mhurhangee/ep-ind-claims huggingface dataset:
A mixing adjusting thermostatic water valve with a pressure balancing device, comprising a valve body, a water temperature adjusting block and a temperature sensor, wherein a cold water pipe and a hot water pipe are coaxially provided on left and right sides of the valve body, respectively; the valve body is also provided with a mixing water pipe having a central axis perpendicular to a central axis of the cold water pipe and the hot water pipe; the cold water pipe, the hot water pipe and the mixing water pipe are communicated to one another to form an inner cavity; a portion of the cold water pipe extending to the inner cavity forms a cold water adjusting port, and a portion of the hot water pipe extending to the inner cavity forms a hot water adjusting port; the water temperature adjusting block is disposed between the cold water adjusting port and the hot water adjusting port; a rotation driver output rotating shaft hermetically passes through a wall of the valve body to fixedly connect with a swing center of the water temperature adjusting block; the water temperature adjusting block is in a shape of an inverted split cone, has on an upper part thereof two side conical surfaces in which soft sealed pads are embedded, and can be attached to the cold water adjusting port or the hot water adjusting port; the temperature sensor is provided in the inner cavity or the mixing water pipe of the valve body, and has a temperature sensing signal output terminal connected to a thermostatic controller input terminal provided outside; characterized in that an adjusting block tooth is provided on a bottom of the water temperature adjusting block and engages with a rack parallel to the central axis of the cold water pipe and hot water pipe; left and right pressure balancing cavities (17, 16) are respectively provided on both sides of a lower part of the inner cavity, and are communicated to the adjacent cold water pipe or hot water pipe via a pressure transmission hole (15-1; 15-2), respectively; both ends of the rack respectively pass through inner sidewalls of the left and right pressure balancing cavities (17, 16), are positioned in the corresponding left and right pressure balancing cavities (17, 16) and are provided with a left vertical platform and a right vertical platform thereon; soft bowl type pistons (13, 12) are disposed between the left vertical platform and the inner sidewall of the left pressure balancing cavity and between the right vertical platform and the inner sidewall of the right pressure balancing cavity, respectively; in such a way, the pressure balancing device is formed; and one-way valves are installed at inlets of the cold pipe and hot water pipe, respectively.
Compression spring with overload protection, in particular between a leaf spring end and an axle beam of a lorry, having a base plate and a pressure plate which is spaced apart from it, having an elastomer body which is stuck fixedly in between, and having at least one stop element which delimits a free spring travel as overload protection, the stop element being a stop bolt which is integrated into the elastomer body, the stop bolt lying as with a base plate-side bolt end in a receiving recess of the base plate, the stop bolt, furthermore, being received in an elastomer body receiving space and, in the unloaded state of the compression spring, being oriented approximately perpendicularly with regard to the base plate and the pressure plate, and the elastomer body receiving space being adjoined by a pressure plate through hole, into which the stop bolt already protrudes with a free stop bolt end in the unloaded compression spring state and/or after a predefined free compression spring travel and, furthermore, is supported in the case of a predefined pressure load as overload protection on a component which lies on the pressure plate under pressure load (arrow 22), in particular on a leaf spring end, characterized in that a cylindrical stop bolt is of hemispherically convex configuration at the base plate-side bolt end, and in that the receiving recess is correspondingly of hemispherically concave configuration.
An adjustable friction slider assembly comprising: a rail member; and a carriage assembly moveably coupled to the rail member, the carriage assembly comprising: a bracket member; and a plurality of roller elements moveably coupled to the rail member and coupled to the bracket member using a plurality of attachment members, characterized in that the plurality of roller elements comprises at least one adjustable roller element coupled to the bracket member using a moveable attachment member, wherein moving the moveable attachment member adjusts a friction between the plurality of roller elements and the rail member. a rail member; and a carriage assembly moveably coupled to the rail member, the carriage assembly comprising: a bracket member; and a plurality of roller elements moveably coupled to the rail member and coupled to the bracket member using a plurality of attachment members, characterized in that the plurality of roller elements comprises at least one adjustable roller element coupled to the bracket member using a moveable attachment member, wherein moving the moveable attachment member adjusts a friction between the plurality of roller elements and the rail member. a bracket member; and a plurality of roller elements moveably coupled to the rail member and coupled to the bracket member using a plurality of attachment members, characterized in that the plurality of roller elements comprises at least one adjustable roller element coupled to the bracket member using a moveable attachment member, wherein moving the moveable attachment member adjusts a friction between the plurality of roller elements and the rail member.
A method for reducing nitric oxide, comprising: a step of reducing nitric oxide to nitrogen in the presence of a negatively charged copper cluster. a step of reducing nitric oxide to nitrogen in the presence of a negatively charged copper cluster.
A vehicle lighting device comprising: a socket; a substrate that is provided on one end portion side of the socket; a frame portion that is provided on the substrate; at least one light-emitting element that is provided in a region on an inner side of the frame portion on the substrate; a sealing portion that is provided on an inner side of the frame portion and covers the light-emitting element; and an optical element (27, 127, 227) that is provided on the sealing portion and being in contact with the sealing portion, characterized in that an arithmetic-average roughness value of a first surface (27b1, 27a2) on the sealing portion side of the optical element (27, 127, 227) being greater than an arithmetic-average roughness value of a second surface (27a1) of the optical element (27, 127, 227) on a side opposite to the first surface (27b1, 27a2). a socket; a substrate that is provided on one end portion side of the socket; a frame portion that is provided on the substrate; at least one light-emitting element that is provided in a region on an inner side of the frame portion on the substrate; a sealing portion that is provided on an inner side of the frame portion and covers the light-emitting element; and an optical element (27, 127, 227) that is provided on the sealing portion and being in contact with the sealing portion, characterized in that an arithmetic-average roughness value of a first surface (27b1, 27a2) on the sealing portion side of the optical element (27, 127, 227) being greater than an arithmetic-average roughness value of a second surface (27a1) of the optical element (27, 127, 227) on a side opposite to the first surface (27b1, 27a2).
A lighting network control server, comprising: a communication interface to receive non-light related data packets from a lighting network and to communicate with a third party automation server, wherein the data packets comprise at least one of: heartbeat data, movement data, building information, or video data that are generated by a sensor; a non-transitory computer readable medium to store sub-routines, instructions to execute a protocol adapter and the data packets generated by the sensor, wherein each one of the sub-routines comprises a different add-on instruction that is downloaded onto the third party automation server based on a type of data generated by the sensor to analyze the data packets generated by the sensor to modify software of a third party controller for a particular application and produce an output for a particular application; and a processor communicatively coupled to the communication interface and the non-transitory computer readable medium to execute the protocol adapter to translate the data packets from a device control protocol, DCP, over Ethernet protocol used by the lighting network to transmit the data into a protocol format that is compatible with the third party automation server by generating a new set of translated data that is in the protocol format that can be understood or read by the third party automation server and transmit the new set of data that is translated to the third party automation server via the communication interface to be analyzed by a sub-routine of the stored sub-routines that is downloaded by the third party automation server. a communication interface to receive non-light related data packets from a lighting network and to communicate with a third party automation server, wherein the data packets comprise at least one of: heartbeat data, movement data, building information, or video data that are generated by a sensor; a non-transitory computer readable medium to store sub-routines, instructions to execute a protocol adapter and the data packets generated by the sensor, wherein each one of the sub-routines comprises a different add-on instruction that is downloaded onto the third party automation server based on a type of data generated by the sensor to analyze the data packets generated by the sensor to modify software of a third party controller for a particular application and produce an output for a particular application; and a processor communicatively coupled to the communication interface and the non-transitory computer readable medium to execute the protocol adapter to translate the data packets from a device control protocol, DCP, over Ethernet protocol used by the lighting network to transmit the data into a protocol format that is compatible with the third party automation server by generating a new set of translated data that is in the protocol format that can be understood or read by the third party automation server and transmit the new set of data that is translated to the third party automation server via the communication interface to be analyzed by a sub-routine of the stored sub-routines that is downloaded by the third party automation server.
A liquid filter, in particular an oil filter or a fuel filter for an internal combustion engine, comprising a housing having a removable cover, an inlet for liquid to be filtered which opens into an unfiltered side of the liquid filter and an outlet for filtered liquid which starts from a filtered side of the liquid filter, a replaceable filter insert that separates the unfiltered side and the filtered side from one another and is composed of a hollow-cylindrical filter cloth element framed at the end faces by two end caps (31, 32), a filter bypass valve, comprising a valve seat disposed on the filter insert and a valve body that cooperates with the valve seat and is acted upon by a preload force in the closing direction, two closed sealing contours (51, 52) that are disposed one inside the other as seen in the radial direction being provided between the valve seat and the valve body, and at least one bypass channel, which connects the unfiltered side and the filtered side of the liquid filter bypassing the filter cloth element, passing through the valve seat between the sealing contours (51, 52), characterised in that the valve body is displaceably guided in the filter housing on a filter housing part, the two sealing contours (51, 52) are offset from one another in the axial direction, and the valve body in the sealing area thereof cooperating with the sealing contours (51, 52) has a corresponding conical or tapered or domed shape.
A computer-implemented method to register point clouds for autonomous driving vehicles, the method comprising: receiving, by a processor, a plurality of point clouds and corresponding poses from ADVs equipped with LIDAR sensors capturing point clouds of a navigable area to be mapped, wherein the point clouds correspond to a first coordinate system, wherein the received point clouds are down-sampled temporally according to a temporal sliding window and spatially according to a spatial window having a predetermined spatial radius; partitioning the down-sampled point clouds and the corresponding poses into one or more loop partitions based on navigable loop information captured by the point clouds, wherein the navigable loop information includes loop closure points identifying road loop closures based on road contours; for each of the loop partitions, applying an optimization model to point clouds corresponding to the loop partition to register the point clouds to align the point clouds to the partitition to generate HD LIDAR poses for the point clouds, including transforming the point clouds from the first coordinate system to a second coordinate system; and merging the one or more loop partitions together using a pose graph algorithm, wherein the merged partitions of point clouds are utilized to perceive a driving environment surrounding the ADV. receiving, by a processor, a plurality of point clouds and corresponding poses from ADVs equipped with LIDAR sensors capturing point clouds of a navigable area to be mapped, wherein the point clouds correspond to a first coordinate system, wherein the received point clouds are down-sampled temporally according to a temporal sliding window and spatially according to a spatial window having a predetermined spatial radius; partitioning the down-sampled point clouds and the corresponding poses into one or more loop partitions based on navigable loop information captured by the point clouds, wherein the navigable loop information includes loop closure points identifying road loop closures based on road contours; for each of the loop partitions, applying an optimization model to point clouds corresponding to the loop partition to register the point clouds to align the point clouds to the partitition to generate HD LIDAR poses for the point clouds, including transforming the point clouds from the first coordinate system to a second coordinate system; and merging the one or more loop partitions together using a pose graph algorithm, wherein the merged partitions of point clouds are utilized to perceive a driving environment surrounding the ADV.
A method of controlling ammonia levels in a catalytic exhaust system comprising: i) providing a target value for ammonia slip/ammonia output from said system or a catalytic unit of said system; ii) comparing said target value with a feedback value to provide a command value based on said comparison, said command value being used to control the dosing of a reducing agent into said exhaust system; iii) inputting said command value to a transfer function or model to provide an estimated value of ammonia slip/ammonia output from said catalytic unit/system; iv) measuring actual ammonia slip/ammonia output from said unit/system; v) comparing said actual value from iv) with said estimated value from step iii) vi) providing said feedback value in ii) based on said comparison in v). i) providing a target value for ammonia slip/ammonia output from said system or a catalytic unit of said system; ii) comparing said target value with a feedback value to provide a command value based on said comparison, said command value being used to control the dosing of a reducing agent into said exhaust system; iii) inputting said command value to a transfer function or model to provide an estimated value of ammonia slip/ammonia output from said catalytic unit/system; iv) measuring actual ammonia slip/ammonia output from said unit/system; v) comparing said actual value from iv) with said estimated value from step iii) vi) providing said feedback value in ii) based on said comparison in v).
Method for the protection of seeds and germinating plants from attack by phytopathogenic fungi, characterised in that the seeds are coated with a fungicidal composition containing fluoxastrobin and fenamidone in which the fluoxastrobin: fenamidone mixing ratio based on the weight ratio ranges from 10: 1 to 1: 20 and that the phytopathogenic fungi are seed-borne and soil-borne blights, rots and wilts and seedling diseases caused by Fusarium culmorum, Phytophthora cactorum, Pythium ultimum, Rhizoctonia solani, Sclerotium rolfsii.
A method for wireless communications by a transmitter, comprising: identifying resources, within an uplink short burst, ULSB, region of one or two symbols within a transmission time interval, TTI,, for transmitting at least a portion of uplink control information, UCI, the UCI including at least one of one scheduling request, SR, bit and one or more acknowledgment, ACK, bits for acknowledging or negatively acknowledging downlink transmissions, wherein the SR bit and the one or more ACK bits are frequency division multiplexed for transmitting in different resource blocks of a same symbol; and transmitting the UCI using the identified resources. identifying resources, within an uplink short burst, ULSB, region of one or two symbols within a transmission time interval, TTI,, for transmitting at least a portion of uplink control information, UCI, the UCI including at least one of one scheduling request, SR, bit and one or more acknowledgment, ACK, bits for acknowledging or negatively acknowledging downlink transmissions, wherein the SR bit and the one or more ACK bits are frequency division multiplexed for transmitting in different resource blocks of a same symbol; and transmitting the UCI using the identified resources.
A non-Newtonian aqueous concentrate composition comprising: at least one acid; at least one surfactant; and at least one anti-mist component selected from the group consisting of polyethylene oxide, and polyacrylate, wherein the composition is a non-Newtonian having a viscosity of less than 40 mPa·s measured with a Brookfield LVDV-II viscosimeter using spindle R1, at 50 rpm and room temperature, wherein the anti-mist component constitutes between 0.01% and 0.3% by weight of the aqueous concentrate composition in the case of polyethylene oxide, or the anti-mist component constitutes between 0.5% and 20% by weight of the aqueous concentrate composition in the case of polyacrylate.
A driving system comprising: a structure having at least one point to frictional couple to and drive a movable element in one of at least two directions, the structure having at least two bending modes, each of the bending modes having a different resonant frequency; and a vibration system that applies two or more vibration signals which are at a vibration frequency to each of the bending modes of the structure, the vibration frequency is substantially the same as one of the resonant frequencies, wherein at the vibration frequency one of the bending modes of the structure is vibrating substantially at resonance and the other of the bending modes of the structure is vibrating at partial resonance, the vibration system adjusts a phase shift between the two or more applied vibration signals to control which one of the at least two directions the moveable element is moved. a structure having at least one point to frictional couple to and drive a movable element in one of at least two directions, the structure having at least two bending modes, each of the bending modes having a different resonant frequency; and a vibration system that applies two or more vibration signals which are at a vibration frequency to each of the bending modes of the structure, the vibration frequency is substantially the same as one of the resonant frequencies, wherein at the vibration frequency one of the bending modes of the structure is vibrating substantially at resonance and the other of the bending modes of the structure is vibrating at partial resonance, the vibration system adjusts a phase shift between the two or more applied vibration signals to control which one of the at least two directions the moveable element is moved.
A method for producing methane from an electrical energy source, said method comprising; a. providing a source of electrical energy; b. using electrical energy from said source to electrolyse water at a temperature of from 100 °C to 1000 °C to form hydrogen and oxygen; and c. using hydrogen thereby formed to hydrogenate carbon dioxide to form methane; wherein heat produced by the hydrogenation of carbon dioxide is used to heat the electrolysis reaction. a. providing a source of electrical energy; b. using electrical energy from said source to electrolyse water at a temperature of from 100 °C to 1000 °C to form hydrogen and oxygen; and c. using hydrogen thereby formed to hydrogenate carbon dioxide to form methane;
A beta-glucosidase 1 variant which is derived from a parent BGL1 having at least 80% amino acid sequence identity to SEQ ID NO: 3 by substitution of an amino acid in the parent BGL1 at a position that corresponds to position E170 in SEQ ID NO: 3 with F, the BGL1 variant having at least two improved activities over wild type BGL1 having the amino acid sequence of SEQ ID NO: 3, wherein the activities are selected from the group consisting of: (a) pre-treated corn stover hydrolysis activity, (b) cellobiase activity, (c) protein expression, (d) beta-glucosidase activity measured by a cellobiase activity in the presence of ammonia pretreated corncob or by a CC hydrolysis activity, (e) thermo stability, (f) phosphoric acid swollen cellulose (PASC) hydrolysis activity, and (g) hydrolytic activity in the presence of glucose. (a) pre-treated corn stover hydrolysis activity, (b) cellobiase activity, (c) protein expression, (d) beta-glucosidase activity measured by a cellobiase activity in the presence of ammonia pretreated corncob or by a CC hydrolysis activity, (e) thermo stability, (f) phosphoric acid swollen cellulose (PASC) hydrolysis activity, and (g) hydrolytic activity in the presence of glucose.