mhurhangee/ep-ind-claims huggingface dataset:
A wet shaving cartridge comprising: a) a housing having a guard located at a front end of the housing and a cap located at a rear end of the housing, b) two or more elongate blades located between the guard and cap and extending in a direction substantially parallel to a length of the guard, wherein edges of the respective blades lie in a shaving plane extending between the guard and the cap; c) a shaving aid retention member located in the cap, the retention member having a base arranged to receive a shaving aid and characterized in that a front wall is located at a side of the retention member adjacent the blades, the front wall extending from the base of the retention member towards the shaving plane. a) a housing having a guard located at a front end of the housing and a cap located at a rear end of the housing, b) two or more elongate blades located between the guard and cap and extending in a direction substantially parallel to a length of the guard, wherein edges of the respective blades lie in a shaving plane extending between the guard and the cap; c) a shaving aid retention member located in the cap, the retention member having a base arranged to receive a shaving aid and characterized in that a front wall is located at a side of the retention member adjacent the blades, the front wall extending from the base of the retention member towards the shaving plane.
Elastomeric laminate comprising at least two adjacent layers: - the first layer consisting: of a composition based on 10 to 100 phr of a copolymer of ethylene and of a 1,3-diene of formula, the ethylene units in the copolymer representing more than 50 mol% of the monomer units of the copolymer, CH 2 =CR-CH=CH 2 the symbol R representing a hydrocarbon chain having 3 to 20 carbon atoms; from 0 to 90 phr of a diene elastomer having a content by weight of diene unit of greater than 50%; and a crosslinking system, - the second layer consisting of a composition based on a diene elastomer having a content by weight of diene unit of greater than 50% and a crosslinking system. - the first layer consisting: of a composition based on 10 to 100 phr of a copolymer of ethylene and of a 1,3-diene of formula, the ethylene units in the copolymer representing more than 50 mol% of the monomer units of the copolymer, CH 2 =CR-CH=CH 2 the symbol R representing a hydrocarbon chain having 3 to 20 carbon atoms; from 0 to 90 phr of a diene elastomer having a content by weight of diene unit of greater than 50%; and a crosslinking system, of a composition based on 10 to 100 phr of a copolymer of ethylene and of a 1,3-diene of formula, the ethylene units in the copolymer representing more than 50 mol% of the monomer units of the copolymer, CH 2 =CR-CH=CH 2 the symbol R representing a hydrocarbon chain having 3 to 20 carbon atoms; from 0 to 90 phr of a diene elastomer having a content by weight of diene unit of greater than 50%; and a crosslinking system, - the second layer consisting of a composition based on a diene elastomer having a content by weight of diene unit of greater than 50% and a crosslinking system.
Screwed plug of spring-elastic material, in particular of plastic, for containers, comprising an internal thread and at least one originality-guarantee strip which is connected at least partially to the screwed plug on the underside thereof, wherein the at least one originality-guarantee strip comprises at least one inner protrusion which, when the plug is fully closed, engages below a collar of a container, wherein the originality-guarantee strip on the periphery has at least one recess by means of which, on force application during closure, the at least one protrusion is able to be lead through at least in part, characterized in that the at least one protrusion is cam-like and an outer wall region of the originality-guarantee strip is simultaneously an outer wall region of the at least one inner cam-like protrusion.
An image forming apparatus comprising an image forming device that forms an image on a recording sheet, a storage box (51A, 51B) for storing a printed material obtained by the image forming device forming the image on the recording sheet; a shredding device (52A, 52B) that shreds the printed material stored in the storage box (51A, 51B); a communication device that performs wireless communication with a mobile device carried by a user; and a control device including a processor, and configured to act, when the processor executes a control program, as a controller that controls the shredding device (52A, 52B) so as to shred the printed material, upon deciding that a predetermined first standby time has elapsed after the printed material was stored in the storage box (51A, 51B), wherein the controller transmits, to the mobile device through the communication device, predetermined warning information to an effect that the printed material is about to be shredded, upon deciding that a predetermined second standby time, shorter than the first standby time, has elapsed after the printed material was stored in the storage box (51A, 51B), characterized in that the controller transmits a message inquiring the user whether the first standby time is to be extended, to the mobile device through the communication device, and extends the first standby time, upon receipt of an instruction of the user designating an extension time from the first standby time, from the mobile device through the communication device, according to the extension time designated by the instruction received. an image forming device that forms an image on a recording sheet, a storage box (51A, 51B) for storing a printed material obtained by the image forming device forming the image on the recording sheet; a shredding device (52A, 52B) that shreds the printed material stored in the storage box (51A, 51B); a communication device that performs wireless communication with a mobile device carried by a user; and a control device including a processor, and configured to act, when the processor executes a control program, as a controller that controls the shredding device (52A, 52B) so as to shred the printed material, upon deciding that a predetermined first standby time has elapsed after the printed material was stored in the storage box (51A, 51B), wherein the controller transmits, to the mobile device through the communication device, predetermined warning information to an effect that the printed material is about to be shredded, upon deciding that a predetermined second standby time, shorter than the first standby time, has elapsed after the printed material was stored in the storage box (51A, 51B), characterized in that the controller transmits a message inquiring the user whether the first standby time is to be extended, to the mobile device through the communication device, and extends the first standby time, upon receipt of an instruction of the user designating an extension time from the first standby time, from the mobile device through the communication device, according to the extension time designated by the instruction received.
A method for producing an optoelectronic semiconductor chip comprising the following steps: - providing an n-conducting layer, - arranging a p-conducting layer on the n-conducting layer, - arranging a metal layer sequence on the p-conducting layer, wherein - the metal layer sequence comprises at least one mirror layer and a barrier layer, and - the mirror layer of the metal layer sequence faces the p-conducting layer, - arranging a mask at that side of the metal layer sequence which is remote from the p-conducting layer, and - in places removing the metal layer sequence and uncovering the p-conducting layer using the mask, characterized in that the method further comprises: - in places neutralizing the uncovered regions of the p-conducting layer as far as the n-conducting layer using the mask, wherein a p-type dopant in the p-conducting layer is neutralized, such that the neutralized regions of the p-conducting layer are first electrically insulated and the neutralized regions of the p-conducting layer are then doped in n-conducting fashion at least in places, such that the n-conducting layer is electrically connectable throughout the neutralized regions of the p-conducting layer. - providing an n-conducting layer, - arranging a p-conducting layer on the n-conducting layer, - arranging a metal layer sequence on the p-conducting layer, wherein - the metal layer sequence comprises at least one mirror layer and a barrier layer, and - the mirror layer of the metal layer sequence faces the p-conducting layer, - arranging a mask at that side of the metal layer sequence which is remote from the p-conducting layer, and - in places removing the metal layer sequence and uncovering the p-conducting layer using the mask, - in places neutralizing the uncovered regions of the p-conducting layer as far as the n-conducting layer using the mask, wherein a p-type dopant in the p-conducting layer is neutralized, such that the neutralized regions of the p-conducting layer are first electrically insulated and the neutralized regions of the p-conducting layer are then doped in n-conducting fashion at least in places, such that the n-conducting layer is electrically connectable throughout the neutralized regions of the p-conducting layer.
Roller shutter box, with a room side and an outer side, which can be placed on a frame, namely a window or door frame, in a building with a building wall, wherein an adapter strip is arranged between a base part of the roller shutter box and the upper side of the frame and the frame can be connected to the building wall by means of a static part passing through the roller shutter box, the static part further having an insertion section for plug-in connection to the adapter strip by means of a first rear handle formed on the adapter strip, and the insertion section being designed so as to be directed towards the room and the first rear handle being open towards the outside, characterised in that the base part is plug-in connected to the adapter strip.
A method for producing a sulfide solid electrolyte material comprising the steps of: combining an alkali metal salt and a sulfide compound containing at least one of P, B, Al, As, Sb, Bi, Si, Ge, and Sn with a polar aprotic solvent to form a first solution; combining an alkali metal salt and a polar protonated solvent or ethanol to form a second solution; combining the first and second solutions to form a third solution; and drying the third solution to produce a sulfide solid electrolyte material; wherein the first solution has a molar ratio of Li 2 S:P 2 S 5 between 9:11 and 11:9. combining an alkali metal salt and a sulfide compound containing at least one of P, B, Al, As, Sb, Bi, Si, Ge, and Sn with a polar aprotic solvent to form a first solution; combining an alkali metal salt and a polar protonated solvent or ethanol to form a second solution; combining the first and second solutions to form a third solution; and drying the third solution to produce a sulfide solid electrolyte material; wherein the first solution has a molar ratio of Li 2 S:P 2 S 5 between 9:11 and 11:9.
A magnetic device comprising: a pinned magnetic layer with a magnetization vector having a fixed magnetization direction that is one of: perpendicular to a plane of the pinned magnetic layer, or in a plane of the pinned magnetic layer; a free magnetic layer with at least one magnetization vector having a changeable magnetization direction, wherein the magnetization vector of the free magnetic layer has at least a first stable state and a second stable state, and wherein the first and second stable states each have magnetization directions that are at a non-zero acute angle relative to a normal of a plane of the free magnetic layer; and a nonmagnetic layer spatially separating the pinned magnetic layer and the free magnetic layer, wherein application of a current pulse through the magnetic device switches the magnetization vector of the free magnetic layer between the first and second stable states. a pinned magnetic layer with a magnetization vector having a fixed magnetization direction that is one of: perpendicular to a plane of the pinned magnetic layer, or in a plane of the pinned magnetic layer; perpendicular to a plane of the pinned magnetic layer, or in a plane of the pinned magnetic layer; a free magnetic layer with at least one magnetization vector having a changeable magnetization direction, wherein the magnetization vector of the free magnetic layer has at least a first stable state and a second stable state, and wherein the first and second stable states each have magnetization directions that are at a non-zero acute angle relative to a normal of a plane of the free magnetic layer; and a nonmagnetic layer spatially separating the pinned magnetic layer and the free magnetic layer,
A pesticidal composition comprising, as active ingredients, at least one organic phosphorus compound selected from the group consisting of fosthiazate and imicyafos, and fluensulfone.
Method for the manufacture of a mould for continuous casting of metallic products, comprising a mould of a one-piece tube (2, 11, 31, 61) or of a plurality of parts preferably formed as mould plates, characterized in that the tube (2, 11, 31, 61) or the parts themselves and/or at least on the outer or inner sides of the tube (2, 11, 31, 61) respectively of the parts a structure (5, 15, 35, 65) is produced by a generative manufacturing process, whereby at least on the outer sides of the tube (2, 11, 31, 61) respectively of the parts the structure (5, 15, 35, 65) forming by the connecting elements (6, 16, 36, 66) are produced by this generative manufacturing process.
Device for dispensing a free-flowing product for or in a beverage preparation machine, having a storage container for storing the pourable product, having a metering device for metering the free-flowing product that is stored in the storage container, having a movable dispensing element for dispensing the free-flowing product that is metered by the metering device into a beverage container, wherein the dispensing element can be moved from a dispensing position into a waiting position or rest position and back, and wherein the waiting position or rest position is positioned offset at least in the horizontal direction with respect to the dispensing position, characterised by a movable positioning element, the position change of which causes a change in the position of the movable dispensing element, wherein the positioning element comprises a dispensing element that is used so as to dispense a liquid. having a storage container for storing the pourable product, having a metering device for metering the free-flowing product that is stored in the storage container, having a movable dispensing element for dispensing the free-flowing product that is metered by the metering device into a beverage container, wherein the dispensing element can be moved from a dispensing position into a waiting position or rest position and back, and wherein the waiting position or rest position is positioned offset at least in the horizontal direction with respect to the dispensing position, characterised by a movable positioning element, the position change of which causes a change in the position of the movable dispensing element, wherein the positioning element comprises a dispensing element that is used so as to dispense a liquid.
An autorotation assist system for a rotor helicopter comprising: a motor-generator (212, 412) or a hydraulic pump-motor configured to attach to an engine; a controller (216, 416, 516) connected to the motor-generator (212, 412) or the hydraulic pump-motor; a battery system or a hydraulic accumulator coupled to the motor-generator (212, 412) or the hydraulic pump-motor, respectively; wherein, during a normal operation of the engine, the motor-generator (212, 412) or the hydraulic pump-motor is configured to store an energy in the battery system or the hydraulic accumulator, respectively; wherein, upon a manual and/or an automatic control by the controller (216, 416, 516), the battery system or the hydraulic accumulator is configured to discharge the energy to the motor-generator (212, 412) or the hydraulic pump-motor, respectively, and the motor-generator (212, 412) or the hydraulic pump-motor is configured to drive the rotor (108, 208, 408, 508); and wherein the automatic control by the controller (216, 426, 516) is triggered to provide autorotation assistance when the rpm level of the engine falls below the rpm level of the rotor (108, 208, 408, 508). a motor-generator (212, 412) or a hydraulic pump-motor configured to attach to an engine; a controller (216, 416, 516) connected to the motor-generator (212, 412) or the hydraulic pump-motor; a battery system or a hydraulic accumulator coupled to the motor-generator (212, 412) or the hydraulic pump-motor, respectively; wherein, during a normal operation of the engine, the motor-generator (212, 412) or the hydraulic pump-motor is configured to store an energy in the battery system or the hydraulic accumulator, respectively; wherein, upon a manual and/or an automatic control by the controller (216, 416, 516), the battery system or the hydraulic accumulator is configured to discharge the energy to the motor-generator (212, 412) or the hydraulic pump-motor, respectively, and the motor-generator (212, 412) or the hydraulic pump-motor is configured to drive the rotor (108, 208, 408, 508); and wherein the automatic control by the controller (216, 426, 516) is triggered to provide autorotation assistance when the rpm level of the engine falls below the rpm level of the rotor (108, 208, 408, 508).
Electrostatic transducer for a parametric audio system comprising an audio signal source, an ultrasonic signal source, an audio signal processor, a modulator, the electrostatic transducer comprising a back plate, a membrane and multiple electrically driven cells wherein each cell comprises multiple bottom electrodes (18, 19), wherein two of said bottom electrodes (18, 19) are support electrodes for support of the membrane region, characterized in that said support electrodes for support of the membrane region have a convex shaped top part (18.2).
A semiconductor device comprising a plurality of semiconductor elements (3, 4) connected in parallel between a direct current power source and a load, the semiconductor device being configured to turn the plurality of semiconductor elements (3, 4) simultaneously ON or OFF, the semiconductor device further comprising: a voltage detection means for detecting a voltage value between a fixed potential and a connection node, the connection node being arranged between each of the plurality of semiconductor elements (3, 4) and the load; a determining means for determining, if the plurality of semiconductor elements (3, 4) are OFF, whether or not a voltage value detected by the voltage detection means is higher than a predetermined voltage value; and a means for turning ON the plurality of semiconductor elements (3, 4) when the determining means determines that the detected voltage value is higher than the predetermined voltage value. a voltage detection means for detecting a voltage value between a fixed potential and a connection node, the connection node being arranged between each of the plurality of semiconductor elements (3, 4) and the load; a determining means for determining, if the plurality of semiconductor elements (3, 4) are OFF, whether or not a voltage value detected by the voltage detection means is higher than a predetermined voltage value; and a means for turning ON the plurality of semiconductor elements (3, 4) when the determining means determines that the detected voltage value is higher than the predetermined voltage value.
A method for increasing the nitrogen dioxide fraction in the exhaust gas of an internal combustion engine, wherein the exhaust gas stream is divided into at least two exhaust gas substreams flowed through simultaneously in parallel, the first exhaust gas substream (10, 10.1) is directed via at least one NO oxidation catalyst (4.1) for the oxidation of nitrogen monoxide, the second exhaust gas substream (11, 11.1) is directed via at least one substream SCR catalyst (6.1), which brings about a selective catalytic reduction of nitrogen oxides with the aid of ammonia and/or ammonia-separating reducing agents, metered amounts of the ammonia and/or the reducing agent are introduced into the second exhaust gas substream (11, 11.1) and upstream of the substream SCR catalyst (6.1), the two substreams (10, 10.1) and (11, 11.1) are made to converge downstream of the NO oxidation catalyst (4.1) and downstream of the substream SCR catalyst (6.1), and also arranged in the exhaust gas stream, downstream of the convergence of the exhaust gas substreams (10, 10.1, 11, 11.1), is at least one exhaust gas aftertreatment system, which converts nitrogen oxides contained in the exhaust gas into nitrogen and water and/or carbon particulates contained in the exhaust gas into carbon dioxide.
A wafer processing system, characterized by a plurality of wafer processing modules (3a, 3b, 3c) which are disposed in parallel relation and each separably operable to process wafers, each comprising a wafer processing unit for processing wafers and a feed unit for transferring wafers to and from the wafer processing unit, wherein the feed unit comprises input and output feed assemblies (38, 39) for transferring wafers to and from the wafer processing unit which provides a wafer processing station and a processing zone feed assembly which interconnects the input and output feed assemblies (38, 39) for transferring wafers from the input feed assembly to the wafer processing unit and from the wafer processing unit to the output feed assembly, and the output feed assemblies together provide at least one common output feed (F out) along which wafers are transferred.
Use of a non-aqueous solvent composition comprising 0 to 10 wt.% of N-alkyl pyrrolidone, 0 to 5 wt.% of dimethyl sulfoxide, 10 to 50 wt.% of γ-butyrolactone, 10 to 50 wt.% of at least one monoalcohol, 10 to 60 wt.% of at least one organic solvent inert towards isocyanate groups, other than γ-butyrolactone, other than N-alkyl pyrrolidone, and consisting of carbon, hydrogen, oxygen and, optionally, nitrogen, and 0 to 10 wt.% of at least one of defoamers, wetting agents and surfactants, as barrier liquid within a coating installation of an industrial mass production coating line for the application of water-borne two-component polyurethane coatings. 0 to 10 wt.% of N-alkyl pyrrolidone, 0 to 5 wt.% of dimethyl sulfoxide, 10 to 50 wt.% of γ-butyrolactone, 10 to 50 wt.% of at least one monoalcohol, 10 to 60 wt.% of at least one organic solvent inert towards isocyanate groups, other than γ-butyrolactone, other than N-alkyl pyrrolidone, and consisting of carbon, hydrogen, oxygen and, optionally, nitrogen, and 0 to 10 wt.% of at least one of defoamers, wetting agents and surfactants, as barrier liquid within a coating installation of an industrial mass production coating line for the application of water-borne two-component polyurethane coatings.