mhurhangee/ep-ind-claims huggingface dataset:
A stopper adapted for attachment with a plunger rod for use within a syringe barrel, said stopper comprising: (a) a main body defining an open rearward end and a closed front end, said open rearward end adapted to receive a front forward end attachment portion of such plunger rod; and (b) a core member integrally formed with said main body adjacent said closed front end, said core member including a nose portion, said stopper characterized by a nose portion having a profile adapted to create a positive seal with an outlet opening of such syringe barrel, wherein said main body includes an inner surface having a taper adapted for contact with a corresponding taper on such forward end of the plunger rod, said contacting tapers cooperating together such that the stopper applies a radial force to the syringe barrel upon the application of a forward force to the plunger rod. (a) a main body defining an open rearward end and a closed front end, said open rearward end adapted to receive a front forward end attachment portion of such plunger rod; and (b) a core member integrally formed with said main body adjacent said closed front end, said core member including a nose portion, said stopper characterized by a nose portion having a profile adapted to create a positive seal with an outlet opening of such syringe barrel,
Method for reducing rearward infiltration of moisture into an adhesive bond, by adhering an adhesive tape with a layer of adhesive to a substrate surface and, by means of a plasma stream, applying a hydrophobic passivation layer externally along one side edge of the layer of adhesive, wherein a precursor is supplied to the plasma stream and the precursor used comprises silanes and/or siloxanes and the precursor is selected from the group of aminopropyltriethoxysilane, perfluorooctyltriethoxysilane and HMDSO.
A kit for carrying out multiplex amplifications comprising a plurality of amplification primer sets suitable for carrying out a multiplex amplification and one or more single-stranded oligonucleotide probes which are complementary to all or a part of an amplified target sequence packed in a single container, and a plurality of reaction vessels, each of which comprises a single set of amplification primers suitable for amplifying a sequence of interest.
Shading device for a window pane of an automotive vehicle, comprising a flexible shading structure which is held on a winding shaft to be wound up and wound off, which shaft is disposed in a vehicle-fixed accommodating region with a passage, through and across which passage the shading structure is displaceable between a rest position wound up on the winding shaft and a shading position covering the window pane, wherein the passage is capable of being closed or exposed by means of a pivotably mounted closing part, and comprising a drive system provided for displacing the shading structure between the rest position and the shading position, and comprising control kinematics, coupled to the drive system, for forced control of an opening or closing movement of the closing part, characterized in that the control kinematics include a cable pull arrangement which is provided with a cable control pulley having at least one cable deflection track (13a, 13b, 13c) eccentric in relation to a rotational axis of the cable control pulley.
A polyvinyl alcohol having a number-average molecular weight (Mn) from 4,400 to 440,000, a molecular weight distribution (Mw/Mn) from 1.05 to 1.55, a degree of saponification from 80 to 99.99 mol%, and a carbon-carbon double bond content, measured in accordance with the method described in the description, of 0.1 mol% or less based on total monomer units, and satisfying a formula below, wherein Mn and Mw/Mn are measured in accordance with the method described in the description, wherein a yellow index measured in accordance with ASTM D1925 is 50 or less. X · Mn ≤ 1000
A method of an electronic device for processing a gesture, the method comprising: in response to an input of a hovering gesture to a flexible display of the electronic device, wherein the flexible display is divided in response to folding of the electronic device into a first area and a second area based on a folding line, sensing the hovering gesture in the first area and the second area, respectively; determining a hovering point corresponding to the hovering gesture, based on the sensed positions of the first area and the second area, respectively, determining whether the hovering point is within a folding area (10, 13) or outside of the folding area (10, 13), and adjusting a position of the hovering point based on determining whether the hovering point is within the folding area (10, 13), wherein the folding area (10, 13) is an area surrounding the folding line that is determined according to a sensed folding state of the electronic device. in response to an input of a hovering gesture to a flexible display of the electronic device, wherein the flexible display is divided in response to folding of the electronic device into a first area and a second area based on a folding line, sensing the hovering gesture in the first area and the second area, respectively; determining a hovering point corresponding to the hovering gesture, based on the sensed positions of the first area and the second area, respectively, determining whether the hovering point is within a folding area (10, 13) or outside of the folding area (10, 13), and adjusting a position of the hovering point based on determining whether the hovering point is within the folding area (10, 13), wherein the folding area (10, 13) is an area surrounding the folding line that is determined according to a sensed folding state of the electronic device.
Storage system comprising at least one station, such as a station for storage, rearrangement, commissioning, or relocation of goods, and a storage shelf with a plurality of storage places for storing goods, the storage places being arranged adjacent to one another and/or one above the other, wherein the storage system comprises at least one goods transport vehicle transporting at least one good from the station to the storage place or vice versa, and the transport is carried out without the good being transferred to another goods transport vehicle or another means of transport, wherein station and storage shelf are arranged one beside the other, and for the transport of the good the goods transport vehicle moves in the region between the station and the storage shelf that is orientated essentially horizontally, as well as diagonally and vertically in the storage shelf, and the goods transport vehicle is equipped with a conveying means, such as for example a conveyor line or roller conveyor driven by a drive for the supply or output of the goods that are or can be provided on the goods transport vehicle, and during the transport the good remains on the conveying means, and at least at one storage place of the storage shelf or one station a conveying means, such as for example a conveyor line or roller conveyor is provided, characterized in that the goods transport vehicle is equipped with an energy output means or overdrive, for example a plug, a pinion shaft, or an output gear or pinion socket gear, that can be brought into operative connection with an energy connection point at the conveying means of the storage place or the station, and which is driven by the drive or the power source of the conveying means of the goods transportation vehicle, wherein the storage shelf, besides at least one transport segment orientated essentially horizontally, also is provided with an inclined or vertically extending transport segment, and the goods transport vehicle runs on the transport segment, and wherein the storage shelf comprises a frame for holding or storing the transport segment elements, wherein the shelf has a shelf depth large enough for forming at least one row of storage places with at least two storage places one behind the other that contains a multitude of goods one behind the other, and the row of storage places can be operated from two sides, wherein for all storage places of the row of storage places a common conveying means is provided, and the goods transport vehicle has a goods transport vehicle control module with at least one module element comprising a goods identification device that serves for collecting a goods identification means attached to the good and for storing this goods identification means, and the goods transport vehicle control module comprises another module element with a goods memory where at least one piece of goods information can be filed, and the module element serves for optimizing the storage operation.
A method of measuring an aircraft under simulated flight-loads while not in flight comprising: applying simulated flight-loads to said aircraft while said aircraft is not in flight in order by lifting said aircraft off said ground utilizing a plurality of cradle devices (14, 28), and applying said simulated flight-loads to said aircraft utilizing said plurality of cradle devices wherein one or more of said plurality of cradle devices are applied to wings of said aircraft said one or more cradle devices forcing said wings in upwardly directions, another cradle device of said plurality of cradle devices being applied to a horizontal stabilizer of said aircraft, said another cradle device forcing said horizontal stabilizer in a downwardly direction; and measuring a position of one or more portions of said aircraft while under said simulated flight-loads, to test the aircraft under expected loading conditions, wherein said cradle devices comprise air chambers, air pressure being forced into said air chambers to form a thin cushion air wall forcing and supporting the wings of the aircraft upwardly and the horizontal stabilisers downwardly. applying simulated flight-loads to said aircraft while said aircraft is not in flight in order by lifting said aircraft off said ground utilizing a plurality of cradle devices (14, 28), and applying said simulated flight-loads to said aircraft utilizing said plurality of cradle devices wherein one or more of said plurality of cradle devices are applied to wings of said aircraft said one or more cradle devices forcing said wings in upwardly directions, another cradle device of said plurality of cradle devices being applied to a horizontal stabilizer of said aircraft, said another cradle device forcing said horizontal stabilizer in a downwardly direction; and measuring a position of one or more portions of said aircraft while under said simulated flight-loads, to test the aircraft under expected loading conditions, wherein said cradle devices comprise air chambers, air pressure being forced into said air chambers to form a thin cushion air wall forcing and supporting the wings of the aircraft upwardly and the horizontal stabilisers downwardly.
Method for the optical examination of an object under examination, comprising: Rotating of the object under examination about an axis of rotation and scanning of the object under examination by an optical sensor, repeated at the same time, which has a number of scan lines, wherein scanning comprises detecting at least two examination lines spaced apart from each other on the object under examination in respective scan lines, at least one scan line being associated with each examination line and being detected as line image, and each scan line detecting the object under examination on an examination line associated with this scan line at a different angle in relation to a surface of the object under examination; Joining up of all line images, which are associated with an examination line, to a respective composed image; Execution of a feature analysis by comparing the composed images; and Classification of errors, wherein errors of a first type of error only appear in one of the composed images, and errors of a further type of error appear in several or one other of the composed images. Rotating of the object under examination about an axis of rotation and scanning of the object under examination by an optical sensor, repeated at the same time, which has a number of scan lines, wherein scanning comprises detecting at least two examination lines spaced apart from each other on the object under examination in respective scan lines, at least one scan line being associated with each examination line and being detected as line image, and each scan line detecting the object under examination on an examination line associated with this scan line at a different angle in relation to a surface of the object under examination; Joining up of all line images, which are associated with an examination line, to a respective composed image; Execution of a feature analysis by comparing the composed images; and Classification of errors, wherein errors of a first type of error only appear in one of the composed images, and errors of a further type of error appear in several or one other of the composed images.
An image processing apparatus configured to execute at least one image processing function, comprising: request means (200, 405) for requesting a Web server to send operation screen data; and display control means (200, 401) for receiving the operation screen data which is sent from the Web server in response to the request from said request means (200, 405), and displaying an operation screen based on the operation screen data on an operation unit, characterized in that when said display control means (200, 401) fails to receive the operation screen data, said display control means (200, 401) displays a substitute operation screen that allows to instruct use of the at least one image processing function on the operation unit. request means (200, 405) for requesting a Web server to send operation screen data; and display control means (200, 401) for receiving the operation screen data which is sent from the Web server in response to the request from said request means (200, 405), and displaying an operation screen based on the operation screen data on an operation unit,
Intake pipe for an internal combustion engine for the detachable connection with a fuel distributor rail, comprising a flange, which houses a valve section of a fuel injection valve, wherein the flange has an upper area facing the fuel injection valve, and a lower area facing the intake pipe, characterised in that in the upper area of the flange there is an element with a section that forms due to a provided material weakness in section a predetermined breaking point that has at least partially reduced strength compared with its respective adjacent areas.
Composite structural element (12, 14), for use in a torsion box of an aircraft structural component in form of a vertical tailplane, wherein the structural element (12, 14) comprises a substantially planar main section defining a coordinate system with a first axis (a) extending along the longitudinal axis of the structural element (12, 14) and a second axis (b) extending perpendicular to said longitudinal axis within the planar main section and defining an angle of +90° with the first axis (a), wherein the structural element (12, 14) contains a lay-up of single plies (30, 34) consisting of a fiber-reinforced composite material with a substantially unidirectional fiber orientation, wherein the lay-up comprises at least one symmetrically arranged pair of a first and a second ply (30, 34) which are arranged in said lay-up such that the direction of fiber orientation extends in said coordinate system at an angle (α, β) in the range of -17° to -23° for the first ply and +37° to +43° for the second ply, characterized in that the structural element (12, 14) is in form of a rib or a spar, and comprises at least two stiffeners extending substantially in a direction of +90° in said coordinate system along the planar main section of the structural element (12, 14), wherein the area between the two stiffeners has an aspect ratio as defined by the ratio of its longest and shortest extension of not less than 1,5, and/or wherein the area between the two stiffeners has an aspect ratio as defined by the ratio of its longest and shortest extension of not more than 4,0.
An axial fuel staging system for a combustor, said AFS system comprising: a secondary fuel injector; an injector housing surrounding said secondary fuel injector; and a conduit assembly in flow communication with said secondary fuel injector, wherein said conduit assembly comprises: a first conduit for conveying fuel to said secondary fuel injector; and a second conduit circumscribing said first conduit such that a channel is defined between said first conduit and said second conduit, wherein said second conduit comprises an inlet end; and wherein said first conduit and said second conduit terminate within said injector housing, characterized by a conduit housing, said conduit housing being located radially outward of said inlet end of said second conduit. a secondary fuel injector; an injector housing surrounding said secondary fuel injector; and a conduit assembly in flow communication with said secondary fuel injector, wherein said conduit assembly comprises: a first conduit for conveying fuel to said secondary fuel injector; and a second conduit circumscribing said first conduit such that a channel is defined between said first conduit and said second conduit, wherein said second conduit comprises an inlet end; and wherein said first conduit and said second conduit terminate within said injector housing, a first conduit for conveying fuel to said secondary fuel injector; and a second conduit circumscribing said first conduit such that a channel is defined between said first conduit and said second conduit, wherein said second conduit comprises an inlet end; and wherein said first conduit and said second conduit terminate within said injector housing, characterized by a conduit housing, said conduit housing being located radially outward of said inlet end of said second conduit.
A system for vascular roadmapping comprising: an imaging device comprising an x-ray source and an x-ray detector, for generating a fluoroscopy image, a data base including a plurality of contrast-enhanced images, wherein the contrast-enhanced images are generated with different imaging parameters, a user interface element being configured to select intended imaging parameters, a processing device being configured to determine current imaging parameters of the imaging device, to determine from among the imaging parameters of the plurality of contrast-enhanced images the imaging parameters with the smallest deviation from the intended imaging parameters, thereby determining the nearest available contrast-enhanced image, to automatically select said nearest available contrast-enhanced image, to automatically control the imaging device so as to adjust the imaging parameters of the imaging device to the imaging parameters of the selected contrast-enhanced image, and to determine a ready-for-use-state or a not-ready-for-use state of the imaging device based on a completion of an adjustment of the imaging device from the current imaging parameters to the imaging parameters of the selected contrast-enhanced image, wherein the imaging parameters comprises a position of the x-ray source and the x-ray detector, an orientation of the x-ray source and the x-ray detector, settings of the x-ray source, and settings of the x-ray detector, wherein the user interface element is further configured to indicate the state of the imaging device. an imaging device comprising an x-ray source and an x-ray detector, for generating a fluoroscopy image, a data base including a plurality of contrast-enhanced images, wherein the contrast-enhanced images are generated with different imaging parameters, a user interface element being configured to select intended imaging parameters, a processing device being configured to determine current imaging parameters of the imaging device, to determine from among the imaging parameters of the plurality of contrast-enhanced images the imaging parameters with the smallest deviation from the intended imaging parameters, thereby determining the nearest available contrast-enhanced image, to automatically select said nearest available contrast-enhanced image, to automatically control the imaging device so as to adjust the imaging parameters of the imaging device to the imaging parameters of the selected contrast-enhanced image, and to determine a ready-for-use-state or a not-ready-for-use state of the imaging device based on a completion of an adjustment of the imaging device from the current imaging parameters to the imaging parameters of the selected contrast-enhanced image, wherein the imaging parameters comprises a position of the x-ray source and the x-ray detector, an orientation of the x-ray source and the x-ray detector, settings of the x-ray source, and settings of the x-ray detector, wherein the user interface element is further configured to indicate the state of the imaging device.
A method of operating a thermal energy exchanger for exchanging thermal energy between a thermal transfer fluid, flowing through the thermal energy exchanger in a fluid conduit, and air, being conducted through the thermal energy exchanger in an air duct, the method comprising: recording in a control system a plurality of measurement data sets, each of the measurement data sets including for a different point in time data values defining a normalized energy transfer which represents the thermal energy transferred in the thermal energy exchanger, from the thermal transfer fluid to the air, normalized by one or more normalization variables including at least one air side variable; characterised by further comprising: the control system calculating for each of the measurement data sets a normalized data point (Pn, Sn, Ln) defined by the normalized energy transfer; and the control system determining for the thermal energy exchanger a characteristic energy transfer curve (cP, cS, cL) which fits the normalized data points (Pn, Sn, Ln); and the control system controlling operating parameters, wherein the operating parameters include the flow of thermal transfer fluid through the thermal energy exchanger, the flow of air through the thermal energy exchanger, and/or the temperature of the thermal transfer fluid entering the thermal energy exchanger. recording in a control system a plurality of measurement data sets, each of the measurement data sets including for a different point in time data values defining a normalized energy transfer which represents the thermal energy transferred in the thermal energy exchanger, from the thermal transfer fluid to the air, normalized by one or more normalization variables including at least one air side variable; characterised by further comprising: the control system calculating for each of the measurement data sets a normalized data point (Pn, Sn, Ln) defined by the normalized energy transfer; and the control system determining for the thermal energy exchanger a characteristic energy transfer curve (cP, cS, cL) which fits the normalized data points (Pn, Sn, Ln); and the control system controlling operating parameters, wherein the operating parameters include the flow of thermal transfer fluid through the thermal energy exchanger, the flow of air through the thermal energy exchanger, and/or the temperature of the thermal transfer fluid entering the thermal energy exchanger.