mhurhangee/ep-ind-claims huggingface dataset:
Snowsports device comprising: - a snowsports board extending in a longitudinal direction, - a heel piece secured to the snowsports board, the heel piece comprising a holding device designed to engage with the heel of a boot in order to retain the latter, the holding device being able to pivot about an axis of rotation perpendicular to the longitudinal direction and the transverse direction of the snowsports board, characterized in that the axis of rotation is able to move in a direction transverse to the snowsports board, the displacement of the axis of rotation being a linear translation or a displacement towards the rear of the snowsports board. - a snowsports board extending in a longitudinal direction, - a heel piece secured to the snowsports board, the heel piece comprising a holding device designed to engage with the heel of a boot in order to retain the latter, the holding device being able to pivot about an axis of rotation perpendicular to the longitudinal direction and the transverse direction of the snowsports board,
Method for recharging the battery or batteries of a DC generating unit for supplying at least one isolated electrical load and wherein the batteries are associated to an integrated electric power station incorporating the DC generating unit with a corresponding generator for supplying DC electric power to the electrical load, characterised in that it foresees the removable insertion in series to the load of a voltage limiting device just during the charging step of the batteries; the insertion of the voltage limiting device occurs automatically, through a by-pass switch, normally closed, connected in parallel to the voltage limiting devise, when a predetermined current absorption threshold has been exceeded by the batteries, indicating the need to be recharged.
A method of determining a precedence for matching fingerprints of input data to an index of fingerprints identifying a plurality of instances of data in a compression history, the method comprising the steps of: (a) establishing, by a device having a compression history, an index that corresponds fingerprints of a plurality of portions of data of the compression history to location identifiers identifying locations in a storage element having the plurality of portions of data; (b) identifying, by the device, that a plurality of fingerprints of input data match a plurality of entries in the index having at least one location identifier; (c) selecting, by the device, an entry of the plurality of entries having a fewest number of location identifiers; and (d) matching, by the device, a first portion of the input data to data in a first location in the compression.history identified by the selected entry. (a) establishing, by a device having a compression history, an index that corresponds fingerprints of a plurality of portions of data of the compression history to location identifiers identifying locations in a storage element having the plurality of portions of data; (b) identifying, by the device, that a plurality of fingerprints of input data match a plurality of entries in the index having at least one location identifier; (c) selecting, by the device, an entry of the plurality of entries having a fewest number of location identifiers; and (d) matching, by the device, a first portion of the input data to data in a first location in the compression.history identified by the selected entry.
A wheel axle for a vehicle, the wheel axle comprising a shaft extending along a main axis, a first protection device and at least one second protection device, each device comprising a body at least partially surrounding the shaft in a plane perpendicular to the main axis, the body having a first end portion and a second end portion, the end portions (40, 45) being opposite one another along the main axis, characterized in that the first end portion of the first device at least partially surrounds the second end portion of the second device in a plane perpendicular to the main axis.
A building door comprising a door frame, a door wing, and a door hinge, wherein the door hinge has a frame part and a wing part, which are connected to one another via a first joint bracket and a second joint bracket, wherein, starting at the closed position, the door hinge has an opening angle of at least 135° until reaching a maximum open position, and the joint brackets (4, 5) form a 4-axis joint assembly, in the case of which the first joint bracket is rotatably fastened to the frame part about a first frame partial axis as well as rotatably fastened to the wing part about a first wing partial axis, and wherein the second joint bracket is rotatably fastened to the frame part about a second frame partial axis as well as rotatably fastened to the wing part about a second wing partial axis, and the two joint brackets (4, 5) are not directly connected to one another, and wherein the frame part has two side legs and at least one central leg, wherein the joint brackets (4, 5) are rotatably arranged between a side leg and a central leg or between two central legs in a joint bracket section, characterized in that the wing part is fastened to a narrow side of the door wing, and, in the closed position, the wing partial axes (11, 12) are arranged completely within a door gap between door wing and door frame.
A trackball module, comprising: a trackball configured to receive a control command from a user, a support on which the trackball is mounted and a side portion, and a lighting device disposed between the support and the side portion and configured to emit light, wherein the lighting device comprises: a light source; an optical passage (121, 123) configured to provide an optical path through which light emitted from the light source passes while being reflected at least once; and a light exit opening defined at one end of the optical passage (121, 123) from which light passing through the optical passage (121, 123) is emitted to an outside of the lighting device, wherein the light exit opening is defined around the trackball, wherein the optical passage (121, 123) is bent at one or more bent portion characterised in that the optical passage has a step-like shape formed between the support and the side portion. a trackball configured to receive a control command from a user, a support on which the trackball is mounted and a side portion, and a lighting device disposed between the support and the side portion and configured to emit light, wherein the lighting device comprises: a light source; an optical passage (121, 123) configured to provide an optical path through which light emitted from the light source passes while being reflected at least once; and a light exit opening defined at one end of the optical passage (121, 123) from which light passing through the optical passage (121, 123) is emitted to an outside of the lighting device, wherein the light exit opening is defined around the trackball, wherein the optical passage (121, 123) is bent at one or more bent portion characterised in that the optical passage has a step-like shape formed between the support and the side portion. a light source; an optical passage (121, 123) configured to provide an optical path through which light emitted from the light source passes while being reflected at least once; and a light exit opening defined at one end of the optical passage (121, 123) from which light passing through the optical passage (121, 123) is emitted to an outside of the lighting device, wherein the light exit opening is defined around the trackball, wherein the optical passage (121, 123) is bent at one or more bent portion characterised in that the optical passage has a step-like shape formed between the support and the side portion.
A polymer composition comprising: a polycarbonate polymer; a laser direct structuring additive comprising a copper salt, the laser direct structuring additive being capable of being activated by electromagnetic radiation and thereby forming elemental metal nuclei; a reflection additive, wherein the polymer composition is capable of being plated after being activated using a laser, and a reinforcing filler comprising a flat glass fiber present in an amount in the range from 10 weight % to 50 weight % relative to the total weight of the polymer composition, and wherein the combined weight percent value of all components is 100. a polycarbonate polymer; a laser direct structuring additive comprising a copper salt, the laser direct structuring additive being capable of being activated by electromagnetic radiation and thereby forming elemental metal nuclei; a reflection additive, wherein the polymer composition is capable of being plated after being activated using a laser, and a reinforcing filler comprising a flat glass fiber present in an amount in the range from 10 weight % to 50 weight % relative to the total weight of the polymer composition, and wherein the combined weight percent value of all components is 100.
A frame structure for solar cell module, comprising: four sidebars and four corner connectors in a manner that any two neighboring sidebars are connected by one corner connector selected from the four corner connectors, wherein each of the four sidebars is comprised of a bottom, a first vertical wall, a second vertical wall, a first horizontal wall and a second horizontal wall in a manner that the first vertical wall is formed with a width larger than that of the second vertical wall, and the first vertical wall is connected to an end of the bottom by an end thereof while being arranged perpendicular to the bottom; the second vertical wall is connected to the bottom and is arranged perpendicular to the bottom while allowing the second vertical wall to be spaced from the first vertical wall by a specific first distance; the second horizontal wall is connected to an end of the first vertical wall that is disposed away from the bottom while being arranged perpendicular to the first vertical wall; the first horizontal wall is perpendicularly connected to the first vertical wall and is spaced from the second horizontal wall by a specific second distance while being arranged abutting against an end of the second vertical wall that is disposed away from the bottom; characterized in that the second horizontal wall is formed with a thin panel at a side thereof that is proximate to the first horizontal wall while allowing the thin panel to extend toward the first horizontal wall, and to be formed with a height smaller than the specific second distance; the thin panel is arranged spacing from the first vertical wall by a specific third distance while enabling the specific third distance to be smaller than the specific first distance, wherein the thin panel is designed to sway in a direction toward or away from the first vertical wall by an angle (θ) before it is bended or snapped.
Sensor arrangement (100, 200, 210, 220, 230, 240, 250) comprising a radar module configured to transmit a first signal, wherein the first signal is a radar signal, and to receive a reflection of the first signal; a sensor module configured to transmit and/or receive a second signal different to a radar signal; and a deflector that is transparent for radar signals and deflective for the second signal, wherein the deflector is arranged in a first beam path of the first signal in a predetermined angle; and configured to deflect a second beam path of the second signal into the first beam path of the first signal, wherein the deflector comprises a semiconductor coating or a dielectric coating. a radar module configured to transmit a first signal, wherein the first signal is a radar signal, and to receive a reflection of the first signal; a sensor module configured to transmit and/or receive a second signal different to a radar signal; and a deflector that is transparent for radar signals and deflective for the second signal, wherein the deflector is arranged in a first beam path of the first signal in a predetermined angle; and configured to deflect a second beam path of the second signal into the first beam path of the first signal, wherein the deflector comprises a semiconductor coating or a dielectric coating.
A solenoid pump, comprising: a housing with an inlet port and an outlet port; a first through-bore connecting the inlet and outlet ports (104, 106); a plunger disposed within the first through-bore and including a second through-bore; a spring arranged to urge the plunger toward the outlet port; a solenoid coil arranged to displace the plunger toward the inlet port in response to a coil power applied to the solenoid coil; and, a control unit including: an input for accepting an input voltage; and, a power circuit for: generating the coil power during an interval equal to a time period (T off); supplying the coil power to the solenoid coil; and, selecting a duration of the time period (T off) such that the duration of the time period (T off) varies according to the input voltage, characterized in that, the spring is a variable rate spring with a conical shape, wherein and a first diameter of the spring 114 is less than a second diameter; and a one-way check-valve is arranged at the inlet. a housing with an inlet port and an outlet port; a first through-bore connecting the inlet and outlet ports (104, 106); a plunger disposed within the first through-bore and including a second through-bore; a spring arranged to urge the plunger toward the outlet port; a solenoid coil arranged to displace the plunger toward the inlet port in response to a coil power applied to the solenoid coil; and, a control unit including: an input for accepting an input voltage; and, a power circuit for: generating the coil power during an interval equal to a time period (T off); supplying the coil power to the solenoid coil; and, selecting a duration of the time period (T off) such that the duration of the time period (T off) varies according to the input voltage, characterized in that, the spring is a variable rate spring with a conical shape, wherein and a first diameter of the spring 114 is less than a second diameter; and a one-way check-valve is arranged at the inlet. an input for accepting an input voltage; and, a power circuit for: generating the coil power during an interval equal to a time period (T off); supplying the coil power to the solenoid coil; and, selecting a duration of the time period (T off) such that the duration of the time period (T off) varies according to the input voltage, generating the coil power during an interval equal to a time period (T off); supplying the coil power to the solenoid coil; and, selecting a duration of the time period (T off) such that the duration of the time period (T off) varies according to the input voltage, the spring is a variable rate spring with a conical shape, wherein and a first diameter of the spring 114 is less than a second diameter; and a one-way check-valve is arranged at the inlet.
A display engine (404a, 404b, 404c, 404d) for use with one or more optical waveguides each including an input-coupler and an output-coupler, each of the optical waveguide(s) configured to cause light that is coupled into the optical waveguide by the input-coupler thereof, to travel by way of total internal reflection to the output-coupler thereof where the light is coupled out of the waveguide, the display engine comprising: one or more light emitting elements each of which is configured to emit light in response to being driven; an optical subsystem configured to produce a single collimated beam of light from the light emitted by the one or more light emitting elements; one or more image producing MEMS mirrors (420, 431, 432) at least one of which is positioned to reflect the single collimated beam of light produced by the optical subsystem; one or more image reprojecting MEMS mirrors (422, 441, 442); and a controller configured to control the one or more image producing MEMS mirrors (420, 431, 432) and the one or more image reprojecting MEMS mirrors (422, 441, 442); wherein the one or more image reprojecting MEMS mirrors (422, 441, 442) is/are controlled and is/are positioned relative to the one or more image producing MEMS mirrors (420, 431, 432) and relative to the input-coupler(s) of the optical waveguide(s) so that a pupil corresponding to a scanned image that the one or more image producing MEMS mirrors project onto one of the one or more image reprojecting MEMS mirrors, is reprojected by the one or more image reprojecting MEMS mirrors onto the input-coupler(s) of the optical waveguide(s) and thereby coupled into the optical waveguide(s) by the input-coupler(s) to reduce a size of the reprojected pupil at the input-coupler(s) to a size smaller than a size of the pupil that is projected onto one of the one or more image reprojecting MEMS mirrors by the one or more image producing MEMS mirrors. one or more light emitting elements each of which is configured to emit light in response to being driven; an optical subsystem configured to produce a single collimated beam of light from the light emitted by the one or more light emitting elements; one or more image producing MEMS mirrors (420, 431, 432) at least one of which is positioned to reflect the single collimated beam of light produced by the optical subsystem; one or more image reprojecting MEMS mirrors (422, 441, 442); and a controller configured to control the one or more image producing MEMS mirrors (420, 431, 432) and the one or more image reprojecting MEMS mirrors (422, 441, 442);
A method for checking a value document which has a security element having a plurality of magnetic regions (h, 1, k, w), wherein the plurality of magnetic regions of the security element has at least one high-coercivity magnetic region (h) which contains a high-coercivity magnetic material having a first coercive field strength, and optionally at least one low-coercivity magnetic region which contains a low-coercivity magnetic material having a second coercive field strength which is lower than the first coercive field strength, and/or at least one combined magnetic region (k) which contains the high-coercivity as well as the low-coercivity magnetic material, wherein in the method the following steps are carried out: - effecting first magnetizing of the security element by a first magnetic field whose magnetic field strength is greater than the first coercive field strength, so that the magnetization of the high-coercivity magnetic material and the magnetization of the low-coercivity magnetic material are aligned in a first magnetization direction, and thereafter - detecting first magnetic signals of the security element by a first magnetic detector, and thereafter - effecting second magnetizing of the security element by a second magnetic field whose magnetic field strength is smaller than the first coercive field strength, but is greater than the second coercive field strength, wherein the second magnetic field is so oriented that the magnetization of the low-coercivity magnetic material is aligned anti-parallel to the first magnetization direction by the second magnetizing, and detecting second magnetic signals of the security element by a second magnetic detector, characterized in that the second magnetic signals of the security element are detected under the action of the second magnetic field, wherein the respective magnetic region whose second magnetic signal is detected, is located, during the detection of its second magnetic signals, in the second magnetic field whose magnetic field strength is smaller than the first coercive field strength, but greater than the second coercive field strength. - effecting first magnetizing of the security element by a first magnetic field whose magnetic field strength is greater than the first coercive field strength, so that the magnetization of the high-coercivity magnetic material and the magnetization of the low-coercivity magnetic material are aligned in a first magnetization direction, and thereafter - detecting first magnetic signals of the security element by a first magnetic detector, and thereafter - effecting second magnetizing of the security element by a second magnetic field whose magnetic field strength is smaller than the first coercive field strength, but is greater than the second coercive field strength, wherein the second magnetic field is so oriented that the magnetization of the low-coercivity magnetic material is aligned anti-parallel to the first magnetization direction by the second magnetizing, and detecting second magnetic signals of the security element by a second magnetic detector,
A method of manufacturing a semiconductor light emitting device, the method comprising: forming a light emitting structure by sequentially growing an n-type nitride semiconductor layer (102, 302), an active layer (103, 303), and a p-type nitride semiconductor layer (104, 304) on a substrate (101, 301); forming a transparent electrode (105, 305) on the p-type nitride semiconductor layer (104, 304) through a sputtering process; and characterized by forming a nitrogen gas atmosphere in an interior of a reaction chamber in which the sputtering process is performed, prior to or during the sputtering process, wherein the transparent electrode (105, 305) includes one part thereof formed in the nitrogen gas atmosphere and another part thereof formed in a state in which a supply of nitrogen gas is interrupted, wherein the other part thereof is formed after the one part thereof is formed and after the transparent electrode entirely covers an upper surface of the p-type nitride semiconductor layer (104, 304). forming a light emitting structure by sequentially growing an n-type nitride semiconductor layer (102, 302), an active layer (103, 303), and a p-type nitride semiconductor layer (104, 304) on a substrate (101, 301); forming a transparent electrode (105, 305) on the p-type nitride semiconductor layer (104, 304) through a sputtering process; and characterized by forming a nitrogen gas atmosphere in an interior of a reaction chamber in which the sputtering process is performed, prior to or during the sputtering process, wherein the transparent electrode (105, 305) includes one part thereof formed in the nitrogen gas atmosphere and another part thereof formed in a state in which a supply of nitrogen gas is interrupted, wherein the other part thereof is formed after the one part thereof is formed and after the transparent electrode entirely covers an upper surface of the p-type nitride semiconductor layer (104, 304).
An article comprising: a panel having at least a first panel edge and an outer surface, characterized in that the panel comprising a plurality of integrally-formed flaps that extend from the outer surface of the panel; and a trim piece affixed to the panel proximate to the first panel edge and securing an end portion of at least one of the plurality of flaps between the trim piece and the outer surface of the panel. a panel having at least a first panel edge and an outer surface, characterized in that the panel comprising a plurality of integrally-formed flaps that extend from the outer surface of the panel; and a trim piece affixed to the panel proximate to the first panel edge and securing an end portion of at least one of the plurality of flaps between the trim piece and the outer surface of the panel.
A motor comprising: a stator portion (11, 12a, 12b), including a stator core and core holder (12a, 12b); a rotor portion (26, 28a, 28b), including a rotor core, attached to a rotational shaft; a first bearing portion, placed at one end of the rotor portion, for supporting the rotational shaft; a bearing bracket attached to the first bearing portion; a second bearing portion, placed at the other end of the rotor portion, for supporting the rotational shaft; a first bracket attached to both of the stator core holder and the bearing bracket, a second bracket attached to both of the stator core holder and the second bearing portion, characterised in that: the core holder (12a, 12b) has a first groove and a second groove (72a, 76a); and in that the first bracket has a first protruding portion engaged with the first groove; and in that the second bracket has a second protruding portion engaged with the second groove.