mhurhangee/ep-ind-claims huggingface dataset:
Semi-automatic parking steering assistance system of a motor vehicle for assisting orientation of the motor vehicle in a parking space, comprising a. means for sensing an activation signal; b. means for determining a change direction in which an orientation of the motor vehicle is to be changed; c. a control unit which, in an active state of the parking steering assistance system, controls at least one actuator in such a way that steerable wheels of the motor vehicle are deflected in the change direction if the set drive direction is forwards and the steerable wheels are deflected counter to the change direction if the set drive direction is rearwards. a. means for sensing an activation signal; b. means for determining a change direction in which an orientation of the motor vehicle is to be changed; c. a control unit which, in an active state of the parking steering assistance system, controls at least one actuator in such a way that steerable wheels of the motor vehicle are deflected in the change direction if the set drive direction is forwards and the steerable wheels are deflected counter to the change direction if the set drive direction is rearwards.
Housing connection element for a housing of an exhaust gas treatment assembly unit of an exhaust system, especially for an internal combustion engine, comprising: a first housing part with an essentially cylindrical first connection area for connection to a circumferential wall of a housing of an exhaust gas treatment assembly unit and with a tapered area adjacent to the first connection area, an annular, second housing part, which is connected to the tapered area, with a second connection area for connection to an exhaust gas-carrying component of an exhaust system, at least one sensor sleeve (48, 50) in a sleeve receiving area of the first housing part, which is formed in the tapered area, wherein the sleeve receiving area comprises a sleeve receiving surface area in a recessed area that is deformed inwards with at least one sleeve receiving opening (30, 32), and a sensor sleeve (48, 50) received in the at least one sleeve receiving opening (30, 32), characterized in that an angle formed between the sleeve receiving surface area and a longitudinal central axis of the first connection area is smaller than an angle between an area (34, 36) of the tapered area adjacent to the sleeve receiving area in the circumferential direction, and the longitudinal central axis of the first connection area. a first housing part with an essentially cylindrical first connection area for connection to a circumferential wall of a housing of an exhaust gas treatment assembly unit and with a tapered area adjacent to the first connection area, an annular, second housing part, which is connected to the tapered area, with a second connection area for connection to an exhaust gas-carrying component of an exhaust system, at least one sensor sleeve (48, 50) in a sleeve receiving area of the first housing part, which is formed in the tapered area,
A method of inspecting an object comprising locating an object (6, 66, 106) on a machine vision apparatus (1, 101), attaching a light panel (10, 110) to the object (6, 66, 106) to backlight a region of the object (6, 66, 106), obtaining an image of the region when backlit by the light panel (10, 110) and identifying a geometric property of the object (6, 66, 106) from the image.
A messaging system said system including: at least one server configured to receive a message from a originating device for delivery to at least one recipient device via a first delivery channel; characterised in that; said at least one recipient device being configured to periodically send a time-based heartbeat transaction to the at least one server; and wherein the at least one server, in the event that delivery of the message via the first delivery channel cannot be effected, is further configured to select an alternate delivery channel to affect delivery of the message based on the time-based heartbeat transaction received from the recipient device. at least one server configured to receive a message from a originating device for delivery to at least one recipient device via a first delivery channel; characterised in that; said at least one recipient device being configured to periodically send a time-based heartbeat transaction to the at least one server; and wherein the at least one server, in the event that delivery of the message via the first delivery channel cannot be effected, is further configured to select an alternate delivery channel to affect delivery of the message based on the time-based heartbeat transaction received from the recipient device.
Balance weight for a tactical missile capable of rotating about its longitudinal axis (L-L), characterised in that it is formed by shot, the particle size of which is at most equal to 1 mm, with the average mass of the grains of the shot being less than 0.02 g, and which is housed in a closed package that can be disintegrated when said missile explodes.
An energy conversion device for converting water energy into electric energy, comprising: at least one rotor having a rotor rotational axis, the alignment of which is fixed, a flow housing which comprises a rotor mantle which surrounds the rotor radially to the rotor rotational axis, wherein the flow housing comprises a catching apparatus upstream of the rotor mantle, which is adapted and arranged to guide a movement of water to the rotor, wherein at least one cross-sectional tapering is arranged at the end of the catching apparatus facing the rotor mantle, wherein the catching apparatus comprises at least one manifold, wherein the manifold is located upstream of the cross-sectional tapering with respect to the direction of movement of the water, further comprising a supporting frame, wherein the alignment of the rotor rotational axis is fixed by the supporting frame, further comprising a mounting to which a supporting frame, to which the rotor is fixed, is movably held transversely and/or parallel to the direction of the rotor rotational axis in order to adjust the alignment of the rotor axis of rotation to a prevailing water level. at least one rotor having a rotor rotational axis, the alignment of which is fixed, a flow housing which comprises a rotor mantle which surrounds the rotor radially to the rotor rotational axis, wherein the flow housing comprises a catching apparatus upstream of the rotor mantle, which is adapted and arranged to guide a movement of water to the rotor, wherein at least one cross-sectional tapering is arranged at the end of the catching apparatus facing the rotor mantle, wherein the catching apparatus comprises at least one manifold, wherein the manifold is located upstream of the cross-sectional tapering with respect to the direction of movement of the water, further comprising a supporting frame, wherein the alignment of the rotor rotational axis is fixed by the supporting frame, further comprising a mounting to which a supporting frame, to which the rotor is fixed, is movably held transversely and/or parallel to the direction of the rotor rotational axis in order to adjust the alignment of the rotor axis of rotation to a prevailing water level.
A device for freezing soil, comprising - a freezing head extending along a longitudinal axis, - a first conduit for introducing a first cooling medium or a second cooling medium different therefrom into an interior of the freezing head, wherein the first conduit opens into the interior, characterized by the provision of - a second conduit for introducing the second cooling medium into the interior of the freezing head, or for draining the first and/or the second cooling medium (F, S) from the interior of the freezing head, wherein the second conduit opens into the interior of the freezing head, and - wherein the device has at least three separate connections (A1, A2, A3), namely a first connection via which the first cooling medium can be introduced into the interior of the freezing head, a second connection via which the second cooling medium can be introduced into the interior of the freezing head, and a third connection via which the first or the second cooling medium (F, S) can be drained out of the interior of the freezing head. - a freezing head extending along a longitudinal axis, - a first conduit for introducing a first cooling medium or a second cooling medium different therefrom into an interior of the freezing head, wherein the first conduit opens into the interior, characterized by the provision of - a second conduit for introducing the second cooling medium into the interior of the freezing head, or for draining the first and/or the second cooling medium (F, S) from the interior of the freezing head, wherein the second conduit opens into the interior of the freezing head, and - wherein the device has at least three separate connections (A1, A2, A3), namely a first connection via which the first cooling medium can be introduced into the interior of the freezing head, a second connection via which the second cooling medium can be introduced into the interior of the freezing head, and a third connection via which the first or the second cooling medium (F, S) can be drained out of the interior of the freezing head.
Device, having a walkable tread surface and a hand-held touch surface, for sensory transmission of environmental impressions to a user and for determining a current location of the user on the walkable tread surface by matching sensory impressions obtained from the tread surface sensed via the soles of foot of the user with the sensory impressions which the user obtains from the hand-held touch surface via the hands, wherein - the touch surface is similar to the tread surface in the geometric sense, - the walkable tread surface has tread surface areas (1.21, 1.22, 1.23) with a surface structure (2.2, 2.3, 2.4) each, - the hand-held touch surface has at least two touch surface areas (3.2) with a surface structure each and - the surface structures of the touch surface areas (3.2) correspond with the surface structures (2.2, 2.3, 2.4) of the tread surface areas (1.21, 1.22, 1.23) and the touch surface areas (3.2), with respect to their position and dimension, correspond with the positions and dimensions of the tread surface areas (1.21, 1.22, 1.23). - the touch surface is similar to the tread surface in the geometric sense, - the walkable tread surface has tread surface areas (1.21, 1.22, 1.23) with a surface structure (2.2, 2.3, 2.4) each, - the hand-held touch surface has at least two touch surface areas (3.2) with a surface structure each and - the surface structures of the touch surface areas (3.2) correspond with the surface structures (2.2, 2.3, 2.4) of the tread surface areas (1.21, 1.22, 1.23) and the touch surface areas (3.2), with respect to their position and dimension, correspond with the positions and dimensions of the tread surface areas (1.21, 1.22, 1.23).
A semiconductor device comprising: a first fabric operable in a plurality of modes; and mode memory to store information indicative of one of the plurality of modes in which the first fabric is to run; wherein the fabric comprises: logic coupled to the mode memory to control processing of read and write requests to memory received by the first fabric according to the mode identified by the information indicative, wherein the logic is configured to handle ordering and coherency for the read and write requests received by the first fabric based on the mode identified by reading the mode memory, wherein the plurality of modes comprises: a first mode in which a memory controller is connected to the first fabric; a second mode in which a memory controller is connected to a non-coherent input/output, I/O, fabric connected to the first fabric; and a third mode in which an intellectual property, IP, core is connected to a memory controller connected to a non-coherent input/output, I/O, fabric connected to the first fabric. a first fabric operable in a plurality of modes; and mode memory to store information indicative of one of the plurality of modes in which the first fabric is to run; wherein the fabric comprises: logic coupled to the mode memory to control processing of read and write requests to memory received by the first fabric according to the mode identified by the information indicative, wherein the logic is configured to handle ordering and coherency for the read and write requests received by the first fabric based on the mode identified by reading the mode memory, wherein the plurality of modes comprises: a first mode in which a memory controller is connected to the first fabric; a second mode in which a memory controller is connected to a non-coherent input/output, I/O, fabric connected to the first fabric; and a third mode in which an intellectual property, IP, core is connected to a memory controller connected to a non-coherent input/output, I/O, fabric connected to the first fabric. a first mode in which a memory controller is connected to the first fabric; a second mode in which a memory controller is connected to a non-coherent input/output, I/O, fabric connected to the first fabric; and a third mode in which an intellectual property, IP, core is connected to a memory controller connected to a non-coherent input/output, I/O, fabric connected to the first fabric.
A process for preparing microcapsules having a core encapsulated within a metal oxide shell, said process comprising: (a) preparing an oil-in-water emulsion by emulsification of an oily phase comprising at least one active agent and at least one phase changing material, in an aqueous phase, wherein at least one of said oily phase and aqueous phase comprise a sol-gel precursor; (b) subjecting said emulsion to microcapsule forming conditions; thereby obtaining said microcapsules; wherein said core of said microcapsules is solid or semi-solid at room temperature and has a viscosity of between about 300cP to about 1,000,000cP. (a) preparing an oil-in-water emulsion by emulsification of an oily phase comprising at least one active agent and at least one phase changing material, in an aqueous phase, wherein at least one of said oily phase and aqueous phase comprise a sol-gel precursor; (b) subjecting said emulsion to microcapsule forming conditions; thereby obtaining said microcapsules;
A method of molding a fiber-reinforced plastic hollow part by internal pressure molding, the method comprising: a step of laminating a reinforcing fiber and a matrix resin on an outer circumference of a hollow resin core preformed from a thermoplastic resin, the hollow resin core being open at one end and being closed at another end, so as to form a hollow laminate that is open at one end and is closed at another end on the outer circumference of the hollow resin core; a step of inserting and positioning a pressurizing bag inside the hollow resin core of the hollow laminate; a step of positioning the hollow laminate inside a mold; a step of integrating the resin and the reinforcing fiber by applying heat while applying pressure inside the pressurizing bag of the hollow laminate positioned within the mold; and a step of removing the pressurizing bag from an integrated molded article, wherein further the laminating of the reinforcing fiber on the outer circumference of the hollow resin core is performed by alternately laminating braiding yarn layers by braiding. a step of laminating a reinforcing fiber and a matrix resin on an outer circumference of a hollow resin core preformed from a thermoplastic resin, the hollow resin core being open at one end and being closed at another end, so as to form a hollow laminate that is open at one end and is closed at another end on the outer circumference of the hollow resin core; a step of inserting and positioning a pressurizing bag inside the hollow resin core of the hollow laminate; a step of positioning the hollow laminate inside a mold; a step of integrating the resin and the reinforcing fiber by applying heat while applying pressure inside the pressurizing bag of the hollow laminate positioned within the mold; and a step of removing the pressurizing bag from an integrated molded article, wherein further the laminating of the reinforcing fiber on the outer circumference of the hollow resin core is performed by alternately laminating braiding yarn layers by braiding.
A vehicle information processing system comprising: a database (5a, 5b) that mutually associates and stores deceleration operation information indicating deceleration operation (S11, S22, S31, S41, S51) by a driver and position information of a vehicle; and a specification unit that calculates a frequency of the deceleration operation (S11, S22, S31, S41, S51) in the same section based on the information stored in the database (5a, 5b) comprising the number of passages through the same route and the number of deceleration operations and specifies a section where the frequency is equal to or more than a threshold value as a candidate assistance area where an assistance regarding the deceleration operation (S11, S22, S31, S41, S51) is performed with respect to the driver. a database (5a, 5b) that mutually associates and stores deceleration operation information indicating deceleration operation (S11, S22, S31, S41, S51) by a driver and position information of a vehicle; and a specification unit that calculates a frequency of the deceleration operation (S11, S22, S31, S41, S51) in the same section based on the information stored in the database (5a, 5b) comprising the number of passages through the same route and the number of deceleration operations and specifies a section where the frequency is equal to or more than a threshold value as a candidate assistance area where an assistance regarding the deceleration operation (S11, S22, S31, S41, S51) is performed with respect to the driver.
A low sulfated ash, low sulfur, low phosphorus, low zinc, lubricating oil composition which has a sulfated ash content of 0.1 to 1.1 wt.%, a sulfur content of 0.01 to 0.3 wt.%, a phosphorus content of 0.08 wt.% or lower, and a zinc content of 0.07 wt.% or lower, said lubricating oil composition comprising: (a) a major amount of a mineral or synthetic base oil having a saturated component of 85 wt.% or more, a viscosity index of 110 or more, and a sulfur content of 0.01 wt.% or less; (b) an alkaline earth metal-containing detergent in an amount of 0.01 to 0.4 wt.% in terms of an alkaline earth metal content; (c) a nitrogen-containing ashless dispersant of a weight average molecular weight of 4,500 or more in an amount of 0.01 to 0.3 wt.% in terms of a nitrogen content; (d) at least one oxidation inhibitor in an amount of 0.1 to 5 wt.%, selected from the group consisting of a phenolic oxidation inhibitor and an amine oxidation inhibitor; and (e) a basic nitrogen-containing compound-oxymolybdenum complex in an amount of 0.3 to 2.0 wt.%; and wherein the lubricating oil composition contains zinc dialkyldithiophosphate in an amount of 0.005 wt.% or less in terms of a phosphorus content. (a) a major amount of a mineral or synthetic base oil having a saturated component of 85 wt.% or more, a viscosity index of 110 or more, and a sulfur content of 0.01 wt.% or less; (b) an alkaline earth metal-containing detergent in an amount of 0.01 to 0.4 wt.% in terms of an alkaline earth metal content; (c) a nitrogen-containing ashless dispersant of a weight average molecular weight of 4,500 or more in an amount of 0.01 to 0.3 wt.% in terms of a nitrogen content; (d) at least one oxidation inhibitor in an amount of 0.1 to 5 wt.%, selected from the group consisting of a phenolic oxidation inhibitor and an amine oxidation inhibitor; and (e) a basic nitrogen-containing compound-oxymolybdenum complex in an amount of 0.3 to 2.0 wt.%;
A vibration actuator, comprising: a movable part that gives vibration to a vibration presenting part that receives a pressing operation; an actuator main body that generates the vibration of the movable part in accordance with the pressing operation; a base part; and an elastic support part that supports the movable part with respect to the base part in a vibratable manner in an approaching/separating direction, and a load detecting part comprising a presentation-part side fixing part being fixed to the vibration presenting part, and a support-part side fixing part being fixed to the elastic support part, and detecting, as a load, strain due to the pressing operation, and a movement regulating part extending from the presentation-part side fixing part towards the base part, characterised in that the movement regulating part is regulating movement of the movable part by engaging with an engaged part of the base part via a buffer member when the movable part moves in a direction separating from the base part. a movable part that gives vibration to a vibration presenting part that receives a pressing operation; an actuator main body that generates the vibration of the movable part in accordance with the pressing operation; a base part; and an elastic support part that supports the movable part with respect to the base part in a vibratable manner in an approaching/separating direction, and a load detecting part comprising a presentation-part side fixing part being fixed to the vibration presenting part, and a support-part side fixing part being fixed to the elastic support part, and detecting, as a load, strain due to the pressing operation, and a movement regulating part extending from the presentation-part side fixing part towards the base part, characterised in that the movement regulating part is regulating movement of the movable part by engaging with an engaged part of the base part via a buffer member when the movable part moves in a direction separating from the base part.
A method comprising: at a first wireless communication device, receiving at each of a plurality of antennas (12, 12,... 12) a waveform comprising a multi-carrier code division multiple access ranging transmission from each of one or more of a plurality of second wireless communication devices (20,...20) such that multi-carrier code division multiple access transmissions from two or more second wireless communication devices (20,...20) overlap in time and frequency; searching all codes in a set of possible codes that may be used by the second wireless communication devices (20,...20) in the one or more multi-carrier code division multiple access ranging transmissions contained in the received waveform to determine which one or more codes are present in the received waveform; for each of the one or more codes determined to be present in the received waveform: computing estimated channel path responses at each of the plurality of antennas (12, 12,... 12) of the first wireless communication device; and computing a downlink beamforming weight vector from the estimated channel path responses for a corresponding code. at a first wireless communication device, receiving at each of a plurality of antennas (12, 12,... 12) a waveform comprising a multi-carrier code division multiple access ranging transmission from each of one or more of a plurality of second wireless communication devices (20,...20) such that multi-carrier code division multiple access transmissions from two or more second wireless communication devices (20,...20) overlap in time and frequency; searching all codes in a set of possible codes that may be used by the second wireless communication devices (20,...20) in the one or more multi-carrier code division multiple access ranging transmissions contained in the received waveform to determine which one or more codes are present in the received waveform; for each of the one or more codes determined to be present in the received waveform: computing estimated channel path responses at each of the plurality of antennas (12, 12,... 12) of the first wireless communication device; and computing a downlink beamforming weight vector from the estimated channel path responses for a corresponding code. computing estimated channel path responses at each of the plurality of antennas (12, 12,... 12) of the first wireless communication device; and computing a downlink beamforming weight vector from the estimated channel path responses for a corresponding code.