mhurhangee/patent-ind-claim-en huggingface dataset:
Pneumatic vehicle tyre of a radial type of construction, with a belt having at least one strengthening member ply , wherein the strengthening member ply has strengthening members which are arranged next to one another and largely parallel to one another in its two-dimensional extent and embedded in elastomeric material , • wherein at least one pair of two adjacent strengthening members of the strengthening members have on their sides which are inclined to one another surface areas which are inclined to one another and oriented largely parallel to one another, • wherein the surface areas of the sides which are inclined to one another are arranged so as to at least partially overlap in a radial direction rR in an overlapping region , wherein a first surface area of the surface areas is arranged radially outside a second surface area of the surface areas in the overlapping region , • wherein each of those sides of the two adjacent strengthening members which are inclined to one another have both a first surface area and a second surface area , characterized • in that one side of the two sides inclined to one another has a cross-sectionally concave contour, in particular a cross-sectionally concavely V-shaped contour, • in that the other side of the two sides inclined to one another has a cross-sectionally convex contour, in particular a cross-sectionally convexly V-shaped contour, • and in that the two sides in this case have a largely mirror-inverted contour. • wherein at least one pair of two adjacent strengthening members of the strengthening members have on their sides which are inclined to one another surface areas which are inclined to one another and oriented largely parallel to one another, • wherein the surface areas of the sides which are inclined to one another are arranged so as to at least partially overlap in a radial direction rR in an overlapping region , wherein a first surface area of the surface areas is arranged radially outside a second surface area of the surface areas in the overlapping region , • wherein each of those sides of the two adjacent strengthening members which are inclined to one another have both a first surface area and a second surface area , characterized • in that one side of the two sides inclined to one another has a cross-sectionally concave contour, in particular a cross-sectionally concavely V-shaped contour, • in that the other side of the two sides inclined to one another has a cross-sectionally convex contour, in particular a cross-sectionally convexly V-shaped contour, • and in that the two sides in this case have a largely mirror-inverted contour.
A protected α-amylase animal feed ingredient resistant to release of the α-amylase in the stomach environment of a monogastric animal and susceptible to release of the α-amylase in the enteric environment, comprising: (a) a core comprising α -amylase; (b) a first coating comprising from 50% to 85% of a pH-sensitive enteric polymer and from 15% to 50% of excipients ; and (c) a second coating comprising from 50% to 85% of a slow-release polymer and from 15% to 50% of excipients . (a) a core comprising α -amylase; (b) a first coating comprising from 50% to 85% of a pH-sensitive enteric polymer and from 15% to 50% of excipients ; and (c) a second coating comprising from 50% to 85% of a slow-release polymer and from 15% to 50% of excipients .
A method comprising the following steps: - providing a pre-processed element (2; 102) made of at least one polymeric material, - introducing the pre-processed element (2; 102) in a female mould part (28; 128) having a forming cavity (34; 134), - shaping the pre-processed element (2; 102) between the female mould part (28; 128) and a male mould part (29; 129), the female mould part (28; 128) and the male mould part (29; 129) being movable relative to one another along a moulding direction so as to form a concave object from the pre-processed element (2; 102), wherein the forming cavity (34; 134) has a transversal dimension measured transversely to the moulding direction, the forming cavity (34; 134) further having a transition zone (53; 153) defined by a funnel-shaped surface (43; 143) in which the transversal dimension progressively decreases from a larger value (T2) to a smaller value (T1), the forming cavity (34; 134) further having a bottom , characterized in that , during the introducing step, the pre-processed element (2; 102) is placed in the forming cavity (34; 134) and rests on the transition zone (53; 153) in an upper portion of the forming cavity (34; 134), thereby remaining on the funnel-shaped surface (43; 143) at a distance from the bottom of the forming cavity (34; 134). - providing a pre-processed element (2; 102) made of at least one polymeric material, - introducing the pre-processed element (2; 102) in a female mould part (28; 128) having a forming cavity (34; 134), - shaping the pre-processed element (2; 102) between the female mould part (28; 128) and a male mould part (29; 129), the female mould part (28; 128) and the male mould part (29; 129) being movable relative to one another along a moulding direction so as to form a concave object from the pre-processed element (2; 102),
A diagnosis imaging apparatus comprising: an image processing apparatus for automatically detecting a first point and a second point on a heart wall of a valve of interest in a 3D volume data of a heart of a subject, rotating the 3D volume data to make a virtual line connecting the first point and the second point be parallel with a datum plane representing a plane based on two axes in a 3D coordinate system which is determined depending on the type of the valve of interest, and acquiring a 3D standard view of the valve of interest based on the rotated 3D volume data; and a display apparatus for displaying the 3D standard view, wherein the datum plane is a predefined virtual plane based on the 3D volume data, wherein the image processing apparatus determines a bi-plane image of the valve of interest based on the rotated 3D volume data, changes a current mode to a 3D mode to acquire a 3D image corresponding to the bi-plane image, and rotates the 3D image in a predetermined specific direction by a predetermined specific angle, thereby automatically acquiring the 3D standard view , wherein the specific direction and the specific angle are determined depending on the type of the valve of interest. an image processing apparatus for automatically detecting a first point and a second point on a heart wall of a valve of interest in a 3D volume data of a heart of a subject, rotating the 3D volume data to make a virtual line connecting the first point and the second point be parallel with a datum plane representing a plane based on two axes in a 3D coordinate system which is determined depending on the type of the valve of interest, and acquiring a 3D standard view of the valve of interest based on the rotated 3D volume data; and a display apparatus for displaying the 3D standard view, wherein the datum plane is a predefined virtual plane based on the 3D volume data, wherein the image processing apparatus determines a bi-plane image of the valve of interest based on the rotated 3D volume data, changes a current mode to a 3D mode to acquire a 3D image corresponding to the bi-plane image, and rotates the 3D image in a predetermined specific direction by a predetermined specific angle, thereby automatically acquiring the 3D standard view , wherein the specific direction and the specific angle are determined depending on the type of the valve of interest.
A prepreg composed of reinforcing fibers and a resin composition, wherein the resin composition comprises the following [A] to [C]: [A]: an epoxy resin; [B]: a dicyandiamide; and [C]: a compound which has a melting point of 130°C or lower and a solubility parameter whose difference from the solubility parameter of [B] is 8 or less, wherein the solubility parameter of [B] and the solubility parameter of [C] are calculated by Hansen solubility parameter method at 25 °C; and wherein the resin composition has a viscosity at 25°C of 1,000 Pa·s or more, as measured according to the description. wherein the resin composition comprises the following [A] to [C]: [A]: an epoxy resin; [B]: a dicyandiamide; and [C]: a compound which has a melting point of 130°C or lower and a solubility parameter whose difference from the solubility parameter of [B] is 8 or less, wherein the solubility parameter of [B] and the solubility parameter of [C] are calculated by Hansen solubility parameter method at 25 °C; and [A]: an epoxy resin; [B]: a dicyandiamide; and [C]: a compound which has a melting point of 130°C or lower and a solubility parameter whose difference from the solubility parameter of [B] is 8 or less, wherein the solubility parameter of [B] and the solubility parameter of [C] are calculated by Hansen solubility parameter method at 25 °C; and wherein the resin composition has a viscosity at 25°C of 1,000 Pa·s or more, as measured according to the description.
A rotating system for a toy which comprises at least two parts to be rotated relative to each other, the rotating system comprising a top unit , a middle unit , a bottom unit , and a resilient component , and further comprising: the top unit fixedly coupled to the bottom unit defining a longitudinal axis and leaving a space in-between them, the space configured for housing the resilient component and the middle unit, wherein the middle unit is moveably housed in-between the top and bottom units and configured to rotate around the longitudinal axis as well as to displace longitudinally along the longitudinal axis; wherein the middle unit is configured to be coupled to a first part of the at least two parts and the bottom unit is configured to be coupled to a second part of the at least two parts; and wherein the middle and bottom units are configured with complementary engaging means at their interface. the top unit fixedly coupled to the bottom unit defining a longitudinal axis and leaving a space in-between them, the space configured for housing the resilient component and the middle unit, wherein the middle unit is moveably housed in-between the top and bottom units and configured to rotate around the longitudinal axis as well as to displace longitudinally along the longitudinal axis; wherein the middle unit is configured to be coupled to a first part of the at least two parts and the bottom unit is configured to be coupled to a second part of the at least two parts; and wherein the middle and bottom units are configured with complementary engaging means at their interface.
A seat trim cover for a vehicle seat , comprising: a moldable polyurethane cellular foam interlayer having an upper surface; a cover material having a lower surface, the lower surface adhered to the upper surface of the moldable polyurethane cellular foam interlayer to form a laminate blank ; the cover material comprising one or more of a vinyl, fabric, and/or leather; wherein the laminate blank is compression molded in a 3-dimensional mold at 10 bar (150 psi) to 17 bar (250 psi) compressive force while at least a portion of the laminate blank is heated to a temperature of 104°C (220°F) to 127°C (260°F) to compression mold the foam interlayer into a 3-dimensional shape. a moldable polyurethane cellular foam interlayer having an upper surface; a cover material having a lower surface, the lower surface adhered to the upper surface of the moldable polyurethane cellular foam interlayer to form a laminate blank ; the cover material comprising one or more of a vinyl, fabric, and/or leather; wherein the laminate blank is compression molded in a 3-dimensional mold at 10 bar (150 psi) to 17 bar (250 psi) compressive force while at least a portion of the laminate blank is heated to a temperature of 104°C (220°F) to 127°C (260°F) to compression mold the foam interlayer into a 3-dimensional shape.
A liquid chromatograph analyzer , comprising: a liquid feeding part that feeds a mobile phase; a sample introduction part connected to a downstream side of the liquid feeding part and that introduces a sample into the mobile phase; a separation column connected to a downstream side of the sample introduction part and separating the sample into a plurality of components; a detector connected to a downstream side of the separation column and detecting the separated components; and a control part controlling the liquid feeding part , the sample introduction part , and the detector , the liquid feeding part including: a liquid feeding channel (C0) to feed the mobile phase; a drainage channel (C2) to release pressure in the liquid feeding channel (C0); an analysis channel (C1) discharging the mobile phase into the sample introduction part ; and a channel switching valve selectively connecting the liquid feeding channel (C0) to one of the drainage channel (C2) and the analysis channel (C1), wherein the channel switching valve is configured to be able to provide a tight stopper state in which the liquid feeding channel (C0) is connected to neither the analysis channel (C1) nor the drainage channel (C2). a liquid feeding part that feeds a mobile phase; a sample introduction part connected to a downstream side of the liquid feeding part and that introduces a sample into the mobile phase; a separation column connected to a downstream side of the sample introduction part and separating the sample into a plurality of components; a detector connected to a downstream side of the separation column and detecting the separated components; and a control part controlling the liquid feeding part , the sample introduction part , and the detector , the liquid feeding part including: a liquid feeding channel (C0) to feed the mobile phase; a drainage channel (C2) to release pressure in the liquid feeding channel (C0); an analysis channel (C1) discharging the mobile phase into the sample introduction part ; and a channel switching valve selectively connecting the liquid feeding channel (C0) to one of the drainage channel (C2) and the analysis channel (C1), wherein the channel switching valve is configured to be able to provide a tight stopper state in which the liquid feeding channel (C0) is connected to neither the analysis channel (C1) nor the drainage channel (C2). a liquid feeding channel (C0) to feed the mobile phase; a drainage channel (C2) to release pressure in the liquid feeding channel (C0); an analysis channel (C1) discharging the mobile phase into the sample introduction part ; and a channel switching valve selectively connecting the liquid feeding channel (C0) to one of the drainage channel (C2) and the analysis channel (C1), wherein the channel switching valve is configured to be able to provide a tight stopper state in which the liquid feeding channel (C0) is connected to neither the analysis channel (C1) nor the drainage channel (C2).
A method for producing a polymerizable composition, the method comprising: step of preparing composition A having a water content of 200 ppm by mass or less, the composition A including a polyisocyanate component but not including a polymerization catalyst; step of preparing composition B having a water content of 1,000 ppm by mass or less, the composition B including a polythiol component; and step of mixing the composition A and the composition B and obtaining a polymerizable composition; wherein the composition B further includes a polymerization catalyst; and wherein the water contents are determined as specified in the description. step of preparing composition A having a water content of 200 ppm by mass or less, the composition A including a polyisocyanate component but not including a polymerization catalyst; step of preparing composition B having a water content of 1,000 ppm by mass or less, the composition B including a polythiol component; and step of mixing the composition A and the composition B and obtaining a polymerizable composition; wherein the composition B further includes a polymerization catalyst; and wherein the water contents are determined as specified in the description.
An automatic analyzer in which a sample and a reagent are each dispensed in a reaction vessel to be reacted and by which a liquid resulting from the reacted sample and reagent is measured, the automatic analyzer comprising: an analysis system to perform measurement; a reagent storage unit to store a reagent bottle containing the reagent; a carriage device to carry the reagent bottle to the reagent storage unit; a reagent preparation unit to make preparatory operations required before the reagent bottle is used; and a control unit to schedule the preparatory operations by the reagent preparation unit and a carriage operation by the carriage device , characterised in that the control unit is configured to obtain (S207) the time required to temporarily stop or end an analysis operation and to calculate (S208) the time required for reagent preparation and the control unit is further configured to schedule (S209) the start time of the preparatory operation by the reagent preparation unit on the basis of the time required to temporarily stop or end the analysis operation so that the timing of finishing the preparatory operation matches the timing of starting carriage by the carriage device scheduled such that the reagent bottle is carried to the reagent storage unit immediately after an operation accompanied with analysis by the analysis system has been suspended or ended, and to make the preparatory operation wait (S210) until the start time of the scheduled preparatory operation. an analysis system to perform measurement; a reagent storage unit to store a reagent bottle containing the reagent; a carriage device to carry the reagent bottle to the reagent storage unit; a reagent preparation unit to make preparatory operations required before the reagent bottle is used; and a control unit to schedule the preparatory operations by the reagent preparation unit and a carriage operation by the carriage device , characterised in that the control unit is configured to obtain (S207) the time required to temporarily stop or end an analysis operation and to calculate (S208) the time required for reagent preparation and the control unit is further configured to schedule (S209) the start time of the preparatory operation by the reagent preparation unit on the basis of the time required to temporarily stop or end the analysis operation so that the timing of finishing the preparatory operation matches the timing of starting carriage by the carriage device scheduled such that the reagent bottle is carried to the reagent storage unit immediately after an operation accompanied with analysis by the analysis system has been suspended or ended, and to make the preparatory operation wait (S210) until the start time of the scheduled preparatory operation.
A method comprising: outputting, to a display device , content for display; receiving information indicating a first distance of a first user from a display area of the display device; prioritizing, based on the first distance, the order in which the image characteristics for adjusting an image resource allocation, are adjusted; determining an eye focus, of the first user, associated with a first region of the display area, of the display device , comprising a plurality of regions; determining, by a computing device and based at least in part on the eye focus of the first user, the image resource allocation for displaying content within the display area; determining an increase or decrease in transmission resources available for outputting the content for display within the display area; adjusting, based on the increase or decrease in transmission resources, a size of at least the first region; outputting, via the display device, the content for display within the display area in accordance with the determined image resource allocation; and after determining that a change in eye focus of the first user exceeds a threshold distance within the display area, adjusting, based on an updated eye focus of the first user, the image resource allocation for displaying the content. outputting, to a display device , content for display; receiving information indicating a first distance of a first user from a display area of the display device; prioritizing, based on the first distance, the order in which the image characteristics for adjusting an image resource allocation, are adjusted; determining an eye focus, of the first user, associated with a first region of the display area, of the display device , comprising a plurality of regions; determining, by a computing device and based at least in part on the eye focus of the first user, the image resource allocation for displaying content within the display area; determining an increase or decrease in transmission resources available for outputting the content for display within the display area; adjusting, based on the increase or decrease in transmission resources, a size of at least the first region; outputting, via the display device, the content for display within the display area in accordance with the determined image resource allocation; and after determining that a change in eye focus of the first user exceeds a threshold distance within the display area, adjusting, based on an updated eye focus of the first user, the image resource allocation for displaying the content.
A method for the non-destructive testing of a mechanical part by propagation of ultrasonic waves accomplished by means of a multielement transducer placed opposite the mechanical part and comprising a plurality of piezoelectric elements e , e ,..., e(N), N designating an integer greater than 1, said testing method comprising: — a measuring step (E20) comprising, for each element e(i) of the transducer, the emission of an ultrasonic wave at a given frequency and the measurement, by each element e(j) of the transducer distinct from the element e(i), of a time-varying signal denoted kij(t) representing the back-scattered ultrasound wave received by the element e(j); — a step (E30) of determining at least one first matrix of time-varying components based on the measured signals kij(t), i,j=1,...,N, taken over a predetermined duration around a time reference denoted T; — a step (E40, E50) of determining at least one second matrix of frequency components corresponding to a predetermined frequency based on the frequency of the sound wave by applying a Fourier transformation to the time-varying components of said at least one first matrix; — a step (E60) of filtering said at least one second matrix comprising a projection of said at least one second matrix of frequency components onto a single scattering sub-space; and — a step (E70-E100) of verifying the integrity of the mechanical part by using said at least one filtered second matrix; the testing method being characterized in that the single scattering sub-space used during the filtering step is determined by means of a numerical calculation using a ray tracing algorithm. — a measuring step (E20) comprising, for each element e(i) of the transducer, the emission of an ultrasonic wave at a given frequency and the measurement, by each element e(j) of the transducer distinct from the element e(i), of a time-varying signal denoted kij(t) representing the back-scattered ultrasound wave received by the element e(j); — a step (E30) of determining at least one first matrix of time-varying components based on the measured signals kij(t), i,j=1,...,N, taken over a predetermined duration around a time reference denoted T; — a step (E40, E50) of determining at least one second matrix of frequency components corresponding to a predetermined frequency based on the frequency of the sound wave by applying a Fourier transformation to the time-varying components of said at least one first matrix; — a step (E60) of filtering said at least one second matrix comprising a projection of said at least one second matrix of frequency components onto a single scattering sub-space; and — a step (E70-E100) of verifying the integrity of the mechanical part by using said at least one filtered second matrix;