mhurhangee/ep-ind-claims huggingface dataset:
A sliding structure for an internal combustion engine having a cylinder and a piston, a sliding structure of a cylinder and a piston characterized in that: on an inner wall surface of the cylinder, a stroke center region having a plurality of recesses below an edge of a reference stroke region on a side of a top dead center, the reference stroke region being formed from a lower surface position of a ring groove of a lowermost piston ring at the top dead center of the piston to an upper surface position of a ring groove of an uppermost piston ring at a bottom dead center of the piston (hereafter to be referred to as the reference stroke region); and on the inner wall surface, an upper smooth region not having the recesses is formed entirely from the edge of the reference stroke region on the side of the top dead center to an edge of the stroke center region on the side of the top dead center; characterized in that the piston rings installed in the ring grooves of the piston are configured such that both outer edges of an outer circumferential surface thereof in an axial direction opposed to the inner wall surface are provided with inclined surfaces that can be in contact with the inner wall surface while being inclined away from the inner wall surface outwardly in the axial direction, and a lubricating oil flows into a gap between the inner wall surface and the outer circumferential surface that relatively move via the inclined surfaces, thereby enabling fluid lubrication; and wherein a distance of the upper smooth region in a stroke direction is set to 30% or greater of a total distance of the reference stroke region. on an inner wall surface of the cylinder, a stroke center region having a plurality of recesses below an edge of a reference stroke region on a side of a top dead center, the reference stroke region being formed from a lower surface position of a ring groove of a lowermost piston ring at the top dead center of the piston to an upper surface position of a ring groove of an uppermost piston ring at a bottom dead center of the piston (hereafter to be referred to as the reference stroke region); and on the inner wall surface, an upper smooth region not having the recesses is formed entirely from the edge of the reference stroke region on the side of the top dead center to an edge of the stroke center region on the side of the top dead center; characterized in that the piston rings installed in the ring grooves of the piston are configured such that both outer edges of an outer circumferential surface thereof in an axial direction opposed to the inner wall surface are provided with inclined surfaces that can be in contact with the inner wall surface while being inclined away from the inner wall surface outwardly in the axial direction, and a lubricating oil flows into a gap between the inner wall surface and the outer circumferential surface that relatively move via the inclined surfaces, thereby enabling fluid lubrication; and wherein a distance of the upper smooth region in a stroke direction is set to 30% or greater of a total distance of the reference stroke region.
Use as a plant parasitic pest control agent against a plant pest of the order Acarina or nematodes of a parasitic pest control agent comprising a compound of Formula or a salt thereof as an active ingredient: wherein R1 represents a C1-C6 alkyl group, or a C1-C6 haloalkyl group; R2 represents a halogen atom, a C1-C6 alkyl group, or a C1-C6 alkoxy group; R3 represents a hydrogen atom, a halogen atom, or a C1-C6 alkyl group; n represents an integer of 0 to 5 (with the proviso that when n is 2 or greater, the two or more R2 represent independent substituents); X represents an oxygen atom or a sulfur atom; Y represents phenyl, the phenyl is substituted with substituent D at an ortho position and is optionally further substituted with 0 to 4 independent substituents D1, the bond with a broken line represents a double bond or a single bond, the substituent D is at least one selected from the group consisting of: a halogen atom; and the substituent D1 is at least one selected from the group consisting of: a halogen atom, a C1-C6 alkyl group, a C1-C6 alkoxy group, and a C1-C6 haloalkoxy group. R1 represents a C1-C6 alkyl group, or a C1-C6 haloalkyl group; R2 represents a halogen atom, a C1-C6 alkyl group, or a C1-C6 alkoxy group; R3 represents a hydrogen atom, a halogen atom, or a C1-C6 alkyl group; n represents an integer of 0 to 5 (with the proviso that when n is 2 or greater, the two or more R2 represent independent substituents); X represents an oxygen atom or a sulfur atom; Y represents phenyl, the phenyl is substituted with substituent D at an ortho position and is optionally further substituted with 0 to 4 independent substituents D1, the bond with a broken line represents a double bond or a single bond, the substituent D is at least one selected from the group consisting of: a halogen atom; and the substituent D1 is at least one selected from the group consisting of: a halogen atom, a C1-C6 alkyl group, a C1-C6 alkoxy group, and a C1-C6 haloalkoxy group.
A networking device for a Multi-Protocol Label Switching Transport Profile network, comprising: a transceiver configured to receive a Protection State Coordination message from another networking device; a state detecting unit configured to detect a local PSC state of the networking device; an inconsistency identifying unit configured to determine whether the received PSC message is a No Request message and the detected local PSC state is a Do-not-Revert state; and an inconsistency removing unit configured to, in the event of a simultaneous restoration of a working path and a protection path after a failure of the working path and the protection path: change the local PSC state from the DNR state to a Normal state, if the inconsistency identifying unit determines that the received PSC message is an NR message and the detected local PSC state is a DNR state. a transceiver configured to receive a Protection State Coordination message from another networking device; a state detecting unit configured to detect a local PSC state of the networking device; an inconsistency identifying unit configured to determine whether the received PSC message is a No Request message and the detected local PSC state is a Do-not-Revert state; and an inconsistency removing unit configured to, in the event of a simultaneous restoration of a working path and a protection path after a failure of the working path and the protection path: change the local PSC state from the DNR state to a Normal state, if the inconsistency identifying unit determines that the received PSC message is an NR message and the detected local PSC state is a DNR state.
A visual function improving agent that contains a nicotinamide mononucleotide as an active ingredient for use in an improvement of eye strain, of blurred vision, of presbyopia or of a VDT syndrome.
Water pipe tobacco capsule loaded with tobacco, said tobacco capsule being designed in such a way that two gas passage directions (G1, G2) which are opposite with respect to gas-permeable outer surfaces (1, 2) in use can be realized or are realized in use by turning the tobacco capsule, the tobacco capsule having in its interior at least one gas-permeable tobacco compartmentalizing element (3, 3', 3", 3′′′), wherein in the interior of the tobacco capsule at least two tobacco compartments (4, 5, 6, 7, 8) containing tobacco are formed and arranged serially in the gas passage direction (G1, G2), characterized in that it has at least one tobacco-free tobacco compartment (4, 5, 6, 7, 8) which is arranged serially with respect to the gas passage direction (G1, G2) to the at least two tobacco compartments (4, 5, 6, 7, 8).
An air spring comprising: a bellow at least partially delimiting at least one working chamber that is constructed and arranged to be filled with compressed air, and a guide tube surrounding at least a portion of the bellow, a damper, a support ring associated with a portion of the damper, a piston assembly comprising: a first piston member press-fitted to the damper, and a second piston member fitted with the first piston member, the second piston member being supported by the support ring, characterized in that, the bellow is constructed and arranged to roll with respect to an outer surface of the first piston member and an inner surface of the guide tube. a bellow at least partially delimiting at least one working chamber that is constructed and arranged to be filled with compressed air, and a guide tube surrounding at least a portion of the bellow, a damper, a support ring associated with a portion of the damper, a piston assembly comprising: a first piston member press-fitted to the damper, and a second piston member fitted with the first piston member, the second piston member being supported by the support ring, a first piston member press-fitted to the damper, and a second piston member fitted with the first piston member, the second piston member being supported by the support ring, characterized in that, the bellow is constructed and arranged to roll with respect to an outer surface of the first piston member and an inner surface of the guide tube.
Lamp having an LED unit, at least one optics unit, a heatsink and a housing, wherein the LED unit comprises a plurality of separate LEDs, wherein the LED unit is attached to the heatsink in a manner such that waste heat from the LEDs may be dissipated to the environment at least indirectly via the heatsink, wherein the optics unit is connected to the LED unit in a manner such that it influences the light that is emittable by the LEDs, wherein the housing is formed in the manner of a trough, wherein it extends along a longitudinal axis, wherein it has a U-shaped cross-sectional shape having a base and two U-legs in a region that is central with respect to the longitudinal axis, wherein the heatsink extends with a constant cross-sectional shape along the longitudinal axis, wherein the heatsink has a central section arranged transversely to the longitudinal axis between two lateral sections, wherein the central section forms a substantially planar support surface facing away from the housing, wherein the LED unit is attached to the support surface, wherein the lateral sections each have at least one first web that is oriented substantially perpendicularly to the support surface, wherein said web is formed in one piece with the central section, wherein the first webs each form a first free end of the heatsink that points toward the housing, wherein the U-legs of the housing each have a second free end pointing towards the heatsink, wherein the second free end rests against an associated first free end, wherein the LED unit and/or the at least one optics unit is surrounded in the shape of a U by the two lateral sections and the central section, characterized in that the two lateral sections each surround a second web oriented perpendicularly to the support surface, wherein the second web is arranged between the associated first web and the support surface, wherein the second web immediately adjoins the support surface, the first and the associated second web (25; 26) are connected to one another in one piece via a connection section so that they together form a U shape, wherein the U-shaped cross-sectional shape of the housing is covered by an end plate on both ends of the housing that face away from one another in the direction of the longitudinal axis, wherein the heatsink is attached exclusively to the two end plates.
A power connector configured to conduct a current of a power device and deliver the current to a load, the power connector is characterised by: a conductive frame comprising a base structure, an extension structure, and a cap structure that define a connector volume; wherein the base structure is coupled to an output node of at least one primary conductor of the power device, wherein the base structure is configured to receive the current from the at least one primary conductor, wherein the cap structure is arranged relative to the base structure, wherein the cap structure is configured to mechanically couple the power connector to the load, and wherein the cap structure is configured to receive the current from the base structure and output the current from the power connector to the load, wherein the extension structure is coupled to and extends between the base structure and the cap structure, wherein the extension structure is configured to receive the current from the base structure and deliver the current to the cap structure, wherein the extension structure includes a current constriction region that is configured to cause a defined magnetic field of the current flowing through the current constriction region at a position of a magnetic current sensor; and the magnetic current sensor is configured to generate a sensor signal based on the defined magnetic field produced by the current flowing through the current constriction region. a conductive frame comprising a base structure, an extension structure, and a cap structure that define a connector volume; wherein the base structure is coupled to an output node of at least one primary conductor of the power device, wherein the base structure is configured to receive the current from the at least one primary conductor, wherein the cap structure is arranged relative to the base structure, wherein the cap structure is configured to mechanically couple the power connector to the load, and wherein the cap structure is configured to receive the current from the base structure and output the current from the power connector to the load, wherein the extension structure is coupled to and extends between the base structure and the cap structure, wherein the extension structure is configured to receive the current from the base structure and deliver the current to the cap structure, wherein the extension structure includes a current constriction region that is configured to cause a defined magnetic field of the current flowing through the current constriction region at a position of a magnetic current sensor; and the magnetic current sensor is configured to generate a sensor signal based on the defined magnetic field produced by the current flowing through the current constriction region.
A binder system comprising: (i) an epoxy-based binder; (ii) trimethylolethane triglycidyl ether; (iii) a curing agent; and (iv) a homopolymerisation accelerator, wherein the wt% of trimethylolethane triglycidyl ether, based on the total dry weight of binder system, is higher than the wt% of epoxy-based binder, based on the total dry weight of the binder system. (i) an epoxy-based binder; (ii) trimethylolethane triglycidyl ether; (iii) a curing agent; and (iv) a homopolymerisation accelerator,
Drainage fitting (1,1') for a shower tub or bath tub, having a housing which has an inlet opening and a drain connection (2.2), the housing having a drain channel (2.1) which projects in the form of an arm and at the end of which the drain connection (2.2) is arranged, wherein the drain channel (2.1) has an undulating channel section (2.11) defining an overflow edge (2.5) for forming an odor trap, wherein the channel section (2.11), viewed in longitudinal section, has a convex bottom section (2.14) which extends at least as far as the overflow edge (2.5), and having a seal which surrounds the inlet opening, wherein a housing section (2.12) of the drain channel (2.1) located above the overflow edge (2.5) in the assembled state of the drain fitting (1, 1') projects upwards beyond the sealing surface (7.1), wherein the shortest horizontal distance (A K) of the highest point of the overflow edge (2.5) from the circumferential inner surface of the inlet opening is at least 0.9 times, preferably at least 1.1 times, particularly preferably at least 1;2 times the horizontal inner width of the inlet opening, the housing having a flange (2.7) carrying the seal, and wherein the overflow edge (2.5) lies at the same height or higher than the flange (2.7) carrying the seal or lies lower than the flange (2.7) carrying the seal, wherein, if the overflow edge (2.5) lies lower than the flange (2.7), the vertical distance of the overflow edge (2.5) from the upper side of the flange (2.7) is not more than 8 mm, preferably not more than 5 mm, characterized in that - the seal has a sealing surface (7.1) intended for abutment against the underside of a tub base, and in that - the convex bottom section (2.14) is designed in such a way that its arc radius is greater than half the overall height (H 1) of the housing. - the seal has a sealing surface (7.1) intended for abutment against the underside of a tub base, and in that - the convex bottom section (2.14) is designed in such a way that its arc radius is greater than half the overall height (H 1) of the housing.
Use of a composition comprising one or more isosorbide caprylates/caprates (composition A) in antiperspirants and deodorants for improving the action of the antiperspirants and deodorants with regard to the duration of reducing body odour.
A receiver (802-805; 1502, 1503; 2002-2005) for receiving a radio frequency signal in a distribution system (801; 1501; 2001), the receiver comprising: an A-port (806, 808, 810, 812; 1504; 2006; 2101) providing radio frequency connectivity to a first antenna (820; 1511; 2110) via the distribution system; a B-port (807, 809, 811, 813; 1505; 2008) providing RF connectivity to a second antenna (821; 1512; 2111) via the distribution system; and a processor (1508, 1518; 2105; 2208) configured to perform: receiving received data from the distribution system via the B-port; processing the received data to obtain processed data; and sending the processed data to the distribution system via the A-port, characterised in that: the receiver further comprises an RF scanner, and in that the processor is further configured to perform: obtaining an indication to perform a scan by the RF scanner; initiating, based on the indication, the scan by the RF scanner; obtaining scan results from the RF scanner; including the scan results in the processed data; and passing the processed data to a next receiver via the distribution system through the A-port. an A-port (806, 808, 810, 812; 1504; 2006; 2101) providing radio frequency connectivity to a first antenna (820; 1511; 2110) via the distribution system; a B-port (807, 809, 811, 813; 1505; 2008) providing RF connectivity to a second antenna (821; 1512; 2111) via the distribution system; and a processor (1508, 1518; 2105; 2208) configured to perform: receiving received data from the distribution system via the B-port; processing the received data to obtain processed data; and sending the processed data to the distribution system via the A-port, receiving received data from the distribution system via the B-port; processing the received data to obtain processed data; and sending the processed data to the distribution system via the A-port, characterised in that: the receiver further comprises an RF scanner, and in that the processor is further configured to perform: obtaining an indication to perform a scan by the RF scanner; initiating, based on the indication, the scan by the RF scanner; obtaining scan results from the RF scanner; including the scan results in the processed data; and passing the processed data to a next receiver via the distribution system through the A-port. obtaining an indication to perform a scan by the RF scanner; initiating, based on the indication, the scan by the RF scanner; obtaining scan results from the RF scanner; including the scan results in the processed data; and passing the processed data to a next receiver via the distribution system through the A-port.
Method for plausibility checking a drive torque, applied by an electric machine, in a hybrid drive of a motor vehicle, wherein the motor vehicle is driven by the electric machine and/or an internal combustion engine, wherein after the conditioning of the hybrid drive has been terminated in the idling mode it is checked whether the drive torque (Md Eres) which is applied by the electric machine is precisely determined, characterized in that the drive torque (Md Eres) which is applied by the electric machine is evaluated in terms of its precision by means of a drag torque (Md VSchlepp) which is generated by the internal combustion engine during an overrun cut-off.
A blocked lens for on-block processing and visual inspection, the blocked lens comprising: a lens blank having a front surface and a back surface; a lens blocking piece, affixed to the front surface of the lens blank, to hold the lens blank while processing the back surface of the lens blank; and an opaque material, in optical communication with the back surface of the lens blank and the front surface of the lens blank, characterized in that the opaque material is further configured to absorb visible light propagating through the back surface of the lens blank towards the front surface of the lens blank so as to facilitate inspection of the back surface of the lens blank while the lens blocking piece is affixed to the front surface of the lens blank. a lens blank having a front surface and a back surface; a lens blocking piece, affixed to the front surface of the lens blank, to hold the lens blank while processing the back surface of the lens blank; and an opaque material, in optical communication with the back surface of the lens blank and the front surface of the lens blank, characterized in that the opaque material is further configured to absorb visible light propagating through the back surface of the lens blank towards the front surface of the lens blank so as to facilitate inspection of the back surface of the lens blank while the lens blocking piece is affixed to the front surface of the lens blank.
Transmission with a planetary stage; wherein a planet carrier of the planetary stage has a first toothing and at least one lubricant line (103, 105) with a first outlet opening; wherein the first toothing forms with a second toothing formed by a further component of the transmission a spline toothing; wherein the first outlet opening is configured for lubrication of the spline toothing; wherein the lubricant line (103, 105) has a second outlet opening; wherein the lubricant line (103, 105) comprises a first bore and a second bore; wherein the first bore forms the first outlet opening and opens into the second bore; and wherein the second bore forms an inlet opening of the lubricant line (103, 105) and the second outlet opening; characterized in that the second outlet opening is configured for lubrication of a sun gear of the planetary stage. a planet carrier of the planetary stage has a first toothing and at least one lubricant line (103, 105) with a first outlet opening; wherein the first toothing forms with a second toothing formed by a further component of the transmission a spline toothing; wherein the first outlet opening is configured for lubrication of the spline toothing; wherein the lubricant line (103, 105) has a second outlet opening; wherein the lubricant line (103, 105) comprises a first bore and a second bore; wherein the first bore forms the first outlet opening and opens into the second bore; and wherein the second bore forms an inlet opening of the lubricant line (103, 105) and the second outlet opening; characterized in that the second outlet opening is configured for lubrication of a sun gear of the planetary stage.