mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a lighting panel, comprising: printing a plurality of electrically conductive traces onto a planar surface of a substrate; mounting a plurality of light sources (206, 208) onto the plurality of electrically conductive traces on the planar surface of the substrate at mounting positions (210, 212) such that the plurality of electrically conductive traces form an electrical interconnection between selected ones of the plurality of electrically conductive traces and associated ones of the plurality of light sources (206,208); providing a polymer sheet over the plurality of light sources (206, 208); providing a stack-up of the substrate with the printed plurality of electrically conductive traces, the plurality of light sources (206, 208) mounted on the planar surface, and the polymer sheet onto a composite base; and applying pressure and heat to the stack-up and the composite base to embed the plurality of light sources (206, 208) into the composite base so as to be flush with a top surface of the substrate, and to embed portions (226, 228) of the substrate into the composite base underneath the plurality of light sources (206, 208) at the mounting positions (210, 212). printing a plurality of electrically conductive traces onto a planar surface of a substrate; mounting a plurality of light sources (206, 208) onto the plurality of electrically conductive traces on the planar surface of the substrate at mounting positions (210, 212) such that the plurality of electrically conductive traces form an electrical interconnection between selected ones of the plurality of electrically conductive traces and associated ones of the plurality of light sources (206,208); providing a polymer sheet over the plurality of light sources (206, 208); providing a stack-up of the substrate with the printed plurality of electrically conductive traces, the plurality of light sources (206, 208) mounted on the planar surface, and the polymer sheet onto a composite base; and applying pressure and heat to the stack-up and the composite base to embed the plurality of light sources (206, 208) into the composite base so as to be flush with a top surface of the substrate, and to embed portions (226, 228) of the substrate into the composite base underneath the plurality of light sources (206, 208) at the mounting positions (210, 212).
A coalescent ink, comprising: a conjugated polymer; a colorant imparting a visible color to the coalescent ink; and an ink vehicle comprising a high boiling point co-solvent having a boiling point of 250 °C or greater, the high boiling point co-solvent present in an amount from about 1 wt% to about 4 wt% with respect to the coalescent ink. a conjugated polymer; a colorant imparting a visible color to the coalescent ink; and an ink vehicle comprising a high boiling point co-solvent having a boiling point of 250 °C or greater, the high boiling point co-solvent present in an amount from about 1 wt% to about 4 wt% with respect to the coalescent ink.
A power conducting device comprising - at least one first line guiding device (4, 5) for guiding lines, hoses or the like between a stationary connection point and a moving connection point, wherein the line guiding device (4, 5), comprises a first end link and a second end link and a section that can be deflected between the end links (6, 7) and is connected thereto, which embody a channel for receiving lines, hoses or the like, a first guiding channel, which is embodied by way of a first inner ring and a first outer ring, at least one second guiding channel (13, which is embodied by way of a second inner ring and a second outer ring, wherein - the first and the at least one second guiding channel (1, 13) are arranged one on top of the other and can be rotated relative to one another about a common axis, characterized in that, the first line guiding device (4, 5) is arranged in the first guiding channel and the first end link is connected to the first inner ring and the second end link is connected to the first outer ring, at least one second line guiding device is arranged in the at least one second guiding channel, the second line guiding device comprises a first connection link and a second connection link and a section that can be deflected between the connection links (26, 27) and is connected thereto, and - that the first connection link is connected to the second inner ring and the second connection link is connected to the second outer ring. - at least one first line guiding device (4, 5) for guiding lines, hoses or the like between a stationary connection point and a moving connection point, wherein the line guiding device (4, 5), comprises a first end link and a second end link and a section that can be deflected between the end links (6, 7) and is connected thereto, which embody a channel for receiving lines, hoses or the like, a first guiding channel, which is embodied by way of a first inner ring and a first outer ring, at least one second guiding channel (13, which is embodied by way of a second inner ring and a second outer ring, wherein - the first and the at least one second guiding channel (1, 13) are arranged one on top of the other and can be rotated relative to one another about a common axis, characterized in that, the first line guiding device (4, 5) is arranged in the first guiding channel and the first end link is connected to the first inner ring and the second end link is connected to the first outer ring, at least one second line guiding device is arranged in the at least one second guiding channel, the second line guiding device comprises a first connection link and a second connection link and a section that can be deflected between the connection links (26, 27) and is connected thereto, and - that the first connection link is connected to the second inner ring and the second connection link is connected to the second outer ring.
A method of concentrating a platemaking waste liquid generated in processing a photosensitive planographic printing plate precursor, the method comprising: a platemaking step in which development and desensitization of a photosensitive planographic printing plate precursor, which has, on a support, an image recording layer that contains thermoplastic polymer particles and a photothermal conversion agent and which has undergone exposure with an infrared laser, are conducted in one step in an automatic developing machine, using a developer; a waste liquid concentrating step of evaporating and concentrating a platemaking waste liquid generated in the platemaking step, using a waste liquid concentration unit, such that a ratio of a volume of the platemaking waste liquid after the concentration to a volume of the platemaking waste liquid before the concentration is from 1/2 to 1/10; and a reclaimed water producing step of taking out steam that has been separated in the waste liquid concentrating step from the waste liquid concentration unit, and condensing the steam using a cooling means, to produce reclaimed water, wherein the developer is a developer which contains at least one surfactant selected from the group consisting of anionic surfactants and nonionic surfactants in an amount of from 1% by mass to 10% by mass, and has a content of an organic solvent having a boiling point within a range of from 100°C to 300°C of 2% by mass or lower, but does not contain an organic solvent having a boiling point of lower than 100°C or a boiling point of higher than 300°C or, if contained, has a content thereof of 0.2% by mass or lower. a platemaking step in which development and desensitization of a photosensitive planographic printing plate precursor, which has, on a support, an image recording layer that contains thermoplastic polymer particles and a photothermal conversion agent and which has undergone exposure with an infrared laser, are conducted in one step in an automatic developing machine, using a developer; a waste liquid concentrating step of evaporating and concentrating a platemaking waste liquid generated in the platemaking step, using a waste liquid concentration unit, such that a ratio of a volume of the platemaking waste liquid after the concentration to a volume of the platemaking waste liquid before the concentration is from 1/2 to 1/10; and a reclaimed water producing step of taking out steam that has been separated in the waste liquid concentrating step from the waste liquid concentration unit, and condensing the steam using a cooling means, to produce reclaimed water, wherein the developer is a developer which contains at least one surfactant selected from the group consisting of anionic surfactants and nonionic surfactants in an amount of from 1% by mass to 10% by mass, and has a content of an organic solvent having a boiling point within a range of from 100°C to 300°C of 2% by mass or lower, but does not contain an organic solvent having a boiling point of lower than 100°C or a boiling point of higher than 300°C or, if contained, has a content thereof of 0.2% by mass or lower.
A tray sealer comprising a sealing station for sealing trays with a cover film, and comprising a conveyor system for conveying the trays along a conveying path, wherein the conveyor system includes a plurality of pushers each configured for carrying along at least one tray and movable along an endless pusher path, characterized in that the pushers are movable independently of one another along the pusher path, and at least one position sensor (25, 26) is provided for detecting the position of a tray and/or the position of a pusher, wherein at least some of the pushers are mounted on a respective slide, which is movable along the pusher path, these pushers being adapted to be moved relative to said slide, such that the pushers are removable from an area of sealing tools (9, 10) closing around a tray so that the sealing tools (9, 10) can form a hermetically closed sealing chamber without interfering with a pusher.
A ventilation system (1, 100), comprising: a processor communicably coupled to a computer readable medium, wherein the computer readable medium includes instructions executable by the processor to: receive a measured pressure value; receive a net flow value; calculate a patient effort value (55, 60, 195) based on a relationship between patient effort, the measured pressure value and the net flow value; characterized in that the computer readable medium further includes instructions executable by the processor to: calculate a gas delivery metric, wherein the gas delivery metric varies as a function of the calculated patient effort value (55, 60, 195); determine whether the calculated patient effort value (55, 60, 195) indicates an inspiration phase; and cause a gas to be delivered during the determined inspiration phase consistent with the gas delivery metric. a processor communicably coupled to a computer readable medium, wherein the computer readable medium includes instructions executable by the processor to: receive a measured pressure value; receive a net flow value; calculate a patient effort value (55, 60, 195) based on a relationship between patient effort, the measured pressure value and the net flow value; characterized in that the computer readable medium further includes instructions executable by the processor to: calculate a gas delivery metric, wherein the gas delivery metric varies as a function of the calculated patient effort value (55, 60, 195); determine whether the calculated patient effort value (55, 60, 195) indicates an inspiration phase; and cause a gas to be delivered during the determined inspiration phase consistent with the gas delivery metric. receive a measured pressure value; receive a net flow value; calculate a patient effort value (55, 60, 195) based on a relationship between patient effort, the measured pressure value and the net flow value; characterized in that the computer readable medium further includes instructions executable by the processor to: calculate a gas delivery metric, wherein the gas delivery metric varies as a function of the calculated patient effort value (55, 60, 195); determine whether the calculated patient effort value (55, 60, 195) indicates an inspiration phase; and cause a gas to be delivered during the determined inspiration phase consistent with the gas delivery metric. calculate a gas delivery metric, wherein the gas delivery metric varies as a function of the calculated patient effort value (55, 60, 195); determine whether the calculated patient effort value (55, 60, 195) indicates an inspiration phase; and cause a gas to be delivered during the determined inspiration phase consistent with the gas delivery metric.
A method of forming a flexible circuit using a laser, the method comprising: providing a metal foil laminate, wherein a metal foil is laminated on a carrier by an adhesive having an additive incorporated which reduces transmission of laser light into the carrier; patterning the metal foil to form an electric circuit by using a laser having a wavelength in the UV, or the visible or the short IR wavelength range without damaging the carrier. providing a metal foil laminate, wherein a metal foil is laminated on a carrier by an adhesive having an additive incorporated which reduces transmission of laser light into the carrier; patterning the metal foil to form an electric circuit by using a laser having a wavelength in the UV, or the visible or the short IR wavelength range without damaging the carrier.
A process for reinforcing a hollow profile comprising a metallic U or C shaped profile provided with flanges and a cover in which a ribbed structure provided with a heat activatable adhesive material is attached to the U or C shaped profile and the cover is joined together with the U or C shaped profile to form the hollow profile and the hollow profile containing the ribbed structure is heated to activate the adhesive material so that it bonds the ribbed structure to the inner surface of the hollow profile characterized in, that the ribs are of a composite material comprising a laminar structure of two facing sheets with a layer of the heat activatable adhesive foamable material between them.
A ladder filter which is constituted by circuit elements formed on a single substrate, said circuit elements comprising: a first wiring section which is electrically connected between an input signal electrode and an output signal electrode; a plurality of first resonators (15a-c) which are connected in series in said first wiring section, and which have predetermined resonance frequencies; at least two second wiring sections (17a, b) formed as parallel arms; each second wiring section (17a, b)electrically connecting a second piezoelectric resonator (18a, b) between said first wiring section and a ground electrode wherein the second piezoelectric resonators (18a, b) have anti-resonance frequencies forming the pass-band of the filter with said predetermined resonance frequencies of said first resonators (15a-c); wherein the effective electrical and mechanical coupling factor of at least one of said first resonators (15a,c) is different from the effective electrical and mechanical coupling factors of the other ones of said first resonators and of said second resonators (18a, b); and wherein one of the other ones of said first resonators has the same effective electrical and mechanical coupling factor as said second resonators (18a, b); characterized in that the anti-resonance frequencies of said second resonators (18a, b) are made higher than the resonance frequency of the said one of said first resonators which has the same value of the effective electrical and mechanical coupling factor as the effective electrical and mechanical coupling factors of said second resonators (18a, b). a first wiring section which is electrically connected between an input signal electrode and an output signal electrode; a plurality of first resonators (15a-c) which are connected in series in said first wiring section, and which have predetermined resonance frequencies; at least two second wiring sections (17a, b) formed as parallel arms; each second wiring section (17a, b)electrically connecting a second piezoelectric resonator (18a, b) between said first wiring section and a ground electrode wherein the second piezoelectric resonators (18a, b) have anti-resonance frequencies forming the pass-band of the filter with said predetermined resonance frequencies of said first resonators (15a-c); wherein the effective electrical and mechanical coupling factor of at least one of said first resonators (15a,c) is different from the effective electrical and mechanical coupling factors of the other ones of said first resonators and of said second resonators (18a, b); and wherein one of the other ones of said first resonators has the same effective electrical and mechanical coupling factor as said second resonators (18a, b); characterized in that the anti-resonance frequencies of said second resonators (18a, b) are made higher than the resonance frequency of the said one of said first resonators which has the same value of the effective electrical and mechanical coupling factor as the effective electrical and mechanical coupling factors of said second resonators (18a, b).
Accelerator pedal module for controlling the power of a drive machine, in particular of an internal combustion engine of a vehicle, having at least one sensor element, and having a bearing block and having a pedal lever which is secured to the bearing block so as to be rotatable about a pivoting axis, wherein the pivoting movement of the pedal lever relative to the bearing block can be detected by means of the at least one sensor element, wherein the accelerator pedal module comprises at least two bipolar magnet discs (36, 38) which are embodied diametrically magnetized with respect to a disc plane, wherein a change in the direction of at least one magnetic field (40, 42) which originates from the pivoting movement of the pedal lever relative to the bearing block can be converted with the aid of the at least one sensor element into an electrical signal which represents the rotational angle of the pedal lever relative to the bearing block, wherein the magnetic field (40, 42) is generated by means of the at least two magnet discs (36, 38) between which the sensor element is arranged, wherein the magnet discs (36, 38) are of identical design and are arranged symmetrically with respect to the sensor element, wherein the magnet discs (36, 38) are arranged coaxially and in parallel with respect to one another, characterized in that the centre axes of the magnet discs (36, 38) are arranged coaxially with the pivoting axis, and in that in each case one magnet disc (36, 38) is accommodated in a shaft journal (16, 18), projecting perpendicularly away from the pedal lever of a shaft which is connected to the pedal lever in a rotationally fixed fashion and which is pivotably mounted in the bearing block, and has a central cutout which is arranged between the shaft journals (16, 18) and into which the sensor element projects, said sensor element being connected to the bearing block.
A golf practice tent comprising: a tent having a ceiling, a floor and an open face for accepting golf balls that are to be launched into the tent; a rigid frame structure at least partially external to the tent that provides structural support for the tent; and a planar net coupled to the ceiling of the tent and separated from a rear panel of the tent, such that the net hangs loosely from the ceiling and extends towards the floor, wherein the net is placed behind the open face such that golf balls that have been launched into the tent contact the net, characterized in that the rigid frame structure comprises a set of front frame members and a set of rear frame members, wherein each of the rear frame members are extendable such that when the rear frame members are extended, the floor of the tent is tilted towards the open face of the tent. a tent having a ceiling, a floor and an open face for accepting golf balls that are to be launched into the tent; a rigid frame structure at least partially external to the tent that provides structural support for the tent; and a planar net coupled to the ceiling of the tent and separated from a rear panel of the tent, such that the net hangs loosely from the ceiling and extends towards the floor, wherein the net is placed behind the open face such that golf balls that have been launched into the tent contact the net, characterized in that the rigid frame structure comprises a set of front frame members and a set of rear frame members, wherein each of the rear frame members are extendable such that when the rear frame members are extended, the floor of the tent is tilted towards the open face of the tent.
Filter for dishwasher comprising a cylindrical structure provided with holes in the top base for the inflow of the water to be filtered and with a close-mesh net on its curved lateral surface, said cylindrical structure being provided with at least two radial channels (3, 3') dividing it into at least two cylindrical sectors (4, 5) each of which is provided with a close-mesh net both on its curved lateral surface (4a; 5a) and on its internal surfaces (4b, 4c; 5b, 5c) that define said radial channels (3, 3') characterized in that said at least two radial channels (3, 3') have a trapezium cross-section with the shorter base at the filter center.
A micro switch (20, 30), including a normally closed terminal rod with a contact (NCa), a movable contact having a closed position where it contacts the contact of the normally closed terminal rod and a position where it is separated from the contact of the normally closed terminal rod, a movable contact rod for supporting the movable contact, a plunger for pressurizing the movable contact rod upon being pressed, and a leaf spring for supplying a driving force to the movable contact rod to convert a position of the contacts being contacted or separated, the micro switch comprising: a permanent magnet installed at a position adjacent to the movable contact and the contact of the normally closed terminal rod; and a stopper configured to restrict the movement of the movable contact when the movable contact is separated from the contact of the normally closed terminal rod, wherein the contact (NCa) and the stopper being spaced apart from each other with respect to a vertical direction, the vertical direction being defined in a direction in which the movable contact is movable; and the permanent magnet being positioned between the contact (NCa) and the stopper, characterized in that, the micro switch further comprising, a support member having a shape similar to the alphabet E or the number 3 that supports the permanent magnet and has a raised portion to prevent the separation of the permanent magnet. a permanent magnet installed at a position adjacent to the movable contact and the contact of the normally closed terminal rod; and a stopper configured to restrict the movement of the movable contact when the movable contact is separated from the contact of the normally closed terminal rod, wherein the contact (NCa) and the stopper being spaced apart from each other with respect to a vertical direction, the vertical direction being defined in a direction in which the movable contact is movable; and the permanent magnet being positioned between the contact (NCa) and the stopper, characterized in that, the micro switch further comprising, a support member having a shape similar to the alphabet E or the number 3 that supports the permanent magnet and has a raised portion to prevent the separation of the permanent magnet.