mhurhangee/ep-ind-claims huggingface dataset:
A system for correcting a number of counts in an energy bin of X-ray photons detected by a photon counting detector for a spectral computed tomography system, the system comprising: a photon detection unit comprising the photon counting detector and configured for detecting photons and providing a pulse-height of each of the detected photons; a storage device configured for storing a number of counts in an energy bin according to the pulse-height of each of the detected photons; a determination unit configured for determining a correction value of a gain and/or a correction value of an offset of the photon counting detector based on an illumination history of the photon counting detector; and a correction unit configured for correcting the number of counts in the energy bin of the detected photons according to the correction value of the gain and/or the correction value of the offset of the photon counting detector, to correct deviations of the number of counts in the energy bin, which are due to space charge effects, polarization effects of and/or charge trapping in the photon counting detector; characterized in that the correction unit is configured for correcting the number of counts in the energy bin of the detected photons in a forward model of the spectral computed tomography system by adapting a response function of the photon detection unit according to the correction value of the gain and/or the correction value of the offset of the photon counting detector. a photon detection unit comprising the photon counting detector and configured for detecting photons and providing a pulse-height of each of the detected photons; a storage device configured for storing a number of counts in an energy bin according to the pulse-height of each of the detected photons; a determination unit configured for determining a correction value of a gain and/or a correction value of an offset of the photon counting detector based on an illumination history of the photon counting detector; and a correction unit configured for correcting the number of counts in the energy bin of the detected photons according to the correction value of the gain and/or the correction value of the offset of the photon counting detector, to correct deviations of the number of counts in the energy bin, which are due to space charge effects, polarization effects of and/or charge trapping in the photon counting detector; characterized in that the correction unit is configured for correcting the number of counts in the energy bin of the detected photons in a forward model of the spectral computed tomography system by adapting a response function of the photon detection unit according to the correction value of the gain and/or the correction value of the offset of the photon counting detector.
End cap for at least partially covering a pipe, in particular a glass fibre conduit pipe, having a cylindrical basic shape which along its longitudinal axis has an internal cylindrical receptacle portion having an end-proximal end face and a casing, wherein the receptacle portion has at least one lateral slot which only extends partially over the height of the casing, characterized in that the receptacle portion has a self-tapping internal thread; the end cap furthermore has an operating head for screwing the end cap directly onto a conduit pipe; the operating head has a concentric opening, in particular for feeding through a glass fibre cable; and the concentric opening is embodied as an anti-kink funnel, the internal contour of the latter preferably being convex at least in portions and/or having a predefined bending radius. the receptacle portion has a self-tapping internal thread; the end cap furthermore has an operating head for screwing the end cap directly onto a conduit pipe; the operating head has a concentric opening, in particular for feeding through a glass fibre cable; and the concentric opening is embodied as an anti-kink funnel, the internal contour of the latter preferably being convex at least in portions and/or having a predefined bending radius.
A proportional actuator valve adapted for position control and position adjustment, said proportional actuator valve comprising: a valve housing having at least two chambers (324, 325); a valve slider, said valve slider being movable within said valve housing; one or more grooves with non-uniform cross-sectional areas formed in said proportional actuator valve, wherein said one or more grooves pneumatically communicate with said at least two chambers (324, 325) of said valve housing; and one or more bores (327, 328) formed in said proportional actuator valve, wherein said one or more bores (327, 328) pneumatically communicate with said one or more grooves; and wherein movement of said valve slider relative to said valve housing provides a pneumatic valve action. a valve housing having at least two chambers (324, 325); a valve slider, said valve slider being movable within said valve housing; one or more grooves with non-uniform cross-sectional areas formed in said proportional actuator valve, wherein said one or more grooves pneumatically communicate with said at least two chambers (324, 325) of said valve housing; and one or more bores (327, 328) formed in said proportional actuator valve, wherein said one or more bores (327, 328) pneumatically communicate with said one or more grooves; and wherein movement of said valve slider relative to said valve housing provides a pneumatic valve action.
Protection tile for scroll flight wear protection comprised of a support and a wear-resistant insert to be secured to the scroll flight of a screw press, centrifuge, decanter or the like, characterized in that the support and wear-resistant insert are connected to each other by a mechanical locking system, whereby the support fixation on the flight ensures the securing of the insert by purely mechanical clamping, without other means of fixation than this mechanical clamping, whereby the support has at least one opening where the insert fits in.
A method of manufacturing quantum dots, the method comprising: preparing a mixture including an InX-based quantum dot seed; continuously injecting a Zn(In)X-based cluster to the mixture to form an InX-based core; adding a selenium compound and a zinc precursor to the mixture to form a first shell to be coated on the InX-based core; and adding a sulfur compound and the zinc precursor to the mixture to form a second shell to be coated on the first shell, wherein the InX-based core comprises In, Zn and P in the core and a Zn layer at a surface of the core, wherein the first shell is formed of ZnSe, the second shell is formed of ZnS, and X comprises phosphorus, arsenic (As) or antimony (Sb). preparing a mixture including an InX-based quantum dot seed; continuously injecting a Zn(In)X-based cluster to the mixture to form an InX-based core; adding a selenium compound and a zinc precursor to the mixture to form a first shell to be coated on the InX-based core; and adding a sulfur compound and the zinc precursor to the mixture to form a second shell to be coated on the first shell, wherein the InX-based core comprises In, Zn and P in the core and a Zn layer at a surface of the core, wherein the first shell is formed of ZnSe, the second shell is formed of ZnS, and X comprises phosphorus, arsenic (As) or antimony (Sb).
An osteoinductive composition for implantation at a bone defect site, the osteoinductive composition comprising osteoinductive demineralized bone matrix in a carrier of hydrated polysaccharide, the type and quantity of polysaccharide present in the carrier being sufficient, upon hydration, of importing flowability to the composition and providing an osteoinductive activity of at least 1 as measured by an athymic rat model assay, wherein the polysaccharide is starch, and wherein the osteoinductive composition does not consist of 50% (wt. %) hydroxyapatite particles of 0.5-1.5 mm, 10% (wt. %) demineralized bone matrix, and 40% (wt. %) modified corn starch hydrated with water or aqueous glycerol to a plastic consistency; or 50% (wt. %) sintered alumina particles of 0.5-1.5 mm, 10% (wt. %) demineralized bone matrix, trace amount of BMP-2, and 40% (wt. %) modified corn starch hydrated with water or aqueous glycerol to a plastic consistency.
An antitumor drug containing a self-magnetic metal-salen complex compound represented by the following formula, wherein each of X and Y is a six-membered ring structure including a coordinate bond between N and M, wherein M is a bivalent metallic element composed of Fe, wherein each of a and h is a hydrogen, and wherein one of the following is fulfilled: - each of b-g is a hydrogen and the compound is represented by or - each of b-g is a methyl group and the compound is represented by or - each of c and f is a hydrogen and b, d, e and g is a methyl group and the compound is represented by wherein each of X and Y is a six-membered ring structure including a coordinate bond between N and M, wherein M is a bivalent metallic element composed of Fe, wherein each of a and h is a hydrogen, and wherein one of the following is fulfilled: - each of b-g is a hydrogen and the compound is represented by or - each of b-g is a methyl group and the compound is represented by or - each of c and f is a hydrogen and b, d, e and g is a methyl group and the compound is represented by - each of b-g is a hydrogen and the compound is represented by or - each of b-g is a methyl group and the compound is represented by or - each of c and f is a hydrogen and b, d, e and g is a methyl group and the compound is represented by
A mold clamping device for split molds, comprising: polygonal first and second platens (10, 20); a pressure receiving platen; and a toggle mechanism, wherein at least one of the first platen and the second platen is able to move back and forth so as to approach or depart from the other, the pressure receiving platen is located on a side remote from the first platen, of the second platen, the toggle mechanism is disposed between the second platen and the pressure receiving platen and on a diagonal line of the second platen and configured to cause the first and second platens (10, 20) to approach or depart from each other, and the toggle mechanism comprises only first and second toggles (50a, 50b, the first toggle includes a first front mounting part which is mounted to a first corner of the second platen on the diagonal line; and the second toggle includes a second front mounting part which is mounted to a second corner of the second platen on the diagonal line, the second toggle being opposed to the first toggle. polygonal first and second platens (10, 20); a pressure receiving platen; and a toggle mechanism, wherein at least one of the first platen and the second platen is able to move back and forth so as to approach or depart from the other, the pressure receiving platen is located on a side remote from the first platen, of the second platen, the toggle mechanism is disposed between the second platen and the pressure receiving platen and on a diagonal line of the second platen and configured to cause the first and second platens (10, 20) to approach or depart from each other, and the toggle mechanism comprises only first and second toggles (50a, 50b, the first toggle includes a first front mounting part which is mounted to a first corner of the second platen on the diagonal line; and the second toggle includes a second front mounting part which is mounted to a second corner of the second platen on the diagonal line, the second toggle being opposed to the first toggle. the first toggle includes a first front mounting part which is mounted to a first corner of the second platen on the diagonal line; and the second toggle includes a second front mounting part which is mounted to a second corner of the second platen on the diagonal line, the second toggle being opposed to the first toggle.
A sorting system including a conveyor comprising a plurality of carts for carrying articles, a track along which the carts may be driven, a propulsion system for providing a driving force to the carts for moving the carts along the track, said propulsion system comprising at least one stationary stator having a plurality of coils arranged to generate magnetic fields when electrical power is applied, and one or more reaction elements (4, 17, 19) mounted on each of the carts, said reaction elements (4, 17, 19) each comprising a plate-like carrier and a plurality of permanent magnets (5, 7, 8) connected to the at least one plate-like carrier, and said reaction elements (4, 17, 19) being arranged on the carts in order to interact with the magnetic fields generated by the coils of the stator, as well as a controller for controlling a supply of electrical power to the stator in order to provide a driving force via the reaction elements (4, 17, 19) to the carts when power is applied, where the reaction elements (4, 17, 19) each comprises a plurality of permanent magnets (5, 7, 8) arranged with alternating polarity, characterized in that the magnets (5, 7, 8) on reaction elements (4, 17, 19) of two adjacent carts are arranged to form a longitudinal row of magnets (5, 7, 8) as seen in a transport direction of the carts, said row having two neighbouring magnets (7, 8), at least one of said two magnets (7, 8) having, in the transport direction, a reduced dimension compared to other magnets of the reaction element (4, 17, 19), said two neighbouring magnets (7, 8) being located at each side of a transition between said two adjacent carts.
A drum washing machine, comprising: a cabinet; a tub disposed within the cabinet to accommodate water; a drain pump disposed at a lower portion of the tub to pump wash water from an inside of the tub; a first drain hose (100, 200, 300) configured to connect the tub to the drain pump, such that the wash water from the inside of the tub is introduced to the drain pump; a second drain hose configured to connect the drain pump to an outside of the cabinet; and a wash water sensor (500, 600, 700) configured to sense the amount of the detergent contained in the wash water drained from the tub, and mounted at the first drain hose (100, 200, 300), characterized in that the first drain hose (100, 200, 300) comprises a split line (120, 220, 320), branching from the first drain hose (100, 200, 300), and said first drain hose (100, 200, 300) further comprises a settling hole (130, 230, 330) formed at one end portion of the split line (120, 220, 320), and configured such that the wash water sensor (500, 600, 700) is settled in the settling hole (130, 230, 330) such that the wash water sensor makes contact with the wash water at all times. a cabinet; a tub disposed within the cabinet to accommodate water; a drain pump disposed at a lower portion of the tub to pump wash water from an inside of the tub; a first drain hose (100, 200, 300) configured to connect the tub to the drain pump, such that the wash water from the inside of the tub is introduced to the drain pump; a second drain hose configured to connect the drain pump to an outside of the cabinet; and a wash water sensor (500, 600, 700) configured to sense the amount of the detergent contained in the wash water drained from the tub, and mounted at the first drain hose (100, 200, 300), characterized in that the first drain hose (100, 200, 300) comprises a split line (120, 220, 320), branching from the first drain hose (100, 200, 300), and said first drain hose (100, 200, 300) further comprises a settling hole (130, 230, 330) formed at one end portion of the split line (120, 220, 320), and configured such that the wash water sensor (500, 600, 700) is settled in the settling hole (130, 230, 330) such that the wash water sensor makes contact with the wash water at all times.
A method of producing a liquid dairy concentrate, the method comprising: providing a liquid dairy ingredient having a fat content of at least 35wt%; concentrating the liquid dairy ingredient by ultrafiltration and/or diafiltration to obtain a concentrated liquid dairy ingredient as the retentate; adding sucrose and/or trisodium citrate to form a modified retentate; storing the modified retentate for at least 2 min at a temperature of at most 8 °C, then blending the modified retentate with one or more further ingredients; and homogenising the blend to form a liquid dairy concentrate, wherein, during the step of blending the modified retentate with said one or more further ingredients, the modified retentate is at a temperature of at least 60°C. providing a liquid dairy ingredient having a fat content of at least 35wt%; concentrating the liquid dairy ingredient by ultrafiltration and/or diafiltration to obtain a concentrated liquid dairy ingredient as the retentate; adding sucrose and/or trisodium citrate to form a modified retentate; storing the modified retentate for at least 2 min at a temperature of at most 8 °C, then blending the modified retentate with one or more further ingredients; and homogenising the blend to form a liquid dairy concentrate, wherein, during the step of blending the modified retentate with said one or more further ingredients, the modified retentate is at a temperature of at least 60°C.
A method for performing, by a first terminal, sidelink communication in a wireless communication system, the method comprising: receiving a reference signal from a second terminal; calculating a measurement value by using the received reference signal; determining whether the calculated measurement value is equal to or smaller than a predetermined threshold, characterized in that the predetermined threshold is set by a ratio between a length of a first transmission time interval supported by the first terminal and a length of a second transmission time interval supported by the first terminal; and transmitting, to the second terminal, a signal generated according to the second transmission time interval by using a resource through which the reference signal is received when the calculated measurement value is equal to or smaller than the predetermined threshold, wherein the length of the second transmission time interval is shorter than the length of the first transmission time interval. receiving a reference signal from a second terminal; calculating a measurement value by using the received reference signal; determining whether the calculated measurement value is equal to or smaller than a predetermined threshold, characterized in that the predetermined threshold is set by a ratio between a length of a first transmission time interval supported by the first terminal and a length of a second transmission time interval supported by the first terminal; and transmitting, to the second terminal, a signal generated according to the second transmission time interval by using a resource through which the reference signal is received when the calculated measurement value is equal to or smaller than the predetermined threshold, wherein the length of the second transmission time interval is shorter than the length of the first transmission time interval.
Foldable roof container for a motor vehicle, comprising a. a bottom element (3; 3a; 3b), b. a cover unit fastened to the bottom element (3; 3a; 3b), c. an integrated fastening unit for the direct, releasable fastening of the roof container (1; 1a; 1b) on the motor vehicle, wherein the fastening unit comprises at least one shaped element (28; 36; 41), which is arranged on the bottom element (3; 3a; 3b), characterized in that the at least one shaped element (28; 36; 41) - is integrated in a side boundary wall (21; 21b) of the bottom element (3; 3a; 3b), as the shaped element (36; 41) -- is designed as a clamping lip situated at an inclination by an angle of inclination (n) with respect to the bottom wall (13; 13b) and/or -- has a profile geometry enclosing a roof railing at least partly or entirely and/or - is configured integrated on the bottom wall (13; 13b) of the bottom element (3; 3a; 3b) for at least partial enclosing of an antenna molding situated on the roof. a. a bottom element (3; 3a; 3b), b. a cover unit fastened to the bottom element (3; 3a; 3b), c. an integrated fastening unit for the direct, releasable fastening of the roof container (1; 1a; 1b) on the motor vehicle, wherein the fastening unit comprises at least one shaped element (28; 36; 41), which is arranged on the bottom element (3; 3a; 3b), characterized in that the at least one shaped element (28; 36; 41) - is integrated in a side boundary wall (21; 21b) of the bottom element (3; 3a; 3b), as the shaped element (36; 41) -- is designed as a clamping lip situated at an inclination by an angle of inclination (n) with respect to the bottom wall (13; 13b) and/or -- has a profile geometry enclosing a roof railing at least partly or entirely and/or - is configured integrated on the bottom wall (13; 13b) of the bottom element (3; 3a; 3b) for at least partial enclosing of an antenna molding situated on the roof. - is integrated in a side boundary wall (21; 21b) of the bottom element (3; 3a; 3b), as the shaped element (36; 41) -- is designed as a clamping lip situated at an inclination by an angle of inclination (n) with respect to the bottom wall (13; 13b) and/or -- has a profile geometry enclosing a roof railing at least partly or entirely and/or -- is designed as a clamping lip situated at an inclination by an angle of inclination (n) with respect to the bottom wall (13; 13b) and/or -- has a profile geometry enclosing a roof railing at least partly or entirely and/or - is configured integrated on the bottom wall (13; 13b) of the bottom element (3; 3a; 3b) for at least partial enclosing of an antenna molding situated on the roof.