mhurhangee/ep-ind-claims huggingface dataset:
A device for decreasing the content of NO x and N 2 O in gases, comprising: A) a container and arranged therein B) two reaction stages connected in series for the removal of NO x (DeNO x stage) by reduction of NO x with a nitrogen-containing reducing agent and, downstream of the latter, for the removal of N 2 O by catalytic decomposition of N 2 O into N 2 and O 2 (DeN 2 O stage), which each have one or more catalyst beds (7, 8) and through which the gas to be purified flows, wherein C) at least one catalyst bed of the DeNO x stage contains a catalyst for the reduction of NO x with nitrogen-containing reducing agents, which contains zeolites doped with transition metals, including the lanthanides, D) at least one catalyst bed of the DeN 2 O stage contains a NO x -sensitive catalyst for the decomposition of N 2 O into N 2 and O 2, which contains one or more catalytically active compounds of elements selected from groups 9 to 11 of the Periodic Table of the Elements and which contains no or substantially no zeolites, and E) a device for introducing a nitrogen-containing reducing agent into the stream of gas containing NO x and N 2 O is provided upstream of the DeNO x stage, wherein at least one catalyst bed of a reaction stage, preferably at least one catalyst bed of both reaction stages, is configured or arranged such that the gas to be cleaned flows laterally, in particular radially, through it. A) a container and arranged therein B) two reaction stages connected in series for the removal of NO x (DeNO x stage) by reduction of NO x with a nitrogen-containing reducing agent and, downstream of the latter, for the removal of N 2 O by catalytic decomposition of N 2 O into N 2 and O 2 (DeN 2 O stage), which each have one or more catalyst beds (7, 8) and through which the gas to be purified flows, wherein C) at least one catalyst bed of the DeNO x stage contains a catalyst for the reduction of NO x with nitrogen-containing reducing agents, which contains zeolites doped with transition metals, including the lanthanides, D) at least one catalyst bed of the DeN 2 O stage contains a NO x -sensitive catalyst for the decomposition of N 2 O into N 2 and O 2, which contains one or more catalytically active compounds of elements selected from groups 9 to 11 of the Periodic Table of the Elements and which contains no or substantially no zeolites, and E) a device for introducing a nitrogen-containing reducing agent into the stream of gas containing NO x and N 2 O is provided upstream of the DeNO x stage,
A microneedle array for use with the intradermal delivery of an analgesic in the form of a salt, namely buprenorphine hydrochloride, comprising a plurality of microneedles on a carrier, characterized in that the microneedle array is applied by way of an applicator system, the applicator system comprising a trigger device, and the microneedles comprising a formulation containing at least one analgesic in the form of a salt, namely buprenorphine hydrochloride, and at least one water-soluble polymer.
Method for storing thermal energy in, and recapturing thermal energy from, respectively, an underground energy storage, comprising at least four holes, through which a heat carrier is transported and therefore heating or cooling the ground, respectively, where the holes are arranged essentially along at least two concentric circles (10, 11, 12), and where a control gear is arranged to control a valve system, which is arranged to direct the heat carrier to holes that are arranged along one circle, and thereby heating or cooling, respectively, the ground along said circle, wherein, when the temperature of the heat carrier is higher than that of the surrounding ground, inner circles are heated before outer circles characterized in that the heat carrier is transported in a closed system, in that when the temperature of the heat carrier is lower than that of the surrounding ground, outer circles are cooled before inner circles, after which inner circles are cooled, and in that the depths of the holes are arranged to be approximately between 50 and 250 meters.
A method for recovering oil from a subterranean reservoir, the method comprising: delivering an injection gas through an injection flow path into a first region of the subterranean reservoir via a first outflow device arranged along the injection flow path, the first outflow device configured to provide a first pressure drop across the first outflow device; delivering an injection gas through an injection flow path in to a second region of the subterranean reservoir via a second outflow device arranged along the injection flow path, the second outflow device configured to provide a second pressure drop across the second outflow device, wherein the first pressure drop and second pressure drop are different in order to suit the subterranean reservoir, wherein at least one of the outflow devices is configured to prevent fluid entering the injection flow path from the reservoir, and; producing oil from a plurality of regions (22a, 22b) of the reservoir via a production flow path with a plurality of inflow devices arranged along the production flow path, wherein at least one of the inflow devices is configured to prevent fluid entering the reservoir via the production flow path, wherein the method further comprises stopping all fluid flow in the injection flow path and the production flow path to control the residence time of the injection gas within the subterranean reservoir. delivering an injection gas through an injection flow path into a first region of the subterranean reservoir via a first outflow device arranged along the injection flow path, the first outflow device configured to provide a first pressure drop across the first outflow device; delivering an injection gas through an injection flow path in to a second region of the subterranean reservoir via a second outflow device arranged along the injection flow path, the second outflow device configured to provide a second pressure drop across the second outflow device, wherein the first pressure drop and second pressure drop are different in order to suit the subterranean reservoir, wherein at least one of the outflow devices is configured to prevent fluid entering the injection flow path from the reservoir, and; producing oil from a plurality of regions (22a, 22b) of the reservoir via a production flow path with a plurality of inflow devices arranged along the production flow path, wherein at least one of the inflow devices is configured to prevent fluid entering the reservoir via the production flow path, wherein the method further comprises stopping all fluid flow in the injection flow path and the production flow path to control the residence time of the injection gas within the subterranean reservoir.
A compound represented by the following formula: wherein, R 1 is a hydrogen atom, a C 1-6 alkyl group which may have substituents, or a halogen atom; R 2 is a hydrogen atom; R 3 is a 4-pyridyl group; R 4 is a hydrogen atom; Q is -C -, -C -, -SO 2 -, -C NHC -, -C NHC -, or -C NHC -; and W is a group represented by the following formula: wherein R 5 and R 6, together with the adjacent nitrogen atom, form a heterocycle which may have a substituent. wherein, R 1 is a hydrogen atom, a C 1-6 alkyl group which may have substituents, or a halogen atom; R 2 is a hydrogen atom; R 3 is a 4-pyridyl group; R 4 is a hydrogen atom; Q is -C -, -C -, -SO 2 -, -C NHC -, -C NHC -, or -C NHC -; and W is a group represented by the following formula: wherein R 5 and R 6, together with the adjacent nitrogen atom, form a heterocycle which may have a substituent.
A composition of excised vascular tissue comprising at least one continuous strand of tissue that has been removed from along the axis of the inner surface of a vascular lumen in a human body and preserved, wherein the continuous strand comprises a length of at least 2 cm, a depth of at least 0.1 mm and a volume of at least 0.45 mg/mm of length.
A vehicle front portion structure comprising: a battery case that is to be installed beneath a floor of a vehicle; front side members that extend in a vehicle longitudinal direction further toward a vehicle front side than the battery case; side rails that structure portions of a suspension member that is disposed further toward the vehicle front side than the battery case, and that extend in the vehicle longitudinal direction; characterized in that the battery case has a bottom plate and a battery frame portion, and in that the vehicle front portion structure comprises: first connecting members that connect the battery case and the front side members; and second connecting members that connect a vehicle longitudinal direction front end portion of the battery case and vehicle longitudinal direction rear ends of the side rails, that face the battery case in the vehicle longitudinal direction as seen in a plan view and in a side view, and that face the side rails in the vehicle longitudinal direction as seen in a plan view and in a side view. a battery case that is to be installed beneath a floor of a vehicle; front side members that extend in a vehicle longitudinal direction further toward a vehicle front side than the battery case; side rails that structure portions of a suspension member that is disposed further toward the vehicle front side than the battery case, and that extend in the vehicle longitudinal direction; characterized in that the battery case has a bottom plate and a battery frame portion, and in that the vehicle front portion structure comprises: first connecting members that connect the battery case and the front side members; and second connecting members that connect a vehicle longitudinal direction front end portion of the battery case and vehicle longitudinal direction rear ends of the side rails, that face the battery case in the vehicle longitudinal direction as seen in a plan view and in a side view, and that face the side rails in the vehicle longitudinal direction as seen in a plan view and in a side view. first connecting members that connect the battery case and the front side members; and second connecting members that connect a vehicle longitudinal direction front end portion of the battery case and vehicle longitudinal direction rear ends of the side rails, that face the battery case in the vehicle longitudinal direction as seen in a plan view and in a side view, and that face the side rails in the vehicle longitudinal direction as seen in a plan view and in a side view.
A nanofibrillar cellulose hydrogel comprising azido-modified nanofibrillar cellulose having a substituent represented by the formula -O-(CH 2) n -S m -L 1 -N 3, wherein n is in the range of 1 to 10; m is 0 or 1; and L 1 is a linker; wherein the substituent is attached to a carbon of one or more glucosyl units of the azido-modified nanofibrillar cellulose, thus forming an ether bond to the carbon.
A method performed by processing circuitry of a thermal printing device, the thermal printing device comprising a memory device (104, 201) and a motor for transporting media to a position for printing, the method comprising: accessing a plurality of print data lines in the memory device (104, 201); determining respective line strobe times and maximum motor speeds for the plurality of print data lines; determining a maximum step in motor speed for printing one of the plurality of print data lines to printing an adjacent one of the plurality of print data lines; and determining an actual motor speed for a selected print data line based on the maximum motor speed for the selected print data line, the maximum step in motor speed, and the respective line strobe times. accessing a plurality of print data lines in the memory device (104, 201); determining respective line strobe times and maximum motor speeds for the plurality of print data lines; determining a maximum step in motor speed for printing one of the plurality of print data lines to printing an adjacent one of the plurality of print data lines; and determining an actual motor speed for a selected print data line based on the maximum motor speed for the selected print data line, the maximum step in motor speed, and the respective line strobe times.
A piezoelectric device comprising: a substrate; a bonding layer comprising titanium; a lower electrode comprising platinum; a piezoelectric thin film; and an upper electrode, wherein the bonding layer, the lower electrode, the piezoelectric thin film, and the upper electrode are formed in this order on the substrate, wherein titanium from the bonding layer forms a precipitate on the lower electrode; characterized in that the platinum that forms the lower electrode has a crystal grain size of 75 nm to 150 nm, preferably of 90 nm to 130 nm; wherein the piezoelectric device has a thickness ratio t1/t2 of 1/17 to 1/8, wherein t1 represents the thickness (nm) of the bonding layer, and t2 represents the thickness (nm) of the lower electrode. a substrate; a bonding layer comprising titanium; a lower electrode comprising platinum; a piezoelectric thin film; and an upper electrode, wherein the bonding layer, the lower electrode, the piezoelectric thin film, and the upper electrode are formed in this order on the substrate, wherein titanium from the bonding layer forms a precipitate on the lower electrode; characterized in that the platinum that forms the lower electrode has a crystal grain size of 75 nm to 150 nm, preferably of 90 nm to 130 nm; wherein the piezoelectric device has a thickness ratio t1/t2 of 1/17 to 1/8, wherein t1 represents the thickness (nm) of the bonding layer, and t2 represents the thickness (nm) of the lower electrode.
An energy storage system comprising: multiple cells, each cell having a first end with anode and cathode terminals, and a second end opposite the first end, the cells arranged so that the second ends are aligned; for each of the cells, electrical connections coupled to the anode and cathode terminals at the first end; a first heat pipe having a first flat evaporation surface facing the second ends, wherein the first heat pipe has an U-shape formed by first and second flat condensation surfaces joined by the first flat evaporation surface; a second heat pipe having a second flat evaporation surface facing the second ends, wherein the second heat pipe has an U-shape formed by third and fourth flat condensation surfaces joined by the second flat evaporation surface; and a first heat transfer channel, wherein one side of the first heat transfer channel abuts at least one of the first and second flat condensation surfaces, and wherein another side of the first heat transfer channel abuts at least one of the third and fourth flat condensation surfaces, the first heat transfer channel configured to reject thermal energy from, or bring thermal energy to, the multiple cells; two second side heat transfer channels, in thermal exchange with the first and second heat pipes, respectively, abutting an opposite one of the first and second flat condensation surfaces and an opposite one of the third and fourth flat condensation surfaces, respectively. multiple cells, each cell having a first end with anode and cathode terminals, and a second end opposite the first end, the cells arranged so that the second ends are aligned; for each of the cells, electrical connections coupled to the anode and cathode terminals at the first end; a first heat pipe having a first flat evaporation surface facing the second ends, wherein the first heat pipe has an U-shape formed by first and second flat condensation surfaces joined by the first flat evaporation surface; a second heat pipe having a second flat evaporation surface facing the second ends, wherein the second heat pipe has an U-shape formed by third and fourth flat condensation surfaces joined by the second flat evaporation surface; and a first heat transfer channel, wherein one side of the first heat transfer channel abuts at least one of the first and second flat condensation surfaces, and wherein another side of the first heat transfer channel abuts at least one of the third and fourth flat condensation surfaces, the first heat transfer channel configured to reject thermal energy from, or bring thermal energy to, the multiple cells; two second side heat transfer channels, in thermal exchange with the first and second heat pipes, respectively, abutting an opposite one of the first and second flat condensation surfaces and an opposite one of the third and fourth flat condensation surfaces, respectively.
Water-conducting domestic appliance comprising a cleaning container for receiving objects to be cleaned, a door for closing the cleaning container and a closure mechanism for closing and locking the door, wherein the closure mechanism comprises a pre-closing mechanism which is designed to keep the door closed in a current-carrying state of the closure mechanism after the door has been closed and the pre-closing mechanism has been activated, and has a main closing mechanism which is designed to keep the door closed in a currentless state of the closure mechanism after the door has been closed and the main closing mechanism has been activated, wherein the pre-closing mechanism is designed as part of the main closing mechanism and the pre-closing mechanism has a closing body which can be moved between an open position, in which a closing element of the door is released to open the door, and a closed position, in which the closing element is blocked to keep the door closed, and the main closing mechanism has a locking body which can be moved between an unlocked position, in which a movement of the closing body between the closed position and the open position thereof is possible, and a locked position, in which a movement of the closing body from the closed position to the open position thereof is prevented, and wherein the locking body, in the locked position thereof, holds the closing body in the closed position thereof and mechanically blocks a movement of the closing body into the open position.
A pair of spectacles comprising a front piece which has two lens portions and to which two side pieces are pivotally connected by means of corner hinges; wherein said spectacles are foldable between an open, unfolded state of use in which the two side pieces extend away from the front piece, and an idle, folded state in which the side pieces are folded towards the front piece; characterized in that the front piece has a central hinge assembly by means of which the front piece is foldable to a position defining said folded state, in which said lens portions (31, 32) are held between the side pieces (20a, 20b) in that the entire front piece with its two lens portions (31, 32) and the central hinge assembly are enclosed by the two side pieces (20a, 20b); wherein each side piece (20a, 20b) has a first portion which is connected to the front piece by a resilient corner hinge, and a second portion which forms a free end portion of the side piece (20a, 20b); wherein a resilient transition member or hinge is provided between said first side piece portion and said second side piece portion; each said second side piece portion being configured to press against a user's head in said open, unfolded state in which the side piece extends to the area of the user's temple and does not depend on the ear of the user; and wherein each said resilient transition member or hinge is configured to adapt the position of the associated second side piece portion to the size and shape of the user's head in said unfolded state of use, whereby each said second side piece portion is tilted or inclined by means of said associated resilient transition member or hinge outwards from said idle, folded state, and a force is applied to said resilient transition member or hinge pressing said side piece (20a, 20b) towards the user's head.
Method for selectively separating out free-flowing products that are conveyed in a conveying direction along a conveying path in a conveying track, wherein the conveyed products are checked in a monitoring portion of the conveying path by means of a monitoring device, and wherein in a separating-out portion arranged downstream along the conveying path, the product that does not meet a presettable monitoring criterion is separated out and carried away from the conveying track using a suction device in that the suction device is arranged on the conveying path and a suction flow flowing away from the conveying track is generated for a preset suction period in order to suction the product out of the conveying track, characterized in that a suction tube of the suction device is arranged with a suction opening at a face-side end of the conveying track, in order to suction off the product falling at the face-side end of the conveying track from the conveying track along a fall trajectory through the suction opening.
A shield and a receiver remotely coupled to the shield, the shield being adapted to provide radio frequency shielding to block selected radio frequencies characterised in that the shield further comprises a transmitter to send a coupling signal to the receiver, the coupling signal being of at least one non-blocked frequency, the receiver having means to monitor the distance between the receiver and transmitter and an alert means to indicate when the measured distance exceeds a predetermined value.
A process for producing an ultrafine mixed-crystal oxide characterized by producing an ultrafine mixed crystal oxide comprising primary particles in a mixed crystal state and having a BET specific surface area of 10 to 200 m 2 /g, comprising the step of subjecting a halogenated metal to high temperature oxidation with an oxidizing gas to produce a metal oxide by a vapor phase production method, wherein the halogenated metal is in the form of a mixed gas, i. e. a mixed halogenated metal gas, comprising at least two compounds having a metal element different from each other which are selected from the group consisting of chlorides, bromides, and iodides of titanium, silicon, and aluminum, and the mixed halogenated metal gas and the oxidizing gas are supplied into a reaction tube at a flow velocity of 10 m/sec or more to react after each is independently preheated to 800°C or more.
An apparatus comprising: a carriage configured to mount a recording head which records an image; a belt member stretched around a first pulley and a second pulley, wherein the carriage is connected to the belt member; a motor configured to drive the first pulley and cause the carriage to move with the belt member; acquisition means configured to acquire position information of the carriage; and signal generation means configured to generate a periodic signal for controlling driving of the motor based on the position information acquired by the acquisition means; characterized in that the signal generation means is further configured to acquire a period based on the acquired position information, and to generate the periodic signal with the acquired period. a carriage configured to mount a recording head which records an image; a belt member stretched around a first pulley and a second pulley, wherein the carriage is connected to the belt member; a motor configured to drive the first pulley and cause the carriage to move with the belt member; acquisition means configured to acquire position information of the carriage; and signal generation means configured to generate a periodic signal for controlling driving of the motor based on the position information acquired by the acquisition means; characterized in that the signal generation means is further configured to acquire a period based on the acquired position information, and to generate the periodic signal with the acquired period.