mhurhangee/ep-ind-claims huggingface dataset:
A thick steel sheet having excellent low temperature impact toughness and CTOD properties, comprising: by weight%, 0.02 to 0.055% of C, 0.005 to 0.08% of Si, 1.0 to 2.0% of Mn, 0.01% or less of P, 0.003% or less of S, 0.001 to 0.01% of Al, 0.5 to 2.0% of Ni, 0.001 to 0.02% of Ti, 0.005 to 0.03% of Nb, 0.05 to 0.4% of Cu, 0.002 to 0.006% of N, and a balance of Fe and inevitable impurities, wherein the thick steel sheet satisfies Equation 1 and Equation 2 below, 3.0 ≤ Mn + 2 Ni ≤ 4.3 0.05 ≤ C + Si + 10 Al ≤ 0.25 where each element symbol indicates a content of each element by weight%, and wherein a microstructure consists of ferrite of 95 area% or higher, and a sum of martensite-austenite MA and cementite of 2 area% or lower, and wherein the thick steel sheet has yield strength of 420MPa or higher, impact toughness of 200J or higher at -80°C, and a CTOD of 0.5mm or higher at -60°C, and wherein the thick steel sheet has tensile strength of 500MPa or higher, an elongation rate of 25% or higher, and impact toughness of 400J or higher at -60°C, and wherein the thick steel sheet has a thickness of 50 to 100mm, wherein the impact toughness was measured through a charpy impact test at -80°C and -60°C, and for CTOD properties, a sample was processed in accordance with BS 7448 standards, as defined in the description. by weight%, 0.02 to 0.055% of C, 0.005 to 0.08% of Si, 1.0 to 2.0% of Mn, 0.01% or less of P, 0.003% or less of S, 0.001 to 0.01% of Al, 0.5 to 2.0% of Ni, 0.001 to 0.02% of Ti, 0.005 to 0.03% of Nb, 0.05 to 0.4% of Cu, 0.002 to 0.006% of N, and a balance of Fe and inevitable impurities, wherein the thick steel sheet satisfies Equation 1 and Equation 2 below, 3.0 ≤ Mn + 2 Ni ≤ 4.3 0.05 ≤ C + Si + 10 Al ≤ 0.25 where each element symbol indicates a content of each element by weight%, and wherein a microstructure consists of ferrite of 95 area% or higher, and a sum of martensite-austenite MA and cementite of 2 area% or lower, and wherein the thick steel sheet has yield strength of 420MPa or higher, impact toughness of 200J or higher at -80°C, and a CTOD of 0.5mm or higher at -60°C, and wherein the thick steel sheet has tensile strength of 500MPa or higher, an elongation rate of 25% or higher, and impact toughness of 400J or higher at -60°C, and wherein the thick steel sheet has a thickness of 50 to 100mm, wherein the impact toughness was measured through a charpy impact test at -80°C and -60°C, and for CTOD properties, a sample was processed in accordance with BS 7448 standards, as defined in the description.
An atomiser assembly for an electronic vapour provision device comprising: a vaporiser for vaporising source liquid: a liquid delivery mechanism for delivering source liquid from a reservoir to the vaporiser; and an absorbent buffer element contacting the liquid delivery mechanism between ar outlet of the reservoir and the vaporiser characterised by the absorbent buffer element being less hydrophilic to the source liquid than the liquid delivery mechanism. a vaporiser for vaporising source liquid: a liquid delivery mechanism for delivering source liquid from a reservoir to the vaporiser; and an absorbent buffer element contacting the liquid delivery mechanism between ar outlet of the reservoir and the vaporiser characterised by the absorbent buffer element being less hydrophilic to the source liquid than the liquid delivery mechanism.
Assemblies or MEA device comprising a membrane, said membrane comprising openings for the comburent, fuel and cooling fluid transport, and, on each side two electrocatalytic layers, wherein: - the area of each of the two electrocatalytic layers is lower than that of the membrane; - on each of the two sides of the ionomeric membrane there is at least one subgasket, applied on the MEA non catalyzed area; the edges of the ionomeric membranes being enclosed among said subgaskets, wherein the term edges of the ionomeric membranes mean the membrane external edge and the edges of the openings made in the membrane for the comburent, fuel and cooling fluid transport. - the area of each of the two electrocatalytic layers is lower than that of the membrane; - on each of the two sides of the ionomeric membrane there is at least one subgasket, applied on the MEA non catalyzed area;
A tire comprising: a plurality of main grooves (10, 20) which extend in a tire circumferential direction; and land portions (30, 40) which are segmented by the main grooves, wherein an outermost main groove formed at an outermost side in a tire width direction among the plurality of main grooves includes a first groove wall inward in the tire width direction; and a second groove wall outward in the tire width direction, the outermost main groove has a wedge-shaped part in which an interval between the first groove wall and the second groove wall is reduced toward one side of the tire circumferential direction, the wedge-shaped part being repeated in the tire circumferential direction, the first groove wall has a plurality of first projections with apexes that project outward in the tire width direction, along the tire circumferential direction, the second groove wall has a plurality of second projections with apexes that project inward in the tire width direction, along the tire circumferential direction, and an interval between the apexes of the first projections adjacent to each other in the tire circumferential direction is larger than an interval between the apexes of the second projections adjacent to each other in the tire circumferential direction, wherein the first projections have first inclined wall surfaces and first connection wall surfaces and are formed that the first inclined wall surfaces and the first connection wall surfaces are alternately continued in the tire circumferential direction, the first inclined wall surfaces are provided along the tire circumferential direction at a regular interval and inclined with respect to the tire circumferential direction, the second projections have second inclined wall surfaces and second connection wall surfaces and are formed that the second inclined wall surfaces and the second connection wall surfaces are alternately continued in the tire circumferential direction, the second inclined wall surfaces are provided along the tire circumferential direction at a regular interval and inclined with respect to a virtual line along the tire circumferential direction, and wherein a length in the tire circumferential direction of each first inclined wall surface is longer than a length in the tire circumferential direction of each first connection wall surface, and a length in the tire circumferential direction of each second inclined wall surface is longer than a length in the tire circumferential direction of each second connection wall surface, characterized in that each first connection wall surface connects end portions of the first inclined wall surfaces adjacent to each other in the tire circumferential direction, and each second connection wall surface connects end portions of the second inclined wall surfaces adjacent to each other in the tire circumferential direction.
A resettable injection training device, comprising: a housing, comprising a proximal end and a distal end, the housing defining a cavity; a plunger slidable relative to the housing between the proximal end and the distal end; a releasably locking shield comprising a proximal end and a distal end, the shield being slidably engaged with the housing and movable between a retracted, pre-use position and an extended, post-use position; a flat biasing member for locking the shield in the extended, post-use position; a compressing component, said compressing component slidable relative to the housing; wherein pressure on the flat biasing member from the compressing component deforms the flat biasing member, unlocking the shield, and wherein a release of contact between the compressing component and the flat biasing member locks the shield in an extended, post-use position. a housing, comprising a proximal end and a distal end, the housing defining a cavity; a plunger slidable relative to the housing between the proximal end and the distal end; a releasably locking shield comprising a proximal end and a distal end, the shield being slidably engaged with the housing and movable between a retracted, pre-use position and an extended, post-use position; a flat biasing member for locking the shield in the extended, post-use position; a compressing component, said compressing component slidable relative to the housing; wherein pressure on the flat biasing member from the compressing component deforms the flat biasing member, unlocking the shield, and wherein a release of contact between the compressing component and the flat biasing member locks the shield in an extended, post-use position.
A windrower operable to be advanced along a field to cut a forage plant crop and to transport a flow of severed plant material to a location spaced laterally from the windrower, said windrower comprising: a header supported to sever the forage plant crop and discharge the severed plant material; and a dual conveyor assembly located rearwardly of the header to collect severed plant material and transport a flow of severed plant material to the location, said dual conveyor assembly including upper and lower conveyors, each including an endless conveyor element (90, 46) and rotatable supports (86, 44) spaced along a longitudinal conveyor path and entrained by the endless conveyor element, said endless conveyor elements defining vertically spaced opposed runs that define the longitudinal conveyor path therebetween, with the opposed runs operable to be driven together to move the flow of severed plant material along the path, at least one of said opposed runs being shiftable relative to the other opposed run in an upright direction, while the runs are driven together, such that the opposed runs remain in moving engagement with the flow of severed plant material as the amount of severed plant material passing between the opposed runs varies, characterized in that said upper conveyor is biased downwardly into engagement with the flow of severed plant material. a header supported to sever the forage plant crop and discharge the severed plant material; and a dual conveyor assembly located rearwardly of the header to collect severed plant material and transport a flow of severed plant material to the location, said dual conveyor assembly including upper and lower conveyors, each including an endless conveyor element (90, 46) and rotatable supports (86, 44) spaced along a longitudinal conveyor path and entrained by the endless conveyor element, said endless conveyor elements defining vertically spaced opposed runs that define the longitudinal conveyor path therebetween, with the opposed runs operable to be driven together to move the flow of severed plant material along the path, at least one of said opposed runs being shiftable relative to the other opposed run in an upright direction, while the runs are driven together, such that the opposed runs remain in moving engagement with the flow of severed plant material as the amount of severed plant material passing between the opposed runs varies,
An LED illumination device for forming an LED backlight, the device comprising: a monolithic LED array having a surface and comprising a plurality of LEDs configured to emit light from the surface of the monolithic LED array; a monolithic collimator array comprising a plurality of collimator channels, and being aligned so that each of the collimator channels is aligned with one or more of the plurality of LEDs, wherein the collimator channels are configured to collimate emitted light emitted from the LEDs to angles in the range of +/-50° from a line substantially normal to the surface of the monolithic LED array; and a microlens array configured to focus the light collimated by the collimator channels to infinity, the microlens array comprising a plurality of lenslets, each lenslet aligned with a collimator channel of the monolithic collimator array. a monolithic LED array having a surface and comprising a plurality of LEDs configured to emit light from the surface of the monolithic LED array; a monolithic collimator array comprising a plurality of collimator channels, and being aligned so that each of the collimator channels is aligned with one or more of the plurality of LEDs, wherein the collimator channels are configured to collimate emitted light emitted from the LEDs to angles in the range of +/-50° from a line substantially normal to the surface of the monolithic LED array; and a microlens array configured to focus the light collimated by the collimator channels to infinity, the microlens array comprising a plurality of lenslets, each lenslet aligned with a collimator channel of the monolithic collimator array.
A method for electrode placement, comprising: acquiring an image of a body of a patient, such that the image captures a patch that has been placed on the body; calculating by a processor, based on the acquired image and the patch appearing therein, one or more preferred locations (24A, 24B)on the body for placing one or more respective electrodes to be used in carrying out a procedure in an internal organ of the patient including defining clearance zones around each of the one or more respective electrodes, wherein the width of the clearance zone around each of the one or more respective electrodes is determined by the type of electrode; and outputting the preferred locations to an operator, wherein calculating and outputting the preferred locations comprises receiving at least first and second images in which the body appears at different respective positions, and overlaying the preferred locations over the body in the at least first and second images while compensating for the different positions. acquiring an image of a body of a patient, such that the image captures a patch that has been placed on the body; calculating by a processor, based on the acquired image and the patch appearing therein, one or more preferred locations (24A, 24B)on the body for placing one or more respective electrodes to be used in carrying out a procedure in an internal organ of the patient including defining clearance zones around each of the one or more respective electrodes, wherein the width of the clearance zone around each of the one or more respective electrodes is determined by the type of electrode; and outputting the preferred locations to an operator, wherein calculating and outputting the preferred locations comprises receiving at least first and second images in which the body appears at different respective positions, and overlaying the preferred locations over the body in the at least first and second images while compensating for the different positions.
A friction clutch for a drivetrain of a motor vehicle, having: - an input part with an outer plate carrier rotatable about an axis of rotation by at least one drive motor, wherein at least one outer plate is attached to the outer plate carrier; - an output part with a rotor carrier and an inner plate carrier separated from the rotor carrier, wherein at least one inner plate is attached to the inner plate carrier; - at least one spring device, with which the at least one outer plate and the at least one inner plate can be tensioned with a pressing force for closing the friction clutch; - a spacer plate, by means of which the at least one outer plate and the at least one inner plate are spaced apart from the rotor carrier in an axial direction; and - at least one leaf spring which is connected to the inner-plate carrier and the rotor carrier in such a way that the at least one leaf spring increases the pressing force with a reinforcing force when a torque is introduced by the drive motor, characterised in that the spacer plate forms a receiving space for the at least one leaf spring. - an input part with an outer plate carrier rotatable about an axis of rotation by at least one drive motor, wherein at least one outer plate is attached to the outer plate carrier; - an output part with a rotor carrier and an inner plate carrier separated from the rotor carrier, wherein at least one inner plate is attached to the inner plate carrier; - at least one spring device, with which the at least one outer plate and the at least one inner plate can be tensioned with a pressing force for closing the friction clutch; - a spacer plate, by means of which the at least one outer plate and the at least one inner plate are spaced apart from the rotor carrier in an axial direction; and - at least one leaf spring which is connected to the inner-plate carrier and the rotor carrier in such a way that the at least one leaf spring increases the pressing force with a reinforcing force when a torque is introduced by the drive motor,
Method for identifying an internal resistance of a power supply network for supplying energy to a personal protection device of a vehicle, wherein the personal protection device contains a charging unit, which is connected by means of a primary interface to the power supply network and by means of a secondary interface to an energy buffer store (ER, 120) for the buffer storage of energy for activations of personal protection means of the personal protection device and for the supply of power to the personal protection device after isolation from the power supply network, wherein the method has the following steps: - impressing a first charging current value (IER) at the secondary interface; - detecting a first current and/or a first voltage at the primary interface during the impressing; - impressing a second charging current value (IER), which is different from the first charging current value (IER), at the secondary interface; - determining a second current and/or a second voltage at the primary interface during the impressing; and - identifying the internal resistance of the power supply network using the first current and the second current and/or the first voltage and the second voltage. - impressing a first charging current value (IER) at the secondary interface; - detecting a first current and/or a first voltage at the primary interface during the impressing; - impressing a second charging current value (IER), which is different from the first charging current value (IER), at the secondary interface; - determining a second current and/or a second voltage at the primary interface during the impressing; and - identifying the internal resistance of the power supply network using the first current and the second current and/or the first voltage and the second voltage.
A tipper, in particular a transfer cart, for field crops, comprising - a chassis with at least one pair of locomotion elements; - a loading body pivotable with respect to a rear side of the chassis; - wherein the tipper at a front side thereof is provided with a tractor coupling for coupling with a tractor vehicle, or wherein the tipper is provided as a self-propelled transfer cart with a drive of its own; characterised in that at the front side of the loading body a coupling device is provided for detachably coupling an extension module, further comprising an adjusting device to adjust the extension module with respect to the loading body, so that the extension module can be set substantially horizontally, regardless of the angle (α) at which the loading body is. - a chassis with at least one pair of locomotion elements; - a loading body pivotable with respect to a rear side of the chassis; - wherein the tipper at a front side thereof is provided with a tractor coupling for coupling with a tractor vehicle, or wherein the tipper is provided as a self-propelled transfer cart with a drive of its own; characterised in that at the front side of the loading body a coupling device is provided for detachably coupling an extension module, further comprising an adjusting device to adjust the extension module with respect to the loading body, so that the extension module can be set substantially horizontally, regardless of the angle (α) at which the loading body is.
A communication module, comprising: a housing; a network cable port; and a locking member for blocking a wiring opening position at an end of the housing; wherein the network cable port is located at the wiring opening position of the housing, and the locking member is provided with a passage for a network cable to pass through; wherein the locking member comprises: a tightening cap, a clamping grip, a rubber plug that is sleeved on an outside of the network cable and clamps the network cable, and an intermediate connection pipe; the clamping grip is sleeved on an outside of the rubber plug and is configured to compress the rubber plug to lock the network cable, the tightening cap is sleeved on an outside of the clamping grip and is configured to compress clamping jaws of the clamping grip to clamp the rubber plug, and the tightening cap is provided with a through hole for the network cable to pass through; one end of the intermediate connection pipe is in threaded connection with the housing outside the wiring opening position, the other end of the intermediate connection pipe is in threaded connection with the tightening cap, and the intermediate connection pipe is the through hole for the network cable to pass through; and the intermediate connection pipe is provided with a slot for clamping the clamping grip. a housing; a network cable port; and a locking member for blocking a wiring opening position at an end of the housing; wherein the network cable port is located at the wiring opening position of the housing, and the locking member is provided with a passage for a network cable to pass through; wherein the locking member comprises: a tightening cap, a clamping grip, a rubber plug that is sleeved on an outside of the network cable and clamps the network cable, and an intermediate connection pipe; the clamping grip is sleeved on an outside of the rubber plug and is configured to compress the rubber plug to lock the network cable, the tightening cap is sleeved on an outside of the clamping grip and is configured to compress clamping jaws of the clamping grip to clamp the rubber plug, and the tightening cap is provided with a through hole for the network cable to pass through; one end of the intermediate connection pipe is in threaded connection with the housing outside the wiring opening position, the other end of the intermediate connection pipe is in threaded connection with the tightening cap, and the intermediate connection pipe is the through hole for the network cable to pass through; and the intermediate connection pipe is provided with a slot for clamping the clamping grip.
An arrangement, to which belong a first and a second fluid-conducting component (110, 120), and a seal, for connecting the first fluid-conducting component to the second fluid-conducting component, especially in the exhaust gas line of a motor vehicle, with the seal, which seals the components (110, 120) at the connection point, and with a band clamp enclosing the components (110, 120) at the connection point, which band clamp fastens the components (110, 120) to one another, wherein the seal is formed with a tab that protrudes at the connection point after the components (110, 120) have been connected and which is visible through a separation gap of the band clamp, characterized in that the second component is formed with a radially projecting pin at its end to be connected and the band clamp is formed with a flap-like lug, wherein the pin and the lug form a rotation stop and by this means, the band clamp can be positioned exactly in the circumferential direction.