mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: at an electronic device with a display and an input device: selecting a native pixelated image; selecting an interactive filter to apply to the native pixelated image; generating interactive filter data uniquely associated with the native pixelated image and corresponding to the selected interactive filter; displaying a first representation of the native pixelated image based on the interactive filter data wherein all or a first subset of the pixels of the native pixelated image are obscured in the first representation; receiving a user input with respect to the first representation, the user input corresponding to interaction with the interactive filter applied to the native pixelated image; based on the user input and the interactive filter data, displaying a second representation of the native pixelated image, wherein none of the pixels in the native pixelated image are obscured or a second subset of the pixels of the native pixelated image are obscured in the second representation, wherein a number of pixels in the second subset is less than a number of pixels in the first subset; setting an interaction control parameter for the native pixelated image and the interactive filter based on a user configuration of the parameter; and sending the native pixelated image and the interactive filter data and the interaction control parameter to a remote electronic device, wherein display of the native pixelated image at the remote electronic device in response to interaction with the interactive filter at the remote electronic device is restricted based on the interaction control parameter. selecting a native pixelated image; selecting an interactive filter to apply to the native pixelated image; generating interactive filter data uniquely associated with the native pixelated image and corresponding to the selected interactive filter; displaying a first representation of the native pixelated image based on the interactive filter data wherein all or a first subset of the pixels of the native pixelated image are obscured in the first representation; receiving a user input with respect to the first representation, the user input corresponding to interaction with the interactive filter applied to the native pixelated image; based on the user input and the interactive filter data, displaying a second representation of the native pixelated image, wherein none of the pixels in the native pixelated image are obscured or a second subset of the pixels of the native pixelated image are obscured in the second representation, wherein a number of pixels in the second subset is less than a number of pixels in the first subset; setting an interaction control parameter for the native pixelated image and the interactive filter based on a user configuration of the parameter; and sending the native pixelated image and the interactive filter data and the interaction control parameter to a remote electronic device, wherein display of the native pixelated image at the remote electronic device in response to interaction with the interactive filter at the remote electronic device is restricted based on the interaction control parameter.
A protective apparatus for a steel making furnace, the protective apparatus comprising a half pipe having a longitudinal length and a shape approximating a substantially bisected geometric body and the half pipe comprises opposed mounting ends (14, 15) defined by a plane of bisection, an inner concave face falling generally along the plane of bisection and extending between the opposed mounting ends (14, 15); and an outer convex surface generally opposite the inner concave face, wherein the protective apparatus further comprises a mounting plate having a first side and a second side, the first side being mountable to the inside of a steel making furnace and the half-pipe being welded on each mounting end (14, 15) to the second side of the mounting plate, characterised in that the outer convex surface of the half pipe is configured to contact a material to be cooled and in that the half pipe includes a slag retention device formed on the outer convex exterior surface of the half pipe.
A method in an ad hoc network comprising a plurality of nodes distributed in two or more sub-networks, the method comprising: a node determining that it will be moving from a first sub-network to a second sub-network; the node, whilst connected to a first sub-network, advertising a theoretical destination in a second sub-network that the node is not currently connected to, as part of a theoretical route between the first and second sub-networks; associating with the theoretical destination in the second sub-network, a special link metric value that gives a reduced likelihood of selection as a suitable route for transmitting messages compared to conventionally available routes between the first and second sub-networks in the ad hoc network, the ad hoc network employing a routing protocol in which the suitable route is selected based on a value of a combination of the respective link metric values of the links included in the available routes including theoretical routes from which the suitable route is selected the method further comprising: when conventional routes are not available determining that a message from a further node in the first sub-network is to be transmitted via the theoretical route to a second further node in the second sub-network; the node receiving the message from the further node when the node is at a first location and whilst connected to the first sub-network; the node storing the message; the node moving from the first location to a second location to connect with the second sub-network thereby transforming the theoretical route into a new real route; and the node transmitting the message to the second further node either directly or via the second sub-network as part of the new real route. when conventional routes are not available determining that a message from a further node in the first sub-network is to be transmitted via the theoretical route to a second further node in the second sub-network; the node receiving the message from the further node when the node is at a first location and whilst connected to the first sub-network; the node storing the message; the node moving from the first location to a second location to connect with the second sub-network thereby transforming the theoretical route into a new real route; and the node transmitting the message to the second further node either directly or via the second sub-network as part of the new real route.
A method, comprising: at an electronic device with one or more cameras and a display: displaying, on the display: a digital viewfinder based on data received from the one or more cameras; while displaying the digital viewfinder, detecting a gesture that progresses at a gesture rate, the gesture corresponding to an instruction to zoom the digital viewfinder from a first magnification level to a third magnification level; in response to detecting the gesture, zooming the digital viewfinder from the first magnification level to a second magnification level and from the second magnification level to a third magnification level, including: during a first portion of the gesture, zooming the digital viewfinder at a first rate that is slower than the gesture rate at which the gesture is progressing; and during a second portion of the gesture that occurs after the first portion of the gesture, zooming the digital viewfinder at a second rate that is faster than the gesture rate at which the gesture is progressing. displaying, on the display: a digital viewfinder based on data received from the one or more cameras; while displaying the digital viewfinder, detecting a gesture that progresses at a gesture rate, the gesture corresponding to an instruction to zoom the digital viewfinder from a first magnification level to a third magnification level; in response to detecting the gesture, zooming the digital viewfinder from the first magnification level to a second magnification level and from the second magnification level to a third magnification level, including: during a first portion of the gesture, zooming the digital viewfinder at a first rate that is slower than the gesture rate at which the gesture is progressing; and during a second portion of the gesture that occurs after the first portion of the gesture, zooming the digital viewfinder at a second rate that is faster than the gesture rate at which the gesture is progressing. during a first portion of the gesture, zooming the digital viewfinder at a first rate that is slower than the gesture rate at which the gesture is progressing; and during a second portion of the gesture that occurs after the first portion of the gesture, zooming the digital viewfinder at a second rate that is faster than the gesture rate at which the gesture is progressing.
A method for invoking a MIDlet from a web browser on a local device, comprising: performing an http request from the web browser to a MIDlet on the local device using the push registry mechanism provided by an application management software, AMS, of the local device; and triggering the application management software, AMS. performing an http request from the web browser to a MIDlet on the local device using the push registry mechanism provided by an application management software, AMS, of the local device; and triggering the application management software, AMS.
A polycarbonate composite, comprising: a) a polycarbonate substrate, prepared from a thermoplastic aromatic (co)polycarbonate having a glass-transition temperature in the range of 160 to 210 °C, as measured by Differential Scanning Calorimetry according to standard DIN EN 61006 at a heating rate of 10 K/min, in which Tg is defined as the midpoint temperature determined by the tangent method; and b) a coating on said polycarbonate substrate, said coating being formed by curing a polysiloxane-based thermosetting coating material at a temperature in the range of 140 to 210 °C for 0.5 to 2 hours; wherein said polycarbonate composite has a pencil hardness higher than H, as measured according to ASTM D3363. a) a polycarbonate substrate, prepared from a thermoplastic aromatic (co)polycarbonate having a glass-transition temperature in the range of 160 to 210 °C, as measured by Differential Scanning Calorimetry according to standard DIN EN 61006 at a heating rate of 10 K/min, in which Tg is defined as the midpoint temperature determined by the tangent method; and b) a coating on said polycarbonate substrate, said coating being formed by curing a polysiloxane-based thermosetting coating material at a temperature in the range of 140 to 210 °C for 0.5 to 2 hours; wherein said polycarbonate composite has a pencil hardness higher than H, as measured according to ASTM D3363.
Electrical traction drive for a vehicle, having at least two individual wheel drives which can be controlled independently of each other, characterised by two individually driven wheels on an axle and a common energy source for the two individually driven wheels on the axle, wherein in order to produce an emergency operation function the drives can be operated redundantly, wherein the two individual wheel drives each have an individual control and/or power networking in the manner of a subsystem and wherein each subsystem comprises a separate data bus interface on a central axle drive control device for controlling the individual wheel drives.
Rooftop mounted air conditioning installation, in particular for a bus roof, at least having a condenser unit and an evaporator unit, which has an air flow duct having at least one air intake opening (6, 7) and one air discharge opening, wherein in the air flow duct between the air intake opening (6, 7) and the air discharge opening a heat exchanger and a radial fan generating an air flow are arranged, and a rotation axis of a fan wheel of the radial fan is aligned parallel to an air flow main direction extending through the air flow duct from the at least one air intake opening (6, 7) through the heat exchanger to the radial fan, wherein the radial fan is accommodated in a semi-spiral housing, whereby the semi-spiral housing has at least one open side which adjoins the air discharge opening, the semi-spiral housing having a discharge contour having an air guide section on the discharge side, which has a negative inclination with respect to a vertical blow-off direction perpendicular to the air flow main direction, characterized in that the fan wheel has backwardly curved fan blades and the air guide section has a curvature in an axial plan view which corresponds in direction to the curvature of the fan blades of the fan wheel.
A transformable bicycle capable of being transformed into a cart through folding, the transformable bicycle comprising: a pair of front fork members (1, 1') lower ends of which are connected to a front wheel by first fork support bars (2, 2'), upper ends of which are connected by a second fork support bar, and which are arranged with the front wheel interposed therebetween; a head tube which is connected to the second fork support bar by a head tube shaft; a frame which has a hole into which the head tube is fitted, which is coupled to the head tube by a bolt pin, and which is connected such that the head tube is rotatable around the bolt pin; a first fastening device which is located at an upper end of the frame, and which is connected to the head tube; a second fastening device which is installed with the first fastening device and a spring interposed therebetween; a fastening device handle which is connected to the second fastening device by a first pin, both sides of which are coupled to the frame by second pins (14', 14'a), and which allows the front fork members 1, 1') to be folded toward the frame in such a manner that the fastening device handle rotates the head tube connected to the fastening devices ( 11, 13) around the bolt pin by pulling the fastening devices (11, 13) during rotation around the second pins (14', 14'a); a seat which is supported on the frame by a seat fastening device; and a rear wheel which is connected to and installed on a back of the frame. a pair of front fork members (1, 1') lower ends of which are connected to a front wheel by first fork support bars (2, 2'), upper ends of which are connected by a second fork support bar, and which are arranged with the front wheel interposed therebetween; a head tube which is connected to the second fork support bar by a head tube shaft; a frame which has a hole into which the head tube is fitted, which is coupled to the head tube by a bolt pin, and which is connected such that the head tube is rotatable around the bolt pin; a first fastening device which is located at an upper end of the frame, and which is connected to the head tube; a second fastening device which is installed with the first fastening device and a spring interposed therebetween; a fastening device handle which is connected to the second fastening device by a first pin, both sides of which are coupled to the frame by second pins (14', 14'a), and which allows the front fork members 1, 1') to be folded toward the frame in such a manner that the fastening device handle rotates the head tube connected to the fastening devices ( 11, 13) around the bolt pin by pulling the fastening devices (11, 13) during rotation around the second pins (14', 14'a); a seat which is supported on the frame by a seat fastening device; and a rear wheel which is connected to and installed on a back of the frame.
A method of additively fabricating an electromagnetic shielding element (200, 300), comprising the steps of: providing data defining one or more parameters of an electromagnetic shielding element to a computer aided design program; generating a digital model of the electromagnetic shielding element from the one or more parameters; transmitting the digital model of the electromagnetic shielding element to a computer aided printing program; generating a three dimensional printing pathway for forming the electromagnetic shielding element according to the digital model; transmitting the three dimensional printing pathway to a three dimensional printing tool; providing to the three dimensional printing tool a quantity of a compound consisting of a volume of molten tungsten suspended in a polymeric matrix, wherein the compound comprises at least 90 percent tungsten by weight and 40 to 60 percent tungsten by volume; dispensing from the three dimensional printing tool, the compound into a predetermined location according to the printing pathway, wherein the predetermined location defines the shape of the electromagnetic shielding element; and curing the compound to form a hardened compound comprising the volume of tungsten evenly distributed throughout a single layer of the polymeric matrix to define the electromagnetic shielding element, wherein the electromagnetic shielding element exhibits radiation shielding properties equivalent to a comparable shield formed of lead. providing data defining one or more parameters of an electromagnetic shielding element to a computer aided design program; generating a digital model of the electromagnetic shielding element from the one or more parameters; transmitting the digital model of the electromagnetic shielding element to a computer aided printing program; generating a three dimensional printing pathway for forming the electromagnetic shielding element according to the digital model; transmitting the three dimensional printing pathway to a three dimensional printing tool; providing to the three dimensional printing tool a quantity of a compound consisting of a volume of molten tungsten suspended in a polymeric matrix, wherein the compound comprises at least 90 percent tungsten by weight and 40 to 60 percent tungsten by volume; dispensing from the three dimensional printing tool, the compound into a predetermined location according to the printing pathway, wherein the predetermined location defines the shape of the electromagnetic shielding element; and curing the compound to form a hardened compound comprising the volume of tungsten evenly distributed throughout a single layer of the polymeric matrix to define the electromagnetic shielding element, wherein the electromagnetic shielding element exhibits radiation shielding properties equivalent to a comparable shield formed of lead.
Method for producing glasses, in which an - except for unavoidable raw material impurities - arsenic-, antimony- and tin-free glass mixture is used and at least one sulphate compound is used as a refining agent, wherein the glass mixture comprising the refining agent is melted down in a melting tank, wherein in a first region of the melting tank melting down and primary refining is carried out, wherein in the first region an average melting temperature T 1 is adjusted to 1580 °C < T 1 ≤ 1660 °C and an average dwell time of the melt t 1 is adjusted to 2h < t 1 ≤ 25h, wherein in a second region of the melting tank secondary refining is carried out, wherein in the second region an average melting temperature T 2 is adjusted to 1660 °C < T 2 ≤ 1720 °C and an average dwell time of the melt t 2 is adjusted to 1h < t 2 ≤ 10h, and wherein the proportion of the SO 3 caused by decomposition of the sulphate compound is reduced to less than 0.002 wt.% at the latest while the secondary refining is carried out, and wherein after the secondary refining high-temperature refining is carried out in a temperature range of 1750 °C to 2000°C with a dwell time from 12 to 20 min.
A method for producing a hemocompatible article, in which method: - a forming mold having the configuration of said article is produced; - a polytetrafluoroethylene membrane is conformed to the configuration of said article by heating it and applying it against said forming mold by means of a pressure difference generated between the two faces of said membrane; - said membrane thus conformed is cooled while still keeping it applied against said forming mold; and - said conformed membrane is removed from said forming mold, characterized in that: - said membrane is made of an expanded polytetrafluoroethylene which has not been thermally stabilized, prior to its conformation to the configuration of said article, and the fibers of which membrane have no preferred orientation; and - said membrane is heated while it is being conformed to the configuration of said article, up to a temperature above the gel point of said expanded polytetrafluoroethylene. - a forming mold having the configuration of said article is produced; - a polytetrafluoroethylene membrane is conformed to the configuration of said article by heating it and applying it against said forming mold by means of a pressure difference generated between the two faces of said membrane; - said membrane thus conformed is cooled while still keeping it applied against said forming mold; and - said conformed membrane is removed from said forming mold, - said membrane is made of an expanded polytetrafluoroethylene which has not been thermally stabilized, prior to its conformation to the configuration of said article, and the fibers of which membrane have no preferred orientation; and - said membrane is heated while it is being conformed to the configuration of said article, up to a temperature above the gel point of said expanded polytetrafluoroethylene.
A method of planning a procedure to fasten an implant (10, 310) to a bone (70, 370) comprising: displaying on a display device a model of the bone (70, 370); displaying on the display device a model of the implant (70, 370) having at least one aperture (40, 316) for receiving a fastener (50, 350); positioning the model implant on the model bone in a desired implant position; displaying on the display device a first boundary volume (52A-C, 352A-C) of a first fastener (50, 350) configured to fasten the implant (10, 310) to the bone (70, 370), characterized by the first boundary volume (52A-C, 352A-C) representing a range of possible positions that the first fastener (50, 350) may have when fully received within the at least one aperture (40, 316), wherein the range of possible positions is based on inputs of (i) a length of the first fastener (50, 350) and (ii) a range of angulation that the first fastener (50, 350) may have with respect to the implant (10, 310) when the first fastener (50, 350) is fully received within the at least one aperture (40, 316), wherein the range of angulation is based on a shape of the at least one aperture (40, 316) and a shape of a head of the first fastener (50, 350). displaying on a display device a model of the bone (70, 370); displaying on the display device a model of the implant (70, 370) having at least one aperture (40, 316) for receiving a fastener (50, 350); positioning the model implant on the model bone in a desired implant position; displaying on the display device a first boundary volume (52A-C, 352A-C) of a first fastener (50, 350) configured to fasten the implant (10, 310) to the bone (70, 370), characterized by the first boundary volume (52A-C, 352A-C) representing a range of possible positions that the first fastener (50, 350) may have when fully received within the at least one aperture (40, 316), wherein the range of possible positions is based on inputs of (i) a length of the first fastener (50, 350) and (ii) a range of angulation that the first fastener (50, 350) may have with respect to the implant (10, 310) when the first fastener (50, 350) is fully received within the at least one aperture (40, 316), wherein the range of angulation is based on a shape of the at least one aperture (40, 316) and a shape of a head of the first fastener (50, 350).