mhurhangee/ep-ind-claims huggingface dataset:
A wing-shaped angle steel plate, comprising a wing fitting portion and a body fixation portion, the wing fitting portion and the body fixation portion are fixedly connected to each other, the wing fitting portion is used for supporting a fracture end and has a structure matched with an inner side surface of a bone shaft, the body fixation portion is used for fixing the wing fitting portion and has a structure matched with a front side of the bone shaft, and the body fixation portion is provided with at least two first locking holes (2203, 2204) for passing through first locking screws (2303, 2304) at an intersection site with the wing fitting portion, and the first locking holes (2203, 2204) have angles such that the first locking screws (2303, 2304) passing therethrough can realize a close contact of the body fixation portion and the wing fitting portion with the bone shaft and realize a support to the inner side of the bone shaft, the body fixation portion is provided with at least two second locking holes (2201, 2202) for passing through a second locking screw (2301, 2302) on the structure matched with the front side of the bone shaft, and the second locking holes have angles such that the second locking screws passing therethrough can realize a close contact between the body fixation portion and the bone shaft and control rotation and axial stability of the body fixation portion.
A computer-implemented method for patient-specific, quantitative phantomless calibration of a computed tomography scan of a patient, the patient having an internal reference tissue, comprising the steps of: (a) measuring from the CT scan a first grayscale value derived from the internal reference tissue and obtaining a second grayscale value associated with a quantity of external air; (b) specifying a first equivalent-density value associated with the internal reference tissue and a second equivalent-density value associated with the external air; and (c) calibrating a region of interest in the CT scan by mapping the grayscale vales to equivalent density values (eDensity) using the following linear equation: eDensity = c HU + d in which c is the slope of this equation and d is the intercept, which are calculated as: c = eDensity air − eDensity irt HU air − HU irt d = eDensity air − HU air eDensity air − eDensity irt HU air − HU irt wherein values for the external air are indicated by the index " air " and values of the internal reference tissue are indicated by the index "irt". (a) measuring from the CT scan a first grayscale value derived from the internal reference tissue and obtaining a second grayscale value associated with a quantity of external air; (b) specifying a first equivalent-density value associated with the internal reference tissue and a second equivalent-density value associated with the external air; and (c) calibrating a region of interest in the CT scan by mapping the grayscale vales to equivalent density values (eDensity) using the following linear equation: eDensity = c HU + d in which c is the slope of this equation and d is the intercept, which are calculated as: c = eDensity air − eDensity irt HU air − HU irt d = eDensity air − HU air eDensity air − eDensity irt HU air − HU irt wherein values for the external air are indicated by the index " air " and values of the internal reference tissue are indicated by the index "irt".
A method of transmitting data in a line signal to enable subsequent recovery of corrupted data, the corrupted data having being corrupted by repetitive noise events having one or more predictable timing characteristics, the line signal comprising a series of data frames, the method comprising for each predicted noise event: determining a group comprising one or more frames in said line signal, said group being co-incident with the predicted timing and duration of a said predicted noise event; and determining one or more frames within the co-incident group which will have their data corrupted due to coincidence with said predicted noise event; and transmitting sufficient redundant data in the line signal instead of said frames whose data would be corrupted due to coincidence with said predicted noise event to enable recovery of data lost from one or more adjacent frames in said line signal, if at least one timing characteristic differs from its respective predicted value for at least one noise event. determining a group comprising one or more frames in said line signal, said group being co-incident with the predicted timing and duration of a said predicted noise event; and determining one or more frames within the co-incident group which will have their data corrupted due to coincidence with said predicted noise event; and transmitting sufficient redundant data in the line signal instead of said frames whose data would be corrupted due to coincidence with said predicted noise event to enable recovery of data lost from one or more adjacent frames in said line signal, if at least one timing characteristic differs from its respective predicted value for at least one noise event.
A method of lining a branch area in a pipeline using an inflatable bladder, wherein the method comprises: a step of inserting a branch liner on the inflatable bladder, a step of treating the branch liner with a heat-curable resin, a step of deflating the inflatable bladder, a step of positioning the inflatable bladder and the branch liner into the branch area of a pipeline, a step of inflating the inflatable bladder, a step of running a flow of compressed air and steam through the inflatable bladder while maintaining temperature of at least 50 °C of the inflatable bladder or the branch liner until the heat-curable resin has cured, a step of monitoring the temperature of the inflatable bladder or the branch liner at least until the temperature falls below 40 °C, a step of deflating the inflatable bladder, and a step of removing the inflatable bladder from the pipeline. a step of inserting a branch liner on the inflatable bladder, a step of treating the branch liner with a heat-curable resin, a step of deflating the inflatable bladder, a step of positioning the inflatable bladder and the branch liner into the branch area of a pipeline, a step of inflating the inflatable bladder, a step of running a flow of compressed air and steam through the inflatable bladder while maintaining temperature of at least 50 °C of the inflatable bladder or the branch liner until the heat-curable resin has cured, a step of monitoring the temperature of the inflatable bladder or the branch liner at least until the temperature falls below 40 °C, a step of deflating the inflatable bladder, and a step of removing the inflatable bladder from the pipeline.
Device for producing fluid foam comprising: a container where the fluid can be introduced; a foaming tool being rotatable in the inner volume of the container, able to mix and foam the fluid; at least one outlet to allow dispensing of the fluid preparation from the container; a base able to hold the container and comprising a driving unit providing the rotation of the foaming tool; characterized in that the at least one outlet is actuated to be open or to be partially or totally closed as a function of one or a plurality of parameters defining the foaming of the fluid inside the container. a container where the fluid can be introduced; a foaming tool being rotatable in the inner volume of the container, able to mix and foam the fluid; at least one outlet to allow dispensing of the fluid preparation from the container; a base able to hold the container and comprising a driving unit providing the rotation of the foaming tool; characterized in that the at least one outlet is actuated to be open or to be partially or totally closed as a function of one or a plurality of parameters defining the foaming of the fluid inside the container.
A method for producing anhydrosugar alcohol comprising the steps of: converting hydrogenated sugar to anhydrosugar alcohol by dehydration reaction, and distilling the resulting liquid of the converting step, wherein the distilling step is conducted in an internal condenser type, thin-film evaporator comprising an internal condenser, an input line for raw material, an output line for distillation residue, a vacuum line and an output line for distillate, wherein the output line for distillation residue has a branch line for vacuum formation, and wherein when the distilling step is conducted, the inside of the evaporator is depressurized by pressure reduction through the vacuum line and additionally through the branch line for vacuum formation. converting hydrogenated sugar to anhydrosugar alcohol by dehydration reaction, and distilling the resulting liquid of the converting step, wherein the distilling step is conducted in an internal condenser type, thin-film evaporator comprising an internal condenser, an input line for raw material, an output line for distillation residue, a vacuum line and an output line for distillate, wherein the output line for distillation residue has a branch line for vacuum formation, and wherein when the distilling step is conducted, the inside of the evaporator is depressurized by pressure reduction through the vacuum line and additionally through the branch line for vacuum formation.
A method for controlling a laser scanner, the method comprising: driving the laser scanner with scanning movement control signals to scan a focal point of a laser beam along a first axis and along a second axis transverse to the first axis in a directed scan pattern, the laser scanner characteristically introducing focal point positioning errors in response to scanning control signals, the positioning errors varying with scan rate or focal point separation and associated with mechanical lag of the laser scanner, wherein the directed scan pattern is adapted to vary as a function of scan rate or focal point separation in order to compensate for the positioning errors such that the focal point scans in a targeted scan pattern, the targeted scan pattern being different from the directed scan pattern such that distortion associated with the positioning errors is mitigated before the laser beam with the positioning errors is directed to a target, wherein the targeted scan pattern comprises a circular shape and the directed scan pattern comprises an elliptical shape.
Apparatus for changing rolls of a straightening machine, said straightening machine comprising a plurality of cantilever roll shafts (11, 11') receiving the rolls, characterized in that the apparatus comprises: - at least a trolley (5,5') comprising means for supporting an entire set of upper and/or lower rolls to be installed in or taken off from said straightening machine, - at least two vertical plates spaced apart horizontally, - means for releasably securing the plates to the trolley, - actuating means connected to the plates and intended to be received in first passages defined in said straightening machine, said actuating means being able to reversibly displace said plates and said trolley (5, 5') between a first position wherein the plates and the trolley are close to the straightening machine and a second position wherein the plates and the trolley (5, 5') are spaced apart from the straightening machine. - at least a trolley (5,5') comprising means for supporting an entire set of upper and/or lower rolls to be installed in or taken off from said straightening machine, - at least two vertical plates spaced apart horizontally, - means for releasably securing the plates to the trolley, - actuating means connected to the plates and intended to be received in first passages defined in said straightening machine, said actuating means being able to reversibly displace said plates and said trolley (5, 5') between a first position wherein the plates and the trolley are close to the straightening machine and a second position wherein the plates and the trolley (5, 5') are spaced apart from the straightening machine.
A method for a Long Term Evolution, LTE, or Long Term Evolution-Advanced, LTE-A system for configuring a sub-frame of a neighboring cell of a cell, comprising: receiving (101; 301), by a base station of the neighboring cell of the cell, information for configuring a multicast broadcast single frequency network, MBSFN, sub-frame of the neighboring cell of the cell in a radio frame from a base station of the cell, wherein the information for configuring the MBSFN sub-frame of the neighboring cell in the radio frame is a sub-frame number of the MBSFN sub-frame of the cell; configuring (102; 302), by the base station of the neighboring cell, according to the received information for configuring the MBSFN sub-frame of the neighboring cell of the cell in the radio frame, the MBSFN sub-frame of the neighboring cell of the cell so that the configured MBSFN sub-frame of the neighboring cell never or only partly overlaps the MBSFN sub-frame of the cell in the same radio frame; wherein the method step of configuring further comprises: the sub-frame number of the MBSFN sub-frame of the neighboring cell is at least partly not equal to the sub-frame number of the MBSFN sub-frame of the cell in the same radio frame. receiving (101; 301), by a base station of the neighboring cell of the cell, information for configuring a multicast broadcast single frequency network, MBSFN, sub-frame of the neighboring cell of the cell in a radio frame from a base station of the cell, wherein the information for configuring the MBSFN sub-frame of the neighboring cell in the radio frame is a sub-frame number of the MBSFN sub-frame of the cell; configuring (102; 302), by the base station of the neighboring cell, according to the received information for configuring the MBSFN sub-frame of the neighboring cell of the cell in the radio frame, the MBSFN sub-frame of the neighboring cell of the cell so that the configured MBSFN sub-frame of the neighboring cell never or only partly overlaps the MBSFN sub-frame of the cell in the same radio frame; wherein the method step of configuring further comprises: the sub-frame number of the MBSFN sub-frame of the neighboring cell is at least partly not equal to the sub-frame number of the MBSFN sub-frame of the cell in the same radio frame.
A bicycle cyclist force meter comprising: a rear bicycle frame having a first fork with a relatively compressible thin web portion extending along a first fork end portion adjacent a region to which a rear wheel hub can be attached; and a strain gauge sensor assembly secured to said first relatively compressible thin web portion, said strain gauge sensor assembly having first and second stretch sensors (40a, 40b) layered on each other each including a first layer (42a, 42b) having a variable resistance element mounted thereon and a second layer (44a, 44b) for supporting said first layer (42a, 42b), the first and second stretch sensors (40a, 40b) being arranged with either the first layers (42a, 42b) or the second layers (44a,44b) facing each other, the variable resistance elements of said first and second stretch sensors (40a, 40b) being ohmically interconnected to present a total resistance value representative of cyclist force. a rear bicycle frame having a first fork with a relatively compressible thin web portion extending along a first fork end portion adjacent a region to which a rear wheel hub can be attached; and a strain gauge sensor assembly secured to said first relatively compressible thin web portion, said strain gauge sensor assembly having first and second stretch sensors (40a, 40b) layered on each other each including a first layer (42a, 42b) having a variable resistance element mounted thereon and a second layer (44a, 44b) for supporting said first layer (42a, 42b), the first and second stretch sensors (40a, 40b) being arranged with either the first layers (42a, 42b) or the second layers (44a,44b) facing each other, the variable resistance elements of said first and second stretch sensors (40a, 40b) being ohmically interconnected to present a total resistance value representative of cyclist force.
Valve arrangement comprising a housing and an mainly cylindrical valve element arranged rotatable within the housing, where the housing has at least one supply port and at least one exhaust port and at least one set with two outlet/inlet openings (13, 14, 15, 16), these ports (11, 12) and openings (13, 14, 15, 16) are arranged in a distance from each other along a rotation axis for the valve element, characterized in that the valve element comprises at least two first bores arranged on opposite sides of the valve element extending along the rotation axis connecting the supply port with at least one set with outlet/inlet openings (13, 14, 15, 16) in one position of the valve element, and where the valve element further comprises at least two second bores arranged on opposite sides of the valve element extending along the rotation axis connecting the same set of outlet/inlet openings (13, 14, 15, 16) with the exhaust port in a second position of the valve element, the bores (22, 23) being configured such that they are separated from each other, and the valve arrangement comprises a first circumferential groove connecting the supply port with the first bores and a second circumferential groove connecting the exhaust port with the second bores.
A material capture system, comprising: a shape memory tubular body comprising a first end, a second end, and an axial length therebetween, the first end having an opening, the shape memory tubular body comprising a dynamic fold point between the first end and the second end, wherein the shape memory tubular body is configured to be compressed during delivery, wherein the first end of the shape memory tubular body is configured to be expanded while the second end and a majority of the shape memory tubular body remains compressed, wherein the shape memory tubular body has a first expanded axial length with a first cross-section, wherein the expanded segment of the shape memory tubular body is configured to be positioned distal to or within foreign or unwanted materials, wherein the shape memory tubular body is configured to be axially lengthened proximally to capture the foreign or unwanted materials with the associated compressed segment shortening reciprocally, characterised in that the system further comprises an anchor. a shape memory tubular body comprising a first end, a second end, and an axial length therebetween, the first end having an opening, the shape memory tubular body comprising a dynamic fold point between the first end and the second end, wherein the shape memory tubular body is configured to be compressed during delivery, wherein the first end of the shape memory tubular body is configured to be expanded while the second end and a majority of the shape memory tubular body remains compressed, wherein the shape memory tubular body has a first expanded axial length with a first cross-section, wherein the expanded segment of the shape memory tubular body is configured to be positioned distal to or within foreign or unwanted materials, wherein the shape memory tubular body is configured to be axially lengthened proximally to capture the foreign or unwanted materials with the associated compressed segment shortening reciprocally, characterised in that the system further comprises an anchor.
A capacitor comprising: m electrode plates (302-308;412-418; 614-617; 674-677) wherein each of said m electrode plates are arranged spaced apart in parallel, wherein m is an integer greater than 1, and wherein each of said m electrode plates comprises a first extension (312-318;430,432;618-620); n first external r terminals (420,422; 452,454; 604-610;634-640; 646, 647,648) wherein n is an integer greater than 1, wherein said n first external terminals are arranged on a first common exterior surface of the capacitor, wherein said first extension of even ones of said m electrode plates are coupled to even ones of said n first external terminals, wherein said first extension of odd ones of said m electrode plates are coupled to odd ones of said n first external terminals, characterized in that when said n first external terminals are connected to a substrate said m electrode plates of said capacitor are oriented perpendicular to the substrate and a height of said capacitor above the substrate is greater than a width of said capacitor. m electrode plates (302-308;412-418; 614-617; 674-677) wherein each of said m electrode plates are arranged spaced apart in parallel, wherein m is an integer greater than 1, and wherein each of said m electrode plates comprises a first extension (312-318;430,432;618-620); n first external r terminals (420,422; 452,454; 604-610;634-640; 646, 647,648) wherein n is an integer greater than 1, wherein said n first external terminals are arranged on a first common exterior surface of the capacitor, wherein said first extension of even ones of said m electrode plates are coupled to even ones of said n first external terminals, wherein said first extension of odd ones of said m electrode plates are coupled to odd ones of said n first external terminals, characterized in that when said n first external terminals are connected to a substrate said m electrode plates of said capacitor are oriented perpendicular to the substrate and a height of said capacitor above the substrate is greater than a width of said capacitor.
A securement device 1 attachable to an inner rigid structure of a container that comprises a sidewall and a corner post 4 to secure a load 11 in the container, the securement device 1 comprising: at least two leaves (14, 14'), said leaves having a front main surface and a rear main surface, and further having a contact surface extending between the front and rear main surfaces, the contact surface being formed at a tip portion of the leaf (14, 14') to contact a profile 13 of the corner post 4, wherein at least one of said leaves (14, 14') comprises at least one aperture 2 that extends between the front and rear main surfaces, said device comprising at least two such apertures 2 to receive a strap 10, wherein the rear main surface of the leaf (14, 14') comprises a protrusion 24, characterized in that the protrusion 24 comprises a tip portion 28, covering at least a part of the tip end of the leaf (14, 14'). at least two leaves (14, 14'), said leaves having a front main surface and a rear main surface, and further having a contact surface extending between the front and rear main surfaces, the contact surface being formed at a tip portion of the leaf (14, 14') to contact a profile 13 of the corner post 4, wherein at least one of said leaves (14, 14') comprises at least one aperture 2 that extends between the front and rear main surfaces, said device comprising at least two such apertures 2 to receive a strap 10, wherein the rear main surface of the leaf (14, 14') comprises a protrusion 24, characterized in that the protrusion 24 comprises a tip portion 28, covering at least a part of the tip end of the leaf (14, 14').
A method, comprising: joining a fluidic die having an array of ejection subassemblies to a rigid substrate, the rigid substrate comprising an electrical interface to establish an electrical connection between the fluidic die and a print device in which the fluidic die is inserted; forming an electrical connection between the fluidic die and the electrical interface; and forming a bend in the rigid substrate between the fluidic die and the electrical interface. joining a fluidic die having an array of ejection subassemblies to a rigid substrate, the rigid substrate comprising an electrical interface to establish an electrical connection between the fluidic die and a print device in which the fluidic die is inserted; forming an electrical connection between the fluidic die and the electrical interface; and forming a bend in the rigid substrate between the fluidic die and the electrical interface.