mhurhangee/ep-ind-claims huggingface dataset:
Open roof construction for a vehicle, comprising a stationary roof part, a roof opening provided therein, a panel movably mounted in said stationary roof part for opening and closing said roof opening, wherein said roof opening has a forward edge and wherein near to said forward edge a movable wind deflector is provided, which wind deflector comprises an upper elongate member (7,7') extending substantially in parallel to said forward edge which is movable between a retracted position below the level of the stationary roof part and an extended position at least partially above said level of the stationary roof part and a flexible wind deflecting material having an upper end attached to said elongate member (7,7') and a lower end attached to the stationary roof part (1,1'), and wherein the upper elongate member (7,7') of the wind deflector has a central part extending over a length in parallel to the forward edge of the roof opening and two end parts each extending over a length substantially in parallel to side edges of the roof opening, wherein a movable control part is provided which extends in parallel to said forward edge over a part of the length of the central part of the elongate member and which with a first end is attached to the stationary roof part (1,1") and which with an opposite second end is connected to the wind deflecting material at an engagement position between the upper and lower ends of the wind deflecting material, characterized in that the control part comprises a material having flexible and/or elastic properties and which is stretchable.
Drive device for unwinding a reel of stamping foil for an unwinding module for a stamping machine, said drive device being able to move from an inactive position to an active position in engagement with the reel, comprising: - a belt, able to move from an inactive configuration to an active configuration in contact with a portion of a peripheral circumferential surface of the reel and with drive means (47, 48) of the module so as to unwind the reel, - a series of rollers (49, 51, 52, 53), maintaining the belt in the inactive configuration and in the active configuration, - a translatable roller, compensating for variations in length when the belt moves from the inactive configuration to the active configuration, and - biasing means, attached to the movable roller and keeping the belt tensioned in the inactive configuration and in the active configuration, characterized in that the biasing means are means able to be actuated and disengaged in order to move the belt from the inactive configuration to the active configuration and vice versa. - a belt, able to move from an inactive configuration to an active configuration in contact with a portion of a peripheral circumferential surface of the reel and with drive means (47, 48) of the module so as to unwind the reel, - a series of rollers (49, 51, 52, 53), maintaining the belt in the inactive configuration and in the active configuration, - a translatable roller, compensating for variations in length when the belt moves from the inactive configuration to the active configuration, and - biasing means, attached to the movable roller and keeping the belt tensioned in the inactive configuration and in the active configuration, characterized in that the biasing means are means able to be actuated and disengaged in order to move the belt from the inactive configuration to the active configuration and vice versa.
A pseudotyped viral vector particle for transferring biological material into cells, wherein said vector particle comprises at least: a chimeric envelope glycoprotein which comprises or consists in a fusion of the transmembrane and extracellular domain of a baboon endogenous retrovirus (BaEV) envelope glycoprotein and the cytoplasmic tail domain of a murine leukemia virus envelope glycoprotein; or a modified BaEV envelope glycoprotein wherein the cytoplasmic tail domain is devoid of the fusion inhibitory R peptide. a chimeric envelope glycoprotein which comprises or consists in a fusion of the transmembrane and extracellular domain of a baboon endogenous retrovirus (BaEV) envelope glycoprotein and the cytoplasmic tail domain of a murine leukemia virus envelope glycoprotein; or a modified BaEV envelope glycoprotein wherein the cytoplasmic tail domain is devoid of the fusion inhibitory R peptide.
Carbon dioxide for medical use as a muscle strengthening agent or a muscle strength decrease inhibitor, wherein the carbon dioxide is to be locally administered by using one or more carbon dioxide supplying means selected from the group consisting of a) carbon dioxide external administration device, b) a carbon dioxide agent for external use, and c) an intratissue injection of carbon dioxide. a) carbon dioxide external administration device, b) a carbon dioxide agent for external use, and c) an intratissue injection of carbon dioxide.
Security document comprising a document body with a front side and an opposing back side, wherein the document body is transparent in at least one window region for transmitted light observation, and wherein, when observing the front side from above, on or in the document body, in the window region is stored an item of detectable graphic information, wherein the graphic information is formed by means of at least two different types of image elements (5, 6), wherein each of the at least two different types of image elements (5, 6) is allocated with a pixel grid (15, 16) comprising grid positions (25, 26), and the image elements (5, 6) of one type are allocated only to grid positions (25, 26) of the pixel grid (15, 16) allocated to that type, and wherein the pixel grid (15, 16) comprise grid positions (25', 26') which correspond to one another, and which are arranged adjacent to one another in the document body, characterised in that the image elements of one type are all configured as identical in respect of at least one optically detectable property, and, in respect of this at least one optically detectable property, differ from image elements of a different type of image element of the at least two different types of image elements (5, 6), and on the back side of the document body a lenticular screen is formed, wherein the pixel grids (15, 16) are formed in such a way, and arranged relative to the lenticular screen in such a way, that at least two preferential detection directions (65, 66) exist in respect of the back side of the document body, under which, through the lenticular screen, in each case only the image elements (5, 6) of one type of the graphic information are detectable.
Method for operating an electric motor of a medical instrument that has means for receiving a tool driven by the motor, in particular a dental surgical device or an endodontic device, wherein, during a step of calibrating the motor with the received tool, operation is performed at at least one operating point and the following parameters are determined for this operating point: • the generator voltage (U EMK) of the motor, • the rotational speed (n Motor) of the motor, • the no-load current consumption (I Motor) of the motor, and wherein a no-load frictional torque (M reib) for the instrument is calculated on the basis of the determined parameters, which no-load frictional torque is taken into account as a correction factor when driving the motor during the subsequent operation of the instrument, wherein, during the step of calibrating the motor, operation is performed at a plurality of operating points and a rotational speed-dependent no-load frictional torque (M reib (n Motor)) is determined on the basis of the parameters determined at the various operating points, wherein the rotational speed-dependent no-load frictional torque (M reib (n Motor)) is determined on the basis of a compensation curve. • the generator voltage (U EMK) of the motor, • the rotational speed (n Motor) of the motor, • the no-load current consumption (I Motor) of the motor,
A dielectric deposition film constituted by a dielectric composition including a complex oxide expressed by a general formula (aCaO + bSrO)-ZrO 2 as a main component, in which "a" and "b" of the general formula satisfy a ≥ 0, b ≥ 0, and 1.55 ≤ a + b ≤ 4.00, wherein a relative permittivity at 2GHz is 13.0 or more and a Q value is 500 or more.
A method for transmission signal rank determination performed in a base station node of a communication system, the base station node serving a first cell and the first cell having a neighboring cell served by a neighboring base station node, the base station node being configured for multiple-input, multiple output communication with a first wireless device, the method comprising: - receiving, from a node (2; 10) of the communication system, information related to the neighboring cell, and - determining, based on the received information, a transmission signal rank of a data transmission to the first wireless device located within the first cell, characterized in that: the received information comprises: active status of a second wireless device in the neighboring cell, wherein the second wireless device is able to suppress interference of rank n, wherein the determining of the transmission signal rank of the data transmission to the first wireless device located within the first cell comprises determining the transmission signal rank to be less than n unless a performance parameter based on use of transmission signal rank n in transmission to the first wireless device is determined to be a predetermined value higher than a performance parameter based on use of transmission signal rank less than n in transmission to the first wireless device, for which case the transmission signal rank is determined to be equal to n. - receiving, from a node (2; 10) of the communication system, information related to the neighboring cell, and - determining, based on the received information, a transmission signal rank of a data transmission to the first wireless device located within the first cell, characterized in that: the received information comprises: active status of a second wireless device in the neighboring cell, wherein the second wireless device is able to suppress interference of rank n, wherein the determining of the transmission signal rank of the data transmission to the first wireless device located within the first cell comprises determining the transmission signal rank to be less than n unless a performance parameter based on use of transmission signal rank n in transmission to the first wireless device is determined to be a predetermined value higher than a performance parameter based on use of transmission signal rank less than n in transmission to the first wireless device, for which case the transmission signal rank is determined to be equal to n.
A gas turbine engine rotor stack comprising: a rotor disk including: a web extending from a rim radially inward to a bore, and a spacer integral with and extending generally axially from the rim, the spacer including: a flow path surface adjacent to an end wall of the rim, an inner surface spaced radially inwardly from the flow path surface and extending between first and second axial locations, the flow path surface configured to seal relative to a fixed stage of vanes, a fillet interconnecting the inner surface and the web, the inner surface tangent to the fillet at the first axial location, and the second axial location axially aligning beneath the vanes and surrounded by the inner surface, characterized by: the spacer having first and second radial thicknesses (96, 98) respectively disposed at the first and second axial locations, the second radial thickness being greater than the first radial thickness, and the spacer tapering axially from the first axial location to the second axial location. a web extending from a rim radially inward to a bore, and a spacer integral with and extending generally axially from the rim, the spacer including: a flow path surface adjacent to an end wall of the rim, an inner surface spaced radially inwardly from the flow path surface and extending between first and second axial locations, the flow path surface configured to seal relative to a fixed stage of vanes, a fillet interconnecting the inner surface and the web, the inner surface tangent to the fillet at the first axial location, and the second axial location axially aligning beneath the vanes and surrounded by the inner surface, characterized by: the spacer having first and second radial thicknesses (96, 98) respectively disposed at the first and second axial locations, the second radial thickness being greater than the first radial thickness, and the spacer tapering axially from the first axial location to the second axial location. a flow path surface adjacent to an end wall of the rim, an inner surface spaced radially inwardly from the flow path surface and extending between first and second axial locations, the flow path surface configured to seal relative to a fixed stage of vanes, a fillet interconnecting the inner surface and the web, the inner surface tangent to the fillet at the first axial location, and the second axial location axially aligning beneath the vanes and surrounded by the inner surface, characterized by: the spacer having first and second radial thicknesses (96, 98) respectively disposed at the first and second axial locations, the second radial thickness being greater than the first radial thickness, and the spacer tapering axially from the first axial location to the second axial location. the spacer having first and second radial thicknesses (96, 98) respectively disposed at the first and second axial locations, the second radial thickness being greater than the first radial thickness, and the spacer tapering axially from the first axial location to the second axial location.
Method for pre-magnetisation of magnetic materials on a measurement object with a first magnetic material with a first coercive field strength, and a second magnetic material with a second coercive field strength, which is lower than the first coercive field strength, wherein the measurement object is supplied to the mesauring device following pre-magnetisation of a sensor line of a measuring device for measuring magnetic characteristics of the environment, characterised in that the measurement object is guided from a first point to a second point and then to a third point through a pre-magnetisation field of a pre-magnetisation device, preferably a single pre-magnetisation magnet (6, 7), wherein - the field strength of the pre-magnetisation field at the first point is greater than the first and greater than the second coercive field strength, - the field strength of the pre-magnetisation field at the second point is greater than the second coercive field strength, and falls below the first coercive field strength after leaving the second point, and no longer rises above the first coercive field strength during the movement of the measurement object from the second to the third point, and the field direction of the pre-magnetisation field at the second point points in a first direction, and - the field strength of the pre-magnetisation field falls below the second coercive strength upon reaching the third point and no longer rises above the second coercive field strength during the movement of the measurement object from the third to the sensor line, and the field direction of the pre-magnetisation field at the third point points in a second direction, which differs from the first direction. - the field strength of the pre-magnetisation field at the first point is greater than the first and greater than the second coercive field strength, - the field strength of the pre-magnetisation field at the second point is greater than the second coercive field strength, and falls below the first coercive field strength after leaving the second point, and no longer rises above the first coercive field strength during the movement of the measurement object from the second to the third point, and the field direction of the pre-magnetisation field at the second point points in a first direction, and - the field strength of the pre-magnetisation field falls below the second coercive strength upon reaching the third point and no longer rises above the second coercive field strength during the movement of the measurement object from the third to the sensor line, and the field direction of the pre-magnetisation field at the third point points in a second direction, which differs from the first direction.
A method for producing a cat kibble having a density from 350 to 550 g/L, comprising at least the steps of: a) providing kibble ingredients, wherein one of said kibble ingredients is exogenous fat, said exogenous fat being an extrinsic or external fat which is provided as such as an individual cat kibble ingredient, and wherein said kibble ingredients comprise at least 2% of said exogenous fat (% based on total weight of kibble ingredients), b) at least partially precooking said kibble ingredients in a preconditioner, wherein said ingredients have a residence time in said preconditioner of at least 2 minutes; c) extruding the at least partially precooked kibble ingredients in an extruder with a die surface outflow rate (DSOR) inferior to 350 mm 2 / metric ton of throughput, wherein said DSOR refers to the total opened sections of the die holes at the outlet of the extruder divided by the working flow rate of the product at the outlet of the extruder die, defined by Equation: DSOR = Total open area / Extruder rate d) drying the kibble extrudate resulting from step c), thereby obtaining a kibble palatable to cats. a) providing kibble ingredients, wherein one of said kibble ingredients is exogenous fat, said exogenous fat being an extrinsic or external fat which is provided as such as an individual cat kibble ingredient, and wherein said kibble ingredients comprise at least 2% of said exogenous fat (% based on total weight of kibble ingredients), b) at least partially precooking said kibble ingredients in a preconditioner, wherein said ingredients have a residence time in said preconditioner of at least 2 minutes; c) extruding the at least partially precooked kibble ingredients in an extruder with a die surface outflow rate (DSOR) inferior to 350 mm 2 / metric ton of throughput, wherein said DSOR refers to the total opened sections of the die holes at the outlet of the extruder divided by the working flow rate of the product at the outlet of the extruder die, defined by Equation: DSOR = Total open area / Extruder rate d) drying the kibble extrudate resulting from step c), thereby obtaining a kibble palatable to cats.
A resin composition comprising a saponified ethylene-vinyl ester-based copolymer, a nylon 6-based polyamide, and ε-caprolactam, wherein a ratio of the amounts in weight of the saponified ethylene-vinyl ester-based copolymer to the nylon 6-based polyamide, that is, saponified ethylene-vinyl ester-based copolymer: nylon 6-based polyamide, is from 50:50 to 90:10, characterized in that the ε-caprolactam is contained at a concentration of 10 to 200ppm. wherein a ratio of the amounts in weight of the saponified ethylene-vinyl ester-based copolymer to the nylon 6-based polyamide, that is, saponified ethylene-vinyl ester-based copolymer: nylon 6-based polyamide, is from 50:50 to 90:10, characterized in that the ε-caprolactam is contained at a concentration of 10 to 200ppm.
Operating method for a container crane, wherein the container crane has a trolley which can be moved on a cross-member of a gantry of the container crane, wherein a harness for picking up and setting down a container is arranged on the trolley, wherein at least one laser scanner is arranged on the trolley, - wherein by means of the laser scanner a depth image is captured which, as a function of a first and a second angle (α, β) in each case indicates the distance (a) of object points detected by the laser scanner by means of a laser beam, - wherein the captured depth image is evaluated by means of an evaluation facility such that, based on the object points, objects are detected, and the locations thereof are determined, - wherein the objects comprise the harness and/or a container picked up by the harness, and further objects (7, 12, 13), - wherein based on the detected object points, the contour of the harness and/or the container picked up by the harness is determined, and detection of the further objects (7, 12, 13) within areas defined by the determined contour is suppressed and - wherein a control facility of the container crane takes the detected objects and the locations thereof into account in the context of controlling the container crane. - wherein by means of the laser scanner a depth image is captured which, as a function of a first and a second angle (α, β) in each case indicates the distance (a) of object points detected by the laser scanner by means of a laser beam, - wherein the captured depth image is evaluated by means of an evaluation facility such that, based on the object points, objects are detected, and the locations thereof are determined, - wherein the objects comprise the harness and/or a container picked up by the harness, and further objects (7, 12, 13), - wherein based on the detected object points, the contour of the harness and/or the container picked up by the harness is determined, and detection of the further objects (7, 12, 13) within areas defined by the determined contour is suppressed and - wherein a control facility of the container crane takes the detected objects and the locations thereof into account in the context of controlling the container crane.
Receiving device for a pulsed radiofrequency signal, comprising an amplitude detection filter having at least one electronic semiconductor detection component and a filter having a capacitive component, characterised in that it comprises a desaturation circuit connected at the output of the amplitude detection filter, the desaturation circuit being adapted to drain an electric current from said capacitive component when a measured physical quantity from among the current or the voltage of the radiofrequency signal (RF in) exceeds a predetermined reference value, said electronic semiconductor detection component having a first quadratic operating zone (Z 1) characterised by a first threshold voltage (V 1), and at least a second linear operating zone (Z 2) characterised by a second threshold voltage (V 2) greater than the first threshold voltage (V 1), said predetermined reference value being chosen as a function of the first threshold voltage (V 1) and/or of the second threshold voltage (V 2).
Saddle tree for a riding saddle, having a saddle-tree structure which extends in the longitudinal direction from a pommel to a cantle and the upper side of which forms a seat for a rider, wherein the seat defines a contact region for the sit bones, characterized in that, in the region between the cantle and the contact region for the sit bones, the saddle-tree structure has a pivot axis which is oriented transversely in relation to the longitudinal direction and about which, starting from a zero position predetermined by a stop, the cantle can be pivoted in the direction of the upper side in relation to the pommel.