mhurhangee/ep-ind-claims huggingface dataset:
Easel-shaped two-sided work in progress and warning sign with improved bundling, characterized by the fact that one of the wings (6, 7) of the sign has a plate which is hinged (12, 14) along the top edge of the opening of said wing used for gripping said sign, said plate having its free end curved downwards and having: - a first position where it is hung in its natural vertical position; - a second position where it is rotated towards the inside, inwards the opening and - a third position where it is rotated towards the outside of the wing onto which it is hinged, and where it becomes slightly protruded from the outer surface of the wing. - a first position where it is hung in its natural vertical position; - a second position where it is rotated towards the inside, inwards the opening and - a third position where it is rotated towards the outside of the wing onto which it is hinged, and where it becomes slightly protruded from the outer surface of the wing.
A step-through scooter type vehicle comprising: a handlebar assembly; a headlamp assembly disposed below said handlebar assembly; a front structure assembly including a top front panel configured to support at least a portion of said headlamp assembly; and an engine assembly disposed rearwardly to a floorboard assembly extending rearwardly from said front structure assembly, wherein said front structure assembly comprises one or more front bottom panels (105, 301) extending vertically downwards from a lowermost surface of the top front panel and rearwardly downwardly from the lowermost surface to a forward most edge of the floorboard assembly, and wherein said one or more front bottom panels (105, 301) includes a tapered portion disposed at a joining junction between at least a portion of the top front panel and at least a portion of said one or more front bottom panels (105, 301), characterized in that said one or more front bottom panels (105, 301), said top front panel and a rear cover form an inner chamber within which the rear portion of the headlamp assembly is concealed, and the tapered portion comprises at least one cut-out to receive at least one louvre (105a, 301a) disposed at a close proximity to said headlamp assembly and capable of directing air towards the inside of the inner chamber for cooling the headlamp assembly. a handlebar assembly; a headlamp assembly disposed below said handlebar assembly; a front structure assembly including a top front panel configured to support at least a portion of said headlamp assembly; and an engine assembly disposed rearwardly to a floorboard assembly extending rearwardly from said front structure assembly, wherein said front structure assembly comprises one or more front bottom panels (105, 301) extending vertically downwards from a lowermost surface of the top front panel and rearwardly downwardly from the lowermost surface to a forward most edge of the floorboard assembly, and wherein said one or more front bottom panels (105, 301) includes a tapered portion disposed at a joining junction between at least a portion of the top front panel and at least a portion of said one or more front bottom panels (105, 301), characterized in that said one or more front bottom panels (105, 301), said top front panel and a rear cover form an inner chamber within which the rear portion of the headlamp assembly is concealed, and the tapered portion comprises at least one cut-out to receive at least one louvre (105a, 301a) disposed at a close proximity to said headlamp assembly and capable of directing air towards the inside of the inner chamber for cooling the headlamp assembly.
An impact rotary tool comprising: a drive source supplied with power from a battery pack to rotate a hammer with a drive shaft; an output shaft rotated when struck by the hammer; a strike detector that detects striking by the hammer; a rotation speed detector that detects a rotation speed of the drive shaft; a rotation angle detector that detects a rotation angle of the output shaft during a strike interval from when the strike detector detects a preceding strike to when the strike detector detects a following strike; a torque calculator that calculates striking energy from an input rotation average speed during the strike interval, which is calculated based on the rotation speed of the drive shaft detected by the rotation speed detector, and calculates a tightening torque based on the calculated striking energy and the rotation angle of the output shaft during a strike interval detected by the rotation angle detector; and a controller that controls the drive source based on the tightening torque calculated by the torque calculator, characterized in that the controller performs PWM control to limit strike force applied when voltage of the battery pack is high and controls the drive source to maintain strike force even when the voltage of the battery pack is low, and in that the impact rotary tool also comprises a current detector that detects current supplied to the drive source, wherein the controller decreases a target rotation speed of the drive source when the current detected by the current detector is greater than or equal to an impact determination threshold. a drive source supplied with power from a battery pack to rotate a hammer with a drive shaft; an output shaft rotated when struck by the hammer; a strike detector that detects striking by the hammer; a rotation speed detector that detects a rotation speed of the drive shaft; a rotation angle detector that detects a rotation angle of the output shaft during a strike interval from when the strike detector detects a preceding strike to when the strike detector detects a following strike; a torque calculator that calculates striking energy from an input rotation average speed during the strike interval, which is calculated based on the rotation speed of the drive shaft detected by the rotation speed detector, and calculates a tightening torque based on the calculated striking energy and the rotation angle of the output shaft during a strike interval detected by the rotation angle detector; and a controller that controls the drive source based on the tightening torque calculated by the torque calculator, characterized in that the controller performs PWM control to limit strike force applied when voltage of the battery pack is high and controls the drive source to maintain strike force even when the voltage of the battery pack is low, and in that the impact rotary tool also comprises a current detector that detects current supplied to the drive source, wherein the controller decreases a target rotation speed of the drive source when the current detected by the current detector is greater than or equal to an impact determination threshold.
An electronic device comprising: a touch-sensitive display comprising a display area to display information and a non-display area extending around the periphery of the display area; touch sensors disposed to detect a touch on the display area of the touch-sensitive display and to detect a touch on the non-display area of the touch-sensitive display; an auxiliary display disposed in the non-display area of the touch-sensitive display, wherein the auxiliary display is configured to display information along two or more sides of the display area of the touch-sensitive display; a processor coupled to the touch-sensitive display and the auxiliary display and configured to display touch-selectable information on the auxiliary display when the electronic device is in a low-power condition, wherein information is not displayed within the display area of the touch-sensitive display when the electronic device is in the low-power condition; wherein the resolution of the auxiliary display is lower than the resolution of the display area of the touch-sensitive display. a touch-sensitive display comprising a display area to display information and a non-display area extending around the periphery of the display area; touch sensors disposed to detect a touch on the display area of the touch-sensitive display and to detect a touch on the non-display area of the touch-sensitive display; an auxiliary display disposed in the non-display area of the touch-sensitive display, wherein the auxiliary display is configured to display information along two or more sides of the display area of the touch-sensitive display; a processor coupled to the touch-sensitive display and the auxiliary display and configured to display touch-selectable information on the auxiliary display when the electronic device is in a low-power condition, wherein information is not displayed within the display area of the touch-sensitive display when the electronic device is in the low-power condition; wherein the resolution of the auxiliary display is lower than the resolution of the display area of the touch-sensitive display.
Process for preparing a meltblown web comprising: providing starting fibers comprised of a polypropylene component and a sustainable polymer component, wherein each of the components are disposed in distinct regions of the fibers; blending the polypropylene component and the sustainable polymer component under heat to form a molten stream; vis-breaking the polypropylene polymer component in the molten stream; degrading the sustainable polymer component in the molten stream; extruding the molten stream through a meltblowing die to form a stream of meltblown fibers, wherein the meltblown fibers comprise a blend of reclaimed polypropylene component and the sustainable polymer component; and collecting the meltblown fibers on a collection surface to form a coherent web. providing starting fibers comprised of a polypropylene component and a sustainable polymer component, wherein each of the components are disposed in distinct regions of the fibers; blending the polypropylene component and the sustainable polymer component under heat to form a molten stream; vis-breaking the polypropylene polymer component in the molten stream; degrading the sustainable polymer component in the molten stream; extruding the molten stream through a meltblowing die to form a stream of meltblown fibers, wherein the meltblown fibers comprise a blend of reclaimed polypropylene component and the sustainable polymer component; and collecting the meltblown fibers on a collection surface to form a coherent web.
A threshold value calculation system comprising: a detector configured to detect one or more physical amounts regarding a steam trap; a determination unit configured to perform bad state determination to determine whether the state of the steam trap is a normal state or a bad state by determining whether or not state values that are based on detection signals have come into a bad range of the state values; a storage unit configured to cumulatively store the state values and determination results of the bad state determination; and a threshold value calculation unit configured to calculate a normal range that is a range of values that are taken when the steam trap is in a normal state, by using a predetermined calculation reference, based at least on state values with normal determination results, from among the state values that have been stored in the storage unit during a predetermined period, wherein the determination unit is configured to be able to perform predictive determination to determine whether the steam trap is in a normal state or a state that indicates an inclination toward a bad state and is highly likely to change to a bad state, by determining whether or not the state values are in the normal range, and the threshold value calculation unit is configured to perform accuracy determination to determine the accuracy of the predictive determination based on the results of the predictive determination regarding the state values stored in the storage unit, and adjust the calculation reference based on the result of accuracy determination. a detector configured to detect one or more physical amounts regarding a steam trap; a determination unit configured to perform bad state determination to determine whether the state of the steam trap is a normal state or a bad state by determining whether or not state values that are based on detection signals have come into a bad range of the state values; a storage unit configured to cumulatively store the state values and determination results of the bad state determination; and a threshold value calculation unit configured to calculate a normal range that is a range of values that are taken when the steam trap is in a normal state, by using a predetermined calculation reference, based at least on state values with normal determination results, from among the state values that have been stored in the storage unit during a predetermined period, wherein the determination unit is configured to be able to perform predictive determination to determine whether the steam trap is in a normal state or a state that indicates an inclination toward a bad state and is highly likely to change to a bad state, by determining whether or not the state values are in the normal range, and the threshold value calculation unit is configured to perform accuracy determination to determine the accuracy of the predictive determination based on the results of the predictive determination regarding the state values stored in the storage unit, and adjust the calculation reference based on the result of accuracy determination.
A retrievable sensor device, comprising: a sensing element having a sensor, a separation diaphragm, and a sensor cavity in fluid communication with the sensor and the separation diaphragm such that the sensor cavity is configured to transfer a sensed condition received by the separation diaphragm to the sensor for measurement; and an actuator in fluid communication with the sensor cavity, the actuator being configured to adjust a volume of fluid in the sensor cavity and thereby alter a pressure of the sensor cavity, characterised in that the actuator includes a first negative-pressure chamber, a second pressurized chamber, and a sealed valve hermetically separating the first and second chambers. a sensing element having a sensor, a separation diaphragm, and a sensor cavity in fluid communication with the sensor and the separation diaphragm such that the sensor cavity is configured to transfer a sensed condition received by the separation diaphragm to the sensor for measurement; and an actuator in fluid communication with the sensor cavity, the actuator being configured to adjust a volume of fluid in the sensor cavity and thereby alter a pressure of the sensor cavity, characterised in that the actuator includes a first negative-pressure chamber, a second pressurized chamber, and a sealed valve hermetically separating the first and second chambers.
A method for forming a graft containment device for a mandible, comprising: forming an initial digital 3D model of a mesh graft containment device based on dimensions of a target space of a mandible to be filled via the graft containment device, the 3D model of the graft containment device defined via a buccal surface, a lingual surface, a superior surface and an inferior surface; individually adjusting one of the buccal surface and the lingual surface relative to a first midplane, which extends through a longitudinal axis of the graft containment device between the buccal and lingual surfaces (102, 104), to add or remove bulk along a desired portion of the 3D model of the graft containment device to form an adjusted 3D model; and forming a final graft containment device for placement in the target space of the mandible based on the adjusted 3D model, wherein the desired treatment plan includes planned future dental implants and the adjusted 3D model includes added bulk along the lingual surface of the graft containment device. forming an initial digital 3D model of a mesh graft containment device based on dimensions of a target space of a mandible to be filled via the graft containment device, the 3D model of the graft containment device defined via a buccal surface, a lingual surface, a superior surface and an inferior surface; individually adjusting one of the buccal surface and the lingual surface relative to a first midplane, which extends through a longitudinal axis of the graft containment device between the buccal and lingual surfaces (102, 104), to add or remove bulk along a desired portion of the 3D model of the graft containment device to form an adjusted 3D model; and forming a final graft containment device for placement in the target space of the mandible based on the adjusted 3D model, wherein the desired treatment plan includes planned future dental implants and the adjusted 3D model includes added bulk along the lingual surface of the graft containment device.
An enabler element for a flow-interception valve in filtration systems using replaceable cartridges, comprising a holding element that can be inserted, at least in part, into a valve passage of the interception valve in order to interact with a normally-closed shutter housed in the valve passage, said holding element defining a seat in which the portion of the valve shutter can be housed so as to grasp and hold the portion of the valve shutter once it is brought near said portion of the valve shutter, so as to make said holding element attached to the portion of the valve shutter in an opening direction of said valve shutter, said enabler element further comprising a lifting device designed to lift said holding element thus moving the shutter held by the holding element in an opening direction.
Use of a material densifier for compression of a biomass material and thereby preheating said biomass material due to mechanical friction in a processor for microwave torrefaction, said processor comprising: said material densifier; and a microwave unit comprising a feed pipe for material transfer fitted with gas and/or liquid outlets to enable rapid removal of gas and/or liquid formed during the process. said material densifier; and a microwave unit comprising a feed pipe for material transfer fitted with gas and/or liquid outlets to enable rapid removal of gas and/or liquid formed during the process.
A light-emitting device comprising: a light-emitting element having a pair of electrodes on an upper surface of the light-emitting element; a first light-transmissive member located on an upper surface of the light-emitting element and containing substantially no phosphor; a second light-transmissive member located on an upper surface of the first light-transmissive member and containing a first phosphor; a third light-transmissive member covering an upper surface of the second light-transmissive member and a lateral surface of the light-emitting element and containing a second phosphor; and wires connected to the respective electrodes, wherein a refractive index of a resin material serving as a base material of the second light-transmissive member is higher than a refractive index of a resin material serving as a base material of the first light-transmissive member; and wherein a refractive index of a resin material serving as a base material of the third light-transmissive member is equal to or higher than the refractive index of the resin material serving as the base material of the second light-transmissive member, characterised in that each of the first light-transmissive member and the second light-transmissive member does not cover the lateral surfaces of the light-emitting element, and wherein ball portions of the wires in contact with the pair of electrodes are located below the upper surface of the first light-transmissive member. a light-emitting element having a pair of electrodes on an upper surface of the light-emitting element; a first light-transmissive member located on an upper surface of the light-emitting element and containing substantially no phosphor; a second light-transmissive member located on an upper surface of the first light-transmissive member and containing a first phosphor; a third light-transmissive member covering an upper surface of the second light-transmissive member and a lateral surface of the light-emitting element and containing a second phosphor; and wires connected to the respective electrodes, wherein a refractive index of a resin material serving as a base material of the second light-transmissive member is higher than a refractive index of a resin material serving as a base material of the first light-transmissive member; and wherein a refractive index of a resin material serving as a base material of the third light-transmissive member is equal to or higher than the refractive index of the resin material serving as the base material of the second light-transmissive member, characterised in that each of the first light-transmissive member and the second light-transmissive member does not cover the lateral surfaces of the light-emitting element, and wherein ball portions of the wires in contact with the pair of electrodes are located below the upper surface of the first light-transmissive member.
A composition which is a resin composition comprising (i) a maleimide compound, (ii) a silane compound having a carbon-carbon unsaturated bond and a group selected from hydroxy, alkoxy and halogen, (iii) a silane compound of the formula: wherein R 10 each independently is a group selected from hydroxy, alkoxy and halogen; R 11 each independently is H or C 1-3 -alkyl; R 12 is C 1-10 -alkylene; and m is an integer of 1-3; and (iv) an inorganic filler. (i) a maleimide compound, (ii) a silane compound having a carbon-carbon unsaturated bond and a group selected from hydroxy, alkoxy and halogen, (iii) a silane compound of the formula: wherein R 10 each independently is a group selected from hydroxy, alkoxy and halogen; R 11 each independently is H or C 1-3 -alkyl; R 12 is C 1-10 -alkylene; and m is an integer of 1-3; and R 10 each independently is a group selected from hydroxy, alkoxy and halogen; R 11 each independently is H or C 1-3 -alkyl; R 12 is C 1-10 -alkylene; and m is an integer of 1-3; and (iv) an inorganic filler.
An orally administrable chewable capsule comprising a capsule shell enclosing an oil-in-water emulsion in which the aqueous phase is gelled and in which the oil phase comprises a fish oil, or an oil droplet-containing dried residue of such an emulsion, wherein said aqueous phase comprises a gelling agent selected from the group consisting of gelatin in an amount of 5 to 50% wt. of the aqueous phase, a polysaccharide in an amount of 0.2 to 5% wt. of the aqueous phase, and mixtures thereof, and wherein the overall capsule weight is 0.25 to 3g.
Inductive proximity sensor, comprising at least - one housing which encloses a housing interior, - a printed circuit board with electronic components which is located within the housing interior, - a sensing element which is electrically connected to the printed circuit board and is located within the housing interior, whereby the sensor element is a coil and - the printed circuit board and/or the sensing element are completely enclosed by a sealing compound, characterized in that the coil is held in position under elastic pre-tension by means of an elastic element between the housing and the elastic element, whereby the elastic element is located in the housing in such a way that on one side it presses the coil against the housing (3, 14), and on the other side is supported by or attached to the printed circuit board in such a way that the coil is frictionally connected to the housing and is held in position in the housing interior. - one housing which encloses a housing interior, - a printed circuit board with electronic components which is located within the housing interior, - a sensing element which is electrically connected to the printed circuit board and is located within the housing interior, whereby the sensor element is a coil and - the printed circuit board and/or the sensing element are completely enclosed by a sealing compound,