mhurhangee/patent-ind-claim-en huggingface dataset:
A method of repairing a defectively manufactured multi-layer component of a gas turbine engine that includes a substrate material , a coating , a structural adhesive , and a primer layer , the method comprising: removing the coating from the multi-layer component , wherein the coating is formed of a metal or alloy; removing the structural adhesive from the multi-layer component and exposing the primer layer ; applying, to the primer layer , a solvent that causes the primer layer to swell to form a swelled primer layer ; abrading away the swelled primer layer from the multi-layer component ; and rebuilding the multi-layer component by forming a new structural adhesive on a new primer layer on the substrate material and a new coating on the new structural adhesive . removing the coating from the multi-layer component , wherein the coating is formed of a metal or alloy; removing the structural adhesive from the multi-layer component and exposing the primer layer ; applying, to the primer layer , a solvent that causes the primer layer to swell to form a swelled primer layer ; abrading away the swelled primer layer from the multi-layer component ; and rebuilding the multi-layer component by forming a new structural adhesive on a new primer layer on the substrate material and a new coating on the new structural adhesive .
Method to control a hybrid driveline comprising an internal combustion engine (ICE) and at least one alternative propulsion unit; the method comprising the steps of; a) monitoring a predetermined first parameter related to vehicle operation; b) registering if the first parameter has exceeded a predetermined first threshold requiring initiation of an on-board diagnostic process for the ICE; c) monitoring a predetermined second parameter related to the state of an exhaust particle filter; d) registering if the second parameter has exceeded a predetermined second threshold requiring initiation of a particle filter regeneration; e) scheduling a particle filter regeneration when the predetermined second threshold is exceeded; f) monitoring if the first parameter has exceeded the predetermined first threshold before the second threshold has been exceeded, and if not; g) determining if the first parameter has exceeded (or is expected to exceed) the predetermined first threshold within a set time period prior to a scheduled particle filter regeneration; and if so, h) delaying initiation of an on-board diagnostic process until the particle filter regeneration has been completed; i) controlling the hybrid driveline to perform a particulate filter regeneration at the scheduled time; and j) operating the ICE during a predetermined time period and performing the on-board diagnostic process. a) monitoring a predetermined first parameter related to vehicle operation; b) registering if the first parameter has exceeded a predetermined first threshold requiring initiation of an on-board diagnostic process for the ICE; c) monitoring a predetermined second parameter related to the state of an exhaust particle filter; d) registering if the second parameter has exceeded a predetermined second threshold requiring initiation of a particle filter regeneration; e) scheduling a particle filter regeneration when the predetermined second threshold is exceeded; f) monitoring if the first parameter has exceeded the predetermined first threshold before the second threshold has been exceeded, and if not; g) determining if the first parameter has exceeded (or is expected to exceed) the predetermined first threshold within a set time period prior to a scheduled particle filter regeneration; and if so, h) delaying initiation of an on-board diagnostic process until the particle filter regeneration has been completed; i) controlling the hybrid driveline to perform a particulate filter regeneration at the scheduled time; and j) operating the ICE during a predetermined time period and performing the on-board diagnostic process.
Electronic power module including at least one semiconductor component which is disposed on a carrier, and a cooling body which is in thermal contact with the semiconductor component, wherein the carrier consists of a semiconductor material and at the same time serves as a cooling body, characterised in that on the carrier itself a conductive structure , with which the at least one electronic semiconductor component is contacted, is formed by doping.
A bellows assembly for a seat assembly for a cab of a vehicle, the seat assembly including a seating portion and a base portion with four sides, including a front side , first and second lateral sides , and a rear side , the bellows assembly comprising: a bellows with a skirt that is sized to extend vertically to cover at least part of a height of the base portion , the skirt exhibiting a continuous perimeter between a first portion and a second portion, characterised by the skirt being configured to extend along the four sides of the base portion of the seat assembly with a break between the first and second portions of the skirt ; and by one or more closures (53; 153) configured to at least one of releasably secure the first and second portions of the skirt together at the break or releasably secure the first and second portions of the skirt to the base portion , to secure the bellows to the base portion while the base portion is installed within the cab of the vehicle and while the seating portion is installed on the seat assembly . a bellows with a skirt that is sized to extend vertically to cover at least part of a height of the base portion , the skirt exhibiting a continuous perimeter between a first portion and a second portion, characterised by the skirt being configured to extend along the four sides of the base portion of the seat assembly with a break between the first and second portions of the skirt ; and by one or more closures (53; 153) configured to at least one of releasably secure the first and second portions of the skirt together at the break or releasably secure the first and second portions of the skirt to the base portion , to secure the bellows to the base portion while the base portion is installed within the cab of the vehicle and while the seating portion is installed on the seat assembly .
Ultrasonic flowmeter, which comprises a measuring tube with a straight measuring tube axis (M), a transmitter designed to transmit an acoustic signal on a first signal path, a receiver designed to receive the acoustic signal on the first signal path and multiple reflection surfaces (6.1-6.5, 16.1-16.5) on which the acoustic signal on the first signal path is reflected at least once, wherein this first signal path is made up of straight subsections (8.1-8.6, 18.1-18.6); characterized in that a) the minimum distances of at least three subsections (8.1, 8.3, 8.4, 18.1, 18.3, 18.4) is a distance of 0.4-0.6 r in relation to the measuring tube axis (M), wherein r is the inner radius of the measuring tube ; b) wherein a first subsection (8.1, 18.1), which defines a first plane parallel to the axis, has a second subsection (8.2, 18.2) immediately following this, wherein said second subsection defines a second plane parallel to the axis, wherein the two planes pass through a first reflection surface (6.1, 16.1) and the normal vectors delimit an angle of less than 10°, c) wherein a third subsection (8.4, 18.4), which defines a third plane parallel to the axis, has a fourth subsection (8.5, 18.5) immediately following this, wherein said fourth subsection defines a fourth plane parallel to the axis, wherein the two planes pass through a second reflection surface (6.4, 16.4) and the normal vectors delimit an angle of less than 10°; and d) wherein the pattern of the signal path in the axial top view describes a polygon which side points of intersection are situated inside, on or outside the measuring tube . a) the minimum distances of at least three subsections (8.1, 8.3, 8.4, 18.1, 18.3, 18.4) is a distance of 0.4-0.6 r in relation to the measuring tube axis (M), wherein r is the inner radius of the measuring tube ; b) wherein a first subsection (8.1, 18.1), which defines a first plane parallel to the axis, has a second subsection (8.2, 18.2) immediately following this, wherein said second subsection defines a second plane parallel to the axis, wherein the two planes pass through a first reflection surface (6.1, 16.1) and the normal vectors delimit an angle of less than 10°, c) wherein a third subsection (8.4, 18.4), which defines a third plane parallel to the axis, has a fourth subsection (8.5, 18.5) immediately following this, wherein said fourth subsection defines a fourth plane parallel to the axis, wherein the two planes pass through a second reflection surface (6.4, 16.4) and the normal vectors delimit an angle of less than 10°; and d) wherein the pattern of the signal path in the axial top view describes a polygon which side points of intersection are situated inside, on or outside the measuring tube .
An ultra-wide band (UWB) tracking tag , comprising: a processor ; a transceiver communicatively coupled with the processor; a movement sensor communicatively coupled with the processor; and a memory communicatively coupled with the processor, the memory storing machine-readable instructions that, when executed by the processor, control the tracking tag to: determine, using the movement sensor, movement of the tracking tag, periodically transmit, from the transceiver at a ping rate , pings detectable by an object tracking system , each of the pings including a movement value indicative of an activity and/or acceleration based on the determined movement, receive, from the object tracking system, an optimal ping rate determined by the object tracking system- based on the movement value transmitted by the tracking tag, a bandwidth of the object tracking system, and one or more additional movement values transmitted to the object tracking system by corresponding one or more additional tracking tags, and set the ping rate equal to the optimal ping rate. a processor ; a transceiver communicatively coupled with the processor; a movement sensor communicatively coupled with the processor; and a memory communicatively coupled with the processor, the memory storing machine-readable instructions that, when executed by the processor, control the tracking tag to: determine, using the movement sensor, movement of the tracking tag, periodically transmit, from the transceiver at a ping rate , pings detectable by an object tracking system , each of the pings including a movement value indicative of an activity and/or acceleration based on the determined movement, receive, from the object tracking system, an optimal ping rate determined by the object tracking system- based on the movement value transmitted by the tracking tag, a bandwidth of the object tracking system, and one or more additional movement values transmitted to the object tracking system by corresponding one or more additional tracking tags, and set the ping rate equal to the optimal ping rate. determine, using the movement sensor, movement of the tracking tag, periodically transmit, from the transceiver at a ping rate , pings detectable by an object tracking system , each of the pings including a movement value indicative of an activity and/or acceleration based on the determined movement, receive, from the object tracking system, an optimal ping rate determined by the object tracking system- based on the movement value transmitted by the tracking tag, a bandwidth of the object tracking system, and one or more additional movement values transmitted to the object tracking system by corresponding one or more additional tracking tags, and set the ping rate equal to the optimal ping rate.
A bidirectional damper , comprising a mounting bracket , a tension spring , a damping cylinder and two engaging members , wherein each of the two engaging members is adapted to cooperate with a limiting member on a mounting base to effectively buffer the opening and closing processes of a sliding movable door panel; wherein the mounting bracket comprises a first bracket plate and a second bracket plate with opposite main surfaces, the first bracket plate and the second bracket plate are spaced apart along a first direction, the mounting bracket further comprises a connecting plate connected between the first bracket plate and the second bracket plate , the connecting plate comprises a main body section and two extension sections , wherein the first bracket plate , the second bracket plate and the connecting plate are all elongated plates, wherein length directions of the first bracket plate , the second bracket plate and the main body section are all in a second direction, wherein the second direction is perpendicular to the first direction, and wherein the main body section is connected between the two extension sections along the second direction; wherein the damping cylinder , the tension spring and the two engaging members are all positioned between the first bracket plate and the second bracket plate ; wherein along a third direction, the damping cylinder and the tension spring are respectively arranged at two sides of the connecting plate , wherein both of the two extension sections are bent from the main body section towards the tension spring , wherein the third direction is perpendicular to the first direction, and wherein the third direction is perpendicular to the second direction; wherein the damping cylinder comprises two piston rods extending and retracting in the second direction, wherein each of the two engaging members is hinged to a corresponding one of the two piston rods respectively, and damping directions of the two piston rods are opposite; wherein the connecting plate is provided with two guide grooves passing through the connecting plate , wherein each of the two guide grooves corresponds to a corresponding one of the two extension sections respectively, wherein each of the guide grooves extends from corresponding extension section to the main body section , wherein the guide grooves extend in the second direction on the main body section , wherein each of the two engaging members is slidably arranged in a corresponding one of the two guide grooves respectively, and wherein both of the two engaging members are connected with the tension spring ; wherein the engaging member is provided with a first guide , a first engaging tooth and a second engaging tooth , wherein the first engaging tooth and the second engaging tooth are spaced apart along the second direction, and wherein along the third direction, the first guide abuts against a side of the connecting plate facing away from the tension spring under the action of the tension spring , wherein both the first engaging tooth and the second engaging tooth extend to a side of the connecting plate close to the damping cylinder .
A hot-dip Al-Zn-Mg-Si coated steel sheet comprising a base steel sheet and a hot-dip coating on a surface of the base steel sheet, wherein the hot-dip coating includes an interfacial alloy layer present at an interface with the base steel sheet and a main layer present on the interfacial alloy layer, and contains from 25 mass% to 80 mass% of Al, from greater than 0.6 mass% to 15 mass% of Si, and from greater than 0.1 mass% to 25 mass% of Mg, and optionally 0.2 mass% to 25 mass% of Ca and/or one or more of Mn, V, Cr, Mo, Ti, Sr, Ni, Co, Sb, and B in a total amount of 0.01 mass% to 10 mass%, the balance being Zn and incidental impurities, and Mg content and Si content in the hot-dip coating satisfy formula : M Mg / M Si − 0.6 > 1.7 where M Mg represents the Mg content in mass% and M Si represents the Si content in mass%, characterized in that the main layer includes an α-Al phase dendritic region, and a mean dendrite diameter of the α-Al phase dendritic region and a thickness of the hot-dip coating satisfy formula : t / d ≥ 1.5 where t represents the thickness of the hot-dip coating in μm and d represents the mean dendrite diameter in μm, where the mean dendrite diameter is measured according to the method specified in the description, the main layer contains Mg 2 Si and the Mg 2 Si content in the main layer is 1.0 mass% or more and an area ratio of Mg 2 Si in a cross-section of the main layer is 1 % or more, the main layer contains Mg 2 Si particles that are finely and uniformly dispersed in the interdendritic regions, and the ratio of the minor diameter relative to the major diameter of the Mg 2 Si particles is 0.4 or less, where the "major diameter" refers to the longest diameter in a Mg 2 Si particle and the "minor diameter" refers to a shortest diameter in a Mg 2 Si particle.
A lighting assembly comprising: a lighting module including a substrate , a plurality of light emitting device on the substrate , a first resin layer covering the plurality of light emitting device , and at least one second resin layer on the first resin layer , wherein the second resin layer is disposed on an upper surface and side surfaces of the first resin layer , wherein the second resin layer includes at least one of wavelength conversion means and ink particles, wherein an area of the upper surface of the substrate is greater than an area of a lower surface of the first resin layer , and wherein an outer portion of the upper surface of the substrate extends further outward from an edge of the second resin layer , characterized in that the lighting assembly further comprises a first cover disposed on an outer portion of the substrate along an outer periphery of the substrate of the lighting module , and wherein the first cover includes an opening portion from which the second resin layer protrudes, a substrate cover portion disposed on an outer portion of an upper surface of the substrate and around the opening portion , and a side cover portion extending lower than a side surface of the substrate from the substrate cover portion , wherein an upper surface of the substrate cover portion is disposed lower than the upper surface of the first resin layer , wherein the substrate cover portion covers the outer upper surface of the substrate and faces the side surfaces (S2) of the second resin layer . a lighting module including a substrate , a plurality of light emitting device on the substrate , a first resin layer covering the plurality of light emitting device , and at least one second resin layer on the first resin layer , wherein the second resin layer is disposed on an upper surface and side surfaces of the first resin layer , wherein the second resin layer includes at least one of wavelength conversion means and ink particles, wherein an area of the upper surface of the substrate is greater than an area of a lower surface of the first resin layer , and wherein an outer portion of the upper surface of the substrate extends further outward from an edge of the second resin layer , characterized in that the lighting assembly further comprises a first cover disposed on an outer portion of the substrate along an outer periphery of the substrate of the lighting module , and wherein the first cover includes an opening portion from which the second resin layer protrudes, a substrate cover portion disposed on an outer portion of an upper surface of the substrate and around the opening portion , and a side cover portion extending lower than a side surface of the substrate from the substrate cover portion , wherein an upper surface of the substrate cover portion is disposed lower than the upper surface of the first resin layer , wherein the substrate cover portion covers the outer upper surface of the substrate and faces the side surfaces (S2) of the second resin layer .
A process liner for the preparation of foamed plastic blocks or slabs, comprising a transparent support polymer film (A) and a transparent peelable polyolefin film (B) provided thereon, wherein the support polymer film (A) has a weight per area of 10 to 100 g/m 2 and is made of a polymer having a melting point of 150 °C or more according to DSC measurement pursuant to ISO 3146; the polymer of the support film (A) being polyamide, polypropylene, polyethylene terephthalate or any combination thereof, the transparency of the support polymer film (A) according to ASTM-D-1003-61 method A being 60% or higher; and wherein the peelable polyolefin film (B) has a weight per area of 10-50 g/m 2 , and the melting point of the peelable polyolefin film (B) is 90 to 130 °C.
A composition comprising: a) at least about 85 wt% of a hydroalcoholic solution, the hydroalcoholic solution comprising: at least about 1 wt% water based on the total weight of the hydroalcoholic solution; and about 30 wt% to about 85 wt% of at least one C 1 to C 4 alkyl alcohol based on the total weight of the hydroalcoholic solution; and b) acrylate copolymer particles dispersed in the hydroalcoholic solution, the acrylate copolymer particles comprising the reaction product of a reaction mixture, the reaction mixture comprising monomers, the monomers comprising: from about 5 wt% to about 50 wt% of at least one high Tg monomer where the wt% of the high Tg monomer is with respect to the total weight of the monomers in the reaction mixture, wherein the at least one high Tg monomer has a Tg from about 40 °C to about 150 °C; and from about 20 wt% to about 80 wt% of at least one low Tg monomer where the wt% of the low Tg monomer is with respect to the total weight of the monomers in the reaction mixture, wherein the at least one low Tg monomer has a Tg from about -20 °C to about -60 °C, and wherein the particles have a number average diameter of at least about 100 nm. a) at least about 85 wt% of a hydroalcoholic solution, the hydroalcoholic solution comprising: at least about 1 wt% water based on the total weight of the hydroalcoholic solution; and about 30 wt% to about 85 wt% of at least one C 1 to C 4 alkyl alcohol based on the total weight of the hydroalcoholic solution; and at least about 1 wt% water based on the total weight of the hydroalcoholic solution; and about 30 wt% to about 85 wt% of at least one C 1 to C 4 alkyl alcohol based on the total weight of the hydroalcoholic solution; and b) acrylate copolymer particles dispersed in the hydroalcoholic solution, the acrylate copolymer particles comprising the reaction product of a reaction mixture, the reaction mixture comprising monomers, the monomers comprising: from about 5 wt% to about 50 wt% of at least one high Tg monomer where the wt% of the high Tg monomer is with respect to the total weight of the monomers in the reaction mixture, wherein the at least one high Tg monomer has a Tg from about 40 °C to about 150 °C; and from about 20 wt% to about 80 wt% of at least one low Tg monomer where the wt% of the low Tg monomer is with respect to the total weight of the monomers in the reaction mixture, wherein the at least one low Tg monomer has a Tg from about -20 °C to about -60 °C, and wherein the particles have a number average diameter of at least about 100 nm. from about 5 wt% to about 50 wt% of at least one high Tg monomer where the wt% of the high Tg monomer is with respect to the total weight of the monomers in the reaction mixture, wherein the at least one high Tg monomer has a Tg from about 40 °C to about 150 °C; and from about 20 wt% to about 80 wt% of at least one low Tg monomer where the wt% of the low Tg monomer is with respect to the total weight of the monomers in the reaction mixture, wherein the at least one low Tg monomer has a Tg from about -20 °C to about -60 °C, and wherein the particles have a number average diameter of at least about 100 nm.