mhurhangee/ep-ind-claims huggingface dataset:
A quality assurance system for radiation therapy equipment, the system comprising: a main body portion; a gantry coupled to one side of the main body portion and capable of rotating in at least one direction with respect to the main body portion; a radiation emitting gantry head formed at one side of the gantry and emitting radiation; a couch arranged at one side of the main body portion and capable of moving in at least one direction with respect to the main body portion; an image capturing unit arranged adjacent to at least one of the gantry, and the radiation emitting gantry head, and configured to capture at least one image generated based on the light exposed from the radiation emitting gantry head; a pattern matching unit configured to perform pattern matching on the captured image, wherein the pattern matching comprises extracting a center point of each captured image and determining a position change of the center point; a quality evaluation unit configured to evaluate quality of the radiation therapy equipment based on tracking movement of the center point, and an indicating part configured to indicate a mechanical isocenter point of the radiation therapy equipment; wherein the image capturing unit is configured to capture images of the indicating part. a main body portion; a gantry coupled to one side of the main body portion and capable of rotating in at least one direction with respect to the main body portion; a radiation emitting gantry head formed at one side of the gantry and emitting radiation; a couch arranged at one side of the main body portion and capable of moving in at least one direction with respect to the main body portion; an image capturing unit arranged adjacent to at least one of the gantry, and the radiation emitting gantry head, and configured to capture at least one image generated based on the light exposed from the radiation emitting gantry head; a pattern matching unit configured to perform pattern matching on the captured image, wherein the pattern matching comprises extracting a center point of each captured image and determining a position change of the center point; a quality evaluation unit configured to evaluate quality of the radiation therapy equipment based on tracking movement of the center point, and an indicating part configured to indicate a mechanical isocenter point of the radiation therapy equipment; wherein the image capturing unit is configured to capture images of the indicating part.
Depressurization and cooling system for steam and/or condensable gases located in the atmosphere within a containment, comprising • a steam condenser having ∘ an upstream port connected to the containment through an exhaust line ∘ a downstream port connected to the containment through a backfeed line ∘ said a backfeed line comprising a backfeed compressor • a re-cooling system for re-cooling the steam condenser, said re-cooling system comprises a closed-loop working fluid thermodynamic cycle system, wherein said steam condenser is a heat source, wherein said re-cooling system comprises along the working fluid circulation closed-loop: • a first heat exchanger thermally coupled to the steam condenser • an expansion engine fluidly connected to said first heat exchanger • a second heat exchanger fluidly connected to said expansion engine • a compressor pump fluidly connected downstream from the second heat exchanger and upstream from the first heat exchanger, characterized in that said expansion engine powers said compressor pump, and a superheater is connected downstream from the first heat exchanger and upstream from the expansion engine, wherein the superheater is thermally coupled to the exhaust line such that it is heated by the exhaust stream. • a steam condenser having ∘ an upstream port connected to the containment through an exhaust line ∘ a downstream port connected to the containment through a backfeed line ∘ said a backfeed line comprising a backfeed compressor ∘ an upstream port connected to the containment through an exhaust line ∘ a downstream port connected to the containment through a backfeed line ∘ said a backfeed line comprising a backfeed compressor • a re-cooling system for re-cooling the steam condenser, said re-cooling system comprises a closed-loop working fluid thermodynamic cycle system, wherein said steam condenser is a heat source, wherein said re-cooling system comprises along the working fluid circulation closed-loop: • a first heat exchanger thermally coupled to the steam condenser • an expansion engine fluidly connected to said first heat exchanger • a second heat exchanger fluidly connected to said expansion engine • a compressor pump fluidly connected downstream from the second heat exchanger and upstream from the first heat exchanger, • a first heat exchanger thermally coupled to the steam condenser • an expansion engine fluidly connected to said first heat exchanger • a second heat exchanger fluidly connected to said expansion engine • a compressor pump fluidly connected downstream from the second heat exchanger and upstream from the first heat exchanger,
An equestrian saddle having flaps, and a block mounted to each flap for engagement by the leg of the rider, the block being mounted to the flap by a mounting system which permits the position of the block on the flap to be adjusted and which retains the block in its selected position on the flap by a clamping action between the block and the flap, wherein the mounting system for each block on its respective flap comprises threaded fasteners extending from a base of the block through respective apertures in the flap, characterised in that the apertures are enlarged in relation to a shank diameter of the threaded fasteners to permit the adjustment of the block by movement of the fasteners within the apertures, and the apertures are shaped to permit the block to be adjusted relative to the flap between a forward position, a rear position and intermediate positions therebetween, and also to allow the angular orientation of the block to be adjusted relative to the flap.
A securing element for positive-locking, materially engaging and/or non-positive-locking arrangement on or in a composite fiber component comprising a sleeve-like portion, at the first end of which an acutely tapering hollow conical or cone-like portion is formed, wherein there are formed in this hollow conical or cone-like portion a plurality of slots which are orientated in the direction of a longitudinal extent of the securing element and which subdivide the hollow conical or cone-like portion into individual segments and wherein there is arranged at the second end of the sleeve-like portion a retention portion which is bent at right-angles away from the sleeve-like portion and which increases an outer diameter of the sleeve-like portion and forms planar abutment faces (10, 11) wherein a material weakening is formed in a transition region between the sleeve-like portion and the hollow conical or cone-like portion and a plurality of the slots extend from the tip of the hollow conical or cone-like position to the transition region.
An uplink transmit power determining method, wherein the method comprises: receiving (S101, S201) a power headroom report, PHR, reported by a terminal; obtaining (S102, S202) a current path loss, PL, of the terminal based on the PHR; determining (S103, S204), based on the PL and an obtained interference margin, a repetition count of Uplink Control Information, UCI, of the terminal; and sending (S104, S205) the repetition count of the UCI to the terminal, wherein the repetition count of the UCI is used to determine an uplink transmit power, wherein the determining (S103, S204), based on the PL and the obtained interference margin, a repetition count of UCI of the terminal comprises: comparing a sum of the PL and the interference margin with a preset threshold; and if the sum of the PL and the interference margin is greater than the threshold, determining the repetition count of the UCI based on a high coverage level; or if the sum of the PL and the interference margin is less than the threshold, determining the repetition count of the UCI based on a low coverage level. receiving (S101, S201) a power headroom report, PHR, reported by a terminal; obtaining (S102, S202) a current path loss, PL, of the terminal based on the PHR; determining (S103, S204), based on the PL and an obtained interference margin, a repetition count of Uplink Control Information, UCI, of the terminal; and sending (S104, S205) the repetition count of the UCI to the terminal, wherein the repetition count of the UCI is used to determine an uplink transmit power, wherein the determining (S103, S204), based on the PL and the obtained interference margin, a repetition count of UCI of the terminal comprises: comparing a sum of the PL and the interference margin with a preset threshold; and if the sum of the PL and the interference margin is greater than the threshold, determining the repetition count of the UCI based on a high coverage level; or if the sum of the PL and the interference margin is less than the threshold, determining the repetition count of the UCI based on a low coverage level. comparing a sum of the PL and the interference margin with a preset threshold; and if the sum of the PL and the interference margin is greater than the threshold, determining the repetition count of the UCI based on a high coverage level; or if the sum of the PL and the interference margin is less than the threshold, determining the repetition count of the UCI based on a low coverage level.
An intra-aortic device comprising a filter and a frame defining a shape of the filter, wherein the frame is intrinsically curved (13, 14) in a superior direction by a proximal superior bend and/or a distal superior bend, wherein, upon installation in an aorta, a flexure of the frame is configured to flatten or bend the frame in an inferior direction when constrained by a wall of the aorta; and wherein a catheter attachment (15, 25) is arranged at a proximal end of the frame for delivery from a femoral artery.
Storage container for a plant pot, the container comprising a base, a lateral wall connected to the base and a water level indicator, the storage container forming a water reservoir together with the base and preferably at least part of the lateral wall, characterised in that the lateral wall comprises at least one film-like surface element designed as a decorative element, which surface element at least also forms a water level indicator having a viewing window for displaying a water level of the water reservoir and at least partially forms the outer wall of the storage container, the lateral wall, except for the decorative element thereof, being made of a transparent plastics material at least in part.
A corrugated fin-type heat exchanger provided with a drain structure, the heat exchanger being constituted by arranging a plurality of flat heat exchange tubes parallel to one another in a horizontal direction between a pair of opposing header pipes, and joining corrugated fins, which are formed by repeatedly accordion-folding, between the plurality of flat heat exchange tubes, the corrugated fin-type heat exchanger being characterized in that the drain structure comprises a plurality of water flow passages having edge portions brought into contact with retained water for inducing water retained between valleys of the corrugated fins adjacent to an upper side and a lower side of each of the plurality of flat heat exchange tubes, the plurality of water flow passages being formed on an outer end surface of the each of the plurality of flat heat exchange tubes in a width direction thereof at a pitch along a longitudinal direction of the each of the plurality of flat heat exchange tubes, wherein the plurality of water flow passages are each formed by lug pieces, which are cut and lugged obliquely via cutouts in a flange portion provided so as to extend along an end portion of the each of the plurality of flat heat exchange tubes in the width direction, and the edge portions of the plurality of water flow passages comprise corner portions, at each of which two surfaces of each of the lug pieces that are inclined in proximity to a horizontal surface portion of the each of the plurality of flat heat exchange tubes cross each other.
A method of purifying Apo2L/TRAIL from a preparation comprising expressed Apo2L/TRAIL, the method comprising the steps of: (a) loading the mixture on a cation exchange column; (b) washing the cation exchange column with an equilibration buffer whereby non-binding components/contaminant soluble proteins and polypeptides present in the mixture are removed; (c) eluting Apo2L/TRAIL bound to the cation exchange column with an elution buffer; (d) crystallizing said Apo2L/TRAIL from a formulation formed from the eluate in step (c) by lowering the temperature of said solution to 2° C to 8° C, wherein Apo2L/TRAIL crystals form when the temperature of step (e) is lowered; and (e) recovering the purified Apo2L/TRAIL produced in step (d); wherein step (c) is conducted by applying the Apo2L/TRAIL to a chromatographic column and eluting the Apo2L/TRAIL into a sodium chloride or sodium sulphate containing buffer solution. (a) loading the mixture on a cation exchange column; (b) washing the cation exchange column with an equilibration buffer whereby non-binding components/contaminant soluble proteins and polypeptides present in the mixture are removed; (c) eluting Apo2L/TRAIL bound to the cation exchange column with an elution buffer; (d) crystallizing said Apo2L/TRAIL from a formulation formed from the eluate in step (c) by lowering the temperature of said solution to 2° C to 8° C, wherein Apo2L/TRAIL crystals form when the temperature of step (e) is lowered; and (e) recovering the purified Apo2L/TRAIL produced in step (d);
A measurement system for automated measurement of several contributions to signal degradation, the measurement system comprising: a device under test, a signal analyzer, and a controller, wherein the controller comprises at least one command sequence for the device under test and/or the signal analyzer, and wherein each of the at least one command sequence comprises respective commands that, when executed by the device under test and/or the signal analyzer with the aid of the controller, compensate for a specific cause of signal degradation, and wherein the controller of the measurement system is configured to eliminate or significantly reduce a certain cause of signal degradation from the device under test by running at least one command sequence for different combinations of compensations to obtain a compensated measurement. a device under test, a signal analyzer, and a controller, wherein each of the at least one command sequence comprises respective commands that, when executed by the device under test and/or the signal analyzer with the aid of the controller, compensate for a specific cause of signal degradation, and wherein the controller of the measurement system is configured to eliminate or significantly reduce a certain cause of signal degradation from the device under test by running at least one command sequence for different combinations of compensations to obtain a compensated measurement.
A reflective optics for transporting, transforming or correcting a light beam in particular of the laser type, characterised in that it comprises a mirror receiving the light beam, a primary cooling circuit consisting of an intermediate chamber of thermally conductive fluid disposed against the mirror at the rear thereof, and a secondary cooling circuit consisting of a heat sink disposed against the intermediate chamber of thermally conductive fluid, said sink having either the form of a metal mass cooled by convection or conduction, or the form of a plate made of a material having a thermal conductivity with a value such as that provided by copper, the sink having a contact surface area equal to or different from that of said reflective optics, the mirror being attached to the sink using astatic supports.
A teneurin c-terminal associated peptide-1 (TCAP-1 peptide) in a therapeutically effective amount, or a pharmaceutically acceptable salt or ester thereof or a pharmaceutical composition comprising the same for use in preventing and/or treating opioid addiction in a subject in need thereof wherein the amino acid sequence of said TCAP-1 peptide consists essentially of: (i) an amino acid sequence having at least 95% identity to an amino acid sequence selected from the group consisting of SEQ ID NOs: 1, 2 or 3; optionally wherein: (a) the carboxy terminal end of said peptide is amidated or comprises an amidation signal sequence; and/or (b) when the amino terminal amino acid of said peptide is a glutamine the glutamine is in the form of pyroglutamic acid. (i) an amino acid sequence having at least 95% identity to an amino acid sequence selected from the group consisting of SEQ ID NOs: 1, 2 or 3; (a) the carboxy terminal end of said peptide is amidated or comprises an amidation signal sequence; and/or (b) when the amino terminal amino acid of said peptide is a glutamine the glutamine is in the form of pyroglutamic acid.
A hand tool with a buffering effect, wherein the hand tool comprises: a body (10, 10D) being an elongated shaft and having a holding end disposed on one of two ends of the body (10, 10D); and a connecting end disposed on the other one of the two ends of the body (10, 10D); a working element (20, 20C, 20D) connected to the connecting end of the body (10, 10D); and the hand tool is characterized by further comprising: multiple shock-absorbing elements (30A, 30B) disposed on the body (10, 10D) between the holding end and the connecting end, abutted each other, and being made of different materials, and the multiple shock-absorbing elements (30A, 30B) having a total length being larger than a half of a length of the body (10, 10D) and being less than or equal to the length of the body (10, 10D); wherein a shock-absorbing and buffering effect is provided by the multiple shock-absorbing elements (30A, 30B) when a user holds the body (10, 10D) and uses the working element (20, 20C, 20D). a body (10, 10D) being an elongated shaft and having a holding end disposed on one of two ends of the body (10, 10D); and a connecting end disposed on the other one of the two ends of the body (10, 10D); a holding end disposed on one of two ends of the body (10, 10D); and a connecting end disposed on the other one of the two ends of the body (10, 10D); a working element (20, 20C, 20D) connected to the connecting end of the body (10, 10D); and the hand tool is characterized by further comprising: multiple shock-absorbing elements (30A, 30B) disposed on the body (10, 10D) between the holding end and the connecting end, abutted each other, and being made of different materials, and the multiple shock-absorbing elements (30A, 30B) having a total length being larger than a half of a length of the body (10, 10D) and being less than or equal to the length of the body (10, 10D); wherein a shock-absorbing and buffering effect is provided by the multiple shock-absorbing elements (30A, 30B) when a user holds the body (10, 10D) and uses the working element (20, 20C, 20D). multiple shock-absorbing elements (30A, 30B) disposed on the body (10, 10D) between the holding end and the connecting end, abutted each other, and being made of different materials, and the multiple shock-absorbing elements (30A, 30B) having a total length being larger than a half of a length of the body (10, 10D) and being less than or equal to the length of the body (10, 10D); wherein a shock-absorbing and buffering effect is provided by the multiple shock-absorbing elements (30A, 30B) when a user holds the body (10, 10D) and uses the working element (20, 20C, 20D).
A process for producing pipelines with heat-storing properties, in which a) organic polyisocyanate is mixed with b) at least one polymeric compound having at least two isocyanate-reactive hydrogen atoms, c) optionally chain extender and/or crosslinker, d) catalyst, e) wax and f) optionally other assistants and/or additives, to give a first reaction mixture, and the first reaction mixture is applied to a pipe (which may already have been coated) and allowed to react fully to give a heat-storing polyurethane layer with dispersed wax particles. a) organic polyisocyanate is mixed with b) at least one polymeric compound having at least two isocyanate-reactive hydrogen atoms, c) optionally chain extender and/or crosslinker, d) catalyst, e) wax and f) optionally other assistants and/or additives,
A method for producing a ceramic honeycomb structure comprising a ceramic honeycomb body having large numbers of longitudinal cells partitioned by porous cell walls having porosity of 50% or more, and a peripheral wall formed on a peripheral surface of said ceramic honeycomb body, comprising the steps of extruding a moldable ceramic material to form a honeycomb-structured ceramic green body; machining a peripheral portion of said green body or a sintered body obtained from said green body to remove part of cell walls in the peripheral portion, thereby obtaining a ceramic honeycomb body having longitudinal grooves on a peripheral surface; and filling said grooves on the peripheral surface with a coating material of a thickness of 0.1 to 3 mm comprising ceramic aggregate having an average particle size of 1 μm or more to form said peripheral wall, characterized in that said peripheral surface is coated with an aqueous dispersion of colloidal metal oxide so that the colloidal metal oxide intrudes into pores in cell walls constituting the grooves on the peripheral surface as well as cell walls inward of same, and dried, before filling said groove with said coating material.
Process for the preparation of a final heterophasic propylene copolymer having a final melt flow rate in the range from 65 to 110 dg/min as measured according to ISO1133 at 230 oC and 2.16 kg, comprising visbreaking an intermediate heterophasic propylene copolymer (A') having an intermediate melt flow rate, which intermediate melt flow rate is lower than the final melt flow rate, to obtain the final heterophasic propylene copolymer, wherein the intermediate heterophasic propylene copolymer (A') consists of (a) a propylene-based matrix, wherein the propylene-based matrix consists of a propylene homopolymer, wherein the melt flow rate of the propylene-based matrix is in the range from 75 to 85dg/min as measured according to ISO1133 at 230 oC and 2.16 kg (b) a dispersed ethylene-α-olefin copolymer, wherein the amount of ethylene incorporated into the ethylene-α-olefin copolymer is in the range from 45 to 55wt% based on the ethylene-α-olefin copolymer, wherein the amount of ethylene-α-olefin copolymer is less than 15wt% and at least 10 wt% based on the intermediate heterophasic propylene copolymer, wherein the melt flow rate of the ethylene-α-olefin copolymer is in the range from 0.50 to 2.0 dg/min as calculated using the following formula: MFR EPR = 10 ∧ Log MFR heterophasic − matrix content ∗ Log MFR PP rubber content wherein MFR heterophasic is the melt flow rate of the intermediate heterophasic propylene copolymer measured according to ISO1133 (2.16kg/230°C), MFR PP is the MFR of the propylene-based matrix of the intermediate heterophasic propylene copolymer measured according to ISO1133 (2.16kg/230°C), matrix content is the amount of the propylene-based matrix in the intermediate heterophasic propylene copolymer and rubber content is the amount of the dispersed ethylene-α-olefin copolymer in the intermediate heterophasic propylene copolymer wherein the sum of the total amount of propylene-based matrix and total amount of the dispersed ethylene-α-olefin copolymer in the intermediate heterophasic propylene copolymer is 100 wt% based on the intermediate heterophasic propylene copolymer. (a) a propylene-based matrix, wherein the propylene-based matrix consists of a propylene homopolymer, wherein the melt flow rate of the propylene-based matrix is in the range from 75 to 85dg/min as measured according to ISO1133 at 230 oC and 2.16 kg (b) a dispersed ethylene-α-olefin copolymer,