mhurhangee/ep-ind-claims huggingface dataset:
A submerged burner vitrifiable material melting furnace including a wall cooled by a cooling fluid (4, 22), the face of the wall facing toward the interior of the furnace has, before melting vitrifiable material (53, 55) in the furnace, an attachment texture for so-called self-crucible devitrified vitrifiable material, characterized in that the wall includes a metal plate (1, 20, 50), the attachment texture being produced by an attachment system comprising projecting metal elements (2, 21) fixed to the face of said plate facing toward the interior of the furnace.
A program development support device for supporting development of a safety program to be executed in a safety controller, comprising: development means configured to develop the safety program in response to user operation, the safety program including first logic as a functional safety portion; calculation means configured to calculate an identification value according to data of the developed safety program, by implementing a function for calculating a random value with respect to an input; transfer means configured to transfer the safety program to the safety controller for the safety controller to calculate a second the identification value from the safety program executed on the safety controller; comparison means configured to compare the identification value calculated from the safety program on the program development support device and the second identification value calculated from the safety program on the safety controller; and output means configured to output a document related to the safety program under a condition that the identification value is identical to the second identification value, wherein: the output means is configured to provide the identification value calculated by the calculation means to all pages of the document which are related to the first logic in the safety program. development means configured to develop the safety program in response to user operation, the safety program including first logic as a functional safety portion; calculation means configured to calculate an identification value according to data of the developed safety program, by implementing a function for calculating a random value with respect to an input; transfer means configured to transfer the safety program to the safety controller for the safety controller to calculate a second the identification value from the safety program executed on the safety controller; comparison means configured to compare the identification value calculated from the safety program on the program development support device and the second identification value calculated from the safety program on the safety controller; and output means configured to output a document related to the safety program under a condition that the identification value is identical to the second identification value, wherein: the output means is configured to provide the identification value calculated by the calculation means to all pages of the document which are related to the first logic in the safety program.
A fluid-metering device for a hose or pipe, comprising: a body having an inlet and an outlet (11, 12); an impeller drivable by a flow of fluid through the device; a barrel, having an inlet and an outlet (42, 43), slidably mounted in the body such that the barrel is slidable between an open position wherein the barrel inlet and outlet (42, 43) are aligned with the body inlet and outlet (11, 12) such that a fluid can flow through the device and drive the impeller, and a closed position wherein the barrel inlet and outlet (42, 43) are offset from the body inlet and outlet (11, 12) such that a fluid cannot flow through the device, the barrel being biased towards the closed position; and latching means arranged to hold the barrel in the open position, wherein a predetermined number of rotations of the impeller will release the barrel. a body having an inlet and an outlet (11, 12); an impeller drivable by a flow of fluid through the device; a barrel, having an inlet and an outlet (42, 43), slidably mounted in the body such that the barrel is slidable between an open position wherein the barrel inlet and outlet (42, 43) are aligned with the body inlet and outlet (11, 12) such that a fluid can flow through the device and drive the impeller, and a closed position wherein the barrel inlet and outlet (42, 43) are offset from the body inlet and outlet (11, 12) such that a fluid cannot flow through the device, the barrel being biased towards the closed position; and latching means arranged to hold the barrel in the open position, wherein a predetermined number of rotations of the impeller will release the barrel.
Cosmetic composition comprising, in a cosmetically acceptable medium, a dispersion of particles of a non-silicone-based grafted acrylic polymer in a liquid fatty phase, said grafted acrylic polymer being a polymer able to be obtained by radical polymerization: - of one or more acrylic monomer(s) comprising at least (meth)acrylic acid and at least one monomer chosen from C 1 -C 3 alkyl (meth) acrylates, - with poly(ethylene/butylene) methacrylate as carbon-based macromonomer(s) having a weight-average molecular weight greater than or equal to 200 and the content of polymerized macromonomer representing from 0.05 to 20% by weight of the polymer, in an organic polymerization medium. - of one or more acrylic monomer(s) comprising at least (meth)acrylic acid and at least one monomer chosen from C 1 -C 3 alkyl (meth) acrylates, - with poly(ethylene/butylene) methacrylate as carbon-based macromonomer(s) having a weight-average molecular weight greater than or equal to 200 and the content of polymerized macromonomer representing from 0.05 to 20% by weight of the polymer, in an organic polymerization medium.
Frame for fixing cells, comprising a frame body, in which is formed at least one cooling channel (6a, 16a) for a cooling medium, wherein the frame has at least one plug-in component (12, 16) for connecting to another frame, wherein the cooling channel (6a, 16a) runs, at least in part, within the plug-in component (12, 16), wherein the plug-in component (12, 16) projects, at least in part, out of the frame plane such that it can project into a complementary opening of a plug-in component (12, 16) of an adjacent frame and that the plug-in component (12, 16) has at least one seal, characterized in that the seal provides radial sealing.
A fan assembly for installation in a tunnel to provide ventilation in the tunnel, the fan assembly comprising: a fan rotor for generating a ventilating flow; and the inflow into the fan rotor being substantially parallel to the outflow from the fan rotor; and a nozzle coupled to the fan, the nozzle having a trailing edge at the distal end from the fan; and the assembly being arranged or arrangeable such that a ventilating flow generated by the fan will pass through the nozzle before exiting the assembly to enter a tunnel to be ventilated; and the nozzle shape being arranged to turn the flow away from the surrounding tunnel surfaces, wherein at least one edge of the nozzle throughbore is at an angle to the fan centreline; wherein the angle made between the nozzle trailing edge and the fan centreline is not perpendicular, and wherein the angle made between the nozzle trailing edge and the centreline of the nozzle is within the range of 45 degrees to 85 degrees; characterised in that the nozzle trailing edge forms the shape of a circle. a fan rotor for generating a ventilating flow; and the inflow into the fan rotor being substantially parallel to the outflow from the fan rotor; and a nozzle coupled to the fan, the nozzle having a trailing edge at the distal end from the fan; and the assembly being arranged or arrangeable such that a ventilating flow generated by the fan will pass through the nozzle before exiting the assembly to enter a tunnel to be ventilated; and the nozzle shape being arranged to turn the flow away from the surrounding tunnel surfaces, wherein at least one edge of the nozzle throughbore is at an angle to the fan centreline; wherein the angle made between the nozzle trailing edge and the fan centreline is not perpendicular, and wherein the angle made between the nozzle trailing edge and the centreline of the nozzle is within the range of 45 degrees to 85 degrees; characterised in that the nozzle trailing edge forms the shape of a circle.
A nonwoven laminate, comprising: first and second outer nonwoven layers comprising spunbond fibers; and a third inner nonwoven layer comprising meltblown fibers, wherein the nonwoven laminate is thermally bonded with a regular bond pattern having a percentage bond area of 10% or greater, the meltblown fibers are entangled with the spunbond fibers, the basis weight of the third inner layer is at least 5 grams per square meter (gsm); and the nonwoven laminate has an abrasion rating of 4.0 or higher, when measured by 40 cycles in accordance with ASTM D 4966-98, and an average Handle-O-Meter measurement of 6.0 grams (g) or lower, wherein Handle-O-Meter is measured in accordance with the description. first and second outer nonwoven layers comprising spunbond fibers; and a third inner nonwoven layer comprising meltblown fibers, wherein the nonwoven laminate is thermally bonded with a regular bond pattern having a percentage bond area of 10% or greater, the meltblown fibers are entangled with the spunbond fibers, the basis weight of the third inner layer is at least 5 grams per square meter (gsm); and the nonwoven laminate has an abrasion rating of 4.0 or higher, when measured by 40 cycles in accordance with ASTM D 4966-98, and an average Handle-O-Meter measurement of 6.0 grams (g) or lower, wherein Handle-O-Meter is measured in accordance with the description.
An antibody, or an O-acetylated-GD2 ganglioside binding fragment thereof comprising a CH1 domain, which binds specifically to the O-acetylated-GD2 ganglioside, said antibody comprising: a) a light chain comprising three light chain complementary regions (CDRs) having the following amino acid sequences: i) the light chain CDR1: QSLLKNNGNTFL (SEQ id n°1); ii) the light chain CDR2: KVS; iii) the light chain CDR3: SQSTHIPYT (SEQ id n°2); and four light chain framework regions from an immunoglobulin light chain, and a human kappa (κ) CL domain; and b) a heavy chain comprising three heavy chain complementary regions (CDRs) having the following amino acid sequences: i) the heavy chain CDR1: EFTFTDYY (SEQ id n°3); ii) the heavy chain CDR2: IRNRANGYTT (SEQ id n°4); iii) the heavy chain CDR3: ARVSNWAFDY (SEQ id n°5); and four heavy chain framework regions from an immunoglobulin heavy chain, and: 1) the CH2 and CH3 domains from a human IgG1, and 2) a CH1 domain from a human IgG1, wherein the amino acid at the 133 or 134 position of SEQ id n°29, according to EU index as set forth in Kabat et al., has been substituted by a cysteine residue thereby restoring the pairing between CH1 and CL domains that is typical of human IgG2, IgG3 and IgG4 subclasses, or a CH1 domain from a human IgG2, IgG3 or IgG4. a) a light chain comprising three light chain complementary regions (CDRs) having the following amino acid sequences: i) the light chain CDR1: QSLLKNNGNTFL (SEQ id n°1); ii) the light chain CDR2: KVS; iii) the light chain CDR3: SQSTHIPYT (SEQ id n°2); and four light chain framework regions from an immunoglobulin light chain, and a human kappa (κ) CL domain; and i) the light chain CDR1: QSLLKNNGNTFL (SEQ id n°1); ii) the light chain CDR2: KVS; iii) the light chain CDR3: SQSTHIPYT (SEQ id n°2); and b) a heavy chain comprising three heavy chain complementary regions (CDRs) having the following amino acid sequences: i) the heavy chain CDR1: EFTFTDYY (SEQ id n°3); ii) the heavy chain CDR2: IRNRANGYTT (SEQ id n°4); iii) the heavy chain CDR3: ARVSNWAFDY (SEQ id n°5); and four heavy chain framework regions from an immunoglobulin heavy chain, and: 1) the CH2 and CH3 domains from a human IgG1, and 2) a CH1 domain from a human IgG1, wherein the amino acid at the 133 or 134 position of SEQ id n°29, according to EU index as set forth in Kabat et al., has been substituted by a cysteine residue thereby restoring the pairing between CH1 and CL domains that is typical of human IgG2, IgG3 and IgG4 subclasses, or a CH1 domain from a human IgG2, IgG3 or IgG4. i) the heavy chain CDR1: EFTFTDYY (SEQ id n°3); ii) the heavy chain CDR2: IRNRANGYTT (SEQ id n°4); iii) the heavy chain CDR3: ARVSNWAFDY (SEQ id n°5); and 1) the CH2 and CH3 domains from a human IgG1, and 2) a CH1 domain from a human IgG1, wherein the amino acid at the 133 or 134 position of SEQ id n°29, according to EU index as set forth in Kabat et al., has been substituted by a cysteine residue thereby restoring the pairing between CH1 and CL domains that is typical of human IgG2, IgG3 and IgG4 subclasses, or a CH1 domain from a human IgG2, IgG3 or IgG4.
Trouser treatment device characterized in that it comprises: [a] a trouser supply module, where each of said trousers is manually insertable by an operator and is retainable by the waist and hangs vertically, [b] a work station with a trouser holder and a processing device, where said trouser holder has two legs able to lodge inside the legs of said trousers, where each leg defines a longitudinal axis, where said trouser holder has a front part, corresponding to the front part of the trousers, and a back part, where each one of said legs has an inner edge, proximate to the other leg, and an outer edge, opposite said inner edge, and [c] a transport module with fastening clamps able to hold by the waist said pair of trousers, said transport module being able to transport said pair of trousers from said supply module to said trouser holder. [a] a trouser supply module, where each of said trousers is manually insertable by an operator and is retainable by the waist and hangs vertically, [b] a work station with a trouser holder and a processing device, where said trouser holder has two legs able to lodge inside the legs of said trousers, where each leg defines a longitudinal axis, where said trouser holder has a front part, corresponding to the front part of the trousers, and a back part, where each one of said legs has an inner edge, proximate to the other leg, and an outer edge, opposite said inner edge, and [c] a transport module with fastening clamps able to hold by the waist said pair of trousers, said transport module being able to transport said pair of trousers from said supply module to said trouser holder.
Multidimensional tool for assessing the risk of falling in older people consisting of a trolley comprising two consecutive levels of instruments wherein: - a first level of the two consecutive levels of the multidimensional tool comprises digital stopwatches, a bioimpedance scale, a metronome, mattresses, a digital medium with an instruction manual and installation tutorial for a computer application, and with an installation of all the functions of the computer application that allows for the recording of results and obtaining of a risk developed specifically for the multidimensional tool, and a tutorial that allows, through the computer application, for a substitution of tests performed on the bioimpedance scale to assess body composition, and an alternative dynamic model for bioimpedance which combines results of other variables of body composition to calculate the risk of falling; - a second of the two consecutive levels of the multidimensional tool comprises a 150cm anthropometric tape, a 20m measuring tape, flat markers, retractable cones 30cm in height, a 30cm ruler, a 50cm ruler, a stadiometer, threaded dumbbell handles, dumbbell weights, and writing media; wherein the multidimensional tool is suitable for the realization of tests to evaluate the strength of the lower limbs, agility and dynamic balance; wherein the multidimensional tool is made from thermo-molded plastic material and has the dimensions of 150mm in height, 360mm in width and 460mm in length. - a first level of the two consecutive levels of the multidimensional tool comprises digital stopwatches, a bioimpedance scale, a metronome, mattresses, a digital medium with an instruction manual and installation tutorial for a computer application, and with an installation of all the functions of the computer application that allows for the recording of results and obtaining of a risk developed specifically for the multidimensional tool, and a tutorial that allows, through the computer application, for a substitution of tests performed on the bioimpedance scale to assess body composition, and an alternative dynamic model for bioimpedance which combines results of other variables of body composition to calculate the risk of falling; - a second of the two consecutive levels of the multidimensional tool comprises a 150cm anthropometric tape, a 20m measuring tape, flat markers, retractable cones 30cm in height, a 30cm ruler, a 50cm ruler, a stadiometer, threaded dumbbell handles, dumbbell weights, and writing media; wherein the multidimensional tool is suitable for the realization of tests to evaluate the strength of the lower limbs, agility and dynamic balance; wherein the multidimensional tool is made from thermo-molded plastic material and has the dimensions of 150mm in height, 360mm in width and 460mm in length.
A method for monitoring a machine tool, in particular a material-removing machine tool, having the steps of: (a) determining process variable measured values (B(i)) of a process variable on the basis of a parameter, (b) determining whether the process variable measured values (B(i)) lie within a predefined tolerance range (T(i)) which depends on the parameter, (c) if not, outputting a warning signal and (d) constantly repeating steps (a) to (c), characterised by the step: (e) calculating the parameter as the argument of the tool trajectory from the real time (t) and at least one process parameter (O, Δt still) which characterizes the processing speed of the machining process, so that the parameter is a control variable (i) which always characterizes a progress of the machining process. (a) determining process variable measured values (B(i)) of a process variable on the basis of a parameter, (b) determining whether the process variable measured values (B(i)) lie within a predefined tolerance range (T(i)) which depends on the parameter, (c) if not, outputting a warning signal and (d) constantly repeating steps (a) to (c),
A chemical reactor including: one or more solid oxide fuel cells, each cell having an electrolyte layer joining a cathode and an anode, the one or more fuel cell cathodes being located in a first gas zone of the reactor, and the one or more fuel cell anodes being located in a second gas zone of the reactor; a first gas supply route for supplying a flow of oxidant to the first gas zone; a second gas supply route for supplying a flow of reactant to the second gas zone; and a gas removal route for removing a flow of reaction products away from the second gas zone; and one or more leakage paths which fluidly connect the first gas zone to the second gas zone such that a leakage flow of oxidant leaks from the first gas zone into the second gas zone to support a direct exothermic chemical reaction between the oxidant and the reactant, while substantially preventing a reverse flow of reactant into the first gas zone; wherein the reaction products are a mixture of reaction product from the direct reaction and reaction product from an indirect electrochemical oxidation reaction of the reactant at the anode or anodes; and wherein the reactor further includes a catalyst in the second gas zone for catalysing the direct reaction, and a controller for drawing a controlled electric current from the fuel cell or cells to control the rate of the indirect reaction and thereby the temperature of the catalyst. one or more solid oxide fuel cells, each cell having an electrolyte layer joining a cathode and an anode, the one or more fuel cell cathodes being located in a first gas zone of the reactor, and the one or more fuel cell anodes being located in a second gas zone of the reactor; a first gas supply route for supplying a flow of oxidant to the first gas zone; a second gas supply route for supplying a flow of reactant to the second gas zone; and a gas removal route for removing a flow of reaction products away from the second gas zone; and one or more leakage paths which fluidly connect the first gas zone to the second gas zone such that a leakage flow of oxidant leaks from the first gas zone into the second gas zone to support a direct exothermic chemical reaction between the oxidant and the reactant, while substantially preventing a reverse flow of reactant into the first gas zone; wherein the reaction products are a mixture of reaction product from the direct reaction and reaction product from an indirect electrochemical oxidation reaction of the reactant at the anode or anodes; and wherein the reactor further includes a catalyst in the second gas zone for catalysing the direct reaction, and a controller for drawing a controlled electric current from the fuel cell or cells to control the rate of the indirect reaction and thereby the temperature of the catalyst.
A method for controlling a drive and brake device of a vehicle having a friction brake in which the stopping distance covered during braking to a complete stop is recorded when the vehicle is braked to a complete stop using the friction brake at least partially, characterised in that the stopping distance recorded is compared with a stopping distance expected for such braking to a complete stop, the driving speed being automatically limited to a predetermined top speed if a predetermined deviation between the stopping distance recorded during braking to a complete stop and the stopping distance expected for braking to a complete stop is exceeded, the predetermined top speed being lower than a maximum speed achievable by the vehicle or a top speed applicable for the route covered.