mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing metal castings with a sand casting mould , the method comprising the following steps: - producing the sand casting mould in a moulding flask by a negative pressure moulding method - filling the sand casting mould produced in the moulding flask with liquid metal - cooling the sand casting mould and the casting that is solidifying therein with a cooling liquid , characterized in that the sand casting mould in the moulding flask under negative pressure is first filled with liquid metal , in that the moulding flask , together with the sand casting mould under negative pressure therein, is subsequently contacted fully or partially with a cooling liquid and in that after, at the same time as or before it is contacted with the cooling liquid, the moulding flask is opened at locations where it is contacted with the cooling liquid, in order that the cooling liquid is sucked into the sand casting mould under negative pressure and thereby quenches the solidifying casting . - producing the sand casting mould in a moulding flask by a negative pressure moulding method - filling the sand casting mould produced in the moulding flask with liquid metal - cooling the sand casting mould and the casting that is solidifying therein with a cooling liquid ,
Motor vehicle comprising a passenger compartment , an engine compartment and a bulkhead that delimits the passenger compartment from said engine compartment , comprising a heating, ventilation and air-conditioning installation that is mounted in the engine compartment and fastened to two fastening reinforcements that are secured to the bulkhead , and in that the vehicle comprises at least one guiding tab that is secured to at least one of the fastening reinforcements and is configured to guide the HVAC installation during mounting in the engine compartment .
A monitoring system for a production operation of metal and/or sheet metal processing for monitoring an electrical consumer , comprising - the consumer in the form of a production machine for processing sheet metal and/or metal, - a power grid with three phase conductors (84a-c), - an intermediate module via which the consumer can be connected to the power grid , with an input power connection for connecting the intermediate module to the power grid , wherein the input power connection has three phase conductor input contacts (16a-c) for contacting one phase conductor (84a-c) each of the power grid , and with an output power connection for connecting the consumer to the intermediate module , wherein the intermediate module is set up to determine the operating data of the consumer and to transmit information about the determined operating data to the power grid via the input power connection , wherein the intermediate module is set up to measure at least one parameter of an electric current that flows during operation from the power grid through the intermediate module to the consumer , - a receiver module for receiving information about operating data of the consumer from the power grid , wherein the receiver module has a receiver power connection for connecting the receiver module to the power grid , and a processing device which is set up to receive the information about the operating data from the power grid via the receiver power connection , wherein the intermediate module has a connection for a camera and is set up to transmit an image received from the camera to the power grid . - the consumer in the form of a production machine for processing sheet metal and/or metal, - a power grid with three phase conductors (84a-c), - an intermediate module via which the consumer can be connected to the power grid , with an input power connection for connecting the intermediate module to the power grid , wherein the input power connection has three phase conductor input contacts (16a-c) for contacting one phase conductor (84a-c) each of the power grid , and with an output power connection for connecting the consumer to the intermediate module , wherein the intermediate module is set up to determine the operating data of the consumer and to transmit information about the determined operating data to the power grid via the input power connection , wherein the intermediate module is set up to measure at least one parameter of an electric current that flows during operation from the power grid through the intermediate module to the consumer , - a receiver module for receiving information about operating data of the consumer from the power grid , wherein the receiver module has a receiver power connection for connecting the receiver module to the power grid , and a processing device which is set up to receive the information about the operating data from the power grid via the receiver power connection , wherein the intermediate module has a connection for a camera and is set up to transmit an image received from the camera to the power grid .
A process for producing dual phase steel sheet, comprising the steps of:- a) making a liquid steel having an alloy chemical composition consisting in wt% of C: 0.03 - 0.12, Mn: 0.8 - 1.5, Si:<0.1, Cr: 0.3 - 0.7, S: 0.008 max, P: 0.025 max, Al: 0.01 to 0.1, N: 0.007 max, Nb: 0.005 - 0.035, and V: 0.06 max ; b) continuous casting the liquid steel into a slab ; c) hot rolling the slab into a hot rolled sheet at finish rolling temperature (FRT) 840 ± 30°C ; d) cooling the hot rolled sheet on a Run Out Table at cooling rate 40 - 70°C/s achieving an intermediate temperature (T INT ) 720 ≤ T INT ≤ 650 ; e) naturally cooling the hot rolled sheet for duration 5 - 7 seconds ; and f) rapidly cooling the hot rolled sheet to transform remaining carbon enriched austenite to martensite, at cooling rate of 40 - 70 °C/s in order to achieve coiling temperature below 400°C . a) making a liquid steel having an alloy chemical composition consisting in wt% of C: 0.03 - 0.12, Mn: 0.8 - 1.5, Si:<0.1, Cr: 0.3 - 0.7, S: 0.008 max, P: 0.025 max, Al: 0.01 to 0.1, N: 0.007 max, Nb: 0.005 - 0.035, and V: 0.06 max ; b) continuous casting the liquid steel into a slab ; c) hot rolling the slab into a hot rolled sheet at finish rolling temperature (FRT) 840 ± 30°C ; d) cooling the hot rolled sheet on a Run Out Table at cooling rate 40 - 70°C/s achieving an intermediate temperature (T INT ) 720 ≤ T INT ≤ 650 ; e) naturally cooling the hot rolled sheet for duration 5 - 7 seconds ; and f) rapidly cooling the hot rolled sheet to transform remaining carbon enriched austenite to martensite, at cooling rate of 40 - 70 °C/s in order to achieve coiling temperature below 400°C .
Position detector of an object comprising: - a body defining an input designed to receive an optical fiber delivering a first light signal, - an output delivering a signal representative of the position of the object to be monitored, position detector characterized in that it comprises: - a mirror mounted so as to be movable inside the body and relative to the input between a first position and a second position, the first position or the second position ensuring the transmission of the light signal from the input to the output to form a light signal representative of the position of the object, the other position among the first position and the second position preventing the transmission of the light signal to the output, - a first spring mounted in the body and configured to place the mirror in the first position, - an end piece movable relative to the body between a first position and a second position along a direction of movement and designed to cooperate with the object to be monitored, the end piece being mechanically connected to the mirror so that: - when the end piece is in the first position, the mirror is in the first position, - when the end piece is in the second position, the mirror is in the second position, - displacement of the end piece from the first position to the second position causes the mirror to move from the first position to the second position, so that the mirror comes to rest against the optical fiber in the position ensuring the transmission of the light signal. - a body defining an input designed to receive an optical fiber delivering a first light signal, - an output delivering a signal representative of the position of the object to be monitored, - a mirror mounted so as to be movable inside the body and relative to the input between a first position and a second position, the first position or the second position ensuring the transmission of the light signal from the input to the output to form a light signal representative of the position of the object, the other position among the first position and the second position preventing the transmission of the light signal to the output, - a first spring mounted in the body and configured to place the mirror in the first position, - an end piece movable relative to the body between a first position and a second position along a direction of movement and designed to cooperate with the object to be monitored, the end piece being mechanically connected to the mirror so that: - when the end piece is in the first position, the mirror is in the first position, - when the end piece is in the second position, the mirror is in the second position, - displacement of the end piece from the first position to the second position causes the mirror to move from the first position to the second position, so that the mirror comes to rest against the optical fiber in the position ensuring the transmission of the light signal.
A chromatography system comprising plural fluid handling components (12-18; 820) fluidically interconnectable by fluid tubing (30; 822) to form a bioprocess fluid flow path, said fluid handling components comprising one or more fluid ports with a spigot (20; 20'; 280; 290; 295) extending from a component face and for receiving a respective end of the fluid tubing (30; 822) such that the fluid tubing end sealingly embraces the spigot (20; 20'; 280; 290; 295) and for receiving a releasable locking clamp (100; 300) comprised in the chromatography system for applying a radial locking force on an outer surface of the tubing end for locking the end of the fluid tubing (30; 822) on the spigot (20; 20'; 280; 290; 295), characterised in that the interconnection withstands at least 10 bar, and wherein the releasable locking clamp (100; 300) comprises: a cylindrical inner component (110; 310; 410) for accepting the fluid tubing (30; 822), said inner component including a resiliently deflectable portion (118; 318; 418) arranged to urge an outer surface of the fluid tubing (30; 822) toward a respective spigot (20; 20'; 280; 290; 295); and a cylindrical collar element (130; 230'; 330; 430) having an internal through-aperture for accepting the inner component (110; 310; 410), the through-aperture and resiliently deflectable portion (118, 318; 418) having complementary surface formations which in a first position of the collar element (130; 230'; 330; 430) mounted to the inner component (110; 310; 410) provide for resilient deflection in use, and which in a second different position do not cause said deflection. a cylindrical inner component (110; 310; 410) for accepting the fluid tubing (30; 822), said inner component including a resiliently deflectable portion (118; 318; 418) arranged to urge an outer surface of the fluid tubing (30; 822) toward a respective spigot (20; 20'; 280; 290; 295); and a cylindrical collar element (130; 230'; 330; 430) having an internal through-aperture for accepting the inner component (110; 310; 410), the through-aperture and resiliently deflectable portion (118, 318; 418) having complementary surface formations which in a first position of the collar element (130; 230'; 330; 430) mounted to the inner component (110; 310; 410) provide for resilient deflection in use, and which in a second different position do not cause said deflection.
A reflectometry system for the analysis of defects in a group of transmission lines comprising at least one line (L, L 1 , L 2 ), a generated real reference signal being injected into each transmission line (L, L 1 , L 2 ) of said group, said system comprising: • at least one measurement means (CPL, CPL 1 , CPL 2 ) for measuring the reference signal retro-propagated in each transmission line (L, L 1 , L 2 ) of said group, • at least one analog-digital converter (ADC, ADC 1 , ADC 2 ) for converting at least one measured signal into a set of at least one first digital signal and one second digital signal, • at least one complex correlator (COR, COR 1 , COR 2 ) configured to correlate the real reference signal with a complex signal whose real part is formed by a first digital signal of said set and whose imaginary part is formed by a second digital signal of said set, so as to produce a first reflectogram corresponding to the real part of the complex signal and a second reflectogram corresponding to the imaginary part of the complex signal, • an analysis module for analyzing at least the first reflectogram and the second reflectogram so as to identify the presence of defects in at least one transmission line of said group. • at least one measurement means (CPL, CPL 1 , CPL 2 ) for measuring the reference signal retro-propagated in each transmission line (L, L 1 , L 2 ) of said group, • at least one analog-digital converter (ADC, ADC 1 , ADC 2 ) for converting at least one measured signal into a set of at least one first digital signal and one second digital signal, • at least one complex correlator (COR, COR 1 , COR 2 ) configured to correlate the real reference signal with a complex signal whose real part is formed by a first digital signal of said set and whose imaginary part is formed by a second digital signal of said set, so as to produce a first reflectogram corresponding to the real part of the complex signal and a second reflectogram corresponding to the imaginary part of the complex signal, • an analysis module for analyzing at least the first reflectogram and the second reflectogram so as to identify the presence of defects in at least one transmission line of said group.
A method comprising: opening, blending and webbing in random fiber orientation a plurality of short length carbon fiber bundles and a thermoplastic binder material to form a blend wherein a length of the plurality of short length carbon fiber bundles is between 1.27 cm (0.5 inches) +/- 0.635 cm (+/- 0.25 inches) and 7.62 cm (3 inches) +/- 0.635 cm (+/- 0.25 inches) in length ; wherein the fusible fibers are configured to act as a thermoplastic binder; applying heat locally to the blend of the plurality of short length carbon fiber bundles and the thermoplastic binder material to form a partially melted annular shaped preform section; applying pressure to the preform section; and removing from the blend an excess portion following application of heat and pressure to form a resulting annular preform section and capturing the excess portion of the blend for reprocessing; and needling a portion of the resulting annular preform section; wherein a ratio of the thermoplastic binder material to the plurality of short length carbon fiber bundles in the blend between 0.5% to 10%. opening, blending and webbing in random fiber orientation a plurality of short length carbon fiber bundles and a thermoplastic binder material to form a blend wherein a length of the plurality of short length carbon fiber bundles is between 1.27 cm (0.5 inches) +/- 0.635 cm (+/- 0.25 inches) and 7.62 cm (3 inches) +/- 0.635 cm (+/- 0.25 inches) in length ; wherein the fusible fibers are configured to act as a thermoplastic binder; applying heat locally to the blend of the plurality of short length carbon fiber bundles and the thermoplastic binder material to form a partially melted annular shaped preform section; applying pressure to the preform section; and removing from the blend an excess portion following application of heat and pressure to form a resulting annular preform section and capturing the excess portion of the blend for reprocessing; and needling a portion of the resulting annular preform section; wherein a ratio of the thermoplastic binder material to the plurality of short length carbon fiber bundles in the blend between 0.5% to 10%.
Method for producing a heat pipe, comprising the following steps, performed on a first tube made from a malleable material: • The diameter of the tube is swaged at a first end , and the end thus swaged is sealed closed, • A second tube , of a smaller diameter than the first, is inserted into the second end of the first tube , • The second end of the first tube is swaged around the second tube and the interface between the two tubes is sealed, • The pipe thus created is partially filled with a heat-transfer fluid, • The air contained in the pipe is removed, and • The free end of the second tube is sealed closed. • The diameter of the tube is swaged at a first end , and the end thus swaged is sealed closed, • A second tube , of a smaller diameter than the first, is inserted into the second end of the first tube , • The second end of the first tube is swaged around the second tube and the interface between the two tubes is sealed, • The pipe thus created is partially filled with a heat-transfer fluid, • The air contained in the pipe is removed, and • The free end of the second tube is sealed closed.
A turbomachine subassembly including a first component forming a combustion chamber wall portion of the turbomachine and a second component forming a member for connecting the first component to a structural element of the combustion chamber, wherein the two components are made of materials having different coefficients of expansion, and wherein the two components are axisymmetric elements coaxial with a main axis A of the subassembly, and each includes an annular radial wall , the radial walls facing each other while bearing axially in a first direction, wherein the second component includes a plurality of clamping tabs , which clamping tabs cooperate with the first component to impart an axial force pressing the radial walls against one another. wherein the two components are made of materials having different coefficients of expansion, and wherein the two components are axisymmetric elements coaxial with a main axis A of the subassembly, and each includes an annular radial wall , the radial walls facing each other while bearing axially in a first direction, wherein the second component includes a plurality of clamping tabs , which clamping tabs cooperate with the first component to impart an axial force pressing the radial walls against one another.
A coating composition, comprising: 40 to 80 weight percent (wt.%) of a base polymer that is a non-functionalized ethylene polymer and not a non-functionalized propylene/ethylene copolymer; 5 to 15 wt.% of a polymeric coupling agent; 10 to 30 wt.% of a polymeric stabilizing agent; 0 to 35 wt.% of a polymeric performance improving agent; a neutralizing agent that partially or fully neutralizes the polymeric stabilizing agent; and a fluid medium, where the percent values are based on the total weight of the base polymer, the polymeric coupling agent, the polymeric stabilizing agent and, when present, the polymeric performance improving agent of the coating composition and sum to a value of 100 wt.%. 40 to 80 weight percent (wt.%) of a base polymer that is a non-functionalized ethylene polymer and not a non-functionalized propylene/ethylene copolymer; 5 to 15 wt.% of a polymeric coupling agent; 10 to 30 wt.% of a polymeric stabilizing agent; 0 to 35 wt.% of a polymeric performance improving agent; a neutralizing agent that partially or fully neutralizes the polymeric stabilizing agent; and a fluid medium, where the percent values are based on the total weight of the base polymer, the polymeric coupling agent, the polymeric stabilizing agent and, when present, the polymeric performance improving agent of the coating composition and sum to a value of 100 wt.%.
A communication method, comprising: receiving , by user equipment, a first handover message sent by a first base station, wherein the first handover message is used to instruct to hand over the user equipment from a first cell to a second cell, and the first handover message comprises instruction information, wherein the instruction information is used to instruct the user equipment to maintain uplink synchronization of the user equipment with the first cell controlled by the first base station; and handing over the user equipment according to the instruction; when the user equipment is in uplink synchronization with the first cell according to the instruction information, the user equipment is in a radio resource control RRC connected state, and a serving cell of the user equipment is the second cell controlled by a second base station; and when a radio link between the user equipment and the second cell fails, or after the user equipment receives a second handover message sent by the second base station and used to instruct to hand over the user equipment from the second cell to the first cell, handing over the user equipment from the second cell to the first cell that is in uplink synchronization with the user equipment, and performing communication based on the first cell. receiving , by user equipment, a first handover message sent by a first base station, wherein the first handover message is used to instruct to hand over the user equipment from a first cell to a second cell, and the first handover message comprises instruction information, wherein the instruction information is used to instruct the user equipment to maintain uplink synchronization of the user equipment with the first cell controlled by the first base station; and handing over the user equipment according to the instruction; when the user equipment is in uplink synchronization with the first cell according to the instruction information, the user equipment is in a radio resource control RRC connected state, and a serving cell of the user equipment is the second cell controlled by a second base station; and when a radio link between the user equipment and the second cell fails, or after the user equipment receives a second handover message sent by the second base station and used to instruct to hand over the user equipment from the second cell to the first cell, handing over the user equipment from the second cell to the first cell that is in uplink synchronization with the user equipment, and performing communication based on the first cell.