mhurhangee/ep-ind-claims huggingface dataset:
A vehicle power management system, which is adapted to a back-end load and a vehicle power supply, the vehicle power management system characterized by comprising: a microcontroller connected to the vehicle power supply and the back-end load, wherein the microcontroller includes a counter; a charger connected to the microcontroller; a first switch circuit connected to the charger, the microcontroller, and the vehicle power supply; a second switch circuit connected to the microcontroller, the charger, and the back-end load; and a backup battery connected to the charger; wherein, when the microcontroller receives an ignition-off signal from the vehicle power supply, the microcontroller determines whether or not a voltage of the ignition-off signal is less than a first voltage threshold; wherein, when the voltage of the ignition-off signal is less than the first voltage threshold, the charger stops using the vehicle power supply to charge the backup battery, and uses the vehicle power supply to charge the back-end load; wherein, when a counting time of the counter reaches a first time threshold, the charger stops using the vehicle power supply to charge the back-end load, and uses the backup battery to charge the back-end load; wherein, when the counting time of the counter reaches a second time threshold, the microcontroller sends the ignition-off signal to the back-end load; wherein, when the counting time of the counter reaches a third time threshold, the charger stops using the backup battery to charge the back-end load. a microcontroller connected to the vehicle power supply and the back-end load, wherein the microcontroller includes a counter; a charger connected to the microcontroller; a first switch circuit connected to the charger, the microcontroller, and the vehicle power supply; a second switch circuit connected to the microcontroller, the charger, and the back-end load; and a backup battery connected to the charger; wherein, when the microcontroller receives an ignition-off signal from the vehicle power supply, the microcontroller determines whether or not a voltage of the ignition-off signal is less than a first voltage threshold; wherein, when the voltage of the ignition-off signal is less than the first voltage threshold, the charger stops using the vehicle power supply to charge the backup battery, and uses the vehicle power supply to charge the back-end load; wherein, when a counting time of the counter reaches a first time threshold, the charger stops using the vehicle power supply to charge the back-end load, and uses the backup battery to charge the back-end load; wherein, when the counting time of the counter reaches a second time threshold, the microcontroller sends the ignition-off signal to the back-end load; wherein, when the counting time of the counter reaches a third time threshold, the charger stops using the backup battery to charge the back-end load.
A support apparatus for an elevator car, the support apparatus comprising: a sliding plate (132L, 132R) configured to be mounted to the elevator car, the sliding plate (132L, 132R) being movable between an extended position and a retracted position, the sliding plate (132L, 132R) having an oblique surface configured to face an oblique surface (122L, 122R) of a support block attached to an elevator hoistway when the sliding plate (132L, 132R) is in the extended position, the support block having an oblique surface (122L, 122R), the sliding plate (132L, 132R) being slideable over the oblique surface of the support block (122L, 122R) when being moved from the extended position to the retracted position; and an actuator configured to be mounted to the elevator car, the actuator being configured to move the sliding plate (132L, 132R) from the extended position to the retracted position and from the retracted position to the extended position, wherein when the actuator moves the sliding plate (132L, 132R) from the extended position to the retracted position the sliding plate (132L, 132R) and elevator car start sliding downwards on oblique surface of the support block. a sliding plate (132L, 132R) configured to be mounted to the elevator car, the sliding plate (132L, 132R) being movable between an extended position and a retracted position, the sliding plate (132L, 132R) having an oblique surface configured to face an oblique surface (122L, 122R) of a support block attached to an elevator hoistway when the sliding plate (132L, 132R) is in the extended position, the support block having an oblique surface (122L, 122R), the sliding plate (132L, 132R) being slideable over the oblique surface of the support block (122L, 122R) when being moved from the extended position to the retracted position; and an actuator configured to be mounted to the elevator car, the actuator being configured to move the sliding plate (132L, 132R) from the extended position to the retracted position and from the retracted position to the extended position, wherein when the actuator moves the sliding plate (132L, 132R) from the extended position to the retracted position the sliding plate (132L, 132R) and elevator car start sliding downwards on oblique surface of the support block.
A multilayer scintillation crystal comprising an upper surface defined as a top surface, a lower surface defined as a bottom surface, n layers of scintillation crystal array and m layers of continuous scintillation crystals, wherein the highest layer of the multilayer scintillation crystal is defined as a top layer, and the lowest layer of the multilayer scintillation crystal is defined as a bottom layer and wherein the continuous scintillation crystals are not cut internally, both n and m are integers greater than or equal to 1, the sum of m and n is smaller than or equal to 10, the scintillation crystal array is formed by multiple strip-type scintillation crystals spliced along width and length directions of the scintillation crystal array, the scintillation crystal array and the continuous scintillation crystals are coupled in sequence along the height of the strip-type scintillation crystals to form the multilayer scintillation crystal, and the bottom layer of the multilayer scintillation crystal is formed by the continuous scintillation crystal, the multilayer scintillation crystal being characterized in that a coupler is disposed between joint surfaces of two jointing scintillation crystal layers in the multilayer scintillation crystal to couple the two jointing scintillation crystal layers, and the coupler is optical glue or a light guide or glass or other optical elements, wherein the two jointing scintillation crystal layers comprise one layer of the scintillation crystal array and one layer of the continuous scintillation crystals that are coupled together.
A resin-coated metal sheet for can lids, the resin-coated metal sheet comprising a metal sheet coated with thermoplastic resin films on both surfaces and formed into a can lid, wherein a thermoplastic resin film A based on polybutylene terephthalate and polyethylene terephthalate is heat-fused on a surface of the metal sheet serving as an exterior surface of the can lid, and a thermoplastic resin film B based on polyethylene terephthalate is heat-fused on a surface of the metal sheet serving as an interior surface of the can lid, a composition ratio (wt%) of PBT/PET in the thermoplastic resin film A on the exterior surface is (PBT/PET)=(40/60) to (80/20) and in the thermoplastic resin film B on the interior surface, half-width of Raman band of 1730±10 cm -1 that is measured on a polarization plane horizontal to the surface by laser Raman spectroscopy is 15 to 20 cm -1, characterized in that the thermoplastic resin film B on the interior surface includes 95 mol% or more of PET, that a melting point derived from PET of the thermoplastic resin film B on the interior surface is 250°C or higher and 265°C or lower and is higher than a melting point derived from PBT in the thermoplastic resin film A on the exterior surface by 25°C or more, and that in the thermoplastic resin film A on the exterior surface, a Raman band intensity ratio (I 90 /I 0) between Raman band intensity (I 0) of 1615±10 cm -1 that is measured on a polarization plane horizontal to the surface by laser Raman spectroscopy and Raman band intensity (I 90) of 1615±10 cm -1 that is measured on a polarization plane vertical to the surface by laser Raman spectroscopy is 0.60 or more.
Soldering paste, comprising a) flux, comprising i) 7 to 13 wt.%, relative to the total weight of the flux, adipic acid; ii) 0.3 to 2.0 wt.%, relative to the total weight of the flux, oxalic acid; and iii) 0.1 to 2.0 wt.%, relative to the total weight of the flux, amine selected from the group consisting of amine component A and amine component B, whereby amine component A is selected from the group consisting of 1,2-tetramethyl ethylene diamine, 1,2-tetraethyl ethylene diamine, and 1,2-tetrapropyl ethylene diamine, and whereby amine component B is selected from the group consisting of N-coco-1,3-diaminopropane, 1,6-diaminohexane, 1,7-diaminoheptane, 1,8-diaminooctane, 1,9-diaminononane, and 1,10-diaminodecane; and b) 80 to 97 wt.%, relative to the total weight of the soldering paste, of a tin-based solder, whereby the flux comprises, in addition, dicarboxylic acids different from oxalic acid and adipic acid in an amount of 0 to 2 wt.%, relative to the total weight of the flux, and whereby the total amount of all dicarboxylic acids in the flux is maximally 15 wt.%, relative to the total weight of the flux. a) flux, comprising i) 7 to 13 wt.%, relative to the total weight of the flux, adipic acid; ii) 0.3 to 2.0 wt.%, relative to the total weight of the flux, oxalic acid; and iii) 0.1 to 2.0 wt.%, relative to the total weight of the flux, amine selected from the group consisting of amine component A and amine component B, whereby amine component A is selected from the group consisting of 1,2-tetramethyl ethylene diamine, 1,2-tetraethyl ethylene diamine, and 1,2-tetrapropyl ethylene diamine, and whereby amine component B is selected from the group consisting of N-coco-1,3-diaminopropane, 1,6-diaminohexane, 1,7-diaminoheptane, 1,8-diaminooctane, 1,9-diaminononane, and 1,10-diaminodecane; and i) 7 to 13 wt.%, relative to the total weight of the flux, adipic acid; ii) 0.3 to 2.0 wt.%, relative to the total weight of the flux, oxalic acid; and iii) 0.1 to 2.0 wt.%, relative to the total weight of the flux, amine selected from the group consisting of amine component A and amine component B, whereby amine component A is selected from the group consisting of 1,2-tetramethyl ethylene diamine, 1,2-tetraethyl ethylene diamine, and 1,2-tetrapropyl ethylene diamine, and whereby amine component B is selected from the group consisting of N-coco-1,3-diaminopropane, 1,6-diaminohexane, 1,7-diaminoheptane, 1,8-diaminooctane, 1,9-diaminononane, and 1,10-diaminodecane; and b) 80 to 97 wt.%, relative to the total weight of the soldering paste, of a tin-based solder, whereby the flux comprises, in addition, dicarboxylic acids different from oxalic acid and adipic acid in an amount of 0 to 2 wt.%, relative to the total weight of the flux, and whereby the total amount of all dicarboxylic acids in the flux is maximally 15 wt.%, relative to the total weight of the flux.
Solid self-adhesive formulation for the hygiene and fragrance of sanitary ware comprising: • between 11% and 80% by weight on the total weight of said solid self-adhesive formulation of a mixture (a) of at least one alkaline salt of an inorganic and/or organic acid; • an anionic surfactant (b) comprising: - between 5 and 45 % by weight of the total weight of that solid self-adhesive formulation of a composition comprising at least 85% by weight of the total weight of the composition of a mixture of alkaline salts of mono C12-C18 alkylesters of sulphuric acid; - between 1 % and 5 % by weight of the total weight of that solid self-adhesive formulation of a composition comprising between 8 and 12% by weight of the total weight of the composition of a mixture of alkaline salts of mono C12-C18 alkylesters of sulphuric acid dispersed in a mixture of fatty alcohols C16-C18; • between 5% and 25% by weight on the total weight of said solid self-adhesive formulation of a non-ionic surfactant (c) consisting of an aqueous dispersion comprising a mixture of C10-16 alkyl poly-glucosides, in quantities between 40 and 60% by weight on the total weight of said non-ionic surfactant (c); • a fragrance, wherein the total water amount in said solid self-adhesive formulation is lower than or equal to 15% by weight on the total weight of said solid self-adhesive formulation. • between 11% and 80% by weight on the total weight of said solid self-adhesive formulation of a mixture (a) of at least one alkaline salt of an inorganic and/or organic acid; • an anionic surfactant (b) comprising: - between 5 and 45 % by weight of the total weight of that solid self-adhesive formulation of a composition comprising at least 85% by weight of the total weight of the composition of a mixture of alkaline salts of mono C12-C18 alkylesters of sulphuric acid; - between 1 % and 5 % by weight of the total weight of that solid self-adhesive formulation of a composition comprising between 8 and 12% by weight of the total weight of the composition of a mixture of alkaline salts of mono C12-C18 alkylesters of sulphuric acid dispersed in a mixture of fatty alcohols C16-C18; - between 5 and 45 % by weight of the total weight of that solid self-adhesive formulation of a composition comprising at least 85% by weight of the total weight of the composition of a mixture of alkaline salts of mono C12-C18 alkylesters of sulphuric acid; - between 1 % and 5 % by weight of the total weight of that solid self-adhesive formulation of a composition comprising between 8 and 12% by weight of the total weight of the composition of a mixture of alkaline salts of mono C12-C18 alkylesters of sulphuric acid dispersed in a mixture of fatty alcohols C16-C18; • between 5% and 25% by weight on the total weight of said solid self-adhesive formulation of a non-ionic surfactant (c) consisting of an aqueous dispersion comprising a mixture of C10-16 alkyl poly-glucosides, in quantities between 40 and 60% by weight on the total weight of said non-ionic surfactant (c); • a fragrance,
A method of making a medical device comprising: providing one or more medical sharps containers containing medical waste; sterilizing, shredding and washing the medical sharps container or containers and their contents to provide shredded, sterilized and washed flakes, the sterilizing, shredding and washing occurring at the same time and the sterilizing using only liquid water and steam; extruding and pelletizing the shredded, sterilized and washed flakes into pellets; and forming the pellets into a medical device, wherein the sterilized, shredded and washed flakes are subjected to one or more additional processes prior to extrusion and pelletization, said one or more additional processes being (i) the shredded, sterilized and washed flakes are screen-sorted, or (ii) the shredded, sterilized and washed flakes are fed into an air classifier, or (iii) the shredded, sterilized and washed flakes are float sink-separated, or (iv) the shredded, sterilized and washed flakes are subjected to a metal separation process, or (v) the shredded, sterilized and washed flakes are subjected to a color separation process, or (vi) the shredded, sterilized and washed flakes are subjected to a polymer separation process, or (vii) the shredded, sterilized and washed flakes are devolatilized. providing one or more medical sharps containers containing medical waste; sterilizing, shredding and washing the medical sharps container or containers and their contents to provide shredded, sterilized and washed flakes, the sterilizing, shredding and washing occurring at the same time and the sterilizing using only liquid water and steam; extruding and pelletizing the shredded, sterilized and washed flakes into pellets; and forming the pellets into a medical device, wherein the sterilized, shredded and washed flakes are subjected to one or more additional processes prior to extrusion and pelletization, said one or more additional processes being (i) the shredded, sterilized and washed flakes are screen-sorted, or (ii) the shredded, sterilized and washed flakes are fed into an air classifier, or (iii) the shredded, sterilized and washed flakes are float sink-separated, or (iv) the shredded, sterilized and washed flakes are subjected to a metal separation process, or (v) the shredded, sterilized and washed flakes are subjected to a color separation process, or (vi) the shredded, sterilized and washed flakes are subjected to a polymer separation process, or (vii) the shredded, sterilized and washed flakes are devolatilized. (i) the shredded, sterilized and washed flakes are screen-sorted, or (ii) the shredded, sterilized and washed flakes are fed into an air classifier, or (iii) the shredded, sterilized and washed flakes are float sink-separated, or (iv) the shredded, sterilized and washed flakes are subjected to a metal separation process, or (v) the shredded, sterilized and washed flakes are subjected to a color separation process, or (vi) the shredded, sterilized and washed flakes are subjected to a polymer separation process, or (vii) the shredded, sterilized and washed flakes are devolatilized.
Notched disc set consisting of two notched discs (1, 2) having respectively an outer-side cover surface, wherein the notched discs (1, 2) are connectable to one another to be resistant to rotation on the inner sides by means of opposing toothed wheels gripping into one another, and are movable axially against one another, wherein respectively a central cylindrical passage bore aligning opposite the other notched disc grips through the two locking discs (1, 2), characterised in that the passage bore is increased in diameter at least at one exit side of the passage bore on the cover surface of the respective notched disc (1, 2) and is formed as an inner driving profile, and in that a centring bush (10, 14), which consists of a driving profile head part increased in diameter, the external diameter of which is adapted approximately to the internal diameter of the inner driving profile of the at least one notched disc (1, 2) and furthermore consists of a cylindrical sleeve part connecting thereto in material-integral manner and is insertable in the passage bore, is engageable into the inner driving profile to be resistant to rotation.
Operating method for a vehicle, a first operating function being activated if a first sensor is used to sense that a first physical variable is greater than a predetermined first threshold value, and a second operating function being activated if a second sensor is used to sense that a second physical variable is greater than a predetermined second threshold value, the first sensor and the second sensor being fitted to the vehicle adjacent to one another in such a manner that both sensors (21, 22) can be simultaneously activated by an operator, characterized in that a third operating function is activated if the first sensor is used to sense that the first physical variable is greater than a predetermined third threshold value and if the second sensor is simultaneously used to sense that the second physical variable is greater than a predetermined fourth threshold value, in that the third threshold value is greater than the first threshold value, in that the first sensor is a capacitive sensor and the first physical variable is a capacitance, and in that the second sensor is a capacitive sensor and the second physical variable is a capacitance.
A method of conserving objects made of stone or wood by filling the inner cavities with a settable impregnating fluid, wherein the object is enclosed by a film during impregnation and wherein the object is dried and then enclosed with a film on all sides, so that a film space is created and in the lower region of the object enclosed with the film, a line piercing the film, in particular a line exhibiting a valve, is secured, which line leads to a container filled with the impregnating fluid, characterized in that - a level-controlled container is arranged above the object before or after the film enclosure, on which container a suction line is arranged at the top which leads to the suction connection of a pump, - negative pressure is generated in the film space via the suction line - the impregnating agent provided for conservation is admitted into the film space in several stages via a connection line in the lower region of the film space and - after the complete impregnation of the object, the film and the level-controlled container are removed from the object and the impregnating fluid in the object is set. - a level-controlled container is arranged above the object before or after the film enclosure, on which container a suction line is arranged at the top which leads to the suction connection of a pump, - negative pressure is generated in the film space via the suction line - the impregnating agent provided for conservation is admitted into the film space in several stages via a connection line in the lower region of the film space and - after the complete impregnation of the object, the film and the level-controlled container are removed from the object and the impregnating fluid in the object is set.
A double-sided adhesive sheet sequentially including a first adhesive layer, a transparent acrylic resin layer and a second adhesive layer, wherein each of the first adhesive layer and the second adhesive layer comprises an acrylic adhesive; the first adhesive layer is disposed to adjoin a touch panel; the second adhesive layer is disposed to adjoin a display device module; wherein the first adhesive layer has a 180° peel strength of 31,5 kg/m (800 g/in) to 118.1 kg/m (3000 g/in) with respect to a polycarbonate film at a peeling rate of 300 mm/min and a temperature of 23°C, and the second adhesive layer has a 180° peel strength of 0 to 3,1 kg/m (80 g/in) with respect to a triacetylcellulose polarizing film at a peeling speed of 300 mm/min and a temperature of 23°C, wherein the acrylic adhesive included in the first adhesive layer comprises an acrylate monomer having a C 1 -C 12 alkyl group and a functional group-containing copolymerizable monomer, the functional group-containing monomer being present in an amount of 5 wt% to 30 wt% in the acrylic copolymer, and wherein the acrylic adhesive included in the second adhesive layer comprises an acrylate monomer having a C 1 -C 12 alkyl group and a functional group-containing copolymerizable monomer, the functional group-containing monomer being present in an amount of 1 wt% to 5 wt% in the acrylic copolymer.