mhurhangee/ep-ind-claims huggingface dataset:
A maltotriosyl transferase which acts on polysaccharides and oligosaccharides having α-1,4 glucoside bonds to transfer maltotriose units to saccharides, characterized by acting on maltotetraose as substrate to give a ratio between the maltoheptaose production rate and maltotriose production rate of 9:1 to 10:0 at any substrate concentration ranging from 0.67 to 70% (w/v); and comprising the amino acid sequence set forth in SEQ ID NO: 8 or an amino acid sequence having at least 70 % identity with the amino acid sequence set forth in SEQ ID NO: 8.
An array of cube corners each of which has faces (1, 2, 3; ABO, BCO, ACO; JMNG, OLGN, AJGLC) configured for total internal reflection and its long face edges (g 1, g 2, g 3; LO, JM, AC) mutually skew, defined by three sets, S1, S2, S3, of symmetrical vee-grooves such that within each set the grooves are parallel and equidistant, and such that there is a reference plane such that the roots of the grooves in the set S1 are generally farther from the reference plane than the roots of the grooves in the set S2 which are generally farther from the reference plane than the roots of the grooves in the set S3, and said cube corners having compound cant.
Robotic vacuum cleaner for autonomously cleaning floor surfaces of a room, comprising - at least one means for capturing data relating to a deflection of wheels of the robotic vacuum cleaner and/or relating to an interruption of a connection to charging contacts, and - at least one means for capturing data relating to a rotation of the robotic vacuum cleaner about a horizontally oriented axis of rotation and/or relating to a translational movement of the robotic vacuum cleaner in a perpendicular direction with respect to its direction of movement during vacuum operation and/or relating to an envelopment state of the robotic vacuum cleaner by means of a container, - at least one control device by means of which the captured data are processed, wherein an alarm device having means for outputting an acoustic signal, wherein the alarm device can be controlled by the control device on the basis of the captured data, so that a theft attempt can be detected. - at least one means for capturing data relating to a deflection of wheels of the robotic vacuum cleaner and/or relating to an interruption of a connection to charging contacts, and - at least one means for capturing data relating to a rotation of the robotic vacuum cleaner about a horizontally oriented axis of rotation and/or relating to a translational movement of the robotic vacuum cleaner in a perpendicular direction with respect to its direction of movement during vacuum operation and/or relating to an envelopment state of the robotic vacuum cleaner by means of a container, - at least one control device by means of which the captured data are processed, wherein an alarm device having means for outputting an acoustic signal, wherein the alarm device can be controlled by the control device on the basis of the captured data, so that a theft attempt can be detected. wherein an alarm device having means for outputting an acoustic signal, wherein the alarm device can be controlled by the control device on the basis of the captured data, so that a theft attempt can be detected.
A method, comprising: receiving, by a computing device, position data indicating a position of an aerial vehicle, wherein the position comprises an altitude; determining, from a plurality of possible airspace classifications, a first airspace classification at the position of the aerial vehicle, wherein each airspace classification specifies one or more communication parameters for communication within an associated airspace; selecting, by the computing device, from a plurality of communication repositories (230a, 230b, 230c, 250,..., 262, 1000,...), a first communication repository that is associated with the first airspace classification, wherein each communication repository specifies a set of pre-defined communication components for at least one associated airspace classification; generating, by the computing device, an automated voice communication (710, 720, 730) related to the aerial vehicle using one or more of the pre-defined communication components specified by the first communication repository; and sending, based on the one or more communication parameters specified by the first airspace classification, the generated automated voice communication to at least one recipient. receiving, by a computing device, position data indicating a position of an aerial vehicle, wherein the position comprises an altitude; determining, from a plurality of possible airspace classifications, a first airspace classification at the position of the aerial vehicle, wherein each airspace classification specifies one or more communication parameters for communication within an associated airspace; selecting, by the computing device, from a plurality of communication repositories (230a, 230b, 230c, 250,..., 262, 1000,...), a first communication repository that is associated with the first airspace classification, wherein each communication repository specifies a set of pre-defined communication components for at least one associated airspace classification; generating, by the computing device, an automated voice communication (710, 720, 730) related to the aerial vehicle using one or more of the pre-defined communication components specified by the first communication repository; and sending, based on the one or more communication parameters specified by the first airspace classification, the generated automated voice communication to at least one recipient.
Use of the compound of the formula where the substituents W, X, Y, Z, R and G are as defined in the table: W X Y Z R G H CH 3 H CH 3 CH 3 CO 2 -C 2 H 5 in the form of its isomer mixtures or pure isomers for controlling insects from the suborder of the plant lice (Sternorrhyncha).
An assembly (100, 200) comprising: a light emitting/detecting integrated circuit device (110, 210) including a substrate having a planar upper surface, and at least one light emitting/detecting element (118-1 to 118-4) integrally fabricated on the upper surface; and a microlens structure (150, 250) including a pedestal (151, 251) having a planar lower surface and a plurality of legs (155-1 to 155-4) extending from the lower surface, and at least one microlens (158-1 to 158-4) integrally fabricated on the lower surface of the microlens structure; wherein the microlens structure is mounted onto the upper surface of the light emitting/detecting device such that each of the plurality of legs contacts a corresponding region (112-1 to 112-4) of the upper surface of the substrate, whereby the microlens is maintained at a predetermined distance from the light emitting/detecting element, characterized in that the microlens structure further comprises a carrier plate (260, 260-1), wherein the pedestal comprises a base section connected to the central region of the carrier plate, and a free end section extending from the base section away from the carrier plate, and wherein the lower surface is located at an end of the free end section. a light emitting/detecting integrated circuit device (110, 210) including a substrate having a planar upper surface, and at least one light emitting/detecting element (118-1 to 118-4) integrally fabricated on the upper surface; and a microlens structure (150, 250) including a pedestal (151, 251) having a planar lower surface and a plurality of legs (155-1 to 155-4) extending from the lower surface, and at least one microlens (158-1 to 158-4) integrally fabricated on the lower surface of the microlens structure; a carrier plate (260, 260-1),
A device for opening a connection to a lined pipe, comprising: a body having a front end and a rear end opposite to the front end and being rotatable about a rotation axis, a drill head at the front end of the body, the drill head comprising multiple cutters for puncturing and enlarging a hole in a liner, multiple side cutters on the body disposed between the front end and the rear end, each side cutter having at least one cutting edge parallel to the rotation axis, characterized in that the device further comprises a safety ring disposed on the body between said drill head and said side cutters, the safety ring having a circular peripheral surface extending beyond said drill head and said side cutters in a direction perpendicular to the rotation axis, wherein the safety ring extends at least 5 % further away from the rotation axis than any cutting edge (14, 34) in a direction perpendicular to the rotation axis. a body having a front end and a rear end opposite to the front end and being rotatable about a rotation axis, a drill head at the front end of the body, the drill head comprising multiple cutters for puncturing and enlarging a hole in a liner, multiple side cutters on the body disposed between the front end and the rear end, each side cutter having at least one cutting edge parallel to the rotation axis, characterized in that the device further comprises a safety ring disposed on the body between said drill head and said side cutters, the safety ring having a circular peripheral surface extending beyond said drill head and said side cutters in a direction perpendicular to the rotation axis, wherein the safety ring extends at least 5 % further away from the rotation axis than any cutting edge (14, 34) in a direction perpendicular to the rotation axis.
Method of remote inspection of an aircraft structure, the method comprising the following operations: a) production of a 3D image of a zone of the structure to be inspected, b) superposition of this 3D image with a digital mockup of the structure stored previously, this superposition of images being carried out by an image processing device positioned in proximity to the structure zone to be inspected so as to allow inspection of the structure in-situ, c) geographical location, on the mockup of the structure, of the zone of the structure to be inspected, and remote inspection of the structure zone to be inspected, on the superposition of the 3D image and of the digital mockup. a) production of a 3D image of a zone of the structure to be inspected, b) superposition of this 3D image with a digital mockup of the structure stored previously, this superposition of images being carried out by an image processing device positioned in proximity to the structure zone to be inspected so as to allow inspection of the structure in-situ, c) geographical location, on the mockup of the structure, of the zone of the structure to be inspected, and remote inspection of the structure zone to be inspected, on the superposition of the 3D image and of the digital mockup.
A method for controlling an electrically powered steering assistance system including an electric motor for providing assisting steering torque to steerable wheels of a vehicle, the method comprising: monitoring an electrical current used by the electric motor for providing the assisting torque, in response to identifying an electrical current characteristic in the monitored electrical current that matches a pre-determined model electrical current characteristic associated with that a steerable wheel has reached a steering end stop in a wheel housing, controlling the electric motor to reduce the provided assisting steering torque, the method being characterised by the fact that the pre-determined model electrical current characteristic is modelled by a machine learning algorithm based on a prior analysis of data indicative of a plurality of electrical current characteristics that occurred when the travel of a steering rack connected to the steerable wheels reached a steering end stop, wherein identifying that an electrical current characteristic in the monitored electrical current matches a pre-determined model electrical current characteristic includes applying a machine learning algorithm to the monitored electrical current. monitoring an electrical current used by the electric motor for providing the assisting torque, in response to identifying an electrical current characteristic in the monitored electrical current that matches a pre-determined model electrical current characteristic associated with that a steerable wheel has reached a steering end stop in a wheel housing, controlling the electric motor to reduce the provided assisting steering torque, the method being characterised by the fact that the pre-determined model electrical current characteristic is modelled by a machine learning algorithm based on a prior analysis of data indicative of a plurality of electrical current characteristics that occurred when the travel of a steering rack connected to the steerable wheels reached a steering end stop, wherein identifying that an electrical current characteristic in the monitored electrical current matches a pre-determined model electrical current characteristic includes applying a machine learning algorithm to the monitored electrical current.
A dosing syringe comprising a barrel and a piston, the piston is slidably receivable in the barrel and can move within the barrel from a maximum inserted position to a withdrawn position to draw a dose of product into the barrel, the syringe comprises means for pre-setting the withdrawn position of the piston whereby to define the maximum dose which can be drawn into the barrel, characterised in that the means for pre-setting the withdrawn position of the piston comprises the barrel comprising a blocking projection (65a, 65b) and the piston comprising a plurality of cooperating projections (40a, 40b, 40c, 40d) which together define a plurality of maximum withdrawn positions of the piston, and in that the blocking projection (65a, 65b) of the barrel is movable between an unblocking position and a blocking position.
A valve assembly, comprising: a housing having a fluid inlet, a fluid outlet, an exhaust, and a secondary exhaust; a plurality of fill valves that each communicate with the fluid inlet and the fluid outlet; a plurality of dump valves that each communicate with the fill valves, the plurality of dump valves including at least a first dump valve and a second dump valve that communicate with the exhaust and the fluid outlet, and a third dump valve that communicates with the secondary exhaust; the first dump valve permits a greater amount of fluid to flow therethrough in comparison to the second dump valve; a pressure sensor configured to generate a signal indicative of a fluid pressure within the housing; and a controller that is configured, based on a command signal received by the controller that includes a desired pressure to be output from the fluid outlet in comparison to the signal indicative of the fluid pressure, to selectively open and close each of the fill valves and each of the dump valves, wherein to pressurize and output a fluid from the valve assembly at the desired pressure, the controller is configured to selectively open and close the plurality of fill valves and the plurality of dump valves until the desired pressure is reached, characterized in that, when the first and second dump valves (22a and 22b) are closed, fluid is permitted to flow from the fluid outlet through each of the first and second dump valves (22a and 22b) to the exhaust. a housing having a fluid inlet, a fluid outlet, an exhaust, and a secondary exhaust; a plurality of fill valves that each communicate with the fluid inlet and the fluid outlet; a plurality of dump valves that each communicate with the fill valves, the plurality of dump valves including at least a first dump valve and a second dump valve that communicate with the exhaust and the fluid outlet, and a third dump valve that communicates with the secondary exhaust; the first dump valve permits a greater amount of fluid to flow therethrough in comparison to the second dump valve; a pressure sensor configured to generate a signal indicative of a fluid pressure within the housing; and a controller that is configured, based on a command signal received by the controller that includes a desired pressure to be output from the fluid outlet in comparison to the signal indicative of the fluid pressure, to selectively open and close each of the fill valves and each of the dump valves, wherein to pressurize and output a fluid from the valve assembly at the desired pressure, the controller is configured to selectively open and close the plurality of fill valves and the plurality of dump valves until the desired pressure is reached, characterized in that, when the first and second dump valves (22a and 22b) are closed, fluid is permitted to flow from the fluid outlet through each of the first and second dump valves (22a and 22b) to the exhaust.
Waste collection bin comprising a body and at least one rigid axle arranged at the lower end (1 b) of the body, a wheel being rotatably mounted at each end of the axle, the body comprising at least two orifices into which the axle is inserted, characterised in that it comprises means for pressing on the axle exerting a force on the axle, in particular perpendicularly to the direction of the axle, the means being arranged so that the axle is pressed without clearance by the force so that the axle can be directly in contact with at least one inner area of at least one of the orifices.
A four-stroke internal combustion engine comprising - at least one cylinder; - a piston arranged in each cylinder; - an inlet system; - a crankshaft; - at least one inlet valve arranged in each cylinder, which inlet valve is connected with the inlet system; - an inlet valve control arrangement configured to control each inlet valve on the basis of a rotational position of the crankshaft; - at least one exhaust valve arranged in each cylinder, which exhaust valve is connected with an exhaust outlet of the engine; - an exhaust valve control arrangement configured to control each exhaust valve on the basis of the rotational position of the crankshaft, wherein the exhaust valve control arrangement comprises an exhaust valve phase-shifting device configured to phase-shift control of the at least one exhaust valve to a state where the at least one exhaust valve is controlled in such a way that it is opened during the expansion stroke of the engine and closed during the exhaust stroke of the engine, in order to achieve engine-braking via compression in the cylinders during the exhaust stroke, wherein the engine further comprises an exhaust aftertreatment system, characterized in that the inlet valve control arrangement comprises an inlet valve phase-shifting device configured to regulate the amount of air pumped through the engine, to control the temperature of the exhaust aftertreatment system, during the engine braking by regulating the phase-shift of the at least one inlet valve in a range between 0 crankshaft degrees and an inlet phase-shift control endpoint, wherein the inlet phase-shift control endpoint is between 40 and 120 crankshaft degrees, preferably between 60 and 80 crankshaft degrees. - at least one cylinder; - a piston arranged in each cylinder; - an inlet system; - a crankshaft; - at least one inlet valve arranged in each cylinder, which inlet valve is connected with the inlet system; - an inlet valve control arrangement configured to control each inlet valve on the basis of a rotational position of the crankshaft; - at least one exhaust valve arranged in each cylinder, which exhaust valve is connected with an exhaust outlet of the engine; - an exhaust valve control arrangement configured to control each exhaust valve on the basis of the rotational position of the crankshaft,
A method for increasing press-on force of a seal in a pipe sleeve, - wherein the pipe sleeve comprises two rigid rings (3, 4), which are connected above an outwardly exposed, elastic intermediate ring and an inwardly projecting seal is arranged at the intermediate ring, - wherein the pipe sleeve is formed for inserting a tip end of a pipe and the pipe to be inserted is inserted above the first ring through the seal into the second ring, and - wherein the method comprises the following step: arranging an annular press-on force amplifier onto the outside of the intermediate ring to deform the intermediate ring inwardly. - wherein the pipe sleeve comprises two rigid rings (3, 4), which are connected above an outwardly exposed, elastic intermediate ring and an inwardly projecting seal is arranged at the intermediate ring, - wherein the pipe sleeve is formed for inserting a tip end of a pipe and the pipe to be inserted is inserted above the first ring through the seal into the second ring, and - wherein the method comprises the following step: arranging an annular press-on force amplifier onto the outside of the intermediate ring to deform the intermediate ring inwardly.
A highchair, comprising a building block table, a booster stool, and a feeding chair; wherein a bottom of the booster stool is detachably connected to a top of the building block table; a bottom of the feeding chair is detachably connected to a top of the booster stool; four sockets are provided on a top surface of the building block table; an elastic cover adapted to each socket of the four sockets covers a top of each socket; a plurality of vertical grooves are spaced apart on an inner periphery of each socket; a bottom surface of each socket is provided with a first spring receiving groove; a plurality of protruding blocks are spaced apart on an outer periphery of the elastic cover; each protruding block of the plurality of protruding blocks is matched with a corresponding vertical groove; a bottom surface of the elastic cover is provided with a second spring receiving groove; a first spring is provided between the first spring receiving groove and the second spring receiving groove; the building block table has four legs, wherein the four sockets separately extend into upper parts of the four legs corresponding to the four sockets; and the booster stool has four legs, wherein bottoms of the four legs of the booster stool are inserted into the four sockets corresponding to the four legs of the booster stool. wherein a bottom of the booster stool is detachably connected to a top of the building block table; a bottom of the feeding chair is detachably connected to a top of the booster stool; four sockets are provided on a top surface of the building block table; an elastic cover adapted to each socket of the four sockets covers a top of each socket; a plurality of vertical grooves are spaced apart on an inner periphery of each socket; a bottom surface of each socket is provided with a first spring receiving groove; a plurality of protruding blocks are spaced apart on an outer periphery of the elastic cover; each protruding block of the plurality of protruding blocks is matched with a corresponding vertical groove; a bottom surface of the elastic cover is provided with a second spring receiving groove; a first spring is provided between the first spring receiving groove and the second spring receiving groove; the building block table has four legs, wherein the four sockets separately extend into upper parts of the four legs corresponding to the four sockets; and the booster stool has four legs, wherein bottoms of the four legs of the booster stool are inserted into the four sockets corresponding to the four legs of the booster stool.