mhurhangee/patent-ind-claim-en huggingface dataset:
A hot-stamping formed body comprising: a steel sheet; and a zinc-plated layer that is provided on the steel sheet, wherein the steel sheet has a chemical composition containing, by mass %, C: 0.18% to 0.50%, Si: 0.10% to 1.50%, Mn: 1.5% to 2.5%, sol.Al: 0.001% to 0.100%, Ti: 0.010% to 0.100%, S: 0.0100% or less, P: 0.100% or less, N: 0.010% or less, Nb: 0% to 0.05%, V: 0% to 0.50%, Cr: 0% to 0.50%, Mo: 0% to 0.50%, B: 0% to 0.010%, Ni: 0% to 2.00%, and a total of REM, Ca, Co, and Mg: 0% to 0.030%, a remainder consisting of Fe and impurities, an area % of martensite is 90% or more in microstructure at a position corresponding to 1/4 of a sheet thickness of the steel sheet from a surface of the steel sheet in a sheet thickness direction, the zinc-plated layer includes a Γ phase and a Fe-Zn solid solution, and a cross-sectional area ratio of voids present in the zinc-plated layer is 15.0% or less, and wherein the area ratio of martensite, the Γ phase and the Fe-Zn solid solution, and the cross-sectional area ratio of voids are measured as described in the description. a steel sheet; and a zinc-plated layer that is provided on the steel sheet, wherein the steel sheet has a chemical composition containing, by mass %, C: 0.18% to 0.50%, Si: 0.10% to 1.50%, Mn: 1.5% to 2.5%, sol.Al: 0.001% to 0.100%, Ti: 0.010% to 0.100%, S: 0.0100% or less, P: 0.100% or less, N: 0.010% or less, Nb: 0% to 0.05%, V: 0% to 0.50%, Cr: 0% to 0.50%, Mo: 0% to 0.50%, B: 0% to 0.010%, Ni: 0% to 2.00%, and a total of REM, Ca, Co, and Mg: 0% to 0.030%, a remainder consisting of Fe and impurities, C: 0.18% to 0.50%, Si: 0.10% to 1.50%, Mn: 1.5% to 2.5%, sol.Al: 0.001% to 0.100%, Ti: 0.010% to 0.100%, S: 0.0100% or less, P: 0.100% or less, N: 0.010% or less, Nb: 0% to 0.05%, V: 0% to 0.50%, Cr: 0% to 0.50%, Mo: 0% to 0.50%, B: 0% to 0.010%, Ni: 0% to 2.00%, and a total of REM, Ca, Co, and Mg: 0% to 0.030%, a remainder consisting of Fe and impurities, an area % of martensite is 90% or more in microstructure at a position corresponding to 1/4 of a sheet thickness of the steel sheet from a surface of the steel sheet in a sheet thickness direction, the zinc-plated layer includes a Γ phase and a Fe-Zn solid solution, and a cross-sectional area ratio of voids present in the zinc-plated layer is 15.0% or less, and wherein the area ratio of martensite, the Γ phase and the Fe-Zn solid solution, and the cross-sectional area ratio of voids are measured as described in the description.
Apparatus for preparing a quantity of beverage suitable for consumption, including a first brew chamber part and a second brew chamber part forming a brew chamber for selectively holding one of a first and second exchangeable capsules , the second exchangeable capsule having a larger diameter than the first exchangeable capsule , and a fluid dispensing device for supplying an amount of fluid, such as water, under pressure to the first brew chamber part, the first brew chamber part having a cavity for selectively holding one of the first and second exchangeable capsules, wherein the second brew chamber part includes a central portion and a peripheral portion , the central portion being movable into a first position for forming the brew chamber for holding the first exchangeable capsule and a second position forming the brew chamber for holding the second exchangeable capsule , wherein the central portion includes a first sealing member arranged for providing a fluid sealing engagement between the central portion and the peripheral portion when forming the brew chamber for holding the second exchangeable capsule; and wherein the peripheral portion includes a second sealing member arranged for providing a fluid sealing engagement between the peripheral portion and the first brew chamber part and/or the peripheral portion and a portion of the second capsule facing the second brew chamber part when forming the brew chamber for holding the second exchangeable capsule. wherein the second brew chamber part includes a central portion and a peripheral portion , the central portion being movable into a first position for forming the brew chamber for holding the first exchangeable capsule and a second position forming the brew chamber for holding the second exchangeable capsule , wherein the central portion includes a first sealing member arranged for providing a fluid sealing engagement between the central portion and the peripheral portion when forming the brew chamber for holding the second exchangeable capsule; and wherein the peripheral portion includes a second sealing member arranged for providing a fluid sealing engagement between the peripheral portion and the first brew chamber part and/or the peripheral portion and a portion of the second capsule facing the second brew chamber part when forming the brew chamber for holding the second exchangeable capsule.
A wind turbine blade comprising a shell body, a down conductor arranged in the shell body for conducting lightning current to ground, an electrical connector arranged in electrical connection with the down conductor, a lightning receptor element located at a trailing edge of the shell body and being arranged at a surface of the shell body or outside the shell body, the lightning receptor element being in electrical connection with the electrical connector, wherein the shell body comprises an opening accommodating the electrical connector and/or the lightning receptor element, and the blade further comprises a cover member attached to the shell body, the cover member covering the shell body opening, the cover member comprising: - a first cover portion having a covering surface configured to engage with a first exterior surface part of the shell body, the first cover portion covering a first portion of the opening, - a second cover portion having a covering surface configured to engage with a second exterior surface part of the shell body, the second cover portion covering a second portion of the opening, the first and second cover portion being attached to a cover member base portion comprising a central opening accommodating the electrical connector and/or the lightning receptor element connected to the electrical connector. - a first cover portion having a covering surface configured to engage with a first exterior surface part of the shell body, the first cover portion covering a first portion of the opening, - a second cover portion having a covering surface configured to engage with a second exterior surface part of the shell body, the second cover portion covering a second portion of the opening,
A maleimide-based copolymer (A) having a mass average particle diameter of 75 μm to 300 μm determined by sieving analysis using test sieves as specified in JIS Z 8801 as set forth in the description; and a cumulative oversize at 1000 μm of lower than 5 mass% determined by sieving analysis as set forth in the description. a mass average particle diameter of 75 μm to 300 μm determined by sieving analysis using test sieves as specified in JIS Z 8801 as set forth in the description; and a cumulative oversize at 1000 μm of lower than 5 mass% determined by sieving analysis as set forth in the description.
Low frequency electroacoustic transducer submersible in an immersion fluid for underwater acoustic communications, said transducer comprising: - two horns , - a counterweight , - two electroacoustic motors , placed on either side of the counterweight , said motors being aligned along a symmetry axis , the opposite ends of said motors being respectively connected to a horn , the unit formed of said electroacoustic motors , said counterweight and said horns being able to generate a longitudinal electroacoustic resonance mode, characterised in that said transducer comprises: - a rigid and hollow cylindrical part extending around said counterweight , said cylindrical part having an axis merged with the symmetry axis of the transducer, the inside of said cylindrical part forming a fluid cavity able to be filled with said immersion fluid , - said electroacoustic motors and said cylindrical part being so dimensioned that said fluid cavity forms an acoustic coupling between said longitudinal electroacoustic resonance mode of said transducer and a circumferential resonance mode of said cylindrical part when said fluid cavity is filled with said immersion fluid , wherein the frequency difference between the longitudinal resonance mode of the piezoelectric stack and the circumferential mode of the cylindrical part is lower than or equal to about 10 % of the central frequency of the transducer. - two horns , - a counterweight , - two electroacoustic motors , placed on either side of the counterweight , said motors being aligned along a symmetry axis , the opposite ends of said motors being respectively connected to a horn , - a rigid and hollow cylindrical part extending around said counterweight , said cylindrical part having an axis merged with the symmetry axis of the transducer, the inside of said cylindrical part forming a fluid cavity able to be filled with said immersion fluid , - said electroacoustic motors and said cylindrical part being so dimensioned that said fluid cavity forms an acoustic coupling between said longitudinal electroacoustic resonance mode of said transducer and a circumferential resonance mode of said cylindrical part when said fluid cavity is filled with said immersion fluid ,
A combustor panel (400; 500; 700; 800) for a gas turbine engine , comprising: a hot side configured to be exposed to combustion within the gas turbine engine; a cold side (402; 502; 702; 802) opposite the hot side of the combustor panel, the cold side configured to receive cooling flow thereon; and a peak-valley gridded pattern (404; 504; 704; 804) formed on the cold side, the peak-valley gridded pattern comprising a plurality of recessed cells (406; 506; 706; 806) arranged in a grid pattern, characterised in that each recessed cell has four peaks (408; 508; 708; 808), four angled sidewalls (410; 510; 710; 810) extending from the cold side toward the hot side, and an effusion hole (412; 512; 712; 812) located at a bottom of the angled sidewalls; wherein the peaks (408; 508; 708; 808) of the peak-valley gridded pattern (404; 504; 704; 804) define geometric shapes in the cold side (402; 502; 702; 802), wherein the geometric shapes are squares, rectangles or diamonds. a hot side configured to be exposed to combustion within the gas turbine engine; a cold side (402; 502; 702; 802) opposite the hot side of the combustor panel, the cold side configured to receive cooling flow thereon; and a peak-valley gridded pattern (404; 504; 704; 804) formed on the cold side, the peak-valley gridded pattern comprising a plurality of recessed cells (406; 506; 706; 806) arranged in a grid pattern, characterised in that each recessed cell has four peaks (408; 508; 708; 808), four angled sidewalls (410; 510; 710; 810) extending from the cold side toward the hot side, and an effusion hole (412; 512; 712; 812) located at a bottom of the angled sidewalls; wherein the peaks (408; 508; 708; 808) of the peak-valley gridded pattern (404; 504; 704; 804) define geometric shapes in the cold side (402; 502; 702; 802), wherein the geometric shapes are squares, rectangles or diamonds.
Device for access to a wireless network comprising: - means of connection to a host device; - means of connection to an access point of a wireless network; - means for opening a connection with the access point of the wireless network on receipt of a connection activation request so as to allow the host machine to which it is connected to access the wireless network; characterized in that it furthermore comprises: - means for managing rights of access to the wireless network so as to verify the access rights before opening the connection. - means of connection to a host device; - means of connection to an access point of a wireless network; - means for opening a connection with the access point of the wireless network on receipt of a connection activation request so as to allow the host machine to which it is connected to access the wireless network; - means for managing rights of access to the wireless network so as to verify the access rights before opening the connection.
A method of manufacturing a grooved carbonaceous monolith, said method comprising : - manufacturing a porous carbonaceous monolith structure by a process comprising the steps of : i - introducing a precursor material comprising particles comprising a halogenated polymer having a melting point in a mold, ii - forming a shaped body comprising aggregates of the particles of the precursor material, by concurrently applying to the precursor material a pressure P ranging from 10 to 300 bars when the halogenated polymer is a vinylidene chloride homopolymer and from 10 to 150 bars when the halogenated polymer differs from a vinylidene chloride homopolymer, and maintaining the precursor material at a temperature T 1 ranging from T 1,min = 20°C to T 1,max = T m - 50°C wherein T m is the melting point of the halogenated polymer, and, iii - optionally cooling then demolding the shaped body, iv - introducing the shaped body in a furnace, v - causing the pyrolysis of the halogenated polymer in the furnace until the porous carbonaceous monolith structure is obtained, - and sculpting the so-manufactured porous carbonaceous monolith structure. - manufacturing a porous carbonaceous monolith structure by a process comprising the steps of : i - introducing a precursor material comprising particles comprising a halogenated polymer having a melting point in a mold, ii - forming a shaped body comprising aggregates of the particles of the precursor material, by concurrently applying to the precursor material a pressure P ranging from 10 to 300 bars when the halogenated polymer is a vinylidene chloride homopolymer and from 10 to 150 bars when the halogenated polymer differs from a vinylidene chloride homopolymer, and maintaining the precursor material at a temperature T 1 ranging from T 1,min = 20°C to T 1,max = T m - 50°C wherein T m is the melting point of the halogenated polymer, and, iii - optionally cooling then demolding the shaped body, iv - introducing the shaped body in a furnace, v - causing the pyrolysis of the halogenated polymer in the furnace until the porous carbonaceous monolith structure is obtained, i - introducing a precursor material comprising particles comprising a halogenated polymer having a melting point in a mold, ii - forming a shaped body comprising aggregates of the particles of the precursor material, by concurrently applying to the precursor material a pressure P ranging from 10 to 300 bars when the halogenated polymer is a vinylidene chloride homopolymer and from 10 to 150 bars when the halogenated polymer differs from a vinylidene chloride homopolymer, and maintaining the precursor material at a temperature T 1 ranging from T 1,min = 20°C to T 1,max = T m - 50°C wherein T m is the melting point of the halogenated polymer, and, iii - optionally cooling then demolding the shaped body, iv - introducing the shaped body in a furnace, v - causing the pyrolysis of the halogenated polymer in the furnace until the porous carbonaceous monolith structure is obtained, - and sculpting the so-manufactured porous carbonaceous monolith structure.
Use of a guar hydroxypropyltrimonium chloride to increase the growth of a plant, when a seed of said plant has been coated with a composition comprising at least said guar hydroxypropyltrimonium chloride.
A safety tensioning device for automobiles, the safety tensioning device comprising a base , a handle , a winding mechanism and a first bundling strap having an inner end and a free end; whereby: the handle and the winding mechanism are disposed on the base ; a main rotating shaft driven by the handle is rotatably disposed on the base ; the first bundling strap is disposed on the main rotating shaft and the winding mechanism; the winding mechanism comprises a box for the wound bundling strap, a coil spring component and a winding shaft with two ends; the winding shaft passes through the box , and the two ends of the winding shaft are exposed out of the box , the inner end of the first bundling strap is attached to the winding shaft ; and whereby one end of the winding shaft is attached to the coil spring component , characterized in that a centrifugal self-locking mechanism is attached to another end of the winding shaft, to stop the winding shaft winding when a rotation speed of the winding shaft is in an overspeed state. the handle and the winding mechanism are disposed on the base ; a main rotating shaft driven by the handle is rotatably disposed on the base ; the first bundling strap is disposed on the main rotating shaft and the winding mechanism; the winding mechanism comprises a box for the wound bundling strap, a coil spring component and a winding shaft with two ends; the winding shaft passes through the box , and the two ends of the winding shaft are exposed out of the box , the inner end of the first bundling strap is attached to the winding shaft ; and whereby one end of the winding shaft is attached to the coil spring component , characterized in that a centrifugal self-locking mechanism is attached to another end of the winding shaft, to stop the winding shaft winding when a rotation speed of the winding shaft is in an overspeed state.
A container for liquid products comprising a bottle provided with a neck having a longitudinal axis ; a closing cap comprising, in turn, an outer cup , which is screwed onto the neck by means of a threaded coupling obtained on an outer surface of the neck and on an inner surface of the cup , and an inner sleeve , which extends inside the neck , has a first coupling portion coupled, in a fluid-tight manner, to a second coupling portion obtained on an inner surface of the neck and defines, together with the bottle , a first chamber to contain a liquid product; and at least one first relief micro-channel (23; 24; 26), which is obtained on at least one of said first and second coupling portions and is configured to allow a gas generated by the liquid product to flow out of the first chamber and to at least limit, in particular prevent, the outflow of the liquid product itself from the first chamber ; wherein the neck is delimited by an end face , which is substantially perpendicular to the longitudinal axis and has a third coupling portion , which is coupled, in a fluid-tight manner, to a fourth coupling portion obtained on a bottom wall of the cup ; and wherein the cup and the end face of the neck are configured so as to define, between them, a second chamber , which is connected to the first chamber by means of the first relief micro-channel (23; 24; 26) and to the outside by at least one opening ; characterized in that the opening comprises at least one relief hole made through the bottom wall of the cup .
A device for optically measuring the external-thread profile of a pipe , comprising a support for the pipe to be measured, an optical measuring unit including at least one measuring device comprising a light source and a camera arranged in the optical path of the light source for recording a silhouette image of the external-thread profile , and a carrier element , wherein the optical measuring unit is, in particular rigidly, mounted on the carrier element pivotally held about three spatial axes, characterized in that the optical measuring unit comprises at least two measuring devices whose optical paths cross each other.
A dialysis system comprising: a manifold comprising an enclosed blood flow path, wherein the blood flow path comprises a blood inlet port , a blood outlet port , and a flexible tube positioned between the blood inlet port and blood outlet port; a pressure sensor in physical communication with manifold at a position proximate said blood outlet port; a non-transient memory in data communication with the pressure sensor and configured to store pressure values generated and transmitted by the pressure sensor; at least one pump in physical contact with the flexible tube and configured to pump blood from a patient's body, through a tube, and through the blood flow path; and a controller in data communication with the pressure sensor, the non-transient memory, and the at least one pump, wherein the dialysis system is characterized in that the controller is configured to execute a plurality of programmatic instructions in order to: receive the pressure values; determine an average of n pressure values, where n is a subset of the pressure values; determine a sum of m pressure values, where m is a subset of the pressure values and where m < n; apply a function of said average of n pressure values and the sum of m pressure values to generate an occlusion indicator value; and based upon the occlusion indicator value, determine if an alarm should be triggered. a manifold comprising an enclosed blood flow path, wherein the blood flow path comprises a blood inlet port , a blood outlet port , and a flexible tube positioned between the blood inlet port and blood outlet port; a pressure sensor in physical communication with manifold at a position proximate said blood outlet port; a non-transient memory in data communication with the pressure sensor and configured to store pressure values generated and transmitted by the pressure sensor; at least one pump in physical contact with the flexible tube and configured to pump blood from a patient's body, through a tube, and through the blood flow path; and a controller in data communication with the pressure sensor, the non-transient memory, and the at least one pump, wherein the dialysis system is characterized in that the controller is configured to execute a plurality of programmatic instructions in order to: receive the pressure values; determine an average of n pressure values, where n is a subset of the pressure values; determine a sum of m pressure values, where m is a subset of the pressure values and where m < n; apply a function of said average of n pressure values and the sum of m pressure values to generate an occlusion indicator value; and based upon the occlusion indicator value, determine if an alarm should be triggered. receive the pressure values; determine an average of n pressure values, where n is a subset of the pressure values; determine a sum of m pressure values, where m is a subset of the pressure values and where m < n; apply a function of said average of n pressure values and the sum of m pressure values to generate an occlusion indicator value; and based upon the occlusion indicator value, determine if an alarm should be triggered.