mhurhangee/ep-ind-claims huggingface dataset:
A structural component for an automobile, two-wheeled vehicle or railcar excellent in impact-absorption property, shape fixability and flange cuttability that is produced by processing a steel sheet comprising, in mass%, C: 0.001 ∼ 0.250%, Si: 0.01 ∼ 3.00%, Mn: 0.01 ∼ 10.00%, P: less than 0.050%, S: 0.0001 ∼ 0.0100%, Cr: 5.0 ∼ 30.0%, Ni: 0.03 ∼ 15.00%, N: 0.001 ∼ 0.300% and optionally further comprising, in mass%, one or more of Cu: 0.10 ∼ 5.00%, Mo: 0.10 ∼ 5.00%, W: 0.10 ∼ 5.00%, V: 0.10 ∼ 5.00%, Ti: 0.005 ∼ 0.500%, Nb: 0.005 ∼ 0.500%, B: 0.0003 ∼ 0.0050%, Al: 0.003 ∼ 0.500%, Mg: 0.0001 ∼ 0.0050%, Ca: 0.0001 ∼ 0.0050%, and a balance of Fe and unavoidable impurities, and containing austenite phase and a balance of ferrite phase and/or martensite phase and unavoidable precipitated phases, which structural component is fabricated to have a hat-like shape in cross section including vertical walls, flanges and a top, wherein distal ends of the flanges contain 20 vol% or greater of austenite phase and have a cross-section hardness expressed as Vickers hardness of 150 ∼ 350, and center regions of the vertical walls have, in a common cross-section with the flanges, a content of deformation-induced martensite phase exceeding that of the distal ends of the flanges by 10 vol% or greater and a cross-section hardness expressed as Vickers hardness that exceeds that of the distal ends of the flanges by 50 or greater.
An in vitro method of producing neural stem cells (NSCs) comprising: (a) treating human pluripotent stem cells (hPSCs) with a checkpoint kinase 1 inhibitor and a bone morphogenic protein inhibitor; and (b) analyzing the cells for neural stem cell markers. (a) treating human pluripotent stem cells (hPSCs) with a checkpoint kinase 1 inhibitor and a bone morphogenic protein inhibitor; and (b) analyzing the cells for neural stem cell markers.
A water jet peening method comprising the steps of: preparing a water jet peening apparatus having a supporting member, a first divider plate mounted on one end of the supporting member, a first hollow seal member disposed on the outer circumference of the first divider plate to surround the first divider plate, a nozzle support body formed to dispose a jet nozzle in an area around the supporting member, a second divider plate mounted on the supporting member, a second hollow seal member disposed on the outer circumference of the second divider plate to surround the second divider plate, and an air supply device for supplying air to the internal space of the first hollow seal member and of the second hollow seal member, the jet nozzle being disposed between the first divider plate and the second divider plate; inserting the water jet peening apparatus into a piping in which a structure or electronic device is mounted that is susceptible to damage by a jet of water discharged from the jet nozzle or by shock waves; disposing either the first divider plate or the second divider plate between the jet nozzle and the structure or electronic device; filling water into an internal area formed in the piping between the first divider plate and the second divider plate; and subjecting the inner surface of the piping to water jet peening by allowing the jet nozzle to discharge a jet of water into the water in the internal area preparing a water jet peening apparatus having a supporting member, a first divider plate mounted on one end of the supporting member, a first hollow seal member disposed on the outer circumference of the first divider plate to surround the first divider plate, a nozzle support body formed to dispose a jet nozzle in an area around the supporting member, a second divider plate mounted on the supporting member, a second hollow seal member disposed on the outer circumference of the second divider plate to surround the second divider plate, and an air supply device for supplying air to the internal space of the first hollow seal member and of the second hollow seal member, the jet nozzle being disposed between the first divider plate and the second divider plate; inserting the water jet peening apparatus into a piping in which a structure or electronic device is mounted that is susceptible to damage by a jet of water discharged from the jet nozzle or by shock waves; disposing either the first divider plate or the second divider plate between the jet nozzle and the structure or electronic device; filling water into an internal area formed in the piping between the first divider plate and the second divider plate; and subjecting the inner surface of the piping to water jet peening by allowing the jet nozzle to discharge a jet of water into the water in the internal area
A pneumatic tire comprising: - a plate-like member in which a plurality of through holes and slits (41, 42, 43, 44) having both ends (41a, 42a) positioned within a plate surface are formed; and - a supporting member which is inserted into the slits (41, 42, 43, 44) and adapted to support plate-like member portions in both sides of the slits (41, 42, 43, 44) in opposite directions to each other, wherein the plate-like member is attached to an inner surface of the tread portion by mounting portions (2a, 2b) which are respectively positioned closer to an outer side than both ends (41a, 42a) of the slits (41, 42, 43, 44), so that a space is formed between the plate-like member and the inner surface of the tread portion. - a plate-like member in which a plurality of through holes and slits (41, 42, 43, 44) having both ends (41a, 42a) positioned within a plate surface are formed; and - a supporting member which is inserted into the slits (41, 42, 43, 44) and adapted to support plate-like member portions in both sides of the slits (41, 42, 43, 44) in opposite directions to each other,
A circuit for processing data, the circuit comprising: an input for receiving a request for implementing a key-value store data transaction; a plurality of memory interfaces (314, 318) associated with different memory types enabling access to a plurality of memory devices (316, 320) associated with a key-value store; a first memory device of a first type storing a first portion of a value of a store associated with the key-value store data transaction, wherein the first portion of the value comprises a portion of a data block and corresponds to an access block size of the first memory device; a second memory device of a second type storing a second portion of the value of the store associated with the key-value store data transaction, wherein the second portion of the value of the store associated with the key-value store data transaction comprises the remainder of the data block and is different than the first portion of the value of the store associated with the key-value store data transaction; and a memory management circuit controlling the routing of data by way of the plurality of memory interfaces (314, 318) based upon a data transfer criterion; wherein the memory management circuit is coupled between the input and the first and the second memory interface (318, 314) to enable accessing the first portion of the value of the store associated with the key-value store data transaction and the second portion of the value of the store associated with the key-value store data transaction. an input for receiving a request for implementing a key-value store data transaction; a plurality of memory interfaces (314, 318) associated with different memory types enabling access to a plurality of memory devices (316, 320) associated with a key-value store; a first memory device of a first type storing a first portion of a value of a store associated with the key-value store data transaction, wherein the first portion of the value comprises a portion of a data block and corresponds to an access block size of the first memory device; a second memory device of a second type storing a second portion of the value of the store associated with the key-value store data transaction, wherein the second portion of the value of the store associated with the key-value store data transaction comprises the remainder of the data block and is different than the first portion of the value of the store associated with the key-value store data transaction; and a memory management circuit controlling the routing of data by way of the plurality of memory interfaces (314, 318) based upon a data transfer criterion; wherein the memory management circuit is coupled between the input and the first and the second memory interface (318, 314) to enable accessing the first portion of the value of the store associated with the key-value store data transaction and the second portion of the value of the store associated with the key-value store data transaction.
An electrochemical process for recovering reaction products of a metal element or a metalloid element or a mixture of two or more thereof from at least one water soluble precursor compound comprising the metal element or a metalloid element or two or more thereof, in the form of nano particles, in particular nano crystals of at least one reaction product, wherein the process comprises the steps of - supplying a solution of the water soluble precursor compound to a water-based catholyte of a cathode compartment of an electrochemical cell, equipped with a cathode comprising a gas diffusion electrode, wherein the gas diffusion electrode comprises a porous electrochemically active material having a BET surface area of at least 50 m 2 /g, - adjusting the pH of the catholyte to a pH which is smaller than the pKa of the water soluble precursor compound, - supplying at least one oxidant gas to the gas diffusion electrode, - subjecting the cathode to an electrochemical potential to cause reduction of the at least one oxidant gas to one or more of the corresponding peroxide, ionic and/or radical reactive species capable of reacting with a cation comprising the metal element, or the metalloid element or a mixture of two or more thereof, to nano particles of the at least one reaction product with an average particle size, in particular nano crystals with an average crystallite size, equal to or smaller than 30.0 nm. - supplying a solution of the water soluble precursor compound to a water-based catholyte of a cathode compartment of an electrochemical cell, equipped with a cathode comprising a gas diffusion electrode, wherein the gas diffusion electrode comprises a porous electrochemically active material having a BET surface area of at least 50 m 2 /g, - adjusting the pH of the catholyte to a pH which is smaller than the pKa of the water soluble precursor compound, - supplying at least one oxidant gas to the gas diffusion electrode, - subjecting the cathode to an electrochemical potential to cause reduction of the at least one oxidant gas to one or more of the corresponding peroxide, ionic and/or radical reactive species capable of reacting with a cation comprising the metal element, or the metalloid element or a mixture of two or more thereof, to nano particles of the at least one reaction product with an average particle size, in particular nano crystals with an average crystallite size, equal to or smaller than 30.0 nm.
Compactor assembly for compacting containers, having • a support frame for supporting a compactor; • a transport device for transporting containers in the compactor assembly; • a selecting device for guiding containers transported by means of the transport device; a bearing assembly, wherein the selecting device by means of the bearing assembly is mounted so as to be movable in such a manner that the selecting device can be moved to an operating position and to an assembling position, wherein the selecting device is specified in such a manner that in the operating position a container transported by means of the transport device can be selectively supplied to the compactor, and that the selecting device in the assembling position at least partially covers the transport device, characterized in that the selecting device has two mutually spaced apart wall elements which in the assembling position form a transport duct above the transport device. • a support frame for supporting a compactor; • a transport device for transporting containers in the compactor assembly; • a selecting device for guiding containers transported by means of the transport device;
Use of a trialkyl phosphate as a smoke suppressant in polyurethane foam, wherein the trialkyl phosphate has at least one alkyl group with two carbon atoms and the polyurethane foam has an absence of halogenated flame retardants.
A process of reforming a high sulfur-containing liquid fuel comprising: (a) feeding a high sulfur-containing liquid fuel feedstock comprising one or more liquid hydrocarbons and one or more high molecular weight organosulfur compounds, each having a molecular weight equal to or greater than 80 g/mol, into a first reforming zone, and contacting therein said fuel with a first oxidant in the presence of a partial oxidation catalyst under partial oxidation reaction conditions sufficient to obtain a first reformate stream comprising a mixture of unconverted hydrocarbons, partially-converted hydrocarbons, and one or more low molecular weight sulfur compounds, each having a molecular weight less than 80 g/mol; and (b) feeding the first reformate stream from step (a) into a second reforming zone, and contacting therein said first reformate stream with steam and optionally a second oxidant in the presence of an autothermal reforming catalyst under autothermal reforming reaction conditions sufficient to obtain a second reformate stream comprising carbon monoxide, hydrogen, and one or more low molecular weight sulfur compounds, each having a molecular weight less than 80 g/mol, wherein the liquid fuel feedstock comprises sulfur in a concentration greater than 100 ppm w and less than 3,500 ppm w, and wherein no steam or water is co-fed into step (a). (a) feeding a high sulfur-containing liquid fuel feedstock comprising one or more liquid hydrocarbons and one or more high molecular weight organosulfur compounds, each having a molecular weight equal to or greater than 80 g/mol, into a first reforming zone, and contacting therein said fuel with a first oxidant in the presence of a partial oxidation catalyst under partial oxidation reaction conditions sufficient to obtain a first reformate stream comprising a mixture of unconverted hydrocarbons, partially-converted hydrocarbons, and one or more low molecular weight sulfur compounds, each having a molecular weight less than 80 g/mol; and (b) feeding the first reformate stream from step (a) into a second reforming zone, and contacting therein said first reformate stream with steam and optionally a second oxidant in the presence of an autothermal reforming catalyst under autothermal reforming reaction conditions sufficient to obtain a second reformate stream comprising carbon monoxide, hydrogen, and one or more low molecular weight sulfur compounds, each having a molecular weight less than 80 g/mol,
A leg restraint for side-seated aircraft occupants, and comprising: (a) a leg-restraining member mountable in proximity to a side-facing aircraft seat, comprising a panel mountable beneath a seat bottom of the aircraft seat, and selectively moveable between a deployed, laterally-extending leg-protecting position during taxi, take-off and landing and a retracted, non-leg interfering position; (b) an impact-activated biasing member cooperating with the leg-restraining member to move the leg-restraining member into the retracted position upon impact of an occupant's leg against the leg-restraining member and comprising a spring cooperating with the panel; and (c) a locking member cooperating with the leg-restraining member to retain the leg restraining member in its deployed position against a biasing force towards the retracted position until an impact of an occupant's leg against the leg-restraining member, wherein the locking member comprises a locking pin carried by the panel and mounted for movement in a guide slot formed in a cap mounted on the panel, the guide slot including a notch offset to one side of the guide slot and positioned to capture the locking pin upon deployment of the panel to retain the panel in its deployed position against a biasing force applied to the panel towards the retracted position. (a) a leg-restraining member mountable in proximity to a side-facing aircraft seat, comprising a panel mountable beneath a seat bottom of the aircraft seat, and selectively moveable between a deployed, laterally-extending leg-protecting position during taxi, take-off and landing and a retracted, non-leg interfering position; (b) an impact-activated biasing member cooperating with the leg-restraining member to move the leg-restraining member into the retracted position upon impact of an occupant's leg against the leg-restraining member and comprising a spring cooperating with the panel; and (c) a locking member cooperating with the leg-restraining member to retain the leg restraining member in its deployed position against a biasing force towards the retracted position until an impact of an occupant's leg against the leg-restraining member, wherein the locking member comprises a locking pin carried by the panel and mounted for movement in a guide slot formed in a cap mounted on the panel, the guide slot including a notch offset to one side of the guide slot and positioned to capture the locking pin upon deployment of the panel to retain the panel in its deployed position against a biasing force applied to the panel towards the retracted position.
A method of isomerisation of X (xanthohumol) into IX (isoxanthohumol), the method comprising the step of incubating dry spent hop material containing polyphenols, without further extractions on the spent hop material or without addition of solvents to the spent hop material, under inert conditions at a temperature of between 20 and 100 °C, until a product is obtained with a ratio of IX (w/w%) / X (xanthohumol) (w/w%) which is above 0,035.
Process for producing a composite particle comprising a host particle having adhered to its surface one or more smaller guest particles, which process comprises the steps of: (i) bringing said host particle in a gas stream and allowing it to contact with one or more moving tribocharging particles, thus providing a charged host particle; (ii) separating said charged host particle from said tribocharging particles; and (iii) transporting the charged particles to an electrospraying zone by entrainment of said particles with the gas flow and subjecting said charged host particle to an electrospraying step, in which said guest particles are provided with a charge that is opposite to the charge of said charged host particles, followed by contacting said guest particles with said host particles, whereby said guest particles adhere to said host particle, thus forming said composite particle, wherein step (i) is carried out in a fluidized bed wherein said host particle is suspended, wherein said gas stream is fed to the bottom of said fluidized bed, and wherein said tribocharging particles are moved by the flow of said gas. (i) bringing said host particle in a gas stream and allowing it to contact with one or more moving tribocharging particles, thus providing a charged host particle; (ii) separating said charged host particle from said tribocharging particles; and (iii) transporting the charged particles to an electrospraying zone by entrainment of said particles with the gas flow and subjecting said charged host particle to an electrospraying step, in which said guest particles are provided with a charge that is opposite to the charge of said charged host particles, followed by contacting said guest particles with said host particles, whereby said guest particles adhere to said host particle, thus forming said composite particle, wherein step (i) is carried out in a fluidized bed wherein said host particle is suspended, wherein said gas stream is fed to the bottom of said fluidized bed, and wherein said tribocharging particles are moved by the flow of said gas.
A coating color comprising at least one pigment, water and: • between 30 and 90% by weight of dextrin composed of at least one dextrin with a weight-average molecular weight M A of less than 500 kDa; • between 10 and 70% by weight of dextrin composed of at least one dextrin with a weight-average molecular weight M B; the amounts by weight of dextrins being with respect to the total amount of the mixture of dextrins and in the composition, characterized in that M B is greater than M A + 50 kDa and the dextrin is composed of at least one waxy dextrin.. • between 30 and 90% by weight of dextrin composed of at least one dextrin with a weight-average molecular weight M A of less than 500 kDa; • between 10 and 70% by weight of dextrin composed of at least one dextrin with a weight-average molecular weight M B;
A method for detecting a fault in an AC/AC exciter comprising an exciter rotor and an exciter stator, the method comprising the steps of: - obtaining a rotor current signal or a rotor voltage signal reflecting the current or voltage, respectively, at an exciter rotor winding; - applying a frequency analysis on the obtained signal to detect any frequency components; and - determining, on the basis of a presence of a frequency component at a first frequency f s ∗ (2 - s), where f s is a supply frequency of the exciter stator and s is an exciter slip, whether the exciter suffers from an inter-turn short circuit in an exciter stator winding or not. - obtaining a rotor current signal or a rotor voltage signal reflecting the current or voltage, respectively, at an exciter rotor winding; - applying a frequency analysis on the obtained signal to detect any frequency components; and - determining, on the basis of a presence of a frequency component at a first frequency f s ∗ (2 - s), where f s is a supply frequency of the exciter stator and s is an exciter slip, whether the exciter suffers from an inter-turn short circuit in an exciter stator winding or not.