mhurhangee/ep-ind-claims huggingface dataset:
A power supply for converting alternating current AC, into direct current, DC, for powering a device, the power supply comprising: an AC circuit adapted for coupling to a source of alternating current and having a first common reference point that defines an AC reference point; a DC circuit coupled to the AC circuit and providing direct current terminals for coupling to the powered device and having a second common reference point that defines a DC reference point; the AC and DC reference points being electrically isolated to substantially inhibit the flow of direct current there between; a first attachment point that provides an energy pathway to the AC reference point; a second attachment point that provides an energy pathway to the DC reference point; a spark gap structure coupled to the first and second attachment points, the spark gap structure being configured to substantially inhibit the flow of direct current between the first and second attachment points while providing a static electricity energy path between the first and second attachment points, characterized in that: the DC circuit includes a first metal heat sink structure and the AC circuit includes a second metal heat sink structure, wherein the first metal heat sink structure defines a first portion of the spark gap structure, the second metal heat sink structure defines a second portion of the spark gap structure, and the first metal heat sink structure dissipates heat from a component of the DC circuit portion other than the spark gap structure itself. an AC circuit adapted for coupling to a source of alternating current and having a first common reference point that defines an AC reference point; a DC circuit coupled to the AC circuit and providing direct current terminals for coupling to the powered device and having a second common reference point that defines a DC reference point; the AC and DC reference points being electrically isolated to substantially inhibit the flow of direct current there between; a first attachment point that provides an energy pathway to the AC reference point; a second attachment point that provides an energy pathway to the DC reference point; a spark gap structure coupled to the first and second attachment points, the spark gap structure being configured to substantially inhibit the flow of direct current between the first and second attachment points while providing a static electricity energy path between the first and second attachment points, the DC circuit includes a first metal heat sink structure and the AC circuit includes a second metal heat sink structure, wherein the first metal heat sink structure defines a first portion of the spark gap structure, the second metal heat sink structure defines a second portion of the spark gap structure, and the first metal heat sink structure dissipates heat from a component of the DC circuit portion other than the spark gap structure itself.
Sanitization device for water tanks, comprising: - at least one pipe for conveying an air flow, provided with at least one end situated inside a tank; - supply means connected to said pipe and able to convey said air flow inside it and introduce it into said tank; characterized in that it comprises ionization means which are located outside of said tank and arranged along said pipe upstream of said tank and interfere with said air flow, generating a concentration of ions inside it; said ionization means comprising a hermetic box-shaped body inside which said air flow is intended to flow from at least its inlet mouth to at least its outlet mouth; said box-shaped body containing one or more capacitors which interfere with the air flow which flows inside the box-shaped body so as to generate inside it a concentration of ions, substantially without the formation of ozone. - at least one pipe for conveying an air flow, provided with at least one end situated inside a tank; - supply means connected to said pipe and able to convey said air flow inside it and introduce it into said tank;
An electronic pen comprising: a core body; a circuit board; a connection member that holds the core body at a first end thereof and fixes the circuit board at a second end thereof; a rigid tubular member that is fixed to the connection member at the second end and accommodates the circuit board fixed by the connection member at the second end; and a casing that accommodates the core body, the circuit board, the connection member, and the rigid tubular member in such a manner as to protrude a tip portion of the core body, wherein the rigid tubular member has a side opening enabling an operation to be performed on the accommodated circuit board fixed by the connection member at the second end. a core body; a circuit board; a connection member that holds the core body at a first end thereof and fixes the circuit board at a second end thereof; a rigid tubular member that is fixed to the connection member at the second end and accommodates the circuit board fixed by the connection member at the second end; and a casing that accommodates the core body, the circuit board, the connection member, and the rigid tubular member in such a manner as to protrude a tip portion of the core body, wherein the rigid tubular member has a side opening enabling an operation to be performed on the accommodated circuit board fixed by the connection member at the second end.
A method comprising: dividing a display of an electronic device into multiple regions defined by vertices; calculating time varying positions for each vertex relative to a z dimension; wherein the z dimension corresponds to an appearance of depth, and composing a screen for the display that includes the time varying positions for each vertex to create an animated display distortion; wherein the varying positions vary between enlarged and shrunken, creating a distortion in the display; wherein the varying positions appear to move closer and further away from a user viewing the display; characterized in that creating the varying positions utilizes a piston rod sin function, wherein a length of the piston rod is varied over time. dividing a display of an electronic device into multiple regions defined by vertices; calculating time varying positions for each vertex relative to a z dimension; wherein the z dimension corresponds to an appearance of depth, and composing a screen for the display that includes the time varying positions for each vertex to create an animated display distortion; wherein the varying positions vary between enlarged and shrunken, creating a distortion in the display; wherein the varying positions appear to move closer and further away from a user viewing the display; characterized in that creating the varying positions utilizes a piston rod sin function, wherein a length of the piston rod is varied over time.
A desulfurization unit of a solid oxide fuel cell (SOFC) system, comprising a container for holding a desulfurizing agent, wherein: the container comprises an inner wall and an outer wall, a water cavity is formed between the inner wall and the outer wall; a water inlet and a water outlet in communication with the water cavity are arranged on the outer wall; the top of the container is provided with a gas outlet; the bottom of the container is provided with a gas inlet; and a double threaded bush is arranged at the gas outlet, wherein: the double threaded bush comprises an inner bush and an outer bush in a threaded engagement; an outer wall of the outer bush is in threaded engagement with a wall of the gas outlet; and an inner wall of the inner bush is in threaded engagement with an adapter. the container comprises an inner wall and an outer wall, a water cavity is formed between the inner wall and the outer wall; a water inlet and a water outlet in communication with the water cavity are arranged on the outer wall; the top of the container is provided with a gas outlet; the bottom of the container is provided with a gas inlet; and a double threaded bush is arranged at the gas outlet, wherein: the double threaded bush comprises an inner bush and an outer bush in a threaded engagement; an outer wall of the outer bush is in threaded engagement with a wall of the gas outlet; and an inner wall of the inner bush is in threaded engagement with an adapter. the double threaded bush comprises an inner bush and an outer bush in a threaded engagement; an outer wall of the outer bush is in threaded engagement with a wall of the gas outlet; and an inner wall of the inner bush is in threaded engagement with an adapter.
A flat, flexible heating cable (1, 11) comprising: - at least two metal conductors (3, 13) extending along the longitudinal direction of the heating cable (1, 11); - a heating matrix (4, 14) in which the metal conductors (3, 13) are embedded; and - an electric insulator (5, 15) surrounding the heating matrix (4, 14), the heating matrix (4, 14) being flat and having a flat upper face and a flat lower face such that the electric insulator (5, 15) has a flat upper outer face and a flat lower outer face; the heating cable being characterized in that it comprises: - a heat insulator (6, 16) formed on one of the upper and lower outer faces of the electric insulator (5, 15); and - an adhesive layer (7, 17) formed on the other of the upper and lower outer faces of the electric insulator (5, 15), the adhesive face of the adhesive layer (7, 17) being opposed to that arranged on the electric insulator (5, 15) and configured to bond the heating cable (1, 11) on a support, the heat insulator (6, 16) and the adhesive layer (7, 17) being appended at the sides of the electric insulator (5, 15) such that the heat insulator (6, 16) and the adhesive layer (7, 17) wrap the electric insulator (5, 15); the heat resistance of the heat insulator (6, 16) being greater than that of the adhesive layer (7, 17) such that a heat flow generated by the heating matrix (4, 14) is directed towards the outer face of the electric insulator (5, 15) carrying the adhesive layer (7, 17). - at least two metal conductors (3, 13) extending along the longitudinal direction of the heating cable (1, 11); - a heating matrix (4, 14) in which the metal conductors (3, 13) are embedded; and - an electric insulator (5, 15) surrounding the heating matrix (4, 14), the heating matrix (4, 14) being flat and having a flat upper face and a flat lower face such that the electric insulator (5, 15) has a flat upper outer face and a flat lower outer face; - a heat insulator (6, 16) formed on one of the upper and lower outer faces of the electric insulator (5, 15); and - an adhesive layer (7, 17) formed on the other of the upper and lower outer faces of the electric insulator (5, 15), the adhesive face of the adhesive layer (7, 17) being opposed to that arranged on the electric insulator (5, 15) and configured to bond the heating cable (1, 11) on a support, the heat insulator (6, 16) and the adhesive layer (7, 17) being appended at the sides of the electric insulator (5, 15) such that the heat insulator (6, 16) and the adhesive layer (7, 17) wrap the electric insulator (5, 15);
A transparent laminated film, which is a laminated film having a cured layer on both a front and a back sides of a base film, wherein the cured layer comprises a photocurable resin having a cyclic aliphatic hydrocarbon backbone, aromatic hydrocarbon backbone, cyclic acetal backbone, cyclic ketone backbone, or siloxane backbone; and having a glass transition temperature (Tg) which is higher than 200°C, a storage elastic modulus (E') by dynamic viscoelasticity measurement in at least one direction of the laminated film at a temperature of 200°C is greater than a storage elastic modulus (E') in at least one direction of the base film in the same conditions, and a total light transmittance of the laminated film is 80% or greater.
A method for wireless interaction of an input device held by a player with a portable device having a display and supported by a stand, the method comprising: establishing a communications link between the portable device and the stand; tracking, by the stand, motion of the input device within an interactivity zone; interfacing the portable device with the input device to generate actions associated with game objects in the portable device, the interfacing taking place when the input device is in the interactivity zone, and wherein the portable device is a wireless controller, the interfacing step comprising: capturing an image of the interactivity zone using a camera; receiving inertial movement information from the wireless controller; and analyzing the captured image and the inertial movement information to determine motion of the wireless controller; moving the stand, by itself, when the tracking detects that the input device is outside predefined boundaries near an edge of the interactivity zone, so as to place the display facing the player and to centre the player in the camera's field of vision; and communicating stand movement information via the communications link to update a location of the interactivity zone and maintain a spatial reference for interfacing the portable device with the input device. establishing a communications link between the portable device and the stand; tracking, by the stand, motion of the input device within an interactivity zone; interfacing the portable device with the input device to generate actions associated with game objects in the portable device, the interfacing taking place when the input device is in the interactivity zone, and wherein the portable device is a wireless controller, the interfacing step comprising: capturing an image of the interactivity zone using a camera; receiving inertial movement information from the wireless controller; and analyzing the captured image and the inertial movement information to determine motion of the wireless controller; moving the stand, by itself, when the tracking detects that the input device is outside predefined boundaries near an edge of the interactivity zone, so as to place the display facing the player and to centre the player in the camera's field of vision; and capturing an image of the interactivity zone using a camera; receiving inertial movement information from the wireless controller; and analyzing the captured image and the inertial movement information to determine motion of the wireless controller; moving the stand, by itself, when the tracking detects that the input device is outside predefined boundaries near an edge of the interactivity zone, so as to place the display facing the player and to centre the player in the camera's field of vision; and communicating stand movement information via the communications link to update a location of the interactivity zone and maintain a spatial reference for interfacing the portable device with the input device.
A method for controlling synchronization between a multimedia flow and a related social network thread, comprising the following steps in a device able to capture the multimedia flow and the social network thread: selecting a time interval, determining a list of multimedia keywords associated with a part of the multimedia flow corresponding to the time interval, each multimedia keyword being associated with a timestamp, determining a list of social keywords associated with a part of the social network thread corresponding to the time interval, each social keyword being associated with a timestamp, producing a filtered list of filtered multimedia keywords by selecting distinctive multimedia keywords, each filtered multimedia keyword being associated with a set of similar social keywords, computing a set of delays for at least one filtered multimedia keyword, each delay corresponding to the time difference between the timestamp of the filtered multimedia keyword and the timestamp of a similar social keyword associated with the filtered multimedia keyword, determining a drift for the time interval by means of at least one set of delays, wherein the drift for the time interval is determined by means of global delays related to filtered multimedia keywords, a global delay related to a filtered multimedia keyword being an average of a given number of delays associated with the filtered multimedia keyword, synchronizing the multimedia flow with the social network thread using the drift value. selecting a time interval, determining a list of multimedia keywords associated with a part of the multimedia flow corresponding to the time interval, each multimedia keyword being associated with a timestamp, determining a list of social keywords associated with a part of the social network thread corresponding to the time interval, each social keyword being associated with a timestamp, producing a filtered list of filtered multimedia keywords by selecting distinctive multimedia keywords, each filtered multimedia keyword being associated with a set of similar social keywords, computing a set of delays for at least one filtered multimedia keyword, each delay corresponding to the time difference between the timestamp of the filtered multimedia keyword and the timestamp of a similar social keyword associated with the filtered multimedia keyword, determining a drift for the time interval by means of at least one set of delays, wherein the drift for the time interval is determined by means of global delays related to filtered multimedia keywords, a global delay related to a filtered multimedia keyword being an average of a given number of delays associated with the filtered multimedia keyword,
An apparatus comprising: a welding-type device; a data storage unit associated with the welding-type device and having identification information of the welding-type device, system-type identification information, and location information of the welding type device stored thereon, wherein the location information comprises data that enables the determination of the physical location of the welding-type device; and a wireless communication unit operationally attached to the data storage unit, the wireless communication unit configured to emit a signal carrying the identification information and the location information from the data storage unit in response to a system-type identification request from a monitoring device and based upon the system-type identification information stored on the data storage unit. a welding-type device; a data storage unit associated with the welding-type device and having identification information of the welding-type device, system-type identification information, and location information of the welding type device stored thereon, wherein the location information comprises data that enables the determination of the physical location of the welding-type device; and a wireless communication unit operationally attached to the data storage unit, the wireless communication unit configured to emit a signal carrying the identification information and the location information from the data storage unit in response to a system-type identification request from a monitoring device and based upon the system-type identification information stored on the data storage unit.
A welding system comprising: - a welding torch, - a display, and - a protective cover selectively movable between a first position and a second position, wherein while in the first position the protective cover is configured to block environmental elements from contacting the display, and while in the second position the protective cover is not configured to block environmental elements from contacting the display; characterized by a welding stand including a welding surface and the display, wherein the display shows an indication that the protective cover is in the first and/or the second position, and wherein control circuitry is configured to detect whether the protective cover is in the first position or the second position and to block live welding and/or to block availability of power provided to an outlet of the welding stand while the protective cover is in the second position, wherein the welding torch comprises a trigger configured to mechanically actuate a trigger switch between an open position and a closed position, wherein if the trigger is actuated while the protective cover is in the second position, the welding system is configured to provide a visual and/or audio feedback to an operator. - a welding torch, - a display, and - a protective cover selectively movable between a first position and a second position, wherein while in the first position the protective cover is configured to block environmental elements from contacting the display, and while in the second position the protective cover is not configured to block environmental elements from contacting the display; a welding stand including a welding surface and the display, wherein the display shows an indication that the protective cover is in the first and/or the second position, and wherein control circuitry is configured to detect whether the protective cover is in the first position or the second position and to block live welding and/or to block availability of power provided to an outlet of the welding stand while the protective cover is in the second position, wherein the welding torch comprises a trigger configured to mechanically actuate a trigger switch between an open position and a closed position, wherein if the trigger is actuated while the protective cover is in the second position, the welding system is configured to provide a visual and/or audio feedback to an operator.
A vacuum mold shuttle system for forming a hot glass sheet comprising: a mold including a downwardly facing surface that defines a shape to which the glass sheet is to be initially formed, a vacuum chamber, and openings that extend from the downwardly facing surface to the vacuum chamber; a mold support frame including at least one connection surface for mounting the mold thereon, and a mold conduit operably connected at a first location to the vacuum chamber and including an opening at a second location defining a first coupling port; a shuttle frame including a pair of generally parallel elongate beams, each of the beams including a support surface near one end of the beam for receiving and supporting the mold support frame thereon; a vacuum source mounted on the shuttle frame near an end of one of the beams opposite the end including the support surface for the mold support frame; a shuttle conduit (38, 39) operably connected at a first location to the vacuum source and including an opening at a second location defining a second coupling port; and a connector for releasably connecting the first coupling port to the second coupling port to provide communication of the vacuum from the vacuum source through the shuttle conduit (38, 39) and through the mold conduit to the vacuum chamber for selectively drawing a vacuum at the downwardly facing surface of the mold. a mold including a downwardly facing surface that defines a shape to which the glass sheet is to be initially formed, a vacuum chamber, and openings that extend from the downwardly facing surface to the vacuum chamber; a mold support frame including at least one connection surface for mounting the mold thereon, and a mold conduit operably connected at a first location to the vacuum chamber and including an opening at a second location defining a first coupling port; a shuttle frame including a pair of generally parallel elongate beams, each of the beams including a support surface near one end of the beam for receiving and supporting the mold support frame thereon; a vacuum source mounted on the shuttle frame near an end of one of the beams opposite the end including the support surface for the mold support frame; a shuttle conduit (38, 39) operably connected at a first location to the vacuum source and including an opening at a second location defining a second coupling port; and a connector for releasably connecting the first coupling port to the second coupling port to provide communication of the vacuum from the vacuum source through the shuttle conduit (38, 39) and through the mold conduit to the vacuum chamber for selectively drawing a vacuum at the downwardly facing surface of the mold.