mhurhangee/ep-ind-claims huggingface dataset:
A rapid charging system (10, 82, 94, 98) for electrically driven vehicles, in particular electric buses or the like, the rapid charging system having a contact apparatus (11, 99) and a charging contact unit (12, 89, 100), wherein the contact apparatus serves to form an electrical conductive connection between a vehicle and a stationary charging station by means of the charging contact unit (12, 89, 100), wherein the contact apparatus can be arranged on a vehicle, wherein the contact apparatus comprises a contact device (14, 83, 114), wherein the contact device can make contact with the charging contact unit, wherein the contact apparatus or the charging contact unit comprises a positioning device (15, 113), wherein the contact device can be positioned relative to the charging contact unit by means of the positioning device, wherein the contact device has a contact element support comprising contact elements (17, 84, 128), wherein the contact elements can make contact with charging contact elements (18, 90) of the charging contact unit so as to form contact pairs, wherein the contact elements are bolt-shaped and the charging contact elements are realised as conductor strips or wherein the contact elements are realised as conductor strips and the charging contact elements are bolt-shaped, characterised in that the contact device can be arranged on a roof of the vehicle below the charging contact unit, wherein each of the bolt-shaped contact elements is elastically mounted, wherein the contact elements are arranged on the contact element support relative to the charging contact elements in such a manner or wherein the charging contact elements are arranged on the charging contact unit relative to the contact elements in such a manner that a defined order is maintained when forming contact pairs when the contact device and the charging contact unit are joined.
A device for holding the outer flanks of a starting and/or end floorboard of a floorboard arrangement composed of several parallel floorboards (1a, 1b) which are mountable on supports extending transversely thereto, comprising a bipartite holding device comprising two mutually facing retention elements (4a, 4b) which can be brought into mutually detachable holding engagement, one of the said retention elements (4a, 4b) being fixable to the floorboard bottom side and the other being fixable to the support side, characterized in that the retention elements (4a, 4b) are designed as snap-in elements (14, 15; 14a, 15a; 14a', 15') which are insertable into each other and engageable in a mutual positive snap engagement, with one retention element being provided with at least one gear-like tooth profile (12; 12a; 12a') comprising several teeth arranged in rows one behind the other, and the other retention element being provided with at least one locking tooth (13, 13a, 13a') which can be brought into engagement with an associated gear-like tooth profile of the one retention element, and whereby at least one of the retention elements (4a, 4b) has a structure enabling a resilient deflection of each associated snap-in element, with the snap-in element consisting of the locking tooth (13, 13a, 13a') or the associated gear-like tooth profile (12; 12a; 12a').
Steam iron for domestic use, with a steam generator for producing steam which has a steam chamber and a heater, with a water tank for providing cold water for the steam generator, and with a pump for supplying cold water to the steam chamber, characterised in that - the steam iron has a position sensor for determining positions of the steam iron, wherein in an alternative position deviating from a horizontal working position the pump is deactivated, - wherein the position sensor is a ball sensor having a ball located in the horizontal working position in an open position and in the alternative position in a closed position, - and wherein a timer is provided for deactivating the pump after a predetermined waiting time (t LSD), during which the ball is in its closed position. - the steam iron has a position sensor for determining positions of the steam iron, wherein in an alternative position deviating from a horizontal working position the pump is deactivated, - wherein the position sensor is a ball sensor having a ball located in the horizontal working position in an open position and in the alternative position in a closed position, - and wherein a timer is provided for deactivating the pump after a predetermined waiting time (t LSD), during which the ball is in its closed position.
A method of preparing a substrate, comprising the step of polishing a surface of the substrate using a polishing pad along with a polishing slurry, said polishing pad having a porous nap layer which comes into contact with the substrate surface and is made of a base resin comprising an ether resin characterised in that the base resin comprises at least two further resins including an ester resin and a polycarbonate resin, the base resin comprising 55 to 85% by weight of the ether resin, 10 to 35% by weight of the ester resin, 5 to 10% by weight of the polycarbonate resin and optional other resin.
A screen protector applicator for electronic equipment, wherein comprising a positioning die, an adhesive part and a flexible pulling part; said positioning die has a positioning cavity formed by a bottom panel and a few of side panels around a periphery of the bottom panel, for positioning a screen protector and said electronic equipment; characterized in that said adhesive part is fixed on a first end of said bottom panel and a top surface of said adhesive part is provided with an adhesive layer for sticking an end of said screen protector; said flexible pulling part is fixed on a second end of said bottom panel; a top surface of said flexible pulling part is provided with the other adhesive layer for sticking the other end of said screen protector, one end of said flexible pulling part extends out of said positioning cavity.
Process for making a partially coated electrode active material wherein said process comprises the following steps: (a) Providing an electrode active material according to general formula Li 1+x TM 1-x O 2, wherein TM is selected from Ni and, optionally, at least one of Co and Mn, and, optionally, at least one element selected from Al, Mg, and Ba, transition metals other than Ni, Co, and Mn, and x is in the range of from zero to 0.2, wherein at least 50 mole-% of the transition metal of TM is Ni, (b) treating said electrode active material with an aqueous medium, (c) partially removing water by solid-liquid separation method, (d) treating the solid residue with an aqueous formulation of at least one heteropoly acid or its respective ammonium or lithium salt, (e) treating the residue thermally. (a) Providing an electrode active material according to general formula Li 1+x TM 1-x O 2, wherein TM is selected from Ni and, optionally, at least one of Co and Mn, and, optionally, at least one element selected from Al, Mg, and Ba, transition metals other than Ni, Co, and Mn, and x is in the range of from zero to 0.2, wherein at least 50 mole-% of the transition metal of TM is Ni, (b) treating said electrode active material with an aqueous medium, (c) partially removing water by solid-liquid separation method, (d) treating the solid residue with an aqueous formulation of at least one heteropoly acid or its respective ammonium or lithium salt, (e) treating the residue thermally.
A nasal interface apparatus for use with a respiratory device that doses compressed gas from compressed gas source, the apparatus comprising: a pair of hub components (104; 204; 304; 404; 504; 604) for receiving the compressed gas with each hub component having a plurality of delivery openings (112; 212; 312; 412; 512; 612) in a distal face thereof (121; 221; 321; 421; 521; 621); and a pair of nasal pillows (e.g. 102, 202; 302; 402; 102; 102), each nasal pillow extending from a proximal end (e.g., 103; 203; 303; 403; 103; 103) to a distal end thereof (e.g., 105; 205; 305; 405; 105; 105), wherein each nasal pillow has a respective hub component disposed at the proximal end of the nasal pillow such that the plurality of delivery openings of the hub component are positioned to deliver the compressed gas into the nasal pillow. a pair of hub components (104; 204; 304; 404; 504; 604) for receiving the compressed gas with each hub component having a plurality of delivery openings (112; 212; 312; 412; 512; 612) in a distal face thereof (121; 221; 321; 421; 521; 621); and a pair of nasal pillows (e.g. 102, 202; 302; 402; 102; 102), each nasal pillow extending from a proximal end (e.g., 103; 203; 303; 403; 103; 103) to a distal end thereof (e.g., 105; 205; 305; 405; 105; 105), wherein each nasal pillow has a respective hub component disposed at the proximal end of the nasal pillow such that the plurality of delivery openings of the hub component are positioned to deliver the compressed gas into the nasal pillow.
A method for applying a decorative coating to a glass or glass ceramic substrate, comprising the steps of: - applying a first layer having a textured surface, wherein the first layer is applied as a glass flux and wherein pigment and/or filler particles are added to the material used for the first layer to obtain the textured surface, wherein the first layer is baked whereby glass flux particles melt while pigment and/or filler particles remain intact, wherein the maximum texture depth of the first layer is more than 40 % of the maximum thickness of the layer; - applying a further layer onto the first layer exhibiting the textured surface, wherein the further layer fills the textured surface at least partially, so that the material of the first layer gradually merges into the material of the second layer, and wherein the material of the second layer comprises pigments or colorants, wherein an at least partially polymeric layer is applied as the second layer. - applying a first layer having a textured surface, wherein the first layer is applied as a glass flux and wherein pigment and/or filler particles are added to the material used for the first layer to obtain the textured surface, wherein the first layer is baked whereby glass flux particles melt while pigment and/or filler particles remain intact, wherein the maximum texture depth of the first layer is more than 40 % of the maximum thickness of the layer; - applying a further layer onto the first layer exhibiting the textured surface, wherein the further layer fills the textured surface at least partially, so that the material of the first layer gradually merges into the material of the second layer, and wherein the material of the second layer comprises pigments or colorants, wherein an at least partially polymeric layer is applied as the second layer.
A method for treatment of a substrate (102, 402, 404) comprising: creating a high voltage alternating current atmospheric pressure plasma in a treatment region comprising two spaced-apart electrodes (e1/e2; 212/214; 412/414) wherein the electrodes are provided as first and second rollers (212/214; 412/414) disposed parallel to each other, with a gap therebetween, the gap corresponding to the thickness of the substrate, to allow the substrate to be fed between the rollers; characterized in that the method comprises: directing at least one laser beam into the treatment region, approximately parallel to and between the electrodes and slightly above a top surface of the substrate, to interact with the plasma, resulting in a hybrid plasma; wherein the at least one laser beam is directed in an angle (α) of less than 1-10 degrees with a top surface of the substrate being treated to also directly irradiate the substrate being treated as it coincidently reacts with the plasma being generated by the two electrodes; and causing the hybrid plasma to interact with the substrate in the treatment region. creating a high voltage alternating current atmospheric pressure plasma in a treatment region comprising two spaced-apart electrodes (e1/e2; 212/214; 412/414) wherein the electrodes are provided as first and second rollers (212/214; 412/414) disposed parallel to each other, with a gap therebetween, the gap corresponding to the thickness of the substrate, to allow the substrate to be fed between the rollers; characterized in that the method comprises: directing at least one laser beam into the treatment region, approximately parallel to and between the electrodes and slightly above a top surface of the substrate, to interact with the plasma, resulting in a hybrid plasma; wherein the at least one laser beam is directed in an angle (α) of less than 1-10 degrees with a top surface of the substrate being treated to also directly irradiate the substrate being treated as it coincidently reacts with the plasma being generated by the two electrodes; and causing the hybrid plasma to interact with the substrate in the treatment region. directing at least one laser beam into the treatment region, approximately parallel to and between the electrodes and slightly above a top surface of the substrate, to interact with the plasma, resulting in a hybrid plasma; wherein the at least one laser beam is directed in an angle (α) of less than 1-10 degrees with a top surface of the substrate being treated to also directly irradiate the substrate being treated as it coincidently reacts with the plasma being generated by the two electrodes; and causing the hybrid plasma to interact with the substrate in the treatment region.
A lens for electronic spectacles, the lens containing an electric element between a lower substrate and an upper substrate, wherein: a lower electrode pattern for the electric element is formed on the lower substrate, an upper electrode pattern for the electric element is formed on the upper substrate, the lower electrode pattern and the upper electrode pattern are formed so as not to overlap each other in the thickness direction of the lens at a lens end, a first auxiliary electrode layer connected to the lower electrode pattern and a second auxiliary electrode layer connected to the upper electrode pattern are formed in the vicinity of the lens end, the first auxiliary electrode layer and the second auxiliary electrode layer being formed so as not to overlap each other in the thickness direction of the lens, the first auxiliary electrode layer and the second auxiliary electrode layer are exposed on the lens end, and the first auxiliary electrode layer and the second auxiliary electrode are formed of a conductive ink. a lower electrode pattern for the electric element is formed on the lower substrate, an upper electrode pattern for the electric element is formed on the upper substrate, the lower electrode pattern and the upper electrode pattern are formed so as not to overlap each other in the thickness direction of the lens at a lens end, a first auxiliary electrode layer connected to the lower electrode pattern and a second auxiliary electrode layer connected to the upper electrode pattern are formed in the vicinity of the lens end, the first auxiliary electrode layer and the second auxiliary electrode layer being formed so as not to overlap each other in the thickness direction of the lens, the first auxiliary electrode layer and the second auxiliary electrode layer are exposed on the lens end, and the first auxiliary electrode layer and the second auxiliary electrode are formed of a conductive ink.
Adjustment device for a housing to adapt the latter to an uneven standing surface, comprising a foot piece with an internal thread forming a displacement axis, wherein the foot piece is arranged in a recess of the housing which is accessible from the surface of the housing that faces towards the standing surface, wherein the foot piece further has a cross-sectional profile perpendicular to the displacement axis which in cooperation with the recess prevents a rotation of the foot piece about the displacement axis, further comprising a spindle with an external thread that cooperates with the internal thread of the foot piece, characterized in that the adjustment device comprising a levelling wheel connected to the spindle and turnable around the displacement axis, wherein the levelling wheel and the spindle are releasably joined together in a rotation-blocking manner by means of a snap connection.
A method for controlling the operation of an electrochemical device having at least one operating organ (21,22), comprising the steps of: - receiving measurements related to the operation of the electrochemical device, and estimating at least diagnostics data (S11,S111) based on said measurements, wherein the method further comprises the steps of: - estimating prognostics data (S12,S121,S122) based on said diagnostics data and providing operation instructions to control said operating organ of the electrochemical device, said operation instructions being optimized with respect to said estimated diagnostics and prognostics data, the method is characterised in that said electrochemical device comprising at least one fuel cell having a fuel canal, said measurements include a monitoring of variations of voltage provided by the fuel cell, and said operating organ comprises an air bleed inlet in the fuel canal so as to evacuate contaminant from the fuel canal if a decrease of an average voltage value is observed from said measurements. - receiving measurements related to the operation of the electrochemical device, and estimating at least diagnostics data (S11,S111) based on said measurements, - estimating prognostics data (S12,S121,S122) based on said diagnostics data and providing operation instructions to control said operating organ of the electrochemical device, said operation instructions being optimized with respect to said estimated diagnostics and prognostics data, the method is characterised in that said electrochemical device comprising at least one fuel cell having a fuel canal, said measurements include a monitoring of variations of voltage provided by the fuel cell, and said operating organ comprises an air bleed inlet in the fuel canal so as to evacuate contaminant from the fuel canal if a decrease of an average voltage value is observed from said measurements.
A tabbed sealing member for sealing to a rim of a container, the tabbed sealing member comprising: a lower seal portion having a top surface with a total surface area and including a heat sealable layer configured for heat sealing to a container rim; an upper laminate at least partially bonded to the lower seal portion top surface to form a gripping tab; and the upper laminate having a top surface with a surface area less than the total surface area of the lower seal portion top surface, characterised in that the gripping tab is a circular segment. a lower seal portion having a top surface with a total surface area and including a heat sealable layer configured for heat sealing to a container rim; an upper laminate at least partially bonded to the lower seal portion top surface to form a gripping tab; and the upper laminate having a top surface with a surface area less than the total surface area of the lower seal portion top surface, characterised in that the gripping tab is a circular segment.
A rechargeable lithium ion button cell comprises: - a sealed housing comprising an inner casing and an outer casing, each of both casings having at least one flat area (1a, 3a) as top or bottom of the button cell, and a round or oval sidewall (1c, 3b) vertically formed to the flat areas, said sealed housing also comprising a round or oval insulation gasket having a footing rim positioned between said sidewalls, said footing rim covering an opening end of said inner casing sidewall; wherein said outer casing sidewall is crimped together with the gasket against the inner casing to seal the button cell; - a round or oval metal flake positioned between said footing rim and said flat area of said outer casing; and - a first electrode and a second electrode inside said sealed housing being spiral wound with a separator to be a round or oval roll having a roll axis vertical to said flat areas of the casings, each of said electrodes having one small area not coated with active materials, wherein exposed metal at said small area acts as conductor tab (7, 13) to connect the electrodes with said casings, respectively; wherein the conductor tab of the first electrode is welded with the round or oval metal flake; - a second round insulation washer attached to said metal flake after the welding of said first electrode; - wherein said sealed housing also contains electrolyte; characterized in that a first O ring shape insulation washer is attached to said metal flake before welding, wherein a top surface of said metal flake connected to said first electrode is fully insulated from electrolyte. - a sealed housing comprising an inner casing and an outer casing, each of both casings having at least one flat area (1a, 3a) as top or bottom of the button cell, and a round or oval sidewall (1c, 3b) vertically formed to the flat areas, said sealed housing also comprising a round or oval insulation gasket having a footing rim positioned between said sidewalls, said footing rim covering an opening end of said inner casing sidewall; wherein said outer casing sidewall is crimped together with the gasket against the inner casing to seal the button cell; - a round or oval metal flake positioned between said footing rim and said flat area of said outer casing; and - a first electrode and a second electrode inside said sealed housing being spiral wound with a separator to be a round or oval roll having a roll axis vertical to said flat areas of the casings, each of said electrodes having one small area not coated with active materials, wherein exposed metal at said small area acts as conductor tab (7, 13) to connect the electrodes with said casings, respectively; wherein the conductor tab of the first electrode is welded with the round or oval metal flake; - a second round insulation washer attached to said metal flake after the welding of said first electrode; - wherein said sealed housing also contains electrolyte;
A compound of the formula: wherein: A is: R 1 to R 9 are independently C, N, O or S; Q is independently selected from C 1-6 alkyl, halo, C 0-6 alkyl carboxylic acid, amino, hydroxy and C 1-6 alkoxy; n is 0, 1, 2, 3 or 4; and X is -OH or or a pharmacologically acceptable salt, stereoisomer, diastereomer, enantiomer, racemate, hydrate and/or solvate thereof, wherein when X is -OH, A cannot be unsubstituted phenyl. A is: R 1 to R 9 are independently C, N, O or S; Q is independently selected from C 1-6 alkyl, halo, C 0-6 alkyl carboxylic acid, amino, hydroxy and C 1-6 alkoxy; n is 0, 1, 2, 3 or 4; and X is -OH or or a pharmacologically acceptable salt, stereoisomer, diastereomer, enantiomer, racemate, hydrate and/or solvate thereof, wherein when X is -OH, A cannot be unsubstituted phenyl.