mhurhangee/ep-ind-claims huggingface dataset:
A chair comprising a fitting for coupling a back support rack of a chair's back and a tabletop of a table to each other in a removable manner, the table comprising the tabletop which rests upon table legs and the chair comprising the back as well as a seat portion provided with chair legs, said seat portion including a sitting section which bears against a horizontal frame of the seat portion to which the horizontal frame is also linked the upward directed back by way of a support rack, which support rack is provided with two upward directed tubular attachment braces (111a, 111b), and a backrest is fixed to the back's support rack, wherein the fitting is accommodated between a bottom edge of the backrest and said horizontal frame of the seat portion of the chair and the fitting is fixed at least in a partially removable manner to said upward directed tubular attachment braces (111a, 111b) of the support rack of the chair's back by mounting said fitting to a rearward directed bend of said upward directed tubular attachment brace (111a, 111b), wherein the fitting includes a mouth, which comprises a mouth bottom as well as an upper jaw of the mouth and a lower jaw of the mouth ntegral with the mouth bottom and extending at a distance from each other over the entire length thereof, whereby the upper and lower jaws (62, 63) are co-directional with or at an angle relative to each other and between what in a view from the mouth bottom are furthermost edges (62b, 63b) thereof is left an entrance of the mouth which, in a view from the mouth bottom, is located in its entirety ahead of the sitting section of the chair's seat portion and opens towards said sitting section n such a way that between a middle plane of a mouth opening left between the mouth's upper and lower jaws (62, 63) and a middle plane of the tabletop s established an acute angle (b) as the chair has been coupled by way of the fitting to the tabletop by arranging the tabletop in the mouth opening in such a way that the mouth has its trough bottom and upper jaw bearing against a top surface of the tabletop and the mouth has its lower jaw bearing against a bottom surface of the tabletop, wherein either the fitting mouth is a separate piece, which is attached removably or fixedly to the back's support rack and which is formed with a horizontal channel (61, 62, 63) having a trough bottom or mouth bottom in the shape of a gently curving C or the mouth bottom is a gently curving C-shaped, open-sided horizontal channel, which is fashioned from the back's support rack and which is defined from above and below by the fitting mouth's upper and lower jaws (62, 63) integral with the mouth bottom.
A forming system (100, 200) that forms a metal pipe by expansion in a die which comprises an upper die and a lower die, the system comprising: a heater that heats at least an end part of the metal pipe material; a fluid supply unit that supplies a fluid into the metal pipe material to expand the metal pipe material; and a controller that controls the heater and the fluid supply unit, wherein the fluid supply unit has a nozzle (7, 8) that supplies the fluid from the end part of the metal pipe material into the metal pipe material, and the controller controls the heater so as to heat the end part of the metal pipe material at least before the supply of the fluid by the fluid supply unit, the system being characterized in that it further comprises a holding unit provided with a first electrode and a second electrode, that are provided near a right and left ends of the lower die, and a first electrode and a second electrode, that are provided near right and left ends of the upper die, the first electrode and the second electrode functioning as the heater that heats at least an end part of the metal pipe material, and the controller controls the fluid supply unit so as to expand the end part of the metal pipe material by a pressing force generated by pressing the nozzle (7, 8) against the end part of the metal pipe material, or an expansion force generated by supplying the fluid from the nozzle (7, 8) to the end part of the metal pipe material. a heater that heats at least an end part of the metal pipe material; a fluid supply unit that supplies a fluid into the metal pipe material to expand the metal pipe material; and a controller that controls the heater and the fluid supply unit, a fluid supply unit that supplies a fluid into the metal pipe material to expand the metal pipe material; and a controller that controls the heater and the fluid supply unit, wherein the fluid supply unit has a nozzle (7, 8) that supplies the fluid from the end part of the metal pipe material into the metal pipe material, and the controller controls the heater so as to heat the end part of the metal pipe material at least before the supply of the fluid by the fluid supply unit, the system being characterized in that it further comprises a holding unit provided with a first electrode and a second electrode, that are provided near a right and left ends of the lower die, and a first electrode and a second electrode, that are provided near right and left ends of the upper die, the first electrode and the second electrode functioning as the heater that heats at least an end part of the metal pipe material, and the controller controls the fluid supply unit so as to expand the end part of the metal pipe material by a pressing force generated by pressing the nozzle (7, 8) against the end part of the metal pipe material, or an expansion force generated by supplying the fluid from the nozzle (7, 8) to the end part of the metal pipe material.
An optical product comprising an optical multilayer film on an optical product base, wherein reflectance is 1 percent or less in a wavelength range from 400 nanometers to 700 nanometers, both inclusive, and the optical multilayer film has a total of seven layers, in which the first layer is on an optical product base side, odd layers are low refractive index layers, and even layers are high refractive index layers, an inorganic oxide is used for each of the high refractive index layers, and silicon dioxide is used for each of the low refractive index layers, characterized in that luminous reflectance Y is 1 percent or less in a visible wavelength range from 400 nanometers to 700 nanometers, an optical film thickness of the fourth layer of the optical multilayer film is in a range from 0.189λ to 0.295λ, both inclusive, where λ is a design wavelength between 470 and 530 nm), a total physical film thickness of the fourth and fifth layers of the optical multilayer film is in a range from 63 nanometers to 69 nanometers, both inclusive, and a color of reflected light of the optical multilayer film satisfies both of the following conditions in a chromaticity diagram (x, y, Y) of a CIE color system: 0.27 ≤ x ≤ 0.30, and 0.30 ≤ y ≤ 0.36.
A steel plate consisting of, as a chemical composition, by mass%, C: 0.015% to 0.045%, Mn: 1.80% to 2.20%, Cu: 0.40% to 0.70%, Ni: 0.80% to 1.80%, Nb: 0.005% to 0.015%, Mo: 0.05% to 0.25%, Ti: 0.005% to 0.015%, B: 0.0004% to 0.0020%, N: 0.0020% to 0.0060%, O: 0.0015% to 0.0035%, Si: 0.01% to 0.40%, P: 0.008% or less, S: 0.005% or less, Al: 0.0003% to 0.004%, Cr: 0% to 0.30%, V: 0% to 0.06%, Mg: 0% to 0.0050%, and a balance consisting of Fe and unavoidable impurities, wherein a value expressed by a following Expression 1 is more than 2.0, a value expressed by a following Expression 2 is 0% or more, FB expressed by a following Expression 3 is 0.0003% or more, a P CM value which is a weld cracking parameter expressed by a following Expression 4 is 0.18% to 0.23%, a Bp expressed by a following Expression 5 is 0.09% to 0.30%, and a number of oxide grains having an equivalent circle diameter of 2 μm or more is 20 particles/mm 2 or less and a number of Ti oxides having an equivalent circle diameter of 0.05 μm to 0.5 μm is 1.0 × 10 3 particles/mm 2 to 1.0 × 10 5 particles/mm 2 at a thickness center portion of a cross section in a thickness direction, Ni / Cu N − Ti / 3.4 FB = B − 0.77 × N − 0.29 × Ti − 2 × O − 0.89 × Al P CM = C + Si / 30 + Mn / 20 + Cu / 20 + Ni / 60 + Cr / 20 + Mo / 15 + V / 10 + 5 B Bp = 884 × C × 1 − 0.3 × C 2 + 294 × FB here,, [Si], [Mn], [Cu], [Ni], [Cr], [Mo],, [Ti],,,, and [Al] represent respectively C, Si, Mn, Cu, Ni, Cr, Mo, V, Ti, B, N, O, and Al contents by mass%, however, when the term of ( - 0.89 × [Al]) in the Expression 3 is 0 or less, the term of ( - 0.89 × [Al]) in the Expression 3 is set to 0 to calculate the FB, also, when the term of ([Ti] - 2 × ( - 0.89 × [Al])) in the Expression 3 is 0 or less, the term of ([Ti] - 2 × ( - 0.89 × [Al])) in the Expression 3 is set to 0 to calculate the FB, further, when the term of ( - 0.29 × ([Ti] - 2 × ( - 0.89 × [Al]))) in the Expression 3 is 0 or less, the term of ( - 0.29 × ([Ti] - 2 × ( - 0.89 × [Al]))) in the Expression 3 is set to 0 to calculate the FB, and still further, when FB ≤ 0, FB = 0.
A directional reflector assembly, comprising: a tubular shaft having a proximal end and a distal end; and a conical aperture having a proximal open apex joined to a distal end of the tubular shaft, and a distal open base, wherein an interior volume of the tubular shaft is open to the conical aperture; characterized in that the tubular shaft is adapted to slideably operably engage an electrosurgical ablation probe (100; 400). a tubular shaft having a proximal end and a distal end; and a conical aperture having a proximal open apex joined to a distal end of the tubular shaft, and a distal open base, wherein an interior volume of the tubular shaft is open to the conical aperture; characterized in that the tubular shaft is adapted to slideably operably engage an electrosurgical ablation probe (100; 400).
A membrane for a membrane filter plate, having an elastic compression face and peripheral fastening means, wherein an opening for a fluid connection into a filter chamber is formed in the membrane, wherein the membrane comprises a duct element which extends from the plane formed by the membrane and in which the opening is formed, characterized in that the duct element is formed so as to be integral with the compression face and/or the fastening means.
Refrigeration and/or freezer device, having one or multiple spaces for the reception of refrigerated and/or frozen products as well as at least one refrigeration unit, which includes one or multiple magnetic coolers, wherein the refrigeration unit comprises at least two cold heat exchangers for the cooling of the space(s), characterized in that at least two of the cold heat exchangers are arranged in parallel in one circuit, in that a valve is arranged upstream or downstream, in the flow direction of the heat transfer medium, of the at least two cold heat exchangers, and in that a control unit is provided, which controls the valve in such a way that always at least one of the cold heat exchangers is flown through by the cooled heat transfer medium, and in that a control unit is provided, which switches the refrigeration unit in such a way that one of the cold heat exchangers, for the defrosting thereof, is not flown through by the heat transfer medium for a certain time period.
A drug delivery device, comprising: a microchip element which comprises a body portion defining at least one containment reservoir therein, wherein the body portion has an exterior wall having one or more drug release apertures in fluid communication with the at least one containment reservoir, the one or more drug release apertures being closed off by one or more corresponding reservoir caps configured to be electrically activated to unclose the one or more drug release apertures; and a drug formulation, which comprise a first drug, disposed in the at least one containment reservoir; and characterized in that a drug-permeable membrane is secured next to the exterior wall of the body portion of the microchip element, wherein the device is configured to operate in an aqueous environment and, upon activation of the one or more reservoir caps, release the drug by diffusion through the drug-permeable membrane and into the aqueous environment. a microchip element which comprises a body portion defining at least one containment reservoir therein, wherein the body portion has an exterior wall having one or more drug release apertures in fluid communication with the at least one containment reservoir, the one or more drug release apertures being closed off by one or more corresponding reservoir caps configured to be electrically activated to unclose the one or more drug release apertures; and a drug formulation, which comprise a first drug, disposed in the at least one containment reservoir; and characterized in that a drug-permeable membrane is secured next to the exterior wall of the body portion of the microchip element, wherein the device is configured to operate in an aqueous environment and, upon activation of the one or more reservoir caps, release the drug by diffusion through the drug-permeable membrane and into the aqueous environment.
Method for determining a beam width alignment of at least one first headlight of a motor vehicle, wherein the motor vehicle has at least one optical sensor which is configured to capture at least a portion of a first beam region of the first headlight and to generate a first image with the portion of the first beam region, having the steps of: reading the first image of the optical sensor, selecting at least one first image region in the first image, wherein a light/dark boundary of the first headlight is imaged in the first image region, and determining the beam width alignment of the first headlight in dependence on the first image region, characterized in that the method furthermore comprises the following steps: determining a desired alignment in dependence on a beam width alignment of a second headlight, and aligning the first headlight in dependence on the beam width alignment of the first headlight and the desired alignment. reading the first image of the optical sensor, selecting at least one first image region in the first image, wherein a light/dark boundary of the first headlight is imaged in the first image region, and determining the beam width alignment of the first headlight in dependence on the first image region, characterized in that the method furthermore comprises the following steps: determining a desired alignment in dependence on a beam width alignment of a second headlight, and aligning the first headlight in dependence on the beam width alignment of the first headlight and the desired alignment. determining a desired alignment in dependence on a beam width alignment of a second headlight, and aligning the first headlight in dependence on the beam width alignment of the first headlight and the desired alignment.
Vehicle, in particular a commercial vehicle, with vehicle axles, chassis, sensor assembly and power supply unit as well as with a control unit (7, 10a), which is firmly attached to the chassis, wherein the sensor assembly has at least two sensor modules (22, 50, 60, 70) firmly connected with the vehicle axle of the vehicle with, respectively, one power supply connection (22a, 50a, 60a, 70a) for power supply of the corresponding sensor module (22, 50, 60, 70), wherein the power supply connection of one of the at least two sensor modules is connected in a power supply mode with the power supply unit of the control unit (7, 10a) for power supply of the sensor module firmly connected with the axle of the vehicle, and the power supply connection (22a, 60a, 70a) of another of the at least two sensor modules (22, 60, 70), which are firmly connected with the vehicle axle, is also connected in a power supply mode with the power supply unit of the control unit (7, 10a) for the simultaneous power supply of the at least two sensor modules (22, 50, 60, 70) firmly connected with the vehicle axle through the same power supply unit of the control unit (7, 10a), characterized in that the power supply connections (22a, 50a, 60a, 70a) of the at least two of the sensor modules (22, 50, 60, 70) firmly connected with the vehicle axle through the same power supply line, which is connecting the chassis with the vehicle axle, are connected in a power supply mode with the power supply unit of the control unit (7, 10a), wherein to this purpose the power supply line connects in electric power supply mode one first fixed point that is firmly connected with the chassis with a second fixed point that is firmly connected with the vehicle axle.
Storage compartment in a vehicle, in particular in a dashboard of a vehicle, with two storage spaces (3, 4) which are located one above the other and are respectively covered by an associated, manually openable and closeable storage space flap (6, 7), wherein a foldable partition is provided between the two storage spaces (3, 4), said partition being foldable from a folded-away not-in-use position, in which the two storage spaces (3, 4) form a common large storage space, into a use position, in which the two storage spaces (3, 4) are separated from each other, characterized in that, of the mutually facing, free edges of the upper and lower storage space flaps (6, 7), the free edge of the lower storage space flap in the closed position overlaps part of the free edge of the upper storage space flap such that no annoying gap between the two storage space flaps (6, 7) is visible to the vehicle occupant.
A method of determining a setpoint value for driving controllable equipment, said controllable equipment being adapted to modify, in controllable manner, a physical environmental quantity inside a carriage of a railway vehicle, this magnitude being perceptible to persons present inside the carriage, this method being characterised in that it comprises steps consisting of: a) initialising a control device of the equipment with a setpoint value (T 0) to regulate the operation of this equipment at this setpoint value; b) acquiring individual choice values (ΔC i) expressed by the persons present inside the carriage by means of selection devices, these choices being intended to influence the physical environmental variable, the individual choice values acquired being weighted as a function of the replacement of the corresponding selection device within the carriage; c) calculating, by means of the control device, a quantity statistically representative of the choices made; d) correcting, by means of the control device, the setpoint value by a correction coefficient depending on the calculated magnitude statistically representative of the choices expressed, the operation of the equipment being regulated with this corrected setpoint value; e) repeat steps b) to d) cyclically with a predefined fixed time step, the setpoint value being corrected periodically and with the predefined fixed time step, as a function of the setpoint value applied in the previous time step and following the correction coefficient. a) initialising a control device of the equipment with a setpoint value (T 0) to regulate the operation of this equipment at this setpoint value; b) acquiring individual choice values (ΔC i) expressed by the persons present inside the carriage by means of selection devices, these choices being intended to influence the physical environmental variable, the individual choice values acquired being weighted as a function of the replacement of the corresponding selection device within the carriage; c) calculating, by means of the control device, a quantity statistically representative of the choices made; d) correcting, by means of the control device, the setpoint value by a correction coefficient depending on the calculated magnitude statistically representative of the choices expressed, the operation of the equipment being regulated with this corrected setpoint value; e) repeat steps b) to d) cyclically with a predefined fixed time step,
An internal combustion engine, comprising at least one cooling device for cooling at least one operational liquid of the internal combustion engine during and/or after operation of the internal combustion engine, wherein the at least one cooling device has at least one heat exchanger and lines (4, 5) for transporting the at least one operational liquid to and from the at least one heat exchanger, wherein the heat exchanger exchanges heat with a cooling medium, which cooling medium has during the operation of the internal combustion engine a lower temperature level than the at least one operational liquid of the internal combustion engine, wherein during and/or before a starting operation of the internal combustion engine the cooling device is configured to pre-heat the internal combustion engine, wherein heat is exchanged by the heat exchanger between the at least one operational liquid and the cooling medium, which cooling medium has before and/or during a starting operation of the internal combustion engine a higher temperature level than the at least one operational liquid of the internal combustion engine, characterized in that at least one further cooling device is provided for at least one external component of the internal combustion engine, wherein the at least one further cooling device is configured to heat the at least one further component of the internal combustion engine before and/or during a starting operation of the internal combustion engine.
A fusion polypeptide, comprising an aconitase (Aco) and a cis-aconitate decarboxylase, wherein the polypeptide exhibits an Aco activity and a CAD activity.
A method for producing a bisimide dicarboxylic acid with a tricarboxylic acid anhydride and a diamine, comprising the following processes (i) and (ii): a process (i) in which, provided that a compound having a higher melting point is a high melting compound and a compound having a lower melting point is a low melting compound, when a melting point is compared between the tricarboxylic acid anhydride and the diamine, the high melting compound is heated at a temperature between less than the melting point of the high melting compound and not lower than the melting point of the low melting compound, and the low melting compound is added to the high melting compound while the high melting compound maintains its solid states, to give a mixture; and a process (ii) in which the resultant mixture in the process (i) is heated while its solid states are kept, to give bisimide dicarboxylic acid; wherein the tricarboxylic acid anhydride is selected from an aromatic tricarboxylic acid anhydride or an alicyclic tricarboxylic acid anhydride; and wherein the diamine is selected from an aliphatic diamine, an alicyclic diamine, or an aromatic diamine, whereby the diamine optionally contains -O- and -S-, and one or more hydrogen atoms are optionally replaced by halogen or a side chain. a process (i) in which, provided that a compound having a higher melting point is a high melting compound and a compound having a lower melting point is a low melting compound, when a melting point is compared between the tricarboxylic acid anhydride and the diamine, the high melting compound is heated at a temperature between less than the melting point of the high melting compound and not lower than the melting point of the low melting compound, and the low melting compound is added to the high melting compound while the high melting compound maintains its solid states, to give a mixture; and a process (ii) in which the resultant mixture in the process (i) is heated while its solid states are kept, to give bisimide dicarboxylic acid;