mhurhangee/ep-ind-claims huggingface dataset:
Method for testing the functional capability of a valve of an air spring for a vehicle air suspension system, - wherein the air spring has at least two air volumes (3, 4) which can be connected to one another using the valve to be tested, - wherein one of the air volumes can be changed by changing the air pressure and the air content, in order to proportionally change the ride level of the vehicle in a reference system, - wherein the changing of the ride level of the vehicle can be measured by means of sensors and can be evaluated by means of a computing device, - firstly the two air volumes (3, 4) are disconnected from one another by closing the valve to be tested, - in that after this a quantity of air is fed to the air volume which can be changed in proportion to the changing of the ride level of the vehicle, which quantity of air changes the ride level of the vehicle, - in that after the supplying of the quantity of air a first ride level of the vehicle is measured by a sensor, - in that after this the valve to be tested is opened and subsequently a second ride level of the vehicle is measured by the sensor, characterized in that during the supplying of the quantity of air to the air volume which can be changed in proportion to the changing of the ride level of the vehicle, the gradient of the changing of the ride level of the vehicle is measured and compared with a threshold value. - wherein the air spring has at least two air volumes (3, 4) which can be connected to one another using the valve to be tested, - wherein one of the air volumes can be changed by changing the air pressure and the air content, in order to proportionally change the ride level of the vehicle in a reference system, - wherein the changing of the ride level of the vehicle can be measured by means of sensors and can be evaluated by means of a computing device, - firstly the two air volumes (3, 4) are disconnected from one another by closing the valve to be tested, - in that after this a quantity of air is fed to the air volume which can be changed in proportion to the changing of the ride level of the vehicle, which quantity of air changes the ride level of the vehicle, - in that after the supplying of the quantity of air a first ride level of the vehicle is measured by a sensor, - in that after this the valve to be tested is opened and subsequently a second ride level of the vehicle is measured by the sensor, characterized in that during the supplying of the quantity of air to the air volume which can be changed in proportion to the changing of the ride level of the vehicle, the gradient of the changing of the ride level of the vehicle is measured and compared with a threshold value.
Method for decalcification of a beverage preparation machine which is blocked for the beverage preparation due to the need for decalcification determined by the machine, characterised by the step, whereby a user selects a decalcification process (S60, S100) from a number of decalcification processes (S60, S100) of the beverage preparation machine.
A spring terminal, especially a front terminal, for the connection of an electrical conductor with an electrical subassembly, comprising a) a contact part and a housing part, b) wherein the electrical conductor can be inserted into the housing part for connecting to the contact part, c) wherein the spring terminal has an insertion opening for an actuating means, in particular a screwdriver, d) wherein the contact part comprises a clamping jaw (31, 32, 33, 34) which, by means of the actuating means, is adjustable from a sliding state in which conductor is not clamped with the clamping jaw (31, 32, 33, 34) and can be moved within the housing part to a clamping state in which the conductor is clamped with the clamping jaw (31, 32, 33, 34), wherein the clamping jaw (31, 32, 33, 34) is current-conducting, and e) wherein the clamping jaw (31, 32, 33, 34) is formed as a spring, f) wherein the spring terminal comprises an adjusting means (25, 35, 36), wherein the adjusting means, with which the actuating means interacts, is formed as a wedge, and g) wherein the contact part comprises two of the clamping jaws (31, 32, 33, 34), between which the conductor can be clamped, characterized in that h) the adjusting means (25, 35, 36), with which the actuation means interacts, is provided on the housing part. a) a contact part and a housing part, b) wherein the electrical conductor can be inserted into the housing part for connecting to the contact part, c) wherein the spring terminal has an insertion opening for an actuating means, in particular a screwdriver, d) wherein the contact part comprises a clamping jaw (31, 32, 33, 34) which, by means of the actuating means, is adjustable from a sliding state in which conductor is not clamped with the clamping jaw (31, 32, 33, 34) and can be moved within the housing part to a clamping state in which the conductor is clamped with the clamping jaw (31, 32, 33, 34), wherein the clamping jaw (31, 32, 33, 34) is current-conducting, and e) wherein the clamping jaw (31, 32, 33, 34) is formed as a spring, f) wherein the spring terminal comprises an adjusting means (25, 35, 36), wherein the adjusting means, with which the actuating means interacts, is formed as a wedge, and g) wherein the contact part comprises two of the clamping jaws (31, 32, 33, 34), between which the conductor can be clamped, characterized in that h) the adjusting means (25, 35, 36), with which the actuation means interacts, is provided on the housing part.
A dye-loaded fluorescent polymeric nanoparticle as nano-antenna, comprising: a) a polymer chosen from: - a polymethacrylate or its derivative, - a polystyrene or its derivative, - an aliphatic polyester or its derivative, or - a copolymer of aforementioned polymers with polyethylene glycol or with charged monomers, b) an energy donor, which content is from 5 to 50 % by weight of the polymer, preferably from 10 to 30 % by weight of the polymer, c) an energy acceptor, which content from 0.001 to 0.04 % by weight of the polymer, preferably from 0.002 to 0.02% by weight of the polymer; said polymer forming a matrix in which from 1000 to 50000 of said energy donor molecules are encapsulated per nanoparticle, wherein the energy donor is a salt of a donor dye with bulky fluorinated anions, said donor dye being chosen from: (i) a rhodamine derivative represented by formula in which: - R 1, R 2, R 3 and R 4 are identical or different and each represent a hydrogen or a (C 1 -C 8) alkyl group, - R 5 is a (C 1 -C 24) alkyl, or (ii) a cyanine derivative represented by formula n is a integer chosen from 1, 2 or 3; Ra and Rb are identical or different and each represent a (C 1 -C 24) alkyl group; and wherein the energy acceptor is a salt of another cyanine derivative of formula defined above with a counterion, said energy donor and said energy acceptor being different. a) a polymer chosen from: - a polymethacrylate or its derivative, - a polystyrene or its derivative, - an aliphatic polyester or its derivative, or - a copolymer of aforementioned polymers with polyethylene glycol or with charged monomers, - a polymethacrylate or its derivative, - a polystyrene or its derivative, - an aliphatic polyester or its derivative, or - a copolymer of aforementioned polymers with polyethylene glycol or with charged monomers, b) an energy donor, which content is from 5 to 50 % by weight of the polymer, preferably from 10 to 30 % by weight of the polymer, c) an energy acceptor, which content from 0.001 to 0.04 % by weight of the polymer, preferably from 0.002 to 0.02% by weight of the polymer; said polymer forming a matrix in which from 1000 to 50000 of said energy donor molecules are encapsulated per nanoparticle, wherein the energy donor is a salt of a donor dye with bulky fluorinated anions, said donor dye being chosen from: (i) a rhodamine derivative represented by formula in which: - R 1, R 2, R 3 and R 4 are identical or different and each represent a hydrogen or a (C 1 -C 8) alkyl group, - R 5 is a (C 1 -C 24) alkyl, or (ii) a cyanine derivative represented by formula n is a integer chosen from 1, 2 or 3; Ra and Rb are identical or different and each represent a (C 1 -C 24) alkyl group; (i) a rhodamine derivative represented by formula in which: - R 1, R 2, R 3 and R 4 are identical or different and each represent a hydrogen or a (C 1 -C 8) alkyl group, - R 5 is a (C 1 -C 24) alkyl, or - R 1, R 2, R 3 and R 4 are identical or different and each represent a hydrogen or a (C 1 -C 8) alkyl group, - R 5 is a (C 1 -C 24) alkyl, or (ii) a cyanine derivative represented by formula n is a integer chosen from 1, 2 or 3;
A developing device comprising: a developing chamber provided with a developing roller configured to convey toner to a developing area, and a toner regulating member that is in contact with a surface of the developing roller; and a toner container that contains the toner, characterized in that spherical resin particles are provided as powder on the surface of the developing roller and/or the toner regulating member at least in a contact portion between the developing roller and the toner regulating member, wherein a Martens hardness of the spherical resin particles as measured according to the description is 0.5 N/mm 2 or higher and 45 N/mm 2 or lower, and a restoring elastic power of the spherical resin particles as measured according to the description is 70% or higher. a developing chamber provided with a developing roller configured to convey toner to a developing area, and a toner regulating member that is in contact with a surface of the developing roller; and a developing roller configured to convey toner to a developing area, and a toner regulating member that is in contact with a surface of the developing roller; and a toner container that contains the toner, characterized in that spherical resin particles are provided as powder on the surface of the developing roller and/or the toner regulating member at least in a contact portion between the developing roller and the toner regulating member, wherein a Martens hardness of the spherical resin particles as measured according to the description is 0.5 N/mm 2 or higher and 45 N/mm 2 or lower, and a restoring elastic power of the spherical resin particles as measured according to the description is 70% or higher.
Aqueous latex adhesive composition comprising latex polymer, being a single latex polymer or blend of latex polymers, formed from monomers comprising: (a) conjugated aliphatic diene monomer, (b) vinyl aromatic monomer, (c) vinyl pyridine monomer, and (d) nitrogen-containing monomer that comprises reactive N-methylol or N-alkoxy functionality; optionally, a resin; wherein said diene monomer (a) is the primary monomer by weight in the latex polymer, and the combined amount of said vinyl pyridine monomer (c) and said nitrogen-containing monomer (d) is 20 weight percent or less of the latex polymer. latex polymer, being a single latex polymer or blend of latex polymers, formed from monomers comprising: (a) conjugated aliphatic diene monomer, (b) vinyl aromatic monomer, (c) vinyl pyridine monomer, and (d) nitrogen-containing monomer that comprises reactive N-methylol or N-alkoxy functionality; (a) conjugated aliphatic diene monomer, (b) vinyl aromatic monomer, (c) vinyl pyridine monomer, and (d) nitrogen-containing monomer that comprises reactive N-methylol or N-alkoxy functionality; optionally, a resin;
An ink composition comprising: a polymerizable compound represented by the following general formula; and a polymerization initiator, in the general formula, R 1 represents a hydrogen atom or a methyl group, R 2 represents a liner or branched alkylene group having 2 to 4 carbon atoms, however, in R 2, it is not possible to have a structure in which an oxygen atom and a nitrogen atom which are bonded to both ends of R 2 are bonded to the same carbon atom of R 2, R 3 represents a divalent linking group, k represents 2 or 3, and, x, y and z each independently represent an integer of 0 to 6 and x+y+z satisfies 0 to 18; and a monofunctional polymerizable compound. a polymerizable compound represented by the following general formula; and a polymerization initiator, in the general formula, R 1 represents a hydrogen atom or a methyl group, R 2 represents a liner or branched alkylene group having 2 to 4 carbon atoms, however, in R 2, it is not possible to have a structure in which an oxygen atom and a nitrogen atom which are bonded to both ends of R 2 are bonded to the same carbon atom of R 2, R 3 represents a divalent linking group, k represents 2 or 3, and, x, y and z each independently represent an integer of 0 to 6 and x+y+z satisfies 0 to 18; and R 1 represents a hydrogen atom or a methyl group, R 2 represents a liner or branched alkylene group having 2 to 4 carbon atoms, however, in R 2, it is not possible to have a structure in which an oxygen atom and a nitrogen atom which are bonded to both ends of R 2 are bonded to the same carbon atom of R 2, R 3 represents a divalent linking group, k represents 2 or 3, and, x, y and z each independently represent an integer of 0 to 6 and x+y+z satisfies 0 to 18; and a monofunctional polymerizable compound.
Method, implemented by computer, for evaluating the sensitivity of a glazing to form hardening marks as a function of its anisotropy, said method providing output value a parameter value σ v characterizing the ability of said glazing to form hardening marks, said glazing comprising one side 1 and one side 2, both in contact with an external environment, said hardening marks resulting from different optical phase shifts in different areas of the glazing for transmission or reflection vision and on either side of the glazing, said method comprising the following steps - the calculation of at least one transmission parameter by face 1 or by face 2, called T1 or T2, or at least one reflection parameter on face 1 or face 2, said R1 and R2, this calculation being carried out on the one hand for an area of the glazing not causing optical phase shift and on the other hand for an area of the glazing having birefringence axes oriented at a given angle in relation to the plane of incidence and causing an optical phase shift δ to a light ray in a given optical phase shift range, for a given polarization of the light ray and for a given angle of incidence of the light ray; - the calculation of at least one parameter ΔE(δ) corresponding to the difference in colour between the area of the glazing not causing optical phase shift and the area of the glazing causing optical phase shift δ, from at least one of the parameters T1, T2, R1, R2, then - the calculation of σ v = G(ΔE(δ), δ) by applying a function G depending on the ΔE(δ) calculated and, where applicable, the corresponding δ. - the calculation of at least one transmission parameter by face 1 or by face 2, called T1 or T2, or at least one reflection parameter on face 1 or face 2, said R1 and R2, this calculation being carried out on the one hand for an area of the glazing not causing optical phase shift and on the other hand for an area of the glazing having birefringence axes oriented at a given angle in relation to the plane of incidence and causing an optical phase shift δ to a light ray in a given optical phase shift range, for a given polarization of the light ray and for a given angle of incidence of the light ray; - the calculation of at least one parameter ΔE(δ) corresponding to the difference in colour between the area of the glazing not causing optical phase shift and the area of the glazing causing optical phase shift δ, from at least one of the parameters T1, T2, R1, R2, then - the calculation of σ v = G(ΔE(δ), δ) by applying a function G depending on the ΔE(δ) calculated and, where applicable, the corresponding δ.
A processor-readable storage medium including processor executable instructions, which when executed cause a medical imaging system to: retrieve a user identification code assigned to a user associated with an imaging device; retrieve a transducer identification code of a transducer probe from a memory of the transducer probe; and generate a temporary digital key based on the user identification code and the transducer identification code; characterized in that the processor executable instructions, when executed further cause the medical system to: retrieve a stored digital key from the memory of the transducer probe; verify an association of the transducer probe including comparing the stored digital key with the temporary digital key; and enable operation of the transducer probe with the imaging device if the stored digital key matches the temporary digital key. retrieve a user identification code assigned to a user associated with an imaging device; retrieve a transducer identification code of a transducer probe from a memory of the transducer probe; and generate a temporary digital key based on the user identification code and the transducer identification code; characterized in that the processor executable instructions, when executed further cause the medical system to: retrieve a stored digital key from the memory of the transducer probe; verify an association of the transducer probe including comparing the stored digital key with the temporary digital key; and enable operation of the transducer probe with the imaging device if the stored digital key matches the temporary digital key. retrieve a stored digital key from the memory of the transducer probe; verify an association of the transducer probe including comparing the stored digital key with the temporary digital key; and enable operation of the transducer probe with the imaging device if the stored digital key matches the temporary digital key.
Heating-ventilation-air-conditioning unit for motor vehicles, comprising a casing forming a closed volume between opposite globally vertical first and second faces (4, 5) intended to face toward the passenger compartment of the vehicle and the engine compartment of the vehicle, respectively, the casing having at least one inlet opening for a flow of air and, on or around the first face, a plurality of air distribution outlets (20, 21, 22, 23), air flows being defined inside the casing between the inlet opening and the outlets, valves (43, 44) being disposed on at least some of these flows, the casing accommodating an evaporator situated substantially vertically in a flow downstream of the inlet, and at least one heating member (40, 41) disposed in a flow downstream of the evaporator, a pulser being provided to circulate the air in the casing, characterized in that: - the pulser is laterally against the casing, connectable to a source of air and connected to the inlet opening of the casing so as to direct a flow of air into the casing, the inlet opening being on the first face of the casing in the central part, - the evaporator is housed in the casing behind the inlet opening and is connected to it by a sleeve partially crossing the casing, a rear air circulation chamber being formed to the rear of the evaporator between the latter and the second face of the casing, - the heating member (40, 41) is disposed substantially flat at the bottom of the casing, vertically in line with the sleeve and/or the evaporator, a chamber being formed under the heating member (40, 41) and communicating with the rear circulation chamber via a first rear passage that can be closed by a first valve, - a mixing and distribution chamber is formed under the sleeve and above the heating member (40, 41), in communication with the air distribution outlets (20, 21, 22, 23) and communicating with the rear circulation chamber via a second rear passage that can be closed by a second valve. - the pulser is laterally against the casing, connectable to a source of air and connected to the inlet opening of the casing so as to direct a flow of air into the casing, the inlet opening being on the first face of the casing in the central part, - the evaporator is housed in the casing behind the inlet opening and is connected to it by a sleeve partially crossing the casing, a rear air circulation chamber being formed to the rear of the evaporator between the latter and the second face of the casing, - the heating member (40, 41) is disposed substantially flat at the bottom of the casing, vertically in line with the sleeve and/or the evaporator, a chamber being formed under the heating member (40, 41) and communicating with the rear circulation chamber via a first rear passage that can be closed by a first valve, - a mixing and distribution chamber is formed under the sleeve and above the heating member (40, 41), in communication with the air distribution outlets (20, 21, 22, 23) and communicating with the rear circulation chamber via a second rear passage that can be closed by a second valve.
A fabric fastener for fastening fabric used as a piece of body decoration equipment, comprising a substantially tubular body, wherein the substantially tubular body is provided with an insertion path for tucking and fixing the inserted fabric, opening portions, and a drawing hole, the opening portions have substantially V-shaped or U-shaped constrictions provided on an upper and lower sides in order to guide a finger, characterized in that the drawing hole includes at least one hole formed such that the fabric inserted through an opening portion is drawn out in a circumferential direction with respect to an insertion direction, the substantially tubular body has a substantially C-shaped cross section with a slit portion provided at the insertion path, rim portions of the drawing hole and the opening portions are rounded, and the drawing hole of the fabric fastener is provided at a single position on each of right and left side portions of the fabric fastener in the circumferential direction. an insertion path for tucking and fixing the inserted fabric, opening portions, and a drawing hole,
Tensioning device for a film of flexible plastic material for the formation of bags in a packaging machine, said tensioning device being placed between a reel of said film, rolled on a motor-driven axis, and a film drive, suitable to pull the film, unrolling it from said film reel, to lead it to a formation unit of the bags, said tensioning device being characterized by comprising: a take-up rotating around a rotation axis which is parallel to said motor-driven axis of the film reel and suitable to wrap inside a portion of the film unrolled from the film reel, detecting means of the working position of the take-up, and control means configured to start or stop the motor-driven axis of the film reel, and therefore the unrolling of the film from the film reel, in function of the detected working position of the take-up the tensioning device being further characterized in that said detection means comprise a spiral cam mounted on the rotation axis, with the plane of the spiral which is perpendicular to the rotation axis, and an analog probe, fixed to the vertical wall of the frame by means of a support and configured to read the distance with the spiral cam and, as a response, send a command signal to said control means for the motion of the motor-driven axis. a take-up rotating around a rotation axis which is parallel to said motor-driven axis of the film reel and suitable to wrap inside a portion of the film unrolled from the film reel, detecting means of the working position of the take-up, and control means configured to start or stop the motor-driven axis of the film reel, and therefore the unrolling of the film from the film reel, in function of the detected working position of the take-up the tensioning device being further characterized in that said detection means comprise a spiral cam mounted on the rotation axis, with the plane of the spiral which is perpendicular to the rotation axis, and an analog probe, fixed to the vertical wall of the frame by means of a support and configured to read the distance with the spiral cam and, as a response, send a command signal to said control means for the motion of the motor-driven axis.