mhurhangee/ep-ind-claims huggingface dataset:
A composition, such as a unit dosage form, comprising: 0.0001 to 10 wt% of a compound of formula: or wherein both R groups are -COCH 2 Ar, -COAr, or -COC 1-6 alkyl group; each Ar is an optionally substituted phenyl or naphthyl group, said substituent being a C1-6 alkyl, CHalH 2, CHal 2 H, CHal 3, (where Hal is halide), OH, OC 1-6 -alkyl, COOR 6; each R 6 is H or C1-6 alkyl; q is 2; and n is 4 to 7; or a salt or solvate thereof; and 10 wt% or more, such as 20 wt% or more of at least one Mg orCa salt. 0.0001 to 10 wt% of a compound of formula: or wherein both R groups are -COCH 2 Ar, -COAr, or -COC 1-6 alkyl group; each Ar is an optionally substituted phenyl or naphthyl group, said substituent being a C1-6 alkyl, CHalH 2, CHal 2 H, CHal 3, (where Hal is halide), OH, OC 1-6 -alkyl, COOR 6; each R 6 is H or C1-6 alkyl; q is 2; and n is 4 to 7; or a salt or solvate thereof; and wherein both R groups are -COCH 2 Ar, -COAr, or -COC 1-6 alkyl group; each Ar is an optionally substituted phenyl or naphthyl group, said substituent being a C1-6 alkyl, CHalH 2, CHal 2 H, CHal 3, (where Hal is halide), OH, OC 1-6 -alkyl, COOR 6; each R 6 is H or C1-6 alkyl; q is 2; and n is 4 to 7; or a salt or solvate thereof; and 10 wt% or more, such as 20 wt% or more of at least one Mg orCa salt.
Sanding system (100.. 110) for a rail vehicle, comprising - a housing (3, 5) of a star wheel feeder, - a star wheel which is rotatably mounted in the housing (3, 5) and has a plurality of cells, - an inlet arranged above the star wheel in the housing (3,5) and an outlet arranged below the star wheel, - a motor which is coupled with the star wheel and which is arranged above said inlet, - a container for receiving braking sand, which is connected to the inlet of the star wheel feeder, and - a discharge line for transporting braking sand, which is connected to the outlet of the star wheel feeder, characterised in that the container has a circular cylindrical configuration. - a housing (3, 5) of a star wheel feeder, - a star wheel which is rotatably mounted in the housing (3, 5) and has a plurality of cells, - an inlet arranged above the star wheel in the housing (3,5) and an outlet arranged below the star wheel, - a motor which is coupled with the star wheel and which is arranged above said inlet, - a container for receiving braking sand, which is connected to the inlet of the star wheel feeder, and - a discharge line for transporting braking sand, which is connected to the outlet of the star wheel feeder, characterised in that the container has a circular cylindrical configuration.
A device for checking an attitude of a vehicle, comprising at least one measuring instrument for measuring the value of at least one characteristic attitude parameter of a vehicle, the at least one attitude parameter comprising at least one characteristic angle of the wheels, the said measuring instrument comprising at least one video camera which can capture images of at least a portion of the vehicle to be measured, in which the components to be measured are situated, characterised in that the measuring instrument is installed on board of a self-propelled unit, which can move autonomously on the ground, in such a way as to be capable of following variable trajectories in all directions of the plane XY on which the vehicle rests, wherein said measuring instrument comprises an electronic unit for processing the images viewed by said video camera and wherein automatic driving system means for guiding the self propelled unit for positioning the measuring instrument in at least one working position relative to the vehicle to be measured are provided.
A method of driving a light-emitting diode comprising providing a light emitting diode having an emission wavelength of 500 to 550 nm including a p-type layer, an n-type layer, and a light-emitting layer disposed therebetween and having an indium-containing quantum well structure, each of the p-type layer, the n-type layer, and the light-emitting layer including a nitride-based group III-V compound semiconductor crystal having a wurtzite structure, the light-emitting layer having a main surface inclined at an angle of 0.3° to 1° with respect to a c-plane, the inclination being in an m-axis direction with the a-axis being the axis of rotation, the method comprising the step of modulating the luminance of the light-emitting diode by varying the driving current density within the range of 20 A/cm 2 or less.
A nonaqueous-electrolyte secondary battery comprising a negative electrode and a positive electrode each capable of occluding/releasing lithium, a separator, and a nonaqueous electrolyte solution comprising a nonaqueous solvent and a lithium salt, wherein the separator comprises a porous film made of a polyolefin resin containing an inorganic filler, characterized in that the inorganic filler is contained in the resin in an amount of 40 to 300 parts by weight per 100 parts by weight of the polyolefin resin; the active material contained in the negative electrode is a particulate active material having an aspect ratio of from 1.02 to 3; and the active material contained in the positive electrode is a particulate active material having an aspect ratio of from 1.02 to 1.6.
A sheet comprising cellulose fibers having a fiber width of 1000 nm or less, and a cationic resin, wherein the haze of the sheet is 6% or less, wherein the cellulose fibers have a phosphoric acid group.
An electronic device comprising: a display; and a processor configured to: set a selection region based on an input including a portion of an image displayed on the display, identify a reference condition associated with the image include in the selection region, determine whether a size of the image included in the selection region satisfies the reference condition, in response to determining that the size of the image included in the selection region satisfies the reference condition, extend the selection region by performing an automatic scroll to include other portion of the image which is not included in the selection region, in response to determining that the size of the image included in the selection region does not satisfy the reference condition, reduce the selection region by performing an automatic scroll to exclude the portion of the image which is included in the selection region, display the content included in the extended selection region or the reduced selection region. a display; and a processor configured to: set a selection region based on an input including a portion of an image displayed on the display, identify a reference condition associated with the image include in the selection region, determine whether a size of the image included in the selection region satisfies the reference condition, in response to determining that the size of the image included in the selection region satisfies the reference condition, extend the selection region by performing an automatic scroll to include other portion of the image which is not included in the selection region, in response to determining that the size of the image included in the selection region does not satisfy the reference condition, reduce the selection region by performing an automatic scroll to exclude the portion of the image which is included in the selection region, display the content included in the extended selection region or the reduced selection region. set a selection region based on an input including a portion of an image displayed on the display, identify a reference condition associated with the image include in the selection region, determine whether a size of the image included in the selection region satisfies the reference condition, in response to determining that the size of the image included in the selection region satisfies the reference condition, extend the selection region by performing an automatic scroll to include other portion of the image which is not included in the selection region, in response to determining that the size of the image included in the selection region does not satisfy the reference condition, reduce the selection region by performing an automatic scroll to exclude the portion of the image which is included in the selection region, display the content included in the extended selection region or the reduced selection region.
A rotation-rate detector (100, 140) in combination with a launcher, whereby the rotation-rate detector (100,400) detects a rotation rate of a spinning top and is fixed to or detachably attached to the launcher, the launcher applying, in use, a rotational force to the spinning top attached to the launcher to launch the spinning top, the rotation-rate detector (100, 140) comprising: a detachment detector that detects detachment and attachment of the spinning top, wherein the rotation rate of the spinning top is detected after the detachment detector detects attachment of the spinning top. a detachment detector that detects detachment and attachment of the spinning top, wherein the rotation rate of the spinning top is detected after the detachment detector detects attachment of the spinning top.
An electric shaver comprising: a body having a grip; a head having a blade block that is a set of an outer blade and an inner blade; and a head supporting part connecting the body with the head, the head supporting part including a swing supporting part supporting the head swingably about first and second swing axes (XA, XB), the swing supporting part including a first supporting part forming the first swing axes and a second supporting part forming the second swing axis, wherein the first supporting part is configured to be attached to the second supporting part so that the first supporting part is swingable about the second swing axis with respect to the second supporting part; characterized in that the electric shaver further comprises a head float part supporting the head so that the head is vertically movable with respect to the body, the head float part including a case joined with the body and at least one elastic material exerting a force on the head to lift up the head off the body, and the second supporting part being supported by the case so as to be slidable up and down with respect to the case. a body having a grip; a head having a blade block that is a set of an outer blade and an inner blade; and a head supporting part connecting the body with the head, the head supporting part including a swing supporting part supporting the head swingably about first and second swing axes (XA, XB), the swing supporting part including a first supporting part forming the first swing axes and a second supporting part forming the second swing axis, wherein the first supporting part is configured to be attached to the second supporting part so that the first supporting part is swingable about the second swing axis with respect to the second supporting part; characterized in that the electric shaver further comprises a head float part supporting the head so that the head is vertically movable with respect to the body, the head float part including a case joined with the body and at least one elastic material exerting a force on the head to lift up the head off the body, and the second supporting part being supported by the case so as to be slidable up and down with respect to the case.
A method comprising: rendering an animated navigation presentation for a route on a mobile device as the mobile device travels along the route and outputting the rendered presentation from the mobile device to a display screen of a vehicle that travels along the route and is not part of the mobile device, the navigation presentation comprising an animated map showing at least a portion of a route to a destination; characterised by: simultaneously displaying information regarding an upcoming maneuver along the route on a display screen of the mobile device without displaying an animated map on the mobile device. rendering an animated navigation presentation for a route on a mobile device as the mobile device travels along the route and outputting the rendered presentation from the mobile device to a display screen of a vehicle that travels along the route and is not part of the mobile device, the navigation presentation comprising an animated map showing at least a portion of a route to a destination; characterised by: simultaneously displaying information regarding an upcoming maneuver along the route on a display screen of the mobile device without displaying an animated map on the mobile device.
A use of a phosphor in converting VUV to UV-C radiation for a UV emitting device, the phosphor having the formula Na 1+x Ca 1-2x PO 4:Pr 3+ x wherein 0 < x < 0.5.
A pumping device, comprising a work chamber and a piston provided to slide in said work chamber so as to vary the working volume of the chamber during pumping, characterized in that it comprises anti-rotation means of the piston.
Hand-held power-tool energy supply device, in particular a hand-held power tool battery device, for supplying energy to a hand-held power tool, having at least one hand-held power-tool interface (14a; 14b) for removable disposition on the hand-held power tool, furthermore having at least one locating unit (16a; 16b) for locating objects in a workpiece, characterized in that the hand-held power-tool energy supply device comprises a temperature sensor, in particular comprises a temperature sensor integrated in a housing unit of the hand-held power-tool energy supply device, which temperature sensor is provided for transmitting at least one temperature characteristic to the locating unit.
A component usable in an air conditioner, the component comprising: a substrate and a nano-coating formed on a surface of the substrate, the nano-coating comprising: a lower coating formed on the surface of the substrate; and an upper coating formed on an upper surface of the lower coating, wherein a coating composition of the upper coating comprises nanoparticles having a diameter of 10 nm to 30 nm, and wherein an interval between adjacent nanoparticles of the plurality of nanoparticles located in a surface of the upper coating is 10 nm to 30 nm, wherein a thickness of the upper coating is different from a thickness of the lower coating, and wherein the thickness of the upper coating is in a range of 100 nm to 800 nm, and wherein the thickness of the lower coating is in a range of 20 nm to 300 nm. a substrate and a nano-coating formed on a surface of the substrate, the nano-coating comprising: a lower coating formed on the surface of the substrate; and an upper coating formed on an upper surface of the lower coating, a lower coating formed on the surface of the substrate; and an upper coating formed on an upper surface of the lower coating, wherein a coating composition of the upper coating comprises nanoparticles having a diameter of 10 nm to 30 nm, and wherein an interval between adjacent nanoparticles of the plurality of nanoparticles located in a surface of the upper coating is 10 nm to 30 nm, wherein a thickness of the upper coating is different from a thickness of the lower coating, and wherein the thickness of the upper coating is in a range of 100 nm to 800 nm, and wherein the thickness of the lower coating is in a range of 20 nm to 300 nm.
An upper torso article of apparel having an outer-facing surface, the upper torso article of apparel comprising: a plurality of compression zones, wherein: each of the plurality of compression zones has a modulus of elasticity value within a predefined range, wherein one or more of the plurality of compression zones has an integrated structure pattern located at preconfigured locations within the respective compression zone that increases the modulus of elasticity at the preconfigured locations and modifies the modulus of elasticity value of the respective compression zone, characterized by comprising a plurality of offset areas offset from the outer-facing surface plane of the upper torso article of apparel, wherein the offset areas delineate and define a plurality of structures, the plurality of offset areas being formed using a shorter length knit stitch compared to the plurality of structures, wherein the plurality of offset areas within the integrated structure pattern increase the modulus of elasticity value at the preconfigured locations. each of the plurality of compression zones has a modulus of elasticity value within a predefined range, wherein one or more of the plurality of compression zones has an integrated structure pattern located at preconfigured locations within the respective compression zone that increases the modulus of elasticity at the preconfigured locations and modifies the modulus of elasticity value of the respective compression zone, characterized by comprising a plurality of offset areas offset from the outer-facing surface plane of the upper torso article of apparel, wherein the offset areas delineate and define a plurality of structures, the plurality of offset areas being formed using a shorter length knit stitch compared to the plurality of structures, wherein the plurality of offset areas within the integrated structure pattern increase the modulus of elasticity value at the preconfigured locations.
A microfluidic oxygenation device comprising: a first polymer layer defining a first oxygen flow channel therein; a second polymer layer defining a first blood flow channel therein, the first blood flow channel overlapping the first oxygen flow channel, and the first blood flow channel further comprising a plurality of passive mixing elements spaced along a length of a first wall of the first blood flow channel, the plurality of passive mixing elements each have a height or a depth between 20% to 30% of a height of the first blood flow channel and are configured to redistribute a fluid flowing through the first blood flow channel within the channel; and a membrane separating the first oxygen flow channel and the first blood flow channel at the overlapping portions of the channels, the membrane allowing communication between the first oxygen flow channel and the first blood flow channel. a first polymer layer defining a first oxygen flow channel therein; a second polymer layer defining a first blood flow channel therein, the first blood flow channel overlapping the first oxygen flow channel, and the first blood flow channel further comprising a plurality of passive mixing elements spaced along a length of a first wall of the first blood flow channel, the plurality of passive mixing elements each have a height or a depth between 20% to 30% of a height of the first blood flow channel and are configured to redistribute a fluid flowing through the first blood flow channel within the channel; and a membrane separating the first oxygen flow channel and the first blood flow channel at the overlapping portions of the channels, the membrane allowing communication between the first oxygen flow channel and the first blood flow channel.
Screw having a screw central axis, comprising a drive and a threaded shank, having a thread which extends in some regions at least in a helix of constant pitch along the shank and forms a main thread which has an average thread radius (R M) that corresponds to the average thread radius over the entire length of the main thread, the thread radius being the maximum orthogonal distance from the screw axis to the profile contour of the thread, the main thread having a bearing area and a forming area, wherein, in the forming area, there is a forming profile contour having a forming area radius (R F) which corresponds to the maximum orthogonal distance of the forming profile contour to the screw central axis, and in the bearing area, there is a bearing profile contour having a bearing area radius (R T), wherein the forming profile contour is defined by the projection of the thread turn along the helix over an axially extending area having a length of three times the mean thread radius (R M) starting from the free end of the shank onto a section plane of the helix, wherein the forming area ends at a forming area end, i.e. at the point of the helix where the forming profile contour closest to the drive in the area starting from 85% of the mean thread radius lies outwards in the radial direction, and the profile contour following the end of the forming area lies again within the forming profile contour, the bearing profile contour being defined by the projection of the thread turn along the helix onto a section plane of the helix in an area which begins at an axial distance of 2/3 times the mean thread radius (R M) from the forming area end and ends at an axial distance of 5/3 times the mean thread radius (R M), and that, when the bearing profile contour and the forming profile contour overlap, at least in the area which extends radially outwards from 85% of the forming area radius, lies completely within the forming profile contour, characterized in that a forming profile surface which is delimited by the forming profile contour, measured within 10% of the forming area radius (R F) starting from the maximum orthogonal distance of the forming profile contour to the screw central axis radially inwards, is larger than a bearing profile surface which is delimited by the bearing profile contour, measured within 10% of the forming area radius (R F), starting from the maximum orthogonal distance of the bearing profile contour from the screw central axis radially inwards.
A computer-implemented method for obtaining a second image from a first image, a dynamic range of a luminance of said first image being greater than a dynamic range of a luminance of said second image, characterized in that the method comprises: - obtaining a first component of the second image by applying tone mapping to a first component of the first image; - deriving at least one second component representative of colors of said second image by multiplying a corresponding second component of the first image by a scaling factor that depends on the obtained first component of the second image; and - correcting (step 12) the at least one derived second component representative of colors of said second image (c2 and/or c3) using a maximum value depending on a linear-light luminance component of the first image obtained from the components of the first image, wherein the correcting of one second component representative of colors of said second image replaces the second component representative of colors of said second image by a minimum between the value of the second component representative of colors of said second image and the maximum value for each pixel of the second image. - obtaining a first component of the second image by applying tone mapping to a first component of the first image; - deriving at least one second component representative of colors of said second image by multiplying a corresponding second component of the first image by a scaling factor that depends on the obtained first component of the second image; and - correcting (step 12) the at least one derived second component representative of colors of said second image (c2 and/or c3) using a maximum value depending on a linear-light luminance component of the first image obtained from the components of the first image, wherein the correcting of one second component representative of colors of said second image replaces the second component representative of colors of said second image by a minimum between the value of the second component representative of colors of said second image and the maximum value for each pixel of the second image.