mhurhangee/ep-ind-claims huggingface dataset:
Mobile classifying or screening device having a chassis and a frame arranged on the chassis for a classifying apparatus having at least one screening surface for separating a fed screening material into at least two screening fractions, wherein the chassis has a longitudinal direction oriented in the direction of travel and a transverse direction oriented perpendicular to the longitudinal direction, and the frame comprises two lateral frame parts (12.1, 12.2), each formed by longitudinal bars extending in the longitudinal direction, connected by webs extending transversely to the longitudinal bars and comprising an uppermost longitudinal bar and a lowermost longitudinal bar, and at least two transverse bars (16, 17, 18, 19) extending in the transverse direction and connecting the two lateral frame parts (12.1, 12.2) to each other in the region of their respective lowermost longitudinal bars, characterized in that the classifying apparatus is mounted on the longitudinal bars and a storage and metering unit, which is arranged adjacent to the classifying apparatus and mounted on the longitudinal bars, is provided for the screening material and is designed as a trough-shaped delivery channel with a substantially horizontal delivery direction for the screening material from the delivery channel onto the adjacent screening surface.
A spring assembly comprising: an inner spring located inside an outer spring, wherein said outer spring comprises an outer cross-sectional profile; wherein said inner spring comprises an inner cross-sectional profile; a helical ribbon spring as the outer spring, said outer spring comprising a plurality of interconnected coils; wherein said inner cross-sectional profile is located within said outer cross-sectional profile and biased against interior surfaces of the plurality of interconnected coils; characterised in that the outer spring has two ends (178, 180) that are joined to form a spring ring, the inner spring has two ends (182, 184) that are joined to form a spring ring, or both the outer spring has two ends (178, 180) that are joined to form a spring ring and the inner spring has two ends (182, 184) that are joined to form a spring ring; and wherein said inner spring is a canted coil spring comprising a plurality of interconnected coils all canted in a same direction, and wherein each of the plurality of interconnected coils of the inner spring comprises a cross-sectional profile comprising a cross-sectional height dimension and a cross-sectional width dimension. an inner spring located inside an outer spring, wherein said outer spring comprises an outer cross-sectional profile; wherein said inner spring comprises an inner cross-sectional profile; a helical ribbon spring as the outer spring, said outer spring comprising a plurality of interconnected coils; wherein said inner cross-sectional profile is located within said outer cross-sectional profile and biased against interior surfaces of the plurality of interconnected coils; characterised in that the outer spring has two ends (178, 180) that are joined to form a spring ring, the inner spring has two ends (182, 184) that are joined to form a spring ring, or both the outer spring has two ends (178, 180) that are joined to form a spring ring and the inner spring has two ends (182, 184) that are joined to form a spring ring; and wherein said inner spring is a canted coil spring comprising a plurality of interconnected coils all canted in a same direction, and wherein each of the plurality of interconnected coils of the inner spring comprises a cross-sectional profile comprising a cross-sectional height dimension and a cross-sectional width dimension.
A method for manufacturing a device comprising at least one passive optical component, said method comprising the steps of manufacturing a wafer comprising at least one blocking portion (b) and a multitude of transparent elements; wherein each of said multitude of transparent elements is made of one or more materials substantially transparent for light of at least a specific spectral range, referred to as transparent materials, and said at least one blocking portion (b) is made of one or more materials substantially non-transparent for light of said specific spectral range, referred to as non-transparent materials, wherein manufacturing the wafer comprises the steps of: - embossing or molding a precursor wafer made of said non-transparent material having openings in places where said transparent elements are supposed to be located, wherein said non-transparent material is a polymer material; - providing a support layer on a lower side of the precursor wafer -, at least partially filling said openings with at least one of said transparent materials, wherein a vertical extension of each of said multitude of transparent elements is at least approximately equal to a vertical extension of said at least one blocking portion (b), wherein each of the transparent elements has two opposing at least approximately flat surfaces perpendicular to a vertical direction (z); - producing on each of said multitude of transparent elements at least one optical structure. - embossing or molding a precursor wafer made of said non-transparent material having openings in places where said transparent elements are supposed to be located, wherein said non-transparent material is a polymer material; - providing a support layer on a lower side of the precursor wafer -, at least partially filling said openings with at least one of said transparent materials, wherein a vertical extension of each of said multitude of transparent elements is at least approximately equal to a vertical extension of said at least one blocking portion (b), wherein each of the transparent elements has two opposing at least approximately flat surfaces perpendicular to a vertical direction (z); - producing on each of said multitude of transparent elements at least one optical structure.
A process for manufacturing dyestuffs comprising the steps of (i) Providing vegetal biomass; (ii) Pretreating said vegetal biomass with an aqueous alkaline medium and/or with an amino or polyamino compound, at elevated temperatures; (iii) Mixing the pretreated vegetal biomass with a sulfurization agent selected from the group consisting of sulfur, sulfide, polysulfide and a combination thereof; (iv) Heating said mixture to a temperature of between 120 and 350 °C for at least 2 hours; (v) Dissolving the mixture obtained in step (iv) in aqueous medium and optionally removing undissolved solid particles. (i) Providing vegetal biomass; (ii) Pretreating said vegetal biomass with an aqueous alkaline medium and/or with an amino or polyamino compound, at elevated temperatures; (iii) Mixing the pretreated vegetal biomass with a sulfurization agent selected from the group consisting of sulfur, sulfide, polysulfide and a combination thereof; (iv) Heating said mixture to a temperature of between 120 and 350 °C for at least 2 hours; (v) Dissolving the mixture obtained in step (iv) in aqueous medium and optionally removing undissolved solid particles.
Electrical interruption switch, in particular for interrupting high currents at high voltages, (a) comprising a housing which encloses a contact unit defining the current path through the interruption switch, and (b) wherein the contact unit has a first and a second connection contact (4, 5) and a separation region, (c) wherein the contact unit is designed such that a current can be supplied thereto via the first connection contact and can be discharged therefrom via the second connection contact, or vice versa, (d) wherein the separation region is designed as a tubular element, the axial extension direction of which extends along an axis X, wherein the tubular element is separable into two parts along a plane perpendicular to the axis X, as a result of which the current between the first and the second connection contact (4, 5) is interrupted, (e) wherein the tubular element has two opposite end regions along the extension direction of the axis X, which end regions transition into flanges which extend in the direction of the housing perpendicularly to the axis X, wherein between the separation region and the flanges there are cross-sectional transitions which are provided with certain radii, (f) wherein the tubular element has a minimum wall thickness in a region between the end regions, characterized in that (g) the wall thickness increases in the direction of the end regions up to the cross-sectional transitions. (a) comprising a housing which encloses a contact unit defining the current path through the interruption switch, and (b) wherein the contact unit has a first and a second connection contact (4, 5) and a separation region, (c) wherein the contact unit is designed such that a current can be supplied thereto via the first connection contact and can be discharged therefrom via the second connection contact, or vice versa, (d) wherein the separation region is designed as a tubular element, the axial extension direction of which extends along an axis X, wherein the tubular element is separable into two parts along a plane perpendicular to the axis X, as a result of which the current between the first and the second connection contact (4, 5) is interrupted, (e) wherein the tubular element has two opposite end regions along the extension direction of the axis X, which end regions transition into flanges which extend in the direction of the housing perpendicularly to the axis X, wherein between the separation region and the flanges there are cross-sectional transitions which are provided with certain radii, (f) wherein the tubular element has a minimum wall thickness in a region between the end regions, characterized in that (g) the wall thickness increases in the direction of the end regions up to the cross-sectional transitions.
A laser scanner for scanning an environment about an axis, comprising a base with a laser transmitter for transmitting a transmission beam, a laser receiver for receiving the transmission beam reflected from the environment as a reception beam, a shared rotating mirror for the transmission and reception beams (7, 9), which is inclined towards the axis, and a motor for rotating the rotating mirror about the axis; an annular window for the passage of the transmitting and reception beams (7, 9), which is supported by the base and arranged all around the rotating mirror; and a head, which is supported by the annular window so that it is facing away from the base and which contains a first deflector for the transmission beam, said first deflector being directed towards the rotating mirror and a second deflector for the reception beam, said second deflector being directed towards the rotating mirror; wherein a flexible first light guide is connected to the laser transmitter and a flexible second light guide is connected to the laser receiver, wherein the head supports a first support for the outlet of the flexible first light guide and a second support for the inlet of the flexible second light guide, and wherein the first support rigidly directs the outlet towards the first deflector and the second support rigidly directs the inlet towards the second deflector. a base with a laser transmitter for transmitting a transmission beam, a laser receiver for receiving the transmission beam reflected from the environment as a reception beam, a shared rotating mirror for the transmission and reception beams (7, 9), which is inclined towards the axis, and a motor for rotating the rotating mirror about the axis; an annular window for the passage of the transmitting and reception beams (7, 9), which is supported by the base and arranged all around the rotating mirror; and a head, which is supported by the annular window so that it is facing away from the base and which contains a first deflector for the transmission beam, said first deflector being directed towards the rotating mirror and a second deflector for the reception beam, said second deflector being directed towards the rotating mirror; wherein a flexible first light guide is connected to the laser transmitter and a flexible second light guide is connected to the laser receiver, wherein the head supports a first support for the outlet of the flexible first light guide and a second support for the inlet of the flexible second light guide, and wherein the first support rigidly directs the outlet towards the first deflector and the second support rigidly directs the inlet towards the second deflector.
A pharmaceutical composition characterized by a content of one or more tiotropium salts in combination with one or more sparingly soluble salmeterol salts, the salmeterol salts 2 being selected from the acid addition salts of salmeterol 2' with one of the following acids: 2-hydroxy-1-naphthoic acid, 3,5-dichlorosalicylic acid, furan-2-carboxylic acid, 2,5-dihydroxyterephthalic acid, cinnamic acid, triphenylacetic acid, 4-phenylcinnamic acid, biphenyl-2-carboxylic acid, 4-trifluoromethylcinnamic acid, 9-fluorenylidene acetic acid, 3-(2-naphthyl)acrylic acid, 3-(1-naphthyl)acrylic acid, 1-naphthoic acid, 2,6-dichlorobenzoic acid, 3,4-dichlorobenzoic acid, 3,5-dichlorobenzoic acid, 4-bromobenzoic acid, 4-trifluoromethylbenzoic acid, 4-isopropylbenzoic acid, 4-tert-butylbenzoic acid, 3-(3-indolyl)acrylic acid, 2,4-dichlorocinnamic acid, 2,6-dichlorocinnamic acid, 2,5-dimethoxycinnamic acid, 2-trifluoromethylcinnamic acid, 3-trifluoromethylcinnamic acid, 3-chlorocinnamic acid, 3,4-dichlorocinnamic acid, 4-bromocinnamic acid, 4-chlorocinnamic acid, 4-methoxycinnamic acid, 4-fluorocinnamic acid, 4-isopropylcinnamic acid, 4-tert-butylcinnamic acid, 2,6-difluorocinnamic acid, 2,4-difluorocinnamic acid, 3,4-difluorocinnamic acid, 2,4,5-trifluorocinnamic acid, 3,4,5-trifluorocinnamic acid, 3-methoxysalicylic acid, 4-methoxysalicylic acid, 5-methoxysalicylic acid, 4-methylsalicylic acid, 5-aminosalicylic acid, 3-chlorosalicylic acid, 5-sulfosalicylic acid, 5-acetylsalicylic acid, 3,5-diiodosalicylic acid, isoquinoline-1-carboxylic acid, 9-fluorenecarboxylic acid, 9-fluorenone-1-carboxylic acid, 3,5-diisopropylsalicylic acid, or diflunisal; and having a solubility in water of 0.1 mg/mL or less.
A vehicle comprising: a power storage device that is chargeable with electric power supplied from an external power supply provided outside the vehicle; a cooling device that cools the power storage device; and a controller that controls a charging operation for the power storage device such that the power storage device is charged under a charging condition of a constant current or a constant power over a charging period from start of charging to satisfaction of a completion condition, wherein the controller sets the charging condition such that a temperature of the power storage device when the completion condition is satisfied becomes an upper limit temperature, based on an amount of heat generation in the power storage device caused by charging and an amount of cooling of the power storage device by the cooling device, characterised in that the vehicle has a plurality of charging modes that can be selected by a user of the vehicle, the plurality of charging modes includes a first mode and a second mode, and when the first mode is selected by the user, the controller sets (i) the upper limit temperature lower and (ii) the constant current or the constant power smaller compared to when the second mode is selected by the user. a power storage device that is chargeable with electric power supplied from an external power supply provided outside the vehicle; a cooling device that cools the power storage device; and a controller that controls a charging operation for the power storage device such that the power storage device is charged under a charging condition of a constant current or a constant power over a charging period from start of charging to satisfaction of a completion condition, wherein the controller sets the charging condition such that a temperature of the power storage device when the completion condition is satisfied becomes an upper limit temperature, based on an amount of heat generation in the power storage device caused by charging and an amount of cooling of the power storage device by the cooling device, characterised in that the vehicle has a plurality of charging modes that can be selected by a user of the vehicle, the plurality of charging modes includes a first mode and a second mode, and when the first mode is selected by the user, the controller sets (i) the upper limit temperature lower and (ii) the constant current or the constant power smaller compared to when the second mode is selected by the user.
A catheter assembly for modifying intravascular lesions, comprising: a sonic connector at a proximal end of a core wire, the sonic connector configured to couple to an ultrasound-producing mechanism and transmit vibrational energy to the proximal end of the core wire, which core wire includes a distal end portion; a damping mechanism including a gasket system around a proximal end portion of the core wire in a damping-mechanism bore of the catheter assembly, the damping mechanism configured to damp the vibrational energy; and a heat sink (410; 510A, 510B; 710; 810) connected to the damping mechanism, characterised in that the heat sink (410; 510A, 510B; 710; 810) includes a first sleeve (412; 512; 712; 812) around the gasket system and a second sleeve (412; 512A, 512B; 712; 812) around the first sleeve (412; 512; 712; 812), and the first sleeve (412; 512; 712; 812) includes a cavity formed by a circumferential groove around the first sleeve (412; 512; 712; 812), the cavity is filled with a coolant, and the second sleeve (412; 512A, 512B; 712; 812) is disposed over the cavity. a sonic connector at a proximal end of a core wire, the sonic connector configured to couple to an ultrasound-producing mechanism and transmit vibrational energy to the proximal end of the core wire, which core wire includes a distal end portion; a damping mechanism including a gasket system around a proximal end portion of the core wire in a damping-mechanism bore of the catheter assembly, the damping mechanism configured to damp the vibrational energy; and a heat sink (410; 510A, 510B; 710; 810) connected to the damping mechanism, characterised in that the heat sink (410; 510A, 510B; 710; 810) includes a first sleeve (412; 512; 712; 812) around the gasket system and a second sleeve (412; 512A, 512B; 712; 812) around the first sleeve (412; 512; 712; 812), and the first sleeve (412; 512; 712; 812) includes a cavity formed by a circumferential groove around the first sleeve (412; 512; 712; 812), the cavity is filled with a coolant, and the second sleeve (412; 512A, 512B; 712; 812) is disposed over the cavity.
A bone implant composite comprising a collagen matrix and calcium-based mineral, the calcium-based mineral having a particle size of 25-2000 μm and being interspersed in the collagen matrix; wherein the bone implant composite contains 3-60% by weight the collagen matrix and 40-97% by weight the calcium-based mineral, and has a pore size of 50-500 μm, a density range of 0.02-0.8 g/cm 3, a tensile strength range of 0.4-100 kg/cm 2, and a compression modulus range of 0.2 to 10 kg/cm 2, and wherein the bone implant composite is formed by freeze-drying a suspension of type I, type II or type III collagen fibers followed by contacting the dried mixture with a crosslinking agent to crosslink the collagen fibers, the suspension of collagen fibers being obtained by dispersing collagen fibers and calcium-based mineral in an acidic or basic aqueous solution.
A process for constructing an aircraft fuselage panel comprising a skin and at least one reinforcement (18, 20, 28) attached to said skin, said skin being obtained by shaping a metal sheet according to the geometry of said skin, the process being characterized in that at least one reinforcement (18, 20, 28) is obtained by overmolding.
A solar junction box for a solar panel having at least one photovoltaic cell and a foil electrically connected to the at least one cell, the solar junction box comprising: a housing having a base and walls defining a cavity, the cavity extending along a primary axis and a secondary axis generally perpendicular to the primary axis, the base having at least one foil opening; a protection device received in the cavity; a terminal received in the cavity, the terminal having a protection device contact terminated to the protection device, the terminal having a foil contact configured to be terminated to the foil, characterized in that the foil contact is oriented within the cavity such that the foil contact is configured to be terminated to the foil when the foil extends into the foil opening along the primary axis and such that the foil contact is configured to be terminated to the foil when the foil extends into the foil opening along the secondary axis. a housing having a base and walls defining a cavity, the cavity extending along a primary axis and a secondary axis generally perpendicular to the primary axis, the base having at least one foil opening; a protection device received in the cavity; a terminal received in the cavity, the terminal having a protection device contact terminated to the protection device, the terminal having a foil contact configured to be terminated to the foil, characterized in that the foil contact is oriented within the cavity such that the foil contact is configured to be terminated to the foil when the foil extends into the foil opening along the primary axis and such that the foil contact is configured to be terminated to the foil when the foil extends into the foil opening along the secondary axis.
An engine device comprising a flywheel housing in which a flywheel that is rotated integrally with a crankshaft is accommodated on one side portion of a cylinder block, wherein the cylinder block is integrally formed with housing bracket portions (304, 305) each protruding in a direction away from the crankshaft from each of opposite side portions of the cylinder block extending along a crankshaft axial direction, the housing bracket portions (304, 305) protruding from end portions of the opposite side portions close to the one side portion, and a space surrounded by the one side portion, the housing bracket portions (304, 305), and the flywheel housing constitutes a gear case for accommodating therein a gear train, characterized in that the gear train includes: a crank gear fixed to the crankshaft; an idling gear meshed with the crank gear; a cam gear fixed to a camshaft and meshed with the idling gear; and a pump gear fixed to a pump shaft of a fuel feed pump and meshed with the idling gear, and wherein the flywheel housing has an attaching seating for a crank rotation angle detector and an attaching seating for a rotation shaft rotation angle detector; wherein a crank rotation angle detector configured to detect a rotation angle of the crankshaft and a rotation shaft rotation angle detector configured to detect a rotation angle of the cam gear or the pump gear are mounted to the flywheel housing.