mhurhangee/ep-ind-claims huggingface dataset:
A spoke wheel comprising: a light alloy rim with bead seat portions (12c, 12d); a hub; and a plurality of wire spokes connecting the rim with the hub, wherein the rim includes two mounting flanges (12a, 12g; 12a, 12g1; 12g, 12i; 12i, 12g1; 12k, 12g; 12k, 12g1) provided at asymmetrical positions with respect to a widthwise center (O-O) of the rim and is connected with the hub by assembling the spokes to the mounting flanges (12a, 12g; 12a, 12g1; 12g, 12i; 12i, 12g1; 12k, 12g; 12k, 12g1), wherein the two mounting flanges (12a, 12g; 12a, 12g1; 12g, 12i; 12i, 12g1; 12k, 12g; 12k, 12g1) are located at widthwise positions distant differently from the widthwise center (O-O) of the rim, wherein the spokes are disposed by being offset to the widthwise center (O-O) of the rim, wherein one of the two mounting flanges is an inner flange projecting in an inner diametric direction from an inner diametric surface of the rim; characterized in that the other one of the two mounting flanges is one of a pair of outer flanges (12a, 12b) supporting an outer side of a tire, or a projecting portion (12i, 12j) projecting on extension lines of the bead seat portions (12c, 12d) on outside sides of the right and left outer flanges (12a, 12b); or a projecting portion (12k, 12l) projecting in the inner diametric direction of the outer flanges (12a, 12b) and projecting in the inner diametric side. a light alloy rim with bead seat portions (12c, 12d); a hub; and a plurality of wire spokes connecting the rim with the hub, wherein the rim includes two mounting flanges (12a, 12g; 12a, 12g1; 12g, 12i; 12i, 12g1; 12k, 12g; 12k, 12g1) provided at asymmetrical positions with respect to a widthwise center (O-O) of the rim and is connected with the hub by assembling the spokes to the mounting flanges (12a, 12g; 12a, 12g1; 12g, 12i; 12i, 12g1; 12k, 12g; 12k, 12g1), wherein the two mounting flanges (12a, 12g; 12a, 12g1; 12g, 12i; 12i, 12g1; 12k, 12g; 12k, 12g1) are located at widthwise positions distant differently from the widthwise center (O-O) of the rim, wherein the spokes are disposed by being offset to the widthwise center (O-O) of the rim, wherein one of the two mounting flanges is an inner flange projecting in an inner diametric direction from an inner diametric surface of the rim; characterized in that the other one of the two mounting flanges is one of a pair of outer flanges (12a, 12b) supporting an outer side of a tire, or a projecting portion (12i, 12j) projecting on extension lines of the bead seat portions (12c, 12d) on outside sides of the right and left outer flanges (12a, 12b); or a projecting portion (12k, 12l) projecting in the inner diametric direction of the outer flanges (12a, 12b) and projecting in the inner diametric side.
An electric drive motorcycle, comprising: • a front portion comprising one or more front wheels and a handlebar; • a rear portion comprising a saddle, a shell body arranged below said saddle, and a rear wheel arranged below said shell body; • an intermediate portion extending as a connection between said front portion and said rear portion; • an electric drive unit connected to said rear wheel; and • a hybrid supply unit supplying said electric drive unit, comprising at least a battery unit and a combustion engine actuating an electric generator, said combustion engine comprising an exhaust duct with an expansion chamber and a filter box for feeding air to the combustion engine, wherein said electric generator is apt to supply said battery unit and/or said electric drive unit, characterized in that, inside the shell body and below the saddle, a housing space is provided extending from one side to the other one of the shell body and which receives the hybrid supply unit, in a first portion thereof, and wherein said filter box and said exhaust duct are arranged on the same side of the motorcycle. • a front portion comprising one or more front wheels and a handlebar; • a rear portion comprising a saddle, a shell body arranged below said saddle, and a rear wheel arranged below said shell body; • an intermediate portion extending as a connection between said front portion and said rear portion; • an electric drive unit connected to said rear wheel; and • a hybrid supply unit supplying said electric drive unit, comprising at least a battery unit and a combustion engine actuating an electric generator, said combustion engine comprising an exhaust duct with an expansion chamber and a filter box for feeding air to the combustion engine, wherein said electric generator is apt to supply said battery unit and/or said electric drive unit,
A method for determineing errors (ΔA, Δh, ΔL, α) in the alignment of print images of at least two printing heads in a printing station for printing a three-dimensional body, wherein the printing heads are arranged distributed about the body and are aligned in the printing direction perpendicularly to the surface tangent of the body, wherein the printing on the body takes place by at least two of the printing heads together, by means of a suitable activation of the printing heads during a movement of the bodies relative to the printing heads, wherein the spacing of the printing heads to the body is adjustable, wherein the at least two printing heads each create a print image that can be assigned to a printing head, wherein the print images of the two printing heads are captured in an optical image and wherein the captured optical image is evaluated through image processing means in order to determine a deviation of the print images of the at least two printing heads from their nominal arrangement, characterized in that the print image of at least one of the printing heads comprises a vernier - wherein the print image of a first printing head shows a certain number of marks at the spacing of predetermined length units in a defined image position and the print image of the other printing head containing the vernier shows the same number of marks offset in the same nominal image position in longitudinal direction of the marks of the first printing head spaced by the length units shortened by the scale of the vernier and - wherein starting out from the defined image position the marks of the preset length unit are counted until a mark of the predetermined length unit coincides with a mark of the vernier, and from this the extent of the displacement of the print image is determined, and in that a spacing of the print images of the printing heads in the direction of the linear arrangement of the printing nozzles of the printing head is corrected by a shift of the printing nozzles activated in the direction of the linear arrangement corresponding to the spacing of the print images. - wherein the print image of a first printing head shows a certain number of marks at the spacing of predetermined length units in a defined image position and the print image of the other printing head containing the vernier shows the same number of marks offset in the same nominal image position in longitudinal direction of the marks of the first printing head spaced by the length units shortened by the scale of the vernier and - wherein starting out from the defined image position the marks of the preset length unit are counted until a mark of the predetermined length unit coincides with a mark of the vernier, and from this the extent of the displacement of the print image is determined, and in that a spacing of the print images of the printing heads in the direction of the linear arrangement of the printing nozzles of the printing head is corrected by a shift of the printing nozzles activated in the direction of the linear arrangement corresponding to the spacing of the print images.
The Cr-Mn-N austenitic heat-resistant steel, comprising, in weight percentage: carbon 0.30% to 0.45%, silicon 0.80% to 1.50%, manganese 3.00% to 4.80%, phosphorus less than 0.02%, sulphur less than 0.02%, chromium 23.00% to 26.00%, nickel 6.00 to 8.00%, molybdenum less than 0.20%, niobium less than 0.30%, tungsten less than 0.40%, vanadium less than 0.12%, nitrogen 0.30 to 0.60%, zirconium less than 0.08%, cobalt less than 0.08%, yttrium less than 0.08%, boron less than 0.10%, with the balance iron. carbon 0.30% to 0.45%, silicon 0.80% to 1.50%, manganese 3.00% to 4.80%, phosphorus less than 0.02%, sulphur less than 0.02%, chromium 23.00% to 26.00%, nickel 6.00 to 8.00%, molybdenum less than 0.20%, niobium less than 0.30%, tungsten less than 0.40%, vanadium less than 0.12%, nitrogen 0.30 to 0.60%, zirconium less than 0.08%, cobalt less than 0.08%, yttrium less than 0.08%, boron less than 0.10%, with the balance iron.
A method for providing reliable wireless communication between a wireless device (300; 702) and a cellular network, the wireless device (300; 702) comprising a first mobile equipment (306; 710) and a second mobile equipment (308; 712) sharing a single subscriber identity module (309; 713), the method being performed by the wireless device (300; 702) and comprising: sending a first attach request as part of a first attach procedure to the cellular network using the first mobile equipment (306; 710) via a first base station to establish a first communication channel to the cellular network; sending a second attach request as part of a second attach procedure to the cellular network using the second mobile equipment (308; 712) via a second base station to establish a second communication channel to the cellular network, wherein the first attach procedure and the second attach procedure are performed using a same subscriber identity provided by the single subscriber identity module (309; 713) and wherein, upon completion of the first attach procedure and the second attach procedure, data communicated between the wireless device (300; 702) and the cellular network is transferred redundantly over the first communication channel and the second communication channel. sending a first attach request as part of a first attach procedure to the cellular network using the first mobile equipment (306; 710) via a first base station to establish a first communication channel to the cellular network; sending a second attach request as part of a second attach procedure to the cellular network using the second mobile equipment (308; 712) via a second base station to establish a second communication channel to the cellular network, wherein the first attach procedure and the second attach procedure are performed using a same subscriber identity provided by the single subscriber identity module (309; 713) and wherein, upon completion of the first attach procedure and the second attach procedure, data communicated between the wireless device (300; 702) and the cellular network is transferred redundantly over the first communication channel and the second communication channel.
Cutting system with a cutting machine for cutting sheet-like, stacked material and with an alignment device, which can be manually manipulated, for manually laterally aligning the material on a flat surface of the alignment device, wherein the alignment device can be placed on a table of the cutting machine, which table serves to receive the material, wherein the cutting machine has an electrical machine controller for functions of the cutting machine, characterized in that the alignment device has electrical components (38 to 41, 45, 49 to 53), and the electrical machine controller of the cutting machine can be actuated by means of the alignment device, wherein the electrical components are operator control elements (38, 39, 40, 50) and/or indicators which are associated with the machine controller, wherein defined functions of the cutting machine can be activated by means of the operator control elements (38, 39, 40, 50).
A filling device for filling material from a flexible bulk container, wherein the filling device has a hollow body having upper and lower opening surfaces, wherein the upper end of the hollow body protrudes inside the flexible bulk container, for material to enter from the flexible bulk container through the upper opening surface of the hollow body, wherein a closure is present at the lower end of the hollow body, which closure has an upper plate and a lower plate lying flat against one another, wherein the upper plate adjoins the lower opening surface of the hollow body and has itself an opening in extension of the lower opening surface of the hollow body, and wherein the lower plate is attached to the upper plate by a pin and the lower plate can be pivoted around the axis of said pin between a first position, in which it completely closes the opening of the upper plate, and a second position, in which the opening of the upper plate is at least partially exposed, wherein a handle is mounted on the upper plate and a handle is mounted on the lower plate, each handle extending about horizontally away from the respective plate (4, 5), wherein the lower surface of each handle (6, 7) does not protrude downward beyond the standing surface of the filling device, characterised in that the lower plate has a structure, which forms at least part of the standing surface of the filling device, wherein the pin does not protrude downward from the standing surface, wherein the lower plate and the handle thereof are a monolithic, injection-moulded part.
An additive for molding a ceramic material which consists of a polymer microparticle having an ionic functional group, wherein said polymer microparticle exhibits: (a) an average particle size between 10 and 150 μm when said polymer microparticle is swollen with ion exchange water until said swollen polymer microparticle reaches a saturated state; (b) an ion exchange water absorbing amount between 10 and 60 mL/g at an ordinary pressure; and wherein the additive is characterized in that said polymer microparticle exhibits (c) an electroconductivity of 1,500 μS/cm or less at a temperature of 25°C, in a form of aqueous dispersion obtained by dispersing 1 part by mass of said polymer microparticle in 110 parts by mass of ion exchange water. (a) an average particle size between 10 and 150 μm when said polymer microparticle is swollen with ion exchange water until said swollen polymer microparticle reaches a saturated state; (b) an ion exchange water absorbing amount between 10 and 60 mL/g at an ordinary pressure; and wherein the additive is characterized in that said polymer microparticle exhibits (c) an electroconductivity of 1,500 μS/cm or less at a temperature of 25°C, in a form of aqueous dispersion obtained by dispersing 1 part by mass of said polymer microparticle in 110 parts by mass of ion exchange water.
A support for a safety line in a fall arrest system comprising a support section suitable for retaining a safety line and attachment means for attaching the support to a structure, the supporting section and the attachment means being connected by an arm, the arm having a tangential section narrower than the safety line and extending substantially tangentially relative to a safety line retained in the supporting section characterised in that the tangential section is a flat plate and the arm has a first radial section extending vertically downwards from the support section, the tangential section extending from the lower end of the first radial section to a third section connecting the tangential section to the attachment means.
A wheel set shaft for the wheel set of a rail vehicle, which comprises at least one shaft body, which extends essentially along a longitudinal axis, wherein this shaft body comprises at least one first load coupling section, which serves for guiding of a force and/or a torque in and/or out of a functional component, wherein this shaft body consists at least partially of a first material, in which fibers made of an essentially non-metallic second material are at least partially embedded, characterized in that this shaft body comprises at least two, preferably at least three, fibre layers (L01 - L20) arranged in different radial distances to the longitudinal axis and that at least two fibre layers (L01 - L20) comprise different mechanical properties at least area by area and in particular a different stretching ability.
A system for determining fluid flow rate in a body lumen, the system comprising: a catheter including: a first lumen; a second lumen; one or more fluid infusion openings in communication with the first lumen and located at a distal end region of the catheter, the one or more fluid infusion openings are configured to permit fluid to exit the catheter from the first lumen; and one or more openings in communication with the second lumen and located at the distal end region of the catheter; and an optical fiber having a reflective surface at a distal end thereof, wherein the optical fiber is advanceable through the second lumen of the catheter and positionable distal of the one or more openings in communication with the second lumen; characterized in that the reflective surface is substantially transparent to one or more wavelengths of light and in that the optical fiber is configured to receive light reflecting from particles flowing in a body lumen. a catheter including: a first lumen; a second lumen; one or more fluid infusion openings in communication with the first lumen and located at a distal end region of the catheter, the one or more fluid infusion openings are configured to permit fluid to exit the catheter from the first lumen; and one or more openings in communication with the second lumen and located at the distal end region of the catheter; and a first lumen; a second lumen; one or more fluid infusion openings in communication with the first lumen and located at a distal end region of the catheter, the one or more fluid infusion openings are configured to permit fluid to exit the catheter from the first lumen; and one or more openings in communication with the second lumen and located at the distal end region of the catheter; and an optical fiber having a reflective surface at a distal end thereof, wherein the optical fiber is advanceable through the second lumen of the catheter and positionable distal of the one or more openings in communication with the second lumen; characterized in that the reflective surface is substantially transparent to one or more wavelengths of light and in that the optical fiber is configured to receive light reflecting from particles flowing in a body lumen.
A method for monitoring and controlling an extruder, the extruder comprising two intermeshing screws for driving a material to be extruded, the method comprising, while a material to be extruded is processed by the extruder: - continuously measuring the viscosity of the material in a flow of said material in the extruder, and - adjusting the extruder from corresponding material viscosity measurement results, characterized in that, in order to adjust the extruder, a material filling level of the extruder, at which the extruder is filled by the material along the intermeshing screws, is modified by adjusting, downstream from these screws, a passage section for the material based on the material viscosity measurement results. - continuously measuring the viscosity of the material in a flow of said material in the extruder, and - adjusting the extruder from corresponding material viscosity measurement results,
A negative pressure therapy system for inducing negative pressure into the renal pelvis and/or kidneys of a patient, the system comprising: a. at least one ureteral catheter configured to be positioned within a ureter and/or kidney of a patient; b. one or more sensor(s) configured to determine information about urine produced within a urinary tract of the patient; c. a pump assembly for imparting negative pressure to the renal pelvis and/or kidneys of the patient; d. a controller being configured to increase urine production of the patient by adjusting one or more operating parameters of the pump assembly, based at least in part upon the information determined by the one or more sensor(s). a. at least one ureteral catheter configured to be positioned within a ureter and/or kidney of a patient; b. one or more sensor(s) configured to determine information about urine produced within a urinary tract of the patient; c. a pump assembly for imparting negative pressure to the renal pelvis and/or kidneys of the patient; d. a controller being configured to increase urine production of the patient by adjusting one or more operating parameters of the pump assembly, based at least in part upon the information determined by the one or more sensor(s).
A corn head assembly for a combine harvester comprising: a frame for mounting to a forward end of the combine harvester; a conveyor extending across the frame for conveying crop material to a combine feeding location; a plurality of row units extending forward from the frame; and a plurality of dividers extending forward from the frame; characterized in that each row unit includes a catch plate for facingly engaging a flow of crop material, wherein the catch plate is positioned between a pair of dividers and includes a facing surface having a non-planar geometry. a frame for mounting to a forward end of the combine harvester; a conveyor extending across the frame for conveying crop material to a combine feeding location; a plurality of row units extending forward from the frame; and a plurality of dividers extending forward from the frame; characterized in that each row unit includes a catch plate for facingly engaging a flow of crop material, wherein the catch plate is positioned between a pair of dividers and includes a facing surface having a non-planar geometry.
An electric storage device comprising: an outer covering; an external terminal having an exposed face exposed outside from the outer covering; a current collector disposed inside the outer covering and connected to the external terminal; and an electrode assembly disposed inside the outer covering and connected to the current collector; wherein the outer covering is substantially in a shape of a rectangular parallelepiped and formed by a lid body forming one face of the outer covering and an electric storage device case forming the other faces; the electrode assembly is formed by winding sheet-shaped positive electrode and negative electrode into a flat shape with a separator interposed therebetween and housed in the electric storage device case so that curved portions obtained by the winding are positioned on a lid body side and a bottom face side; and the lid body has an electrolyte solution filling portion that opens to a clearance formed between the curved portion of the electrode assembly and the lid body characterized in that the filling portion is not formed on a longitudinal center line but formed in a position displaced towards a side edge such that it opens in a position displaced sideways from a position where the curved portion of the electrode assembly prodrudes the most.
A sub-assembly of external parts for a watch or for a piece of jewellery, including, coaxially with a first component and a second component compressing together a sealing and friction joint, and interposed therebetween, a bolt securing them together by axially blocking said first component, and a lower surface of which lies, in the assembled position, in the vicinity of an upper surface of said second component, characterised in that said bolt includes a lower relief protruding axially from said lower surface towards said second component, arranged to either complementarily cooperate with an oblong groove which is partially of revolution that said upper surface includes, and interrupted by a stopper limiting the angular travel between said second component and said bolt within a turn, or else to constitute an angular stopper to an upper relief protruding from said on upper face of said second component and extending axially towards said bolt.