mhurhangee/ep-ind-claims huggingface dataset:
A screening element for screening and conveying grit material for receiving by a sanding device of a sanding apparatus for a vehicle, wherein the screening element has at least the following features: - a plate element having a shaft coupling installation for coupling the screening element to a shaft installation of a rotary valve of the sanding device, - at least one passage opening which for passing grit material through the screening element is disposed in the plate element; and - at least one lug which from the plate element extends away transversely to a main surface of the plate element. - a plate element having a shaft coupling installation for coupling the screening element to a shaft installation of a rotary valve of the sanding device, - at least one passage opening which for passing grit material through the screening element is disposed in the plate element; and - at least one lug which from the plate element extends away transversely to a main surface of the plate element.
Apparatus for raising the spark energy in Capacitive Discharge Ignition systems without batteries comprising at least one charge winding which via a first rectifier device charges a charge capacitor connected to the primary winding of an ignition voltage transformer in order to provide said primary winding with energy for generation of a spark by means of a first switching device, characterised in that additionally a second rectifier device and a second switching device are arranged to periodically short circuit the charge winding, thereby increasing the charge of the charge capacitor at low engine speeds.
Domestic refrigerator, comprising a thermally insulated housing, a storage compartment intended for storing food and/or beverages and contained within the thermally insulated housing, a cooling device configured to cool the storage compartment, and a camera adapted to take at least one picture from the interior of the storage compartment, the camera comprising - a hood- or cup-shaped housing having an open end, - a carrier which comprises a first surface and a second surface and is fixed to the housing in order to close the open end, the housing and the carrier enclosing an interior space and the first surface of the carrier facing towards the interior space, and - an image sensor located inside the interior space and attached to the first surface of the carrier, at least a portion (30, 43) of the housing opposite to the image sensor being at least semi-transparent allowing the image sensor to take pictures through this portion (30, 43) of the housing, and the second surface of the carrier being casted in order to seal off the housing, the refrigerator being characterized in that the housing is a one-piece housing. - a hood- or cup-shaped housing having an open end, - a carrier which comprises a first surface and a second surface and is fixed to the housing in order to close the open end, the housing and the carrier enclosing an interior space and the first surface of the carrier facing towards the interior space, and - an image sensor located inside the interior space and attached to the first surface of the carrier, at least a portion (30, 43) of the housing opposite to the image sensor being at least semi-transparent allowing the image sensor to take pictures through this portion (30, 43) of the housing, and the second surface of the carrier being casted in order to seal off the housing, the refrigerator being characterized in that the housing is a one-piece housing.
Refrigerated display case comprising a bottom assembly, a rear wall assembly and a top assembly which delimit a cooling space at the bottom, at the rear and at the top and are at least partially provided with components of a cooling device and which have a multi-layer structure having a flow channel arrangement formed therein, gaps being formed between respective layers as parts of the flow channel arrangement in the bottom assembly, the rear wall assembly and the top assembly, and the lower gap (11.6) formed in the bottom assembly being brought, on its rear, into flow connection with a lower portion of the vertical gap (12.4) formed in the rear wall assembly and the upper gap (13.7) formed in the top assembly being brought, on its rear, into flow connection with an upper portion of the vertical gap (12.4) formed in the rear wall assembly such that air flows through said gaps, and an evaporator (50, 50', 50") or other heat exchanger of the cooling device being arranged in the vertical gap (12.4) for the generation of cooling air and a plurality of fans arranged next to one another, in particular designed as radial fans, also being provided at least in the vertical gap (12.4) in order to bring about an air flow through the gaps (11.6, 12.4, 13.7), characterized in that the plurality of fans arranged next to one another are arranged in the upper half of the vertical gap (12.4) above the evaporator (50, 50', 50") or other heat exchanger, a partition is installed between the fans in order to prevent or reduce mutual negative flow influence, such as short circuiting, and there is an open space in front of the evaporator (50, 50', 50") or other heat exchanger for bringing down some of the cooling air generated in the evaporator (50, 50', 50") or other heat exchanger, which air is directed back down on the rear of the inner cover (12.1) and enters the cooling space through openings distributed in the inner cover (12.1). the plurality of fans arranged next to one another are arranged in the upper half of the vertical gap (12.4) above the evaporator (50, 50', 50") or other heat exchanger, a partition is installed between the fans in order to prevent or reduce mutual negative flow influence, such as short circuiting, and there is an open space in front of the evaporator (50, 50', 50") or other heat exchanger for bringing down some of the cooling air generated in the evaporator (50, 50', 50") or other heat exchanger, which air is directed back down on the rear of the inner cover (12.1) and enters the cooling space through openings distributed in the inner cover (12.1).
Power cable comprising: (a) an electrical conductor; (b) an insulation layer which surrounds the electrical conductor; and (c) an insulation shield layer which surrounds and is contiguous with the insulation layer, the insulation shield layer comprising a cross-linked composition made from a blend which comprises (i) from 15 to 40 weight percent of a copolymer of ethylene and an unsaturated ester selected from the group consisting of vinyl esters, acrylic acid esters, methacrylic acid esters and mixtures thereof; (ii) at least 1 weight percent nano-particles which have been contacted with a swelling agent which includes an onium ion; and (iii) from 10 to 50 weight percent carbon black, wherein the copolymer, the nano-particles and the carbon black being in amounts which will provide the insulation shield with a strip tension of greater than 13.3 N per 1.27 cm (3 pounds per half inch) at 23 degrees Celsius after being stored at 100 degrees Celsius for 2 weeks and an initial strip force of not greater than 106.8 N per 1.27 cm (24 pounds per half inch) at 23 degrees Celsius, wherein the strip tension and initial strip force is determined using the Test Method for Plaque Adhesion disclosed in the description. (a) an electrical conductor; (b) an insulation layer which surrounds the electrical conductor; and (c) an insulation shield layer which surrounds and is contiguous with the insulation layer, (i) from 15 to 40 weight percent of a copolymer of ethylene and an unsaturated ester selected from the group consisting of vinyl esters, acrylic acid esters, methacrylic acid esters and mixtures thereof; (ii) at least 1 weight percent nano-particles which have been contacted with a swelling agent which includes an onium ion; and (iii) from 10 to 50 weight percent carbon black,
A laminate comprising: (i) a fluoroelastomer layer formed from a fluoroelastomer composition containing - a fluoroelastomer, - a compound that contains in one molecule (i) two or more functional groups which may be the same or different and exhibit basicity and (ii) at least two N-atoms having a N-N interatomic distance of ≥ 5.70 Angstroms, calculated by the method mentioned in the description, and - 0.01-120 parts by mass (pbm), per 100 pbm of the fluoroelastomer, of a compound (a) comprising a phosphorus compound and optionally a fluororesin, the phosphorus compound being a phosphine compound PR 3, wherein R each independently is halogen or an organic group; and, stacked on the fluoroelastomer layer, (ii) a fluororesin layer formed from a fluororesin having a fuel permeability coefficient of ≤ 2.0 g·mm/m 2 /day, calculated from the mass change determined by the method defined in the present description. (i) a fluoroelastomer layer formed from a fluoroelastomer composition containing - a fluoroelastomer, - a compound that contains in one molecule (i) two or more functional groups which may be the same or different and exhibit basicity and (ii) at least two N-atoms having a N-N interatomic distance of ≥ 5.70 Angstroms, calculated by the method mentioned in the description, and - 0.01-120 parts by mass (pbm), per 100 pbm of the fluoroelastomer, of a compound (a) comprising a phosphorus compound and optionally a fluororesin, the phosphorus compound being a phosphine compound PR 3, wherein R each independently is halogen or an organic group; and, stacked on the fluoroelastomer layer, - a fluoroelastomer, - a compound that contains in one molecule (i) two or more functional groups which may be the same or different and exhibit basicity and (ii) at least two N-atoms having a N-N interatomic distance of ≥ 5.70 Angstroms, calculated by the method mentioned in the description, and - 0.01-120 parts by mass (pbm), per 100 pbm of the fluoroelastomer, of a compound (a) comprising a phosphorus compound and optionally a fluororesin, the phosphorus compound being a phosphine compound PR 3, wherein R each independently is halogen or an organic group; (ii) a fluororesin layer formed from a fluororesin having a fuel permeability coefficient of ≤ 2.0 g·mm/m 2 /day, calculated from the mass change determined by the method defined in the present description.
A micro robot comprising: a drilling body which has a drilling tip formed at an end thereof; a spiral coupling body which has a magnet disposed therein, and is spirally coupled to an outer circumference of the drilling body; and a system control unit which allows the drilling body and the spiral coupling body to spirally move simultaneously or allows the spiral coupling body to spirally move around the drilling body by providing rotational magnetic field to the magnet, and wherein a spiral protrusion, which is spirally coupled to the spiral coupling body, is formed on the outer circumference of the drilling body, characterized in that a medicine accommodating space, which has a hollow shape and accommodates a medicine, is formed in the drilling body, and a medicine injection hole through which the accommodated medicine is injected to the outside is formed at an end portion of the drilling tip. a drilling body which has a drilling tip formed at an end thereof; a spiral coupling body which has a magnet disposed therein, and is spirally coupled to an outer circumference of the drilling body; and a system control unit which allows the drilling body and the spiral coupling body to spirally move simultaneously or allows the spiral coupling body to spirally move around the drilling body by providing rotational magnetic field to the magnet, and
A photoresist composition comprising a resin binder selected from the group consisting of a reaction product formed in the absence of a catalyst between (i) a novolak polymer, (ii) a polymer comprising substituted or unsubstituted hydroxystyrene and acrylate, methacrylate or a mixture of acrylate and methacrylate, the acrylate and/or methacrylate being protected by an acid labile group that requires a high activation energy for deblocking, and (iii) a compound selected from a vinyl ether and an unsubstituted or substituted unsaturated heteroalicyclic compound.
Method for generating data for producing and updating at least one topology map of at least one room in at least one building in an area surrounding a vehicle by means of at least one vehicle, having the following steps: - determining a position of at least one vehicle with current GPS data in front of an entrance to the building, - assessing a trajectory of the at least one vehicle in at least one room of the at least one building by means of a motion characteristic assessment of the at least one vehicle based on data from vehicle internal acceleration sensors, yaw rate sensors and odometers, - determining a motion characteristic error when the at least one vehicle leaves the at least one building by a comparison with current GPS data, characterised by the following step: - correcting an estimated trajectory of the at least one vehicle by the motion characteristic error caused by permanently integrating accelerations, yaw rates and odometer data by means of an error model which retroactively determines individual partial errors along the trajectory as a function of driving maneuvers performed, and subsequently successively corrects the trajectory based on the determined partial errors. - determining a position of at least one vehicle with current GPS data in front of an entrance to the building, - assessing a trajectory of the at least one vehicle in at least one room of the at least one building by means of a motion characteristic assessment of the at least one vehicle based on data from vehicle internal acceleration sensors, yaw rate sensors and odometers, - determining a motion characteristic error when the at least one vehicle leaves the at least one building by a comparison with current GPS data, characterised by the following step: - correcting an estimated trajectory of the at least one vehicle by the motion characteristic error caused by permanently integrating accelerations, yaw rates and odometer data by means of an error model which retroactively determines individual partial errors along the trajectory as a function of driving maneuvers performed, and subsequently successively corrects the trajectory based on the determined partial errors.
An agricultural machine comprising: a vehicle body including a front wheel and a rear wheel; a hood at a front portion of the vehicle body; a protector device provided to the vehicle body to protect an operator seat; an obstacle detector device to detect an obstacle, the obstacle detector device being located in front of the protector device outwardly in a width direction of the hood; and a position changer mechanism to change a position of the obstacle detector device, characterized by a selector operable to select, as a detection position appropriate for the obstacle detector device to detect an obstacle, at least one registered position from a plurality of registered positions each of which is registered as a position to be selected as the detection position, wherein the position changer mechanism is configured so that, when the selector having been operated to select one registered position as the detection position is operated to newly select another registered position different from the registered position that has been selected as the detection position, the position changer mechanism changes the position of the obstacle detector device to the another registered position newly selected as the detection position. a vehicle body including a front wheel and a rear wheel; a hood at a front portion of the vehicle body; a protector device provided to the vehicle body to protect an operator seat; an obstacle detector device to detect an obstacle, the obstacle detector device being located in front of the protector device outwardly in a width direction of the hood; and a position changer mechanism to change a position of the obstacle detector device, characterized by a selector operable to select, as a detection position appropriate for the obstacle detector device to detect an obstacle, at least one registered position from a plurality of registered positions each of which is registered as a position to be selected as the detection position, wherein the position changer mechanism is configured so that, when the selector having been operated to select one registered position as the detection position is operated to newly select another registered position different from the registered position that has been selected as the detection position, the position changer mechanism changes the position of the obstacle detector device to the another registered position newly selected as the detection position.
An installation vessel for offshore installation of a wind turbine, the installation vessel comprising: a deck; a main crane; and a cantilever mast mounted on the deck, the cantilever mast including: a cantilever structure (202, 204) movably mounted on the deck; a mast mounted on the cantilever structure, the mast including a lifting structure operable to secure to a wind turbine component, a first guide, and an intermediate platform at an intermediate height along the mast; wherein the main crane is operable to transfer a tower section from the installation vessel to an offshore installation site spaced apart from the installation vessel and, at the same time, the intermediate platform is operable to support a nacelle and a hub to enable blade installation to be performed thereon to form a nacelle and rotor assembly; and wherein the cantilever mast is further operable to transfer the nacelle and rotor assembly between the installation vessel and the offshore installation site by, while movably engaging the lifting structure to the mast using the first guide throughout a lifting operation to prevent swinging of the nacelle and rotor assembly, moving the cantilever mast in a longitudinal direction and a transverse direction. a deck; a main crane; and a cantilever mast mounted on the deck, the cantilever mast including: a cantilever structure (202, 204) movably mounted on the deck; a mast mounted on the cantilever structure, the mast including a lifting structure operable to secure to a wind turbine component, a first guide, and an intermediate platform at an intermediate height along the mast; a cantilever structure (202, 204) movably mounted on the deck; a mast mounted on the cantilever structure, the mast including a lifting structure operable to secure to a wind turbine component, a first guide, and an intermediate platform at an intermediate height along the mast; wherein the main crane is operable to transfer a tower section from the installation vessel to an offshore installation site spaced apart from the installation vessel and, at the same time, the intermediate platform is operable to support a nacelle and a hub to enable blade installation to be performed thereon to form a nacelle and rotor assembly; and wherein the cantilever mast is further operable to transfer the nacelle and rotor assembly between the installation vessel and the offshore installation site by, while movably engaging the lifting structure to the mast using the first guide throughout a lifting operation to prevent swinging of the nacelle and rotor assembly, moving the cantilever mast in a longitudinal direction and a transverse direction.
A method of forming an electrically active electrode material for use with a lithium ion cell, wherein the electrically active electrode material consists of an electrically conductive substrate material formed of filaments of a valve metal not larger than about 10 microns in cross section, which filaments are directly adhered together without an adhesive to form a stable sheet or mat, and wherein the filaments of the sheet or mat are directly coated with silicon nanoparticles, germanium or tin, characterized by the steps in sequence of: (a) establishing multiple components of a valve metal in a billet of a ductile material; (b) working the billet to a series of reduction steps to form said valve metal components into elongated elements; (c) cutting the elongated elements from step (b) into filaments not larger than about 10 microns in cross section, and leaching the ductile material from the elements; (d) washing the cut elements from step (c) with water to form a slurry in which the filaments are evenly distributed; (e) forming the cut elements from step (d) by directly casting the cut elements into a stable sheet or mat without an adhesive; and (f) directly coating the sheet or mat resulting from step (e) with said silicon nanoparticles, germanium or tin. (a) establishing multiple components of a valve metal in a billet of a ductile material; (b) working the billet to a series of reduction steps to form said valve metal components into elongated elements; (c) cutting the elongated elements from step (b) into filaments not larger than about 10 microns in cross section, and leaching the ductile material from the elements; (d) washing the cut elements from step (c) with water to form a slurry in which the filaments are evenly distributed; (e) forming the cut elements from step (d) by directly casting the cut elements into a stable sheet or mat without an adhesive; and (f) directly coating the sheet or mat resulting from step (e) with said silicon nanoparticles, germanium or tin.
A device for processing plant stems comprising seed capsules, in particular burst seed capsules, and moving in a first direction, in the form of a continuous sheet extending in a plane, the device comprising a chassis and a first mill extending along a longitudinal axis between a front end and a rear end, the first mill comprising a body, for example of generally cylindrical or conical shape, comprising a peripheral surface, wherein at least one portion of the first mill extends substantially parallel to the plane of the continuous sheet, wherein the longitudinal axis of the first mill is inclined relative to the first direction, so as to sweep the surface of the plant stems of the continuous sheet, wherein the front end of the first mill is positioned upstream of the rear end in the direction of movement of the sheet of plant stems, wherein the first mill also comprises scraping means mounted on the peripheral surface of the body, the scraping means extending substantially between the front end and the rear end of the first mill, and each comprising a front end and a rear end, wherein the front end of the first mill is a free end, and wherein the first mill is mounted on the frame of the processing device via its rear end, characterized in that the device comprises a motor comprising a rotor mounted between the frame and the first mill in order to rotate the first mill on itself, and in that the rotor of the motor is secured to the first mill and is mounted inside the first mill. wherein the longitudinal axis of the first mill is inclined relative to the first direction, so as to sweep the surface of the plant stems of the continuous sheet, wherein the front end of the first mill is positioned upstream of the rear end in the direction of movement of the sheet of plant stems, wherein the first mill also comprises scraping means mounted on the peripheral surface of the body, the scraping means extending substantially between the front end and the rear end of the first mill, and each comprising a front end and a rear end, wherein the front end of the first mill is a free end, and wherein the first mill is mounted on the frame of the processing device via its rear end, characterized in that the device comprises a motor comprising a rotor mounted between the frame and the first mill in order to rotate the first mill on itself, and in that the rotor of the motor is secured to the first mill and is mounted inside the first mill.