radiator-condenser-intercooler assembly of a vehicle, comprising: - a casing , having a through opening and a support , which is located at the centre of said opening , - a motor-fan assembly carried by said support , which includes an axial fan rotatable with respect to said support about an axis of rotation (X), and - a toothed ring , fixed with respect to the casing and surrounding said fan , said toothed ring having a plurality of teeth that follow one another in a circumferential direction, wherein said toothed ring has a front surface that is cylindrical or shaped like a truncated cone, sharing the axis of rotation (X) and set at a constant or variable distance in the direction of the axis of rotation (X) with respect to a radially outer end of said fan , and a side wall that forms sides of said teeth , wherein the distance in a direction parallel to the axis of rotation (X) between said side wall and a plane orthogonal to the axis of rotation (X) varies periodically in the circumferential direction, said fan assembly being characterized in that a width (L) of an arc of a circle centred on the axis of rotation (X) of the fan and passing through each tooth remains constant for each radius comprised between the radii (R1, R2) of the internal and external circumferential surfaces of the teeth . - a casing , having a through opening and a support , which is located at the centre of said opening , - a motor-fan assembly carried by said support , which includes an axial fan rotatable with respect to said support about an axis of rotation (X), and - a toothed ring , fixed with respect to the casing and surrounding said fan , said toothed ring having a plurality of teeth that follow one another in a circumferential direction,
A two-component putty comprising a base component and a curing component, wherein the base component comprises: - castor oil as resin component; and - a further resin component having a hydroxyl number in the range of from 500 to 800 mg KOH/g, wherein the curing component comprises a polyisocyanate, and wherein the two-component putty further comprises hollow microspheres and an organically modified inorganic filler, wherein the putty comprises - 15 to 50 wt% castor oil as resin component; - 2 to 25 wt% of the further resin component; - 20 to 60 wt% polyisocyanate; - 0.5 to 5.0 wt% hollow microspheres; and - 5 to 30 wt% organically modified inorganic filler, based on the total weight of the putty. - castor oil as resin component; and - a further resin component having a hydroxyl number in the range of from 500 to 800 mg KOH/g, - 15 to 50 wt% castor oil as resin component; - 2 to 25 wt% of the further resin component; - 20 to 60 wt% polyisocyanate; - 0.5 to 5.0 wt% hollow microspheres; and - 5 to 30 wt% organically modified inorganic filler, based on the total weight of the putty.
A compound represented by the following formula: or a salt thereof, wherein the compound is at least 80%, 90%, 95%, 99%, 99.5% or 99.9% pure.
A housing for installing sockets, which is produced in one piece from plastic, comprising a receiving space formed at least partly by walls , wherein a break-out element (18; 18') closing an opening is provided in at least one of the walls , which break-out element (18; 18') is at least partly cut free with respect to the wall and is connected to the wall by means of at least one web (20 - 22; 22') which is provided between the outer contour of the break-out element (18; 18') and the margin of the opening , characterized in that the margin of the opening has a concavely curved bulge (30; 30") in the region of the web (20 - 22; 22'), in which bulge the web is fastened, in that the web (20 - 22; 22') has a reduced cross-section (Q) exclusively in the bulge (30; 30"), and in that the web (20 - 22; 22') in the bulge (30; 30") extends obliquely to the plane of the wall surrounding the bulge (30; 30"). in that the web (20 - 22; 22') has a reduced cross-section (Q) exclusively in the bulge (30; 30"), and in that the web (20 - 22; 22') in the bulge (30; 30") extends obliquely to the plane of the wall surrounding the bulge (30; 30").
A method for characterizing radiofrequency interference caused by a plurality of sources, comprising: - using at least one observing device scanning successively a plurality of radiofrequency bands for performing interference measurements (I2) in said plurality of radiofrequency bands, in different space locations, and at different time instants, and providing observations at successive time instants of: * a current observing frequency, * a current position of the observing device, and * a received interference power in an observed frequency band, - computing (S1), for each interference source and each observation, a likelihood probability to attribute one observation to one interference source, - using said likelihood probability computations to assign (S2) each of said observations to one interference source, - for each interference source assigned with one of said observations, estimating a location and a frequency occupation of said interference source, Wherein said likelihood probability computing (S1) is based on both frequency observation and interference power observation. - using at least one observing device scanning successively a plurality of radiofrequency bands for performing interference measurements (I2) in said plurality of radiofrequency bands, in different space locations, and at different time instants, and providing observations at successive time instants of: * a current observing frequency, * a current position of the observing device, and * a received interference power in an observed frequency band, * a current observing frequency, * a current position of the observing device, and * a received interference power in an observed frequency band, - computing (S1), for each interference source and each observation, a likelihood probability to attribute one observation to one interference source, - using said likelihood probability computations to assign (S2) each of said observations to one interference source, - for each interference source assigned with one of said observations, estimating a location and a frequency occupation of said interference source,
A method for joining a first blade component and a second blade component of a rotor blade together, the method comprising: printing and depositing, via a computer numeric control (CNC) device , at least one three-dimensional (3-D) grid structure at a first joint area of the rotor blade , the first joint area containing the first blade component interfacing with the second blade component; providing an adhesive at the first joint area and contacting at least a portion of the grid structure , wherein the first joint area comprises at least one of a spar cap/shear web connection, a spar cap/blade shell connection, or a blade shell/blade shell connection, the blade shell/blade shell connection comprising at least one of a trailing edge of the rotor blade or a leading edge of the rotor blade ; securing the first blade component and the second blade component together at the first joint area via the adhesive ; the method further comprising printing and depositing, via the CNC device , a first grid structure onto an inner surface of a first outer surface of the rotor blade at the first joint area and spaced apart from the trailing edge of the rotor blade to provide a first gap, and printing and depositing, via the CNC device a second grid structure onto the inner surface of the first outer surface at a different, second joint area and spaced apart from the leading edge of the rotor blade to provide a second gap; and filling, at least in part, at least one of the first gap or the second gap with the adhesive . printing and depositing, via a computer numeric control (CNC) device , at least one three-dimensional (3-D) grid structure at a first joint area of the rotor blade , the first joint area containing the first blade component interfacing with the second blade component; providing an adhesive at the first joint area and contacting at least a portion of the grid structure , wherein the first joint area comprises at least one of a spar cap/shear web connection, a spar cap/blade shell connection, or a blade shell/blade shell connection, the blade shell/blade shell connection comprising at least one of a trailing edge of the rotor blade or a leading edge of the rotor blade ; securing the first blade component and the second blade component together at the first joint area via the adhesive ; the method further comprising printing and depositing, via the CNC device , a first grid structure onto an inner surface of a first outer surface of the rotor blade at the first joint area and spaced apart from the trailing edge of the rotor blade to provide a first gap, and printing and depositing, via the CNC device a second grid structure onto the inner surface of the first outer surface at a different, second joint area and spaced apart from the leading edge of the rotor blade to provide a second gap; and filling, at least in part, at least one of the first gap or the second gap with the adhesive .
Cermet comprising: a hard phase which contains carbonitride containing Ti and Nb; a metallic binder phase containing an iron-group element; and optionally a WC phase composed of WC, the content of the WC phase being not higher than 1 volume %, the hard phase including a granular core portion and a peripheral portion which covers at least a part of the core portion , the core portion containing composite carbonitride expressed as Ti 1-x-Y Nb X W Y C 1-Z N Z , where X is 0.1 or more and 0.6 or less, Y is 0 or more and 0.05 or less and Z is 0.3 or more and 0.6 or less, and the peripheral portion being composed to be higher in content of W than the core portion , wherein: in the core portion , a total amount of V, Cr, and Mo occupied in a total amount of Ti, Nb, W, V, Cr, and Mo is smaller than 2 atomic %; and the core portion has an average crystal grain size not smaller than 0.5 μm and not greater than 3 μm, the average crystal grain size being measured by the method described in the description. a hard phase which contains carbonitride containing Ti and Nb; a metallic binder phase containing an iron-group element; and optionally a WC phase composed of WC, the content of the WC phase being not higher than 1 volume %, the hard phase including a granular core portion and a peripheral portion which covers at least a part of the core portion , the core portion containing composite carbonitride expressed as Ti 1-x-Y Nb X W Y C 1-Z N Z , where X is 0.1 or more and 0.6 or less, Y is 0 or more and 0.05 or less and Z is 0.3 or more and 0.6 or less, and the peripheral portion being composed to be higher in content of W than the core portion , in the core portion , a total amount of V, Cr, and Mo occupied in a total amount of Ti, Nb, W, V, Cr, and Mo is smaller than 2 atomic %; and the core portion has an average crystal grain size not smaller than 0.5 μm and not greater than 3 μm, the average crystal grain size being measured by the method described in the description.
A pharmaceutical composition for use to prevent or treat an ischemic cerebrovascular disease, by intranasal administration, the composition comprising a linear Fas targeting peptide (FTP) consisting of an amino acid sequence of SEQ ID NO: 1(YCDEHFCY), as an active ingredient.
A use of a liquid composition for forming a silica porous film, wherein the liquid composition is prepared by mixing a hydrolyzate of tetramethoxysilane or tetraethoxysilane as a silicon alkoxide with a silica sol in which fumed silica particles having primary particles having a mean particle diameter of 40 nm or less and secondary particles having a mean particle diameter of 20 nm to 400 nm, that is greater than the mean particle diameter of the primary particles, are dispersed in a liquid medium, wherein a mass ratio (A/B) of a SiO 2 content (B) of the silica sol to a SiO 2 content (A) in the hydrolyzate is in a range of 1/99 to 60/40, the liquid medium is any one of methanol, ethanol, isopropyl alcohol, ethylene glycol, propylene glycol monomethyl ether, and propylene glycol monomethyl ether acetate, and a SiO 2 concentration of the hydrolyzate is 1 % by mass to 20 % by mass. wherein a mass ratio (A/B) of a SiO 2 content (B) of the silica sol to a SiO 2 content (A) in the hydrolyzate is in a range of 1/99 to 60/40, the liquid medium is any one of methanol, ethanol, isopropyl alcohol, ethylene glycol, propylene glycol monomethyl ether, and propylene glycol monomethyl ether acetate, and a SiO 2 concentration of the hydrolyzate is 1 % by mass to 20 % by mass.
A mechanical reduction gear for a turbomachine, in particular for an aircraft, comprising: - a central sun gear of axis X of rotation, - a ring gear extending around the axis X and the sun gear and comprising a herringbone toothing, the ring gear being formed by two coaxial half-ring gears which are spaced apart from each other by an annular space and which each comprise teeth of the toothing, the ring gear being rotatable around said axis X, - planet gears disposed between the sun gear and the ring gear and supported by a planet carrier which is immobile in rotation about said axis X, - at least one shaft rotationally fixed to the ring gear , and - an annular covering part which extends around said annular space and at least one portion of the ring gear , this covering part being fixed by flanges and/or splines to each of the half-ring gears , characterised in that the ring gear is rotationally fixed to two shafts extending respectively on each side of the reduction gear. - a central sun gear of axis X of rotation, - a ring gear extending around the axis X and the sun gear and comprising a herringbone toothing, the ring gear being formed by two coaxial half-ring gears which are spaced apart from each other by an annular space and which each comprise teeth of the toothing, the ring gear being rotatable around said axis X, - planet gears disposed between the sun gear and the ring gear and supported by a planet carrier which is immobile in rotation about said axis X, - at least one shaft rotationally fixed to the ring gear , and - an annular covering part which extends around said annular space and at least one portion of the ring gear , this covering part being fixed by flanges and/or splines to each of the half-ring gears ,
An introducer for insertion of a medical device into a patient's vasculature, the introducer comprising: an elongate introducer body having a longitudinal axis , a proximal region, a distal region, and an inner lumen ; a hub coupled to the proximal region of the introducer body ; and a hemostatic valve disposed within the hub and forming a liquid-tight seal across the inner lumen , wherein: the hub and the hemostatic valve are configured to part together, the hemostatic valve includes a distal surface and a proximal surface , the proximal surface having a sloped region configured to guide an object towards a center of the hemostatic valve during insertion of the object through the hemostatic valve , and the proximal surface comprises a flat central region that is substantially perpendicular to the longitudinal axis of the elongate introducer body . an elongate introducer body having a longitudinal axis , a proximal region, a distal region, and an inner lumen ; a hub coupled to the proximal region of the introducer body ; and a hemostatic valve disposed within the hub and forming a liquid-tight seal across the inner lumen , wherein: the hub and the hemostatic valve are configured to part together, the hemostatic valve includes a distal surface and a proximal surface , the proximal surface having a sloped region configured to guide an object towards a center of the hemostatic valve during insertion of the object through the hemostatic valve , and the proximal surface comprises a flat central region that is substantially perpendicular to the longitudinal axis of the elongate introducer body . the hub and the hemostatic valve are configured to part together, the hemostatic valve includes a distal surface and a proximal surface , the proximal surface having a sloped region configured to guide an object towards a center of the hemostatic valve during insertion of the object through the hemostatic valve , and the proximal surface comprises a flat central region that is substantially perpendicular to the longitudinal axis of the elongate introducer body .
A transportation device with a structure with wheels, joined by a shaft to a platform or chassis which supports a basket, mat, seat or tray, wherein it comprises an automatic tilt stabilizer for the platform or chassis, wherein the stabilizer comprises a tilt sensor for sensing the inclination of the platform or chassis with respect to the horizontal and configured to transfer signals to a microcontroller, and a motor activated by the microcontroller, characterized in that the microcontroller is configured to act on the motor for correcting the inclination of the platform or chassis through an arm which has a fixed end resting against the structure and the other end fixed to the platform or base by means of a pair of wheels that are able to slide on a guide joined to the platform or base, so that said platform or chassis returns to a predefined inclination with respect to the horizontal, such that the transport device is configured for automatically leveling the platform or chassis during occasional uneven surfaces of the terrain.
A method performed by a first base station providing a macro cell configured to operate as a frequency division duplex, FDD, communication with a user equipment, UE, wherein a coverage of the macro cell includes at least one small cell provided by at least one second base station, and wherein the at least one small cell is configured to operate as a time division duplex, TDD, communication with a UE, the method comprising: transmitting, to the UE, first control information for a control plane for indicating an addition of a first small cell of the at least one small cell included in the coverage of the macro cell and for indicating an activation of the first small cell, based on a measurement report received from the UE; transmitting data for the control plane to the UE while data for a user plane to the UE is wirelessly transmitted only from one of the at least one second base station providing the first small cell if the UE is connected to the first small cell based on the measurement report; generating data for the control plane including second control information indicating to release the first small cell based on measurement information received from the UE; transmitting, to the UE, data for the control plane including the second control information, and transmitting, to the UE, data for the user plane after the data for the control plane including the second control information is transmitted to the UE. transmitting, to the UE, first control information for a control plane for indicating an addition of a first small cell of the at least one small cell included in the coverage of the macro cell and for indicating an activation of the first small cell, based on a measurement report received from the UE; transmitting data for the control plane to the UE while data for a user plane to the UE is wirelessly transmitted only from one of the at least one second base station providing the first small cell if the UE is connected to the first small cell based on the measurement report; generating data for the control plane including second control information indicating to release the first small cell based on measurement information received from the UE; transmitting, to the UE, data for the control plane including the second control information, and transmitting, to the UE, data for the user plane after the data for the control plane including the second control information is transmitted to the UE.