mhurhangee/ep-ind-claims huggingface dataset:
An interconnected ring protection method, comprising: a first intersection node in an intersection node group receiving a cross-ring service, wherein the intersection node group comprises the first intersection node and a second intersection node, and the first intersection node and the second intersection node are intersection nodes of a first ring and a second ring; the first intersection node determining an off-ring node of the cross-ring service on the second ring, according to service information of the cross-ring service; and if the first intersection node is the last intersection node, the first intersection node forwarding the cross-ring service to the off-ring node of the cross-ring service on the second ring, the last intersection node refers to one intersection node in the intersection node group of the first ring and the second ring, which lastly receives the cross-ring service. a first intersection node in an intersection node group receiving a cross-ring service, wherein the intersection node group comprises the first intersection node and a second intersection node, and the first intersection node and the second intersection node are intersection nodes of a first ring and a second ring; the first intersection node determining an off-ring node of the cross-ring service on the second ring, according to service information of the cross-ring service; and if the first intersection node is the last intersection node, the first intersection node forwarding the cross-ring service to the off-ring node of the cross-ring service on the second ring, the last intersection node refers to one intersection node in the intersection node group of the first ring and the second ring, which lastly receives the cross-ring service.
A pharmaceutical product comprising as an active ingredient Compound A for use in the treatment of cancer, characterized by the daily administration of said compound A for 5 days, on days 1-5 of a treatment cycle, followed by a rest period of 23 days.
A liquid ejection apparatus, comprising: a liquid ejection head unit (210K, 210C, 210M, 210Y) that is configured to eject liquid onto a conveyed object at different positions along a conveying path for conveying the conveyed object; a first support member (CR1K, CR1C, CR1M, CR1Y, RL1, RL2, RL3, RL4) that is provided upstream of a landing position (PK, PC, PM, PY) of the liquid ejected onto the conveyed object by a corresponding liquid ejection head unit; a moving unit (110F20) configured to move the liquid ejection head unit based on the detection result; and a second support member (CR2K, CR2C, CR2M, CR2Y, RL2, RL3, RL4, RL5) that is provided downstream of the landing position (PK, PC, PM, PY) of the corresponding liquid ejection head unit and in that a detection unit (SENK, SENC, SENM, SENY) is installed between the first support member and the second support member for the corresponding liquid ejection head unit (210K, 210C, 210M, 210Y), characterized in that the detection unit (SENK, SENC, SENM, SENY) outputs a detection result indicating a position of the conveyed object with respect to an orthogonal direction that is orthogonal to a conveying direction of the conveyed object; further in that the detection unit (SENK, SENC, SENM, SENY) is disposed under the conveyed object. a liquid ejection head unit (210K, 210C, 210M, 210Y) that is configured to eject liquid onto a conveyed object at different positions along a conveying path for conveying the conveyed object; a first support member (CR1K, CR1C, CR1M, CR1Y, RL1, RL2, RL3, RL4) that is provided upstream of a landing position (PK, PC, PM, PY) of the liquid ejected onto the conveyed object by a corresponding liquid ejection head unit; a moving unit (110F20) configured to move the liquid ejection head unit based on the detection result; and a second support member (CR2K, CR2C, CR2M, CR2Y, RL2, RL3, RL4, RL5) that is provided downstream of the landing position (PK, PC, PM, PY) of the corresponding liquid ejection head unit and in that a detection unit (SENK, SENC, SENM, SENY) is installed between the first support member and the second support member for the corresponding liquid ejection head unit (210K, 210C, 210M, 210Y), characterized in that the detection unit (SENK, SENC, SENM, SENY) outputs a detection result indicating a position of the conveyed object with respect to an orthogonal direction that is orthogonal to a conveying direction of the conveyed object; further in that the detection unit (SENK, SENC, SENM, SENY) is disposed under the conveyed object.
An electronic atomizing assembly comprising: a cartridge; a heating cover, defining a first groove, wherein a side wall of the first groove defines a receiving groove; and a heating base, defining a second groove, wherein a protrusion member is disposed on a side wall of the second groove; the first groove and the second groove form an atomizing chamber; the protrusion member is received in the receiving groove and cooperates with the receiving groove to realize the sealing between the cartridge and the atomizing chamber; wherein a bottom wall of the first groove defines a through-hole, and characterized in that a plurality of bumps and a plurality of third grooves arranged at intervals are arranged on the side wall of the through-hole along a circumferential direction. a cartridge; a heating cover, defining a first groove, wherein a side wall of the first groove defines a receiving groove; and a heating base, defining a second groove, wherein a protrusion member is disposed on a side wall of the second groove; the first groove and the second groove form an atomizing chamber; the protrusion member is received in the receiving groove and cooperates with the receiving groove to realize the sealing between the cartridge and the atomizing chamber; wherein a bottom wall of the first groove defines a through-hole, and characterized in that a plurality of bumps and a plurality of third grooves arranged at intervals are arranged on the side wall of the through-hole along a circumferential direction.
Vacuum cleaner nozzle, comprising: an air inlet area having a front-end boundary, the front-end boundary having a predetermined number of front openings; and front guide elements having a surface at an angle to the front-end boundary for guiding dirt towards the front openings, openings left by the front guide elements being aligned with the front openings, a width of the openings left by the front guide elements not exceeding 300% of a width of the front openings. an air inlet area having a front-end boundary, the front-end boundary having a predetermined number of front openings; and front guide elements having a surface at an angle to the front-end boundary for guiding dirt towards the front openings, openings left by the front guide elements being aligned with the front openings, a width of the openings left by the front guide elements not exceeding 300% of a width of the front openings.
A vane segment for a gas turbine engine comprising: an outer vane platform relative to an axis of rotation of said gas turbine engine; an inner vane platform relative to said axis of rotation; and a vane which extends between said outer vane platform and said inner vane platform; wherein said inner vane platform has a non-axisymmetric surface contour located adjacent a trailing edge of said inner vane platform and a non-axisymmetric surface contour located adjacent a leading edge of said inner vane platform; characterized in that at least one of the non-axisymmetric surface contours is a waveform surface. an outer vane platform relative to an axis of rotation of said gas turbine engine; an inner vane platform relative to said axis of rotation; and a vane which extends between said outer vane platform and said inner vane platform; wherein said inner vane platform has a non-axisymmetric surface contour located adjacent a trailing edge of said inner vane platform and a non-axisymmetric surface contour located adjacent a leading edge of said inner vane platform; characterized in that at least one of the non-axisymmetric surface contours is a waveform surface.
A variable force limiter control system for a vehicle, the variable force limiter control system comprising: a variable force limiter mechanism configured to change a force limiter load that acts on a seatbelt in an event of a collision of the vehicle; a relative speed sensor configured to detect a relative speed between the vehicle and a collision object before the collision; an acceleration sensor configured to detect an acceleration of the vehicle; and an electronic control unit configured to predict a severity of the collision based on at least the relative speed and control the force limiter load at least based on the predicted severity and the acceleration in an initial stage of the collision; characterized in that the variable force limiter mechanism is configured to switch a mode of the force limiter load from a high-load mode to a low-load mode, the electronic control unit is configured to control switching of the mode of the force limiter load, and the initial stage of the collision is a period after the beginning of the collision and before the force limiter load reaches a threshold load in the low-load mode. a variable force limiter mechanism configured to change a force limiter load that acts on a seatbelt in an event of a collision of the vehicle; a relative speed sensor configured to detect a relative speed between the vehicle and a collision object before the collision; an acceleration sensor configured to detect an acceleration of the vehicle; and an electronic control unit configured to predict a severity of the collision based on at least the relative speed and control the force limiter load at least based on the predicted severity and the acceleration in an initial stage of the collision; characterized in that the variable force limiter mechanism is configured to switch a mode of the force limiter load from a high-load mode to a low-load mode, the electronic control unit is configured to control switching of the mode of the force limiter load, and the initial stage of the collision is a period after the beginning of the collision and before the force limiter load reaches a threshold load in the low-load mode.
Steel for applications which require high wear resistance, a high degree of hardness, good corrosion resistance and/or low thermal conductivity, - wherein the steel has a hardness of at least 56 HRC in the hardened state, - wherein in the microstructure of the steel in total at least 30 % wt. of hard phases are present which in addition to TiC particles consist of further carbide particles, oxide particles or nitride particles, - wherein the content of TiC particles is at least 20 % wt. and 2 - 4.5 % wt. of NbC particles are present, and - wherein the hard phases are embedded in a matrix which consists (in % wt.) of 9.0 - 15.0 % Cr, 5.0 - 9.0 % Mo, 3.0 - 7.0 % Ni, 6.0 - 11.0 % Co, 0.3 - 1.5 % Cu, 0.1 - 2.0 % Ti, 0.1 - 2.0 % Al, with the remainder iron and unavoidable impurities. - wherein the steel has a hardness of at least 56 HRC in the hardened state, - wherein in the microstructure of the steel in total at least 30 % wt. of hard phases are present which in addition to TiC particles consist of further carbide particles, oxide particles or nitride particles, - wherein the content of TiC particles is at least 20 % wt. and 2 - 4.5 % wt. of NbC particles are present, and - wherein the hard phases are embedded in a matrix which consists (in % wt.) of 9.0 - 15.0 % Cr, 5.0 - 9.0 % Mo, 3.0 - 7.0 % Ni, 6.0 - 11.0 % Co, 0.3 - 1.5 % Cu, 0.1 - 2.0 % Ti, 0.1 - 2.0 % Al, with the remainder iron and unavoidable impurities. 9.0 - 15.0 % Cr, 5.0 - 9.0 % Mo, 3.0 - 7.0 % Ni, 6.0 - 11.0 % Co, 0.3 - 1.5 % Cu, 0.1 - 2.0 % Ti, 0.1 - 2.0 % Al, with the remainder iron and unavoidable impurities.
Building equipped with a roof, in particular a flat roof, on which insulation and a roof covering (9; 27; 37) is present that contains flammable material, characterized in that a fire-resistant layer (11; 25; 35) is present on the roof covering (9; 27; 37), which fire-resistant layer (11; 25; 35) comprises panels that are mainly made of magnesium oxide.
An inking system, for a rotary printing unit, comprising - an inking cylinder and an etched cylinder arranged to retain ink between them in a nip area; - an ink outlet configured to provide the nip area with ink; - a sensor configured to measure an ink level in the nip area; - means for rotating the inking cylinder and the etched cylinder in the same direction (31,21); - a doctor blade configured to remove the ink from the top surface of the etched cylinder and positioned above the nip area; Characterised in that said means are configured to rotate the etched cylinder in the direction that pushes the ink above the nip area. - an inking cylinder and an etched cylinder arranged to retain ink between them in a nip area; - an ink outlet configured to provide the nip area with ink; - a sensor configured to measure an ink level in the nip area; - means for rotating the inking cylinder and the etched cylinder in the same direction (31,21); - a doctor blade configured to remove the ink from the top surface of the etched cylinder and positioned above the nip area;
A ferritic stainless steel sheet having excellent heat resistance, consisting of, in terms of % by mass: C: 0.02% or less; N: 0.02% or less; Si: more than 0.10% to 0.30% or less; Mn: 0.10% to 0.80%; Cr: 15.0% to 21.0%; Cu: 2.50% to 3.15%; Nb: 0.30% to 0.80%; Mo: 1.00% to 2.50%; B: 0.0003% to 0.0030%, and optionally one or more selected from W: 2.0% or less, Mg: 0.0050% or less, Ni: 1.0% or less, Co: 1.0% or less, and Ta: 0.50% or less and/or optionally one or more selected from Al: 1.0% or less, V: 0.50% or less, Sn: 0.5% or less, Sb: 0.5% or less, Ga: 0.1% or less, Zr: 0.30% or less, and REM (rare-earth metal): 0.2% or less, with a remainder of Fe and unavoidable impurities, wherein a maximum particle size of ε-Cu that is present in a structure is 20 nm to 200 nm, wherein the maximum particle size is calculated as an equivalent circle diameter. C: 0.02% or less; N: 0.02% or less; Si: more than 0.10% to 0.30% or less; Mn: 0.10% to 0.80%; Cr: 15.0% to 21.0%; Cu: 2.50% to 3.15%; Nb: 0.30% to 0.80%; Mo: 1.00% to 2.50%; B: 0.0003% to 0.0030%, and optionally one or more selected from W: 2.0% or less, Mg: 0.0050% or less, Ni: 1.0% or less, Co: 1.0% or less, and Ta: 0.50% or less and/or optionally one or more selected from Al: 1.0% or less, V: 0.50% or less, Sn: 0.5% or less, Sb: 0.5% or less, Ga: 0.1% or less, Zr: 0.30% or less, and REM (rare-earth metal): 0.2% or less,
A method of operating a refrigerated container of the type having a container box and a refrigeration machine at one end of the containe box, with the refrigeration machine having a fan for circulating warmer return air through an evaporator coil to be cooled and then to flow rearwardly to the container to cool its cargo, comprising the steps of: during normal operation, operating the fan in one direction so as to draw in return air at one end of the refrigeration machine and discharge it from the other end thereof; periodically reversing the direction of the fan so as to draw in return air at the other end of the refrigeration machine and discharge it from the one end thereof; whereby the air in the refrigerated container is mixed so as to provide a more uniform temperature distribution throughout; and characterised by providing a door at an opening near said one end, opening said door when said fan is operating in said one direction and closing it so that the opening is of reduced cross section when operating in said reverse direction
Lawn mower having a housing that has an ejection opening for ejecting cut material, and having a covering device fixed to the housing, wherein the covering device comprises a covering flap and a locking means, wherein the covering flap is pivotable about a pivot axis, wherein the covering flap covers the ejection opening in a closed state, wherein the covering flap frees up the ejection opening in an open position, wherein the covering flap is able to be locked by means of the locking means in the closed state, characterized in that the covering flap is movable in the direction of the pivot axis relative to the housing, and in that the covering flap can be unlocked by the covering flap being moved in the direction of the pivot axis.
A riveting method for combining/joining a tube and a solid piece having a tubular end portion, adapted to be a shaft system used in vehicles for enabling additional strength against shear forces, characterized in that; it comprises the operation steps of: - following engagement of said pipe and said tubular end portion of the solid piece into each other, forming holes on the same axis on the corresponding surfaces of the tube and the tubular end portion of the solid piece and - inserting into said holes on the same axis reciprocal rivet nuts having threaded surfaces, - squeezing the inserted rivet nuts both radially and circumferentially between the tube and the tubular end portion of the solid piece, and - combining the reciprocal rivet nuts by means of passing a stud bolt through them so as to mount the tube and the solid piece to each other. - following engagement of said pipe and said tubular end portion of the solid piece into each other, forming holes on the same axis on the corresponding surfaces of the tube and the tubular end portion of the solid piece and - inserting into said holes on the same axis reciprocal rivet nuts having threaded surfaces, - squeezing the inserted rivet nuts both radially and circumferentially between the tube and the tubular end portion of the solid piece, and - combining the reciprocal rivet nuts by means of passing a stud bolt through them so as to mount the tube and the solid piece to each other.
Resin line formed from a corrugated pipe with individual through-openings arranged around the circumference in the wall, which has a non-rotationally symmetrical cross-sectional shape transversely to the longitudinal center axis, at least in sections of the fully closed wall of the corrugated pipe, in which cross-sectional shape the wall is divided into a first part having a flattened base extending over the length of the corrugated pipe in a direction transverse to the longitudinal center axis, and a second part having an arcuate shape extending over the length of the corrugated pipe transversely to the longitudinal center axis into the height, and the width of the cross-sectional shape, with the flattened base as the first part of the wall, is greater than the height of the second part of the wall formed by the arcuate shape, characterized in that in the form of the flattened base uneven formations are present which form at least one flow channel pointing away from the through-opening on the outer side of the corrugated pipe.
A method of controlling a brushless motor, the method comprising exciting a winding of the motor in advance of predetermined rotor positions by an advance period, the advance period being defined by a waveform that varies periodically with time, characterised in that the method comprises adjusting the waveform in response to a change in motor speed.
Go-kart comprising a chassis on which is mounted at least one seat and a steering assembly (15, 16) comprising a steering column and carrying at least one steering wheel, characterised in that the said steering assembly is rotationally moveable with respect to the said chassis about an axis substantially horizontal and perpendicular to the longitudinal axis of the go-kart, so as to be able to adopt at least two positions: - a rolling position, in which the said steering assembly is positioned so that a user can manipulate the steering wheel when he/she is sitting in the seat or one of the said seats; and - an installation position, in which the said steering assembly is positioned so as to facilitate the user sitting in the or one of the said seats, and in which the said steering column is tilted towards the front of the go-kart with respect to the said axis, and in that a lower part of the said steering column is connected to the said front wheels (11 1, 11 2) of the go-kart by means of links (21 1, 21 2) having at their end ball joints (25 1, 25 2), and in that the axis of rotation of the said steering assembly is substantially co-incident with an axis passing through the said ball joints. - a rolling position, in which the said steering assembly is positioned so that a user can manipulate the steering wheel when he/she is sitting in the seat or one of the said seats; and - an installation position, in which the said steering assembly is positioned so as to facilitate the user sitting in the or one of the said seats, and in which the said steering column is tilted towards the front of the go-kart with respect to the said axis, and in that a lower part of the said steering column is connected to the said front wheels (11 1, 11 2) of the go-kart by means of links (21 1, 21 2) having at their end ball joints (25 1, 25 2), and in that the axis of rotation of the said steering assembly is substantially co-incident with an axis passing through the said ball joints.
A fluid handling system, comprising: a controller; a plurality of valves configured for operative connection with a conduit along a flow path, each of the plurality of valves being controlled by the controller for selective movement between a first position and a second position, the first position closing the flow path, the second position opening the flow path; a pump configured for operative connection with the conduit, the pump being controlled by the controller for selective pumping of fluid through the flow path; and an interface in communication with the controller, the interface being configured to selectively define the flow path, from among a plurality of flow paths, through the plurality of valves; characterized in that the plurality of valves each comprises a light, the light being controlled by the controller to provide a visual indication of whether the conduit is to be installed in a particular valve to define the flow path from among the plurality of flow paths. a controller; a plurality of valves configured for operative connection with a conduit along a flow path, each of the plurality of valves being controlled by the controller for selective movement between a first position and a second position, the first position closing the flow path, the second position opening the flow path; a pump configured for operative connection with the conduit, the pump being controlled by the controller for selective pumping of fluid through the flow path; and an interface in communication with the controller, the interface being configured to selectively define the flow path, from among a plurality of flow paths, through the plurality of valves; characterized in that the plurality of valves each comprises a light, the light being controlled by the controller to provide a visual indication of whether the conduit is to be installed in a particular valve to define the flow path from among the plurality of flow paths.