mhurhangee/ep-ind-claims huggingface dataset:
A cab-over vehicle in which an engine is mounted through an engine mounting structure on a pair of left and right chassis frames (3L, 3R) extending in a front and rear direction of a vehicle body and a cab is disposed above the engine, wherein an exhaust system is connected to one of left and right side surfaces (10L, 10R) of the engine, characterised in that: the engine is mounted on the chassis frames in a state of being inclined at a predetermined angle such that the one side surface faces obliquely upward; and the engine mounting structure comprises: a first bracket configured to support a first side of the engine on a first chassis frame via a first mount member; and a second bracket configured to support a second side of the engine on a second chassis frame via a second mount member, wherein the first bracket comprises a first plate portion attached to the first mount member and a second plate portion attached to the first side of the engine, the first plate portion and the second plate portion forming an obtuse angle, wherein the second bracket comprises a third plate portion attached to the second mount member and a fourth plate portion attached to the first side of the engine, the third plate portion and the fourth plate portion forming an acute angle. the engine is mounted on the chassis frames in a state of being inclined at a predetermined angle such that the one side surface faces obliquely upward; and the engine mounting structure comprises: a first bracket configured to support a first side of the engine on a first chassis frame via a first mount member; and a second bracket configured to support a second side of the engine on a second chassis frame via a second mount member, a first bracket configured to support a first side of the engine on a first chassis frame via a first mount member; and a second bracket configured to support a second side of the engine on a second chassis frame via a second mount member, wherein the first bracket comprises a first plate portion attached to the first mount member and a second plate portion attached to the first side of the engine, the first plate portion and the second plate portion forming an obtuse angle, wherein the second bracket comprises a third plate portion attached to the second mount member and a fourth plate portion attached to the first side of the engine, the third plate portion and the fourth plate portion forming an acute angle.
An on-line cleaning system for carbon deposit in engine intake valve and combustion chamber comprising a cleaning agent tank, a cleaning agent inlet line and a control circuit, the cleaning agent tank being fillable with intake valve cleaning agents, the control circuit comprising a cleaning work procedure which controls turn-on and turn-off of the cleaning agent inlet line; wherein, the control circuit is provided with a cleaning start-up circuit, the cleaning agent tank is disposed on a frame within the automobile engine hood, one end of the cleaning agent inlet line is connected to the cleaning agent tank, the other end of the cleaning agent inlet line is connected to an engine vacuum pipeline which is a vacuum pipeline in communication with the automobile engine intake valve, a control signal at the automobile engine operating state is connected with the start-up circuit in the control circuit; characterized in that the cleaning agent inlet line from the engine vacuum pipeline to the cleaning agent tank is sequentially connected with a vacuum pressure sensor and an electromagnetic flow controller, respectively; the control circuit is provided with a vacuum pressure measuring interface and an electromagnetic flow control interface, the electrical output signal of the vacuum pressure sensor is connected to the vacuum pressure measuring interface, and the electromagnetic flow control interface is connected with the electrical signal control input of the electromagnetic flow controller.
A sprocket for engagement with a drive chain, comprising: • a central plane extending radially with respect to the axis of rotation; • a plurality of teeth (12; 13, 13') extending radially from a periphery of the sprocket; • each tooth (12; 13, 13') extending over a given circumferential length of the sprocket; • the plurality of teeth (12; 13, 13') including a first group of teeth and a second group of teeth (13, 13'), wherein the teeth of the first group and the second group are alternately arranged so that each tooth of the first tooth group is followed by a tooth (13, 13') of the second group, and vice versa; • each tooth of the first group of teeth having a first maximum width in the axial direction; • each tooth (13, 13') of the second group of teeth having a second maximum width in the axial direction which is larger than the first maximum width; characterized in that the profile of each tooth of the second group (13, 13') has a first protrusion in the front half of the tooth (13, 13') on a first lateral surface and a second protrusion in the rear half of the tooth (13, 13') on a second, opposite lateral surface of the tooth (13, 13'). • a central plane extending radially with respect to the axis of rotation; • a plurality of teeth (12; 13, 13') extending radially from a periphery of the sprocket; • each tooth (12; 13, 13') extending over a given circumferential length of the sprocket; • the plurality of teeth (12; 13, 13') including a first group of teeth and a second group of teeth (13, 13'), wherein the teeth of the first group and the second group are alternately arranged so that each tooth of the first tooth group is followed by a tooth (13, 13') of the second group, and vice versa; • each tooth of the first group of teeth having a first maximum width in the axial direction; • each tooth (13, 13') of the second group of teeth having a second maximum width in the axial direction which is larger than the first maximum width;
A mesh retention assembly for use in an exhaust treatment device, the mesh retention assembly comprising: a conduit (102, 122, 132, 142, 212, 220) extending along a longitudinal axis and defining an interiorly facing surface; a retaining arrangement (100, 120, 130, 140, 150, 160, 230, 260) disposed within the conduit, the retaining arrangement including at least one first stop member (106, 156, 226, 270) and at least one second stop member (108, 128, 138, 148, 158, 168, 178, 188, 264); a mesh puck disposed within the conduit, the mesh puck including opposite first and second axial ends (112, 114) separated along a thickness of the mesh puck by an outwardly-facing peripheral side, the first axial end abutting the first stop member (106, 156, 226, 270) and the outwardly-facing peripheral side facing the interiorly facing surface of the conduit; the first and second stop members being spaced to hold at least a majority of the thickness of the mesh puck therebetween, the first and second stop members holding the mesh puck while allowing the outwardly-facing peripheral side of the mesh puck to float relative to the interiorly facing surface of the conduit, wherein a majority of the first and second axial ends (112, 114) of the mesh puck remain exposed to the conduit (102, 122, 132, 142, 212, 220). a conduit (102, 122, 132, 142, 212, 220) extending along a longitudinal axis and defining an interiorly facing surface; a retaining arrangement (100, 120, 130, 140, 150, 160, 230, 260) disposed within the conduit, the retaining arrangement including at least one first stop member (106, 156, 226, 270) and at least one second stop member (108, 128, 138, 148, 158, 168, 178, 188, 264); a mesh puck disposed within the conduit, the mesh puck including opposite first and second axial ends (112, 114) separated along a thickness of the mesh puck by an outwardly-facing peripheral side, the first axial end abutting the first stop member (106, 156, 226, 270) and the outwardly-facing peripheral side facing the interiorly facing surface of the conduit; the first and second stop members being spaced to hold at least a majority of the thickness of the mesh puck therebetween, the first and second stop members holding the mesh puck while allowing the outwardly-facing peripheral side of the mesh puck to float relative to the interiorly facing surface of the conduit, wherein a majority of the first and second axial ends (112, 114) of the mesh puck remain exposed to the conduit (102, 122, 132, 142, 212, 220).
A rotor balance adjustment method in which a rotor includes a rotor main body extending in an axial direction (Da) and a plurality of impellers fixed to the rotor main body, the method comprising: an impeller adjustment process of adjusting a balance of a position of the center of gravity of the impeller as one body by separately adjusting weight with respect to each of the plurality of impellers before being attached to the rotor main body; a fixing process of fixing the plurality of impeller to the rotor main body after the impeller adjustment process is performed; an inclination adjustment process of adjusting an inclination of a large-sized impeller with respect to the rotor main body after the fixing process is performed, the large-sized impeller being an impeller having large weight among the plurality of impellers fixed to the rotor main body; and a rotor adjustment process of adjusting a balance of a position of the center of gravity of the rotor by adjusting weight of impellers other than the large-sized impeller among the plurality of impellers after the inclination adjustment process is performed. an impeller adjustment process of adjusting a balance of a position of the center of gravity of the impeller as one body by separately adjusting weight with respect to each of the plurality of impellers before being attached to the rotor main body; a fixing process of fixing the plurality of impeller to the rotor main body after the impeller adjustment process is performed; an inclination adjustment process of adjusting an inclination of a large-sized impeller with respect to the rotor main body after the fixing process is performed, the large-sized impeller being an impeller having large weight among the plurality of impellers fixed to the rotor main body; and a rotor adjustment process of adjusting a balance of a position of the center of gravity of the rotor by adjusting weight of impellers other than the large-sized impeller among the plurality of impellers after the inclination adjustment process is performed.
Method of coating with metal material a body of ductile iron comprising the following steps: a. preparing a body of ductile iron with at least a surface intended to be coated, a thickness of said body being identifiable in direction orthogonal to said surface intended to be coated, and characterised by the following steps: b. drying by heating at least said surface to be coated; c. lining a layer of stainless steel on said surface to be coated by pulsed arc welding with stainless steel as filler material, said welding being made directly on said surface to be coated. a. preparing a body of ductile iron with at least a surface intended to be coated, a thickness of said body being identifiable in direction orthogonal to said surface intended to be coated, and characterised by the following steps: b. drying by heating at least said surface to be coated; c. lining a layer of stainless steel on said surface to be coated by pulsed arc welding with stainless steel as filler material, said welding being made directly on said surface to be coated.
An electronic system comprising: a digital pen including a first handwriting unit for inputting handwriting information to paper, and a second handwriting unit for inputting handwriting information by using an electromagnetic resonance, EMR, scheme; a sensing unit, wherein the paper is supported by the sensing unit, and the sensing unit is arranged to sense a contact position of the digital pen on the paper based on an induction magnetic field generated by the digital pen during a period in which the handwriting information is input to the paper by using the first handwriting unit; a controlling unit arranged to generate handwriting information by using the touch point sensed by the sensing unit; and a communicating unit arranged to transmit the generated handwriting information outside the electronic system, characterised in that the second handwriting unit includes a resonance circuit, the digital pen further includes a pressure-sensitive sensor arranged to sense contact between the digital pen and the paper to determine that the handwriting information is input to the paper by using the first handwriting unit, and the digital pen is arranged to, in response to the pressure-sensitive sensor sensing contact between the digital pen and the paper, apply a current to the resonance circuit so that the resonance circuit generates an induction magnetic field. a digital pen including a first handwriting unit for inputting handwriting information to paper, and a second handwriting unit for inputting handwriting information by using an electromagnetic resonance, EMR, scheme; a sensing unit, wherein the paper is supported by the sensing unit, and the sensing unit is arranged to sense a contact position of the digital pen on the paper based on an induction magnetic field generated by the digital pen during a period in which the handwriting information is input to the paper by using the first handwriting unit; a controlling unit arranged to generate handwriting information by using the touch point sensed by the sensing unit; and a communicating unit arranged to transmit the generated handwriting information outside the electronic system, characterised in that the second handwriting unit includes a resonance circuit, the digital pen further includes a pressure-sensitive sensor arranged to sense contact between the digital pen and the paper to determine that the handwriting information is input to the paper by using the first handwriting unit, and the digital pen is arranged to, in response to the pressure-sensitive sensor sensing contact between the digital pen and the paper, apply a current to the resonance circuit so that the resonance circuit generates an induction magnetic field.
a gun-shaped ear piercing instrument, comprising a front portion and a rear portion, wherein the front portion and the rear portion are sleeved together and are able to move relative to each other, wherein a track is disposed on the front portion, a front slot for mounting a mounting portion for a stud base is disposed on one end of the track away from the rear portion, a fixing portion for mounting a stud mounting portion is disposed on the track in a slidable manner; a firing device corresponding to the fixing portion is disposed on the rear portion; and the front portion comprises a grip wherein an unlocking trigger is disposed on a front side of the grip, characterized in that an elastic reset device and an aiming stroke restrainer are disposed between the front portion and the rear portion, the aiming stroke restrainer is configured to restrain the firing device so as to help the firing device to move to an aiming position when firing device is in an aiming stroke, and the unlocking trigger is configured to trigger the firing device to enter an piercing stroke for piercing the earlobe.
Sealing module, in particular cable contact weather protection sealing module, which is configured to at least partially receive a plurality of longitudinal bodies, in particular a plurality of cables, and to at least substantially completely encompass them in a circumferential direction at least section-wise, with a sealing module unit comprising at least eight receiving regions, which are configured to receive at least one of the longitudinal bodies respectively and which are arranged in at least two groups (20, 22) that are disposed row-wise and each have at least four of the at least eight receiving regions, the sealing module unit comprising at least two sheathing elements (32, 34) and at least one sealing element (36, 38), characterised in that the at least one sealing element (34, 36) is implemented to be elastically deformable and to be at least partly deployable along at least one of the at least two groups (20, 22) that are disposed row-wise.
An autosampler for obtaining mass spectra from a plurality of fluid samples, in particular gaseous samples, comprising: a) a plurality of containers (2.1, 2.2, 2.3, 2.4, 2.5, 2.6) comprising sample sources (3.1, 3.2, 3.3, 3.4, 3.5, 3.6) providing said samples, wherein each one of said containers (2.1, 2.2, 2.3, 2.4, 2.5, 2.6) provides a docking port (4.1, 4.2, 4.3, 4.4, 4.5, 4.6) for being connected with a connector for enabling access to an inside of the respective container (2.1, 2.2, 2.3, 2.4, 2.5, 2.6) via said connector when said connector is connected to the respective docking port (4.1, 4.2, 4.3, 4.4, 4.5, 4.6) in order to obtain the respective sample from the respective container (2.1, 2.2, 2.3, 2.4, 2.5, 2.6) via said connector, wherein said connector is connectable to and detachable from each docking port (4.1, 4.2, 4.3, 4.4, 4.5, 4.6), b) an ionisation source for ionising at least a part of said samples to ions, wherein said ionisation source is fluidly coupled to said connector for receiving said samples from the containers (2.1, 2.2, 2.3, 2.4, 2.5, 2.6) via said connector, and c) a mass analyser for obtaining said mass spectra from said ions, said mass analyser being fluidly coupled to said ionisation source for receiving said ions from said ionisation source for obtaining said mass spectra from said ions, characterised in that said ionisation source is moveable with said connector within said autosampler sequentially to each one of said plurality of said containers (2.1, 2.2, 2.3, 2.4, 2.5, 2.6) for connecting said connector to the docking port (4.1, 4.2, 4.3, 4.4, 4.5, 4.6) of the respective container (2.1, 2.2, 2.3, 2.4, 2.5, 2.6) for collecting said sample from the respective container (2.1, 2.2, 2.3, 2.4, 2.5, 2.6) for ionising at least a part of said sample to ions and obtaining said mass spectra from said ions. a) a plurality of containers (2.1, 2.2, 2.3, 2.4, 2.5, 2.6) comprising sample sources (3.1, 3.2, 3.3, 3.4, 3.5, 3.6) providing said samples, wherein each one of said containers (2.1, 2.2, 2.3, 2.4, 2.5, 2.6) provides a docking port (4.1, 4.2, 4.3, 4.4, 4.5, 4.6) for being connected with a connector for enabling access to an inside of the respective container (2.1, 2.2, 2.3, 2.4, 2.5, 2.6) via said connector when said connector is connected to the respective docking port (4.1, 4.2, 4.3, 4.4, 4.5, 4.6) in order to obtain the respective sample from the respective container (2.1, 2.2, 2.3, 2.4, 2.5, 2.6) via said connector, wherein said connector is connectable to and detachable from each docking port (4.1, 4.2, 4.3, 4.4, 4.5, 4.6), b) an ionisation source for ionising at least a part of said samples to ions, wherein said ionisation source is fluidly coupled to said connector for receiving said samples from the containers (2.1, 2.2, 2.3, 2.4, 2.5, 2.6) via said connector, and c) a mass analyser for obtaining said mass spectra from said ions, said mass analyser being fluidly coupled to said ionisation source for receiving said ions from said ionisation source for obtaining said mass spectra from said ions,
A capacitive touch sensor comprising a light-transmitting conductive laminate at least comprising a surface material and a transparent conductive substrate laminated in this order from input side, characterized in that the surface material comprises a layer consisting of a nonwoven fabric.
Actuation device of a pull-out element, panel, flap, front element or similar openable element of items of kitchen and office furniture, kitchen appliances and built-in kitchen appliances, goods distribution appliances and the like, comprising a component having a carcass, and comprising a drive unit by means of which the openable element is moved into an open position relative to the carcass, the drive unit is activated by means of control means and the control means have a body sound sensor associated with the openable element and a further sensor, the signals of which can be compared to one another in an evaluation unit of the control means, characterised in that the control means have, as a further sensor, a second carcass body sound sensor (solid body sound sensor) which is arranged at a distance from the front body sound sensor in or on the carcass, having a different sensor orientation than the sensor orientation of the body sound sensor, the body sound signals of the front body sound sensor and of the carcass body sound sensor being able to be compared to one another in an evaluation unit of the control means and the drive unit being able to be activated depending on the result of the signal comparison by means of the control means, the carcass body sound sensor being arranged on a side wall of the carcass or of the drive unit, having a sensor orientation essentially transverse to the sensor orientation of the front body sound sensor and therefore essentially parallel to the longitudinal extension of the front element.
A method of measuring torque in a six phase electrical motor, said motor including a motor stator including two electrically independent stator winding arrangements (U, V, W), (X, Y, Z) each comprising three combined windings; said winding arrangements being symmetrical and offset by an angle γ to each other, such that each combined winding of the second stator arrangement has a corresponding combined winding in the first stator arrangement and offset thereto by an angle y, said method comprising: a) determining a first value of the currents (Iu, Iv, Iw) in the three combined windings (U, V, W) of the first stator arrangement and a second value of the currents (Ix, Iy, Iz) in the three combined windings (X, Y, Z) of the second stator arrangement; b) determining a first value and a second value of the torque from the first value and second value, respectively, of the currents determined from a); characterised by c) controlling an operation of the six phase electrical motor using the first value of the torque, and using the second value of the torque for independent purposes including safety or monitoring. a) determining a first value of the currents (Iu, Iv, Iw) in the three combined windings (U, V, W) of the first stator arrangement and a second value of the currents (Ix, Iy, Iz) in the three combined windings (X, Y, Z) of the second stator arrangement; b) determining a first value and a second value of the torque from the first value and second value, respectively, of the currents determined from a); characterised by c) controlling an operation of the six phase electrical motor using the first value of the torque, and using the second value of the torque for independent purposes including safety or monitoring.
High-voltage insulator comprising a long rod-type insulator with a shaft and at least ten circular shields arranged thereon, an insulator cap at the upper end of the long rod-type insulator for fastening the high-voltage insulator to a high-voltage mast, and an arc protection ring which surrounds the insulator cap or that portion of the long rod-type insulator that is situated closest to the insulator cap, characterized in that the topmost shield of the long rod-type insulator that is situated closest to the insulator cap, the lowermost shield that is situated furthest away from the insulator cap at the upper end of the long rod-type insulator and a shield not located at an end of the long rod-type insulator are each designed as a protective shield, wherein the maximum diameter of the other shields (12") not designed as a protective shield is at least 30 mm smaller than the inner diameter of the arc protection ring, the diameter of the protective shields is at least 10 mm smaller than the inner diameter of the arc protection ring and the diameter of the protective shields is at least 20 mm larger than the maximum diameter of the other shields (12").