mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing thermoplastic containers by drawing and blow-forming consisting of a succession of manufacturing cycles, during each of which a new container is manufactured, each manufacturing cycle comprising a pre-blow-forming phase in which a preform is connected to a pre-blow-forming air network so that the preform becomes a container ready to be blow-formed in a global blow-forming phase which comprises, in succession at least the following sub-phases: a blow-forming or a succession of blow-formings in which the container is connected, in succession, to air networks (S1, S2) of increasingly higher pressure, then a recovery or a succession of recoveries in which the container is connected, in succession, to recovery air networks of increasingly lower pressure, until the last recovery in which the container is connected to an air network, then a gas purging in which the container is connected to atmospheric pressure, and finally an opening of the mould comprising the disconnection of the nozzle, characterized in that there is selected at least one point characteristic of the pressure (Pr t) in the container taken from the points that can be selected that are, if there are several blow-formings, the transition between two successive blow-mouldings; if there are several recoveries, the transition between two successive recoveries and the transition between the last recovery and the gas purging; in that, for each point selected, a triggering criterion (|ΔP|, |P'|), and a predetermined value of the criterion, are determined, in that during a data acquisition phase extending over at least one manufacturing cycle, the pressure (Pr t) in the container, and in the air network or networks affected by the selected point or points, is measured, in that, for each point selected, there are determined, from the measured pressure curves: - the actual instant (t e, t g, t h) corresponding to said points selected (E, G, H), - the actual value of the criterion at the point selected, and - a setpoint instant for triggering, in a subsequent manufacturing cycle, the transition to the sub-phase following the characteristic point, such that: if the actual value of the criterion is less than or equal to the predetermined value, the setpoint instant is the instant for which the criterion has taken a value equal to the predetermined value, and if the actual value of the criterion is strictly greater than the predetermined value, the setpoint instant is after the actual instant and is determined such that at this instant, the criterion takes a value approximating to or coinciding with the predetermined value. a blow-forming or a succession of blow-formings in which the container is connected, in succession, to air networks (S1, S2) of increasingly higher pressure, - the actual instant (t e, t g, t h) corresponding to said points selected (E, G, H), - the actual value of the criterion at the point selected, and - a setpoint instant for triggering, in a subsequent manufacturing cycle, the transition to the sub-phase following the characteristic point, such that:
An electrical assembly comprising: a housing comprising a first wall and a second wall spaced apart from the first wall, an interior defined between the first wall and the second wall; a transition passage having an input and an output; the first wall having a first inbound cavity for receiving a coolant from an inlet port, the first wall having a first outbound cavity for directing the coolant to the input of the transition passage; the second wall having a second inbound cavity for receiving a coolant from the output of the transition passage, the second wall having second outbound cavity for directing the coolant from the second inbound cavity to an outlet port; the transition passage comprising a transverse hollow volume interconnecting the first outbound cavity of the first wall to the second inbound cavity of a second wall; and at least one inductor in the interior of the housing with a gap between the at least one inductor and the first wall or the second wall, the inductor being covered by a thermal interface material to fill the gap. a housing comprising a first wall and a second wall spaced apart from the first wall, an interior defined between the first wall and the second wall; a transition passage having an input and an output; the first wall having a first inbound cavity for receiving a coolant from an inlet port, the first wall having a first outbound cavity for directing the coolant to the input of the transition passage; the second wall having a second inbound cavity for receiving a coolant from the output of the transition passage, the second wall having second outbound cavity for directing the coolant from the second inbound cavity to an outlet port; the transition passage comprising a transverse hollow volume interconnecting the first outbound cavity of the first wall to the second inbound cavity of a second wall; and at least one inductor in the interior of the housing with a gap between the at least one inductor and the first wall or the second wall, the inductor being covered by a thermal interface material to fill the gap.
Use of an aqueous coating composition for coating zinc or zinc alloy coated steel substrates, the composition comprising: (i) one or more alkaline sulfates, and (ii) one or more alkaline carbonates, wherein the total alkaline sulfate concentration of the aqueous coating composition lies in the range of 7 - 100 g/l, wherein the total alkaline carbonate concentration of the aqueous coating composition lies in the range of 0.5 - 40 g/l and wherein the pH of the composition ranges from 9 - 12, preferably 10.2 - 11.5. (i) one or more alkaline sulfates, and (ii) one or more alkaline carbonates,
A method for producing α,α-difluoroacetaldehyde of the formula, comprising: reaction of an α,α-difluoroacetic acid ester of the general formula with hydrogen gas (H 2) in the presence of a ruthenium complex of the general formula, where R 1 represents an alkyl group or a substituted alkyl group, where R each independently represents a hydrogen atom, an alkyl group, a substituted alkyl group, an aromatic ring group or a substituted aromatic ring group; Ar each independently represents an aromatic ring group or a substituted aromatic ring group; X each independently represents a ligand with a formal charge of -1 or 0 (with the proviso that the sum of the formal charges of three X is -2); and n each independently represents an integer of 1 or 2.
Microfluidic flow cell having a dry substance which is arranged within the flow cell in a cavity and which serves for interacting with a fluid situated in the cavity, wherein the cavity is delimited by a recess in a substrate and a cover which closes off the recess, and wherein the flow cell comprises a separate support element having a support surface for the dry substance, which surface is provided for arrangement adjacent to the cavity, characterized in that an outwardly open passage, which is led to an outer surface of the flow cell, opens into the cavity, and in that the separate support element is able to be inserted into the passage from the outside such that the cavity is closed off and such that the support surface is arranged adjacent to the cavity.
A method for inducing osteogenic differentiation from stem cells for 3-7 days comprises: placing a porous membrane above the bottom of a cell culture container in a non-contact manner; applying a hydrogel solution on one surface of the porous membrane to coat 1-10% concentration of hydrogel thereon through a sol-gel phase transition; seeding stem cells on the coated hydrogel; and culturing the stem cells in an osteogenic differentiation inducing medium, wherein the hydrogel is in a gel phase at a cell culture temperature, 37°C, and the viscosity of the hydrogel at 37°C is 10° to 10 6 mPa.s, wherein the hydrogel is in a sol phase at a temperature lower than the cell culture temperature, wherein the hydrogel produced by the sol-gel phase transition has a thickness of 1 mm to 4 mm. placing a porous membrane above the bottom of a cell culture container in a non-contact manner; applying a hydrogel solution on one surface of the porous membrane to coat 1-10% concentration of hydrogel thereon through a sol-gel phase transition; seeding stem cells on the coated hydrogel; and culturing the stem cells in an osteogenic differentiation inducing medium, wherein the hydrogel is in a gel phase at a cell culture temperature, 37°C, and the viscosity of the hydrogel at 37°C is 10° to 10 6 mPa.s, wherein the hydrogel is in a sol phase at a temperature lower than the cell culture temperature, wherein the hydrogel produced by the sol-gel phase transition has a thickness of 1 mm to 4 mm.
Brain computer interface BCI comprising an input adapted to be connected to at least one electroencephalography EEG sensor to receive EEG signals, the BCI further comprising a processor running an associative model applying a multiway regression approach, the model being trained to simulate electrocorticography ECoG signal features from EEG signals received via the input, the trained model being configured to process the input EEG signals to produce and output the simulated ECoG signal features, the BCI comprising an output to transmit the simulated ECoG signal features
A coke control reactor, wherein the coke control reactor comprises a riser reactor and a bed reactor, an upper section of the riser reactor penetrates through a bottom of the bed reactor and is axially inserted in the bed reactor; the bed reactor comprises a bed reactor shell, and characterized in that the bed reactor shell encloses a reaction zone I, a transition zone, and a gas-solid separation zone I from bottom to top, the transition zone has a diameter gradually increasing from bottom to top such that a bottom of the transition zone is connected to a top of the reaction zone I and a top of the transition zone is connected to a bottom of the gas-solid separation zone I; a bed reactor distributor is arranged in an inner lower part of the reaction zone I; a coke controlled catalyst delivery pipe is arranged outside the reaction zone I and configured to deliver a coke controlled catalyst to a next-level reactor; and an outlet end of the riser reactor is located in the transition zone; wherein at least one perforated plate is arranged in the reaction zone I; the plurality of perforated plates is axially arranged on a periphery of the riser reactor in sequence; the outlet end of the riser reactor is located above the perforated plate; the bed reactor distributor is located below the perforated plate; preferably, the perforated plate has a porosity of 1% to 30%. the bed reactor comprises a bed reactor shell, and characterized in that the bed reactor shell encloses a reaction zone I, a transition zone, and a gas-solid separation zone I from bottom to top, the transition zone has a diameter gradually increasing from bottom to top such that a bottom of the transition zone is connected to a top of the reaction zone I and a top of the transition zone is connected to a bottom of the gas-solid separation zone I; a bed reactor distributor is arranged in an inner lower part of the reaction zone I; a coke controlled catalyst delivery pipe is arranged outside the reaction zone I and configured to deliver a coke controlled catalyst to a next-level reactor; and an outlet end of the riser reactor is located in the transition zone; wherein at least one perforated plate is arranged in the reaction zone I; the plurality of perforated plates is axially arranged on a periphery of the riser reactor in sequence; the outlet end of the riser reactor is located above the perforated plate; the bed reactor distributor is located below the perforated plate; preferably, the perforated plate has a porosity of 1% to 30%.
A fuel tank having a wall with an inside surface defining the interior of the tank, and locking means coupling a fuel tank sub-component to said inside surface of the wall without compromising the integrity of the wall, said locking means comprising complimentary male and female formations, one on said sub-component and the other on said inside surface, said formations being shaped to permit engagement of the formation on the sub-component with the formation on the wall by movement of the sub-component towards the wall and subsequent interlocking of said formations by a first angular movement of the sub-component with respect to the wall in a first direction, characterized by further comprising alignment means aligning the sub-component within the fuel tank, said alignment means comprising a second set of complimentary male and female formations on the subcomponent and the inside surface respectively, said second formations being shaped to permit alignment of the sub-component within the fuel tank prior to coupling.
A virtual trusted platform module, vTPM, implementation method, comprising: obtaining, by a vTPM service component, first request information from a vTPM proxy component, wherein the first request information comprises an identifier of a first virtual machine, VM, the first request information is used to request to perform a TPM operation, the vTPM service component runs in a trusted execution environment of a computer, and the first VM and the vTPM proxy component run in a rich execution environment of the computer; and processing, by the vTPM service component, the first request information based on data in a first storage space, wherein the first storage space is a storage space corresponding to the identifier of the first VM in the trusted execution environment, and the first storage space is used to store TPM data of the first VM. obtaining, by a vTPM service component, first request information from a vTPM proxy component, wherein the first request information comprises an identifier of a first virtual machine, VM, the first request information is used to request to perform a TPM operation, the vTPM service component runs in a trusted execution environment of a computer, and the first VM and the vTPM proxy component run in a rich execution environment of the computer; and processing, by the vTPM service component, the first request information based on data in a first storage space, wherein the first storage space is a storage space corresponding to the identifier of the first VM in the trusted execution environment, and the first storage space is used to store TPM data of the first VM.
Curable composition, containing (a) a compound with a radically reactive double bond selected from an unsaturated polyester, a vinyl ester and vinyl ester urethane, and mixtures thereof and (b) a methacrylate or acrylate selected from tert.-butylaminoethyl methacrylate, dimethylaminoethyl methacrylate, diethylaminoethyl methacrylate, tert.-butylaminoethyl acrylate, dimethylaminoethyl acrylate, diethylaminoethyl acrylate and mixtures thereof. (a) a compound with a radically reactive double bond selected from an unsaturated polyester, a vinyl ester and vinyl ester urethane, and mixtures thereof and (b) a methacrylate or acrylate selected from tert.-butylaminoethyl methacrylate, dimethylaminoethyl methacrylate, diethylaminoethyl methacrylate, tert.-butylaminoethyl acrylate, dimethylaminoethyl acrylate, diethylaminoethyl acrylate and mixtures thereof.
A hydraulic structure comprising a shell formed of interlocking concrete riprap blocks, wherein the concrete riprap blocks (100, 200, 525 4a, 525 4b, 525 b, 525 m, 525 h) comprise a central portion with a solid core (12, 201) and legs (14, 310, 210) projecting from this central portion, wherein the blocks comprise at least one duct (20, 30, 30', 610, 620, 630) extending radially from the interior of the core of the central portion and opening to the exterior of the block, characterized in that the shell has a heterogeneous permeability, the shell being formed of first blocks (525 4a, 525 b) having a first porosity, defined by a first number of ducts and/or by first duct dimensions specific to the first blocks, and at least second blocks (525 4b, 525 m) having a second porosity, different from the first porosity and defined by a second number of ducts and/or by second duct dimensions specific to the second blocks, the number of ducts of the second blocks being different from the number of ducts of the first blocks and/or the dimensions of the ducts of the second blocks being different from the dimensions of the ducts of the first blocks.
A cartridge for a vaporizer device, the cartridge comprising: a cartridge housing having a first housing segment coupled with a second housing segment, at least a portion of the cartridge housing forming a wick housing; a reservoir disposed within the cartridge housing, the reservoir including a storage chamber and a collector, the collector including an overflow channel configured to retain a volume of a vaporizable material in fluid contact with the storage chamber, the overflow channel including one or more microfluidic features (230a, b) configured to provide a constriction point at which a meniscus forms to create a pressure differential between the reservoir and ambient pressure, the meniscus further regulating an exchange of air and the vaporizable material into and out of the reservoir; a heating element, the heating element including a heating portion disposed at least partially inside the wick housing and a contact portion extending at least partially outside of the wick housing, the contact portion including one or more cartridge contacts configured to form an electric coupling with one or more contacts in the vaporizer device; and a wicking element disposed at least partially inside the wick housing and proximate to the heating portion of the heating element, the wicking element being in fluid communication with the reservoir, and the wicking element configured to draw the vaporizable material from the reservoir for vaporization by the heating element. a cartridge housing having a first housing segment coupled with a second housing segment, at least a portion of the cartridge housing forming a wick housing; a reservoir disposed within the cartridge housing, the reservoir including a storage chamber and a collector, the collector including an overflow channel configured to retain a volume of a vaporizable material in fluid contact with the storage chamber, the overflow channel including one or more microfluidic features (230a, b) configured to provide a constriction point at which a meniscus forms to create a pressure differential between the reservoir and ambient pressure, the meniscus further regulating an exchange of air and the vaporizable material into and out of the reservoir; a heating element, the heating element including a heating portion disposed at least partially inside the wick housing and a contact portion extending at least partially outside of the wick housing, the contact portion including one or more cartridge contacts configured to form an electric coupling with one or more contacts in the vaporizer device; and a wicking element disposed at least partially inside the wick housing and proximate to the heating portion of the heating element, the wicking element being in fluid communication with the reservoir, and the wicking element configured to draw the vaporizable material from the reservoir for vaporization by the heating element.
Watch external component, taken from middle part, back, bezel, bracelet, clasp, the material of which is a titratable alloy, characterised in that said alloy includes at least titanium and palladium, the mass content of palladium being at least 50.0%, and less than or equal to 51.0% of the total of said alloy, and in that: - said alloy includes niobium and conforms to the atomic formula i a Pd b M c T d, where a, b, c, d are atomic fractions of the total, such that a+b+c+d= 1. - where the atomic fraction d is the sum of the atomic fractions of metal traces T, each said metal trace T being taken with an atomic proportion of less than 3.0% of the total of said alloy, which alloy includes at least 0.05% of boron in atomic fraction, said metal traces T are taken from a sub-group of traces including V, Ru, Rh, Au, Pt, Cr, B, - the atomic complement to 100% consisting of niobium, - and said atomic fractions a, b, c, d are such that: - a is comprised between 0.49 and 0.51 inclusive, - b is comprised between 0.34 and 0.38 inclusive, - c is comprised between 0.09 and 0.16 inclusive, - d is comprised between 0.001 and 0.03 inclusive. - said alloy includes niobium and conforms to the atomic formula i a Pd b M c T d, where a, b, c, d are atomic fractions of the total, such that a+b+c+d= 1. - where the atomic fraction d is the sum of the atomic fractions of metal traces T, each said metal trace T being taken with an atomic proportion of less than 3.0% of the total of said alloy, which alloy includes at least 0.05% of boron in atomic fraction, said metal traces T are taken from a sub-group of traces including V, Ru, Rh, Au, Pt, Cr, B, - the atomic complement to 100% consisting of niobium, - and said atomic fractions a, b, c, d are such that: - a is comprised between 0.49 and 0.51 inclusive, - b is comprised between 0.34 and 0.38 inclusive, - c is comprised between 0.09 and 0.16 inclusive, - d is comprised between 0.001 and 0.03 inclusive.
An apparatus (100, 300) for stripping irregular material from a line (1, 8, 9) during relative movement between the apparatus (100, 300) and line (1, 8, 9), said apparatus (100, 300) including: - a line guide (200, 400) for positioning the line (1, 8, 9) therein and through which the line (1, 8, 9) may pass during said relative movement; - a material guide (210, 410) including a rotatable constricting member; - a stripping mechanism (101, 301) having at least one stripping element (102, 302) movable with respect to the line guide (200, 400) and line (1, 8, 9), said stripping element (102, 302) being configured in use to impinge on the irregular material, thereby at least partially stripping the material from said line (1, 8, 9), and characterised in that the line (1, 8, 9) can pass through said material guide (210, 410), the material guide configured to vertically displace the line and at least partially guide, constrict, compact and/or re-orientate said irregular material attached to the line (1, 8, 9) into engagement with said stripping mechanism (101, 301) during said relative movement. - a line guide (200, 400) for positioning the line (1, 8, 9) therein and through which the line (1, 8, 9) may pass during said relative movement; - a material guide (210, 410) including a rotatable constricting member; - a stripping mechanism (101, 301) having at least one stripping element (102, 302) movable with respect to the line guide (200, 400) and line (1, 8, 9), said stripping element (102, 302) being configured in use to impinge on the irregular material, thereby at least partially stripping the material from said line (1, 8, 9), and
A device for processing bone marrow aspirate comprising: a first chamber providing for the fractionation of bone marrow aspirate into layers including an adipose layer; a second chamber in fluid communication with the first chamber, characterized in that an emulsification system is provided in fluid communication with the second chamber for emulsifying an adipose layer supernatant fraction separated from the bone marrow aspirate received in the first chamber. a first chamber providing for the fractionation of bone marrow aspirate into layers including an adipose layer; a second chamber in fluid communication with the first chamber, characterized in that an emulsification system is provided in fluid communication with the second chamber for emulsifying an adipose layer supernatant fraction separated from the bone marrow aspirate received in the first chamber.