mhurhangee/patent-ind-claim-en huggingface dataset:
Method for managing a main module of a production line, said line having at least one module situated upstream or downstream of said main module , said main module being equipped with thermal means operating in production at a setpoint temperature , in which method: - during production, when a stoppage occurs, said stoppage being an unexpected stoppage, in the production continuity at said main module over a period, the temperature of said thermal means is lowered; - then the temperature of said thermal means is re-established until said setpoint temperature is reached; - data are recorded comprising at least past data, said past data relating to at least one past event that occurred in production and comprising at least one duration of elevation of the temperature of said thermal means from a first temperature to a second temperature; characterized in that : - the temperature of said thermal means is adapted automatically, as a function of said recorded past data, until said setpoint temperature is reached at the end of a stoppage duration extrapolated with respect to the recorded past data relating to a similar past event that occurred during production. - during production, when a stoppage occurs, said stoppage being an unexpected stoppage, in the production continuity at said main module over a period, the temperature of said thermal means is lowered; - then the temperature of said thermal means is re-established until said setpoint temperature is reached; - data are recorded comprising at least past data, said past data relating to at least one past event that occurred in production and comprising at least one duration of elevation of the temperature of said thermal means from a first temperature to a second temperature; characterized in that : - the temperature of said thermal means is adapted automatically, as a function of said recorded past data, until said setpoint temperature is reached at the end of a stoppage duration extrapolated with respect to the recorded past data relating to a similar past event that occurred during production. - the temperature of said thermal means is adapted automatically, as a function of said recorded past data, until said setpoint temperature is reached at the end of a stoppage duration extrapolated with respect to the recorded past data relating to a similar past event that occurred during production.
Temperature controlling apparatus for controlling the temperature of objects , in particular vehicle bodies , having a) n temperature control regions (24.k; k=1 to k=n), in which a respective temperature T.k prevails, wherein n ≥ 2; b) a conveying system comprising a multiplicity of transporting carriages which have a fastening device for at least one object and on which the objects can be conveyed through the temperature control regions (24.k), wherein c) the temperature control regions (24.k) follow one another in direct succession along a temperature control line of the conveying system ; characterized in that d) the conveying system and the temperature control regions (24.k) are designed such that the objects can be conveyed selectively da) through all n temperature control regions (24.k) or db) through a number N of the temperature control regions (24.k), with N < n. a) n temperature control regions (24.k; k=1 to k=n), in which a respective temperature T.k prevails, wherein n ≥ 2; b) a conveying system comprising a multiplicity of transporting carriages which have a fastening device for at least one object and on which the objects can be conveyed through the temperature control regions (24.k), wherein c) the temperature control regions (24.k) follow one another in direct succession along a temperature control line of the conveying system ; characterized in that d) the conveying system and the temperature control regions (24.k) are designed such that the objects can be conveyed selectively da) through all n temperature control regions (24.k) or db) through a number N of the temperature control regions (24.k), with N < n. da) through all n temperature control regions (24.k) or db) through a number N of the temperature control regions (24.k), with N < n.
Conveyor system, for instance for conveying goods, packages and the like comprising: - at least two wired motor-roller controllers , wherein each wired motor-roller controller has at least one motor-roller control port and at least one wired signal bus port , - at least two wireless motor-roller controllers , wherein each wireless motor-roller controller has at least one motor-roller control port and a wireless port , and - wherein the two wired motor-roller controllers are connected in series along the signal bus via the signal bus port , - wherein each wired motor-roller controller is configured to sense a signal strength of wireless signals of the wireless motor-roller controllers , characterized in that - the wired motor-roller controllers are configured to exchange information about the sensed signal strengths, and also characterised by - a computing unit configured to compute a position of a wireless motor-roller controller relative to at least two wired motor roller controllers based on the exchanged information, - at least two wired motor-roller controllers , wherein each wired motor-roller controller has at least one motor-roller control port and at least one wired signal bus port , - at least two wireless motor-roller controllers , wherein each wireless motor-roller controller has at least one motor-roller control port and a wireless port , and - wherein the two wired motor-roller controllers are connected in series along the signal bus via the signal bus port , - wherein each wired motor-roller controller is configured to sense a signal strength of wireless signals of the wireless motor-roller controllers , characterized in that - the wired motor-roller controllers are configured to exchange information about the sensed signal strengths, and also characterised by - a computing unit configured to compute a position of a wireless motor-roller controller relative to at least two wired motor roller controllers based on the exchanged information,
An arc welding control method of alternating a forward feeding period and a reverse feeding period cyclically as to a feeding rate (Fw) of a welding wire to generate short-circuiting periods and arc periods in a manner that shifting to the arc period is performed by reducing a welding current (Iw) when a constriction of a droplet formed at the welding wire is detected during the short-circuiting period, and sensitivity of the detection of constriction is subjected to automatic setting control based on a constriction detection time (Tn) representing a time period from a time point where the constriction is detected during the short-circuiting period to a time point where shifting to the arc period is performed, the arc welding control method comprising: changing a gain for the automatic setting control according to a waveform parameter of the feeding rate (Fw).
A method for distilling a liquid from a soiled liquid , comprising the steps: - automatically arranging in a distillation column of a distillation device a soiled fluid comprising a liquid by feeding the soiled fluid into the distillation column under a closed loop control; - heating the soiled fluid arranged in the distillation column for vaporizing the liquid ; - liquefying a vaporized liquid by condensation; - accumulating the condensed liquid ; - removing a distillation residue from the distillation column , characterized in that the soiled liquid is heated by a steam generated in a heating device of the distillation device , wherein a heat is evenly transferred to the soiled liquid from a steam container of the heating device to the soiled liquid , the steam container having a flat heating surface in contact with an outer surface of a flat bottom of the steam container . - automatically arranging in a distillation column of a distillation device a soiled fluid comprising a liquid by feeding the soiled fluid into the distillation column under a closed loop control; - heating the soiled fluid arranged in the distillation column for vaporizing the liquid ; - liquefying a vaporized liquid by condensation; - accumulating the condensed liquid ; - removing a distillation residue from the distillation column ,
A method of handling non-human semen having cells therein, the method including: providing a supply of semen obtained from a non-human male animal; using a programmable machine to conduct a plurality of integrated flow cytometry operations, the operations including: a) receiving the supply of semen into the machine; b) forming multiple streams containing the cells; and c) sorting at least one portion of the cells into a first population of cells having a characteristic A and a second population of cells having a characteristic B; and distributing the first or the second population for commercial use; wherein the step of forming multiple streams containing the cells is enabled by having multiple flow cytometry units linked to form a single integrated multi-channel flow cytometry unit, and wherein the single integrated multi-channel flow cytometry unit utilizes a common supply of cells for the multiple streams; and a common system for delivering carrier fluid, the common carrier fluid delivery system being capable of supplying one or more of the units at a first flow rate and one or more of the units at a second flow rate; a common operations control input; and a common processor for receiving and processing information from the multiple flow cytometry units, wherein the operational parameters of each of the multiple flow cytometry units can be set independently of the other flow cytometry units. providing a supply of semen obtained from a non-human male animal; using a programmable machine to conduct a plurality of integrated flow cytometry operations, the operations including: a) receiving the supply of semen into the machine; b) forming multiple streams containing the cells; and c) sorting at least one portion of the cells into a first population of cells having a characteristic A and a second population of cells having a characteristic B; and a) receiving the supply of semen into the machine; b) forming multiple streams containing the cells; and c) sorting at least one portion of the cells into a first population of cells having a characteristic A and a second population of cells having a characteristic B; and distributing the first or the second population for commercial use; wherein the step of forming multiple streams containing the cells is enabled by having multiple flow cytometry units linked to form a single integrated multi-channel flow cytometry unit, and wherein the single integrated multi-channel flow cytometry unit utilizes a common supply of cells for the multiple streams; and a common system for delivering carrier fluid, the common carrier fluid delivery system being capable of supplying one or more of the units at a first flow rate and one or more of the units at a second flow rate; a common operations control input; and a common processor for receiving and processing information from the multiple flow cytometry units, wherein the operational parameters of each of the multiple flow cytometry units can be set independently of the other flow cytometry units.
A powder-dispensing device in the form of a dense phase powder pump or a powder injector for conveying coating powder from a powder reservoir to a powder-spraying device , wherein the powder-dispensing device comprises a control device integrated into the powder-dispensing device whch is designed to set at least one parameter characteristic with regard to a spray coating process effected with the powder-spraying device , characterized in that the control device is further designed to perform spray coating processes, wherein the control device comprises a storage device having a plurality of spray coating programs thereto, wherein each spray coating program has at least one respective adjustable parameter, wherein the control device comprises at least one manually operable parameter adjusting element (1°, 2°, 3°, 4°, 5°, 6°) for setting a parameter target value for the at least one adjustable parameter, and wherein the control device comprises a visual display unit for automatically displaying the at least one set parameter target value.
A compound of Formula I: or a stereoisomer thereof, tautomer thereof, solvate thereof, or a pharmaceutically acceptable salt thereof, wherein: Ar 1 is furanyl, 2-methylfuranyl, benzofuranyl, pyrazolyl, thiazolyl, or oxazolyl; Ar 2 is C 5-10 heteroaryl (optionally monocyclic heteroaryl or bicyclic heteroaryl), C 5-10 heteroaryl substituted with C 1-6 alkyl, benzothiazolyl, indolyl, benzimidazoyl, indazoyl, or pyrazolyl; R 1 is independently selected from hydrogen or C 1-6 alkyl; R 2 is selected from the group consisting of hydrogen, C 1-6 alkyl, or C 3-10 cycloalkyl; and R 3 is selected from the group consisting of hydrogen, C 1-6 alkyl, straight or branched C 1-10 alkyl, C 2-10 alkenyl, or C 2-10 alkynyl, C 3-10 cycloalkyl, C 5-8 cycloalkenyl, C 7-20 alkyl, C 1-10 aminoalkyl, C 5-10 aryl or a saturated or unsaturated 3-11 member heteroaryl or heteroarylalkyl containing 1, 2, 3, or 4 heteroatoms selected independently from N, O, S, or S(O) 2 . Ar 1 is furanyl, 2-methylfuranyl, benzofuranyl, pyrazolyl, thiazolyl, or oxazolyl; Ar 2 is C 5-10 heteroaryl (optionally monocyclic heteroaryl or bicyclic heteroaryl), C 5-10 heteroaryl substituted with C 1-6 alkyl, benzothiazolyl, indolyl, benzimidazoyl, indazoyl, or pyrazolyl; R 1 is independently selected from hydrogen or C 1-6 alkyl; R 2 is selected from the group consisting of hydrogen, C 1-6 alkyl, or C 3-10 cycloalkyl; and R 3 is selected from the group consisting of hydrogen, C 1-6 alkyl, straight or branched C 1-10 alkyl, C 2-10 alkenyl, or C 2-10 alkynyl, C 3-10 cycloalkyl, C 5-8 cycloalkenyl, C 7-20 alkyl, C 1-10 aminoalkyl, C 5-10 aryl or a saturated or unsaturated 3-11 member heteroaryl or heteroarylalkyl containing 1, 2, 3, or 4 heteroatoms selected independently from N, O, S, or S(O) 2 .
An image acquisition device , comprising: a stage on which a sample is placed; a light emitting means for emitting light; a light guiding optical system including an objective lens arranged to face the sample on the stage; a driving unit for moving a focal position of the objective lens relative to the sample in an optical axis direction of the objective lens; an imaging element for capturing an optical image of the sample guided by the light guiding optical system; an image processing unit for processing an image data output from the imaging element; and a control unit for controlling the light emitting means, wherein the imaging element is a two-dimensional imaging element that includes 1,...,N pixel rows and is capable of rolling reading in which reading is performed sequentially in each pixel row in the imaging element, the control unit is adapted to cause the light to be emitted from the light emitting means during a period of time from a start (T 1 ) of exposure of the N-th pixel row to a start (T 2 ) of the reading of the first pixel row, and the image processing unit is adapted to sequentially acquire image data from the imaging element, and combine the acquired image data to form combined image data, wherein the driving unit is adapted to move a focal position of the objective lens to a focusing position during a period of time from the start (T 2 ) of reading of the first pixel row to the start (T 1 ) of exposure of the N-th pixel row. a stage on which a sample is placed; a light emitting means for emitting light; a light guiding optical system including an objective lens arranged to face the sample on the stage; a driving unit for moving a focal position of the objective lens relative to the sample in an optical axis direction of the objective lens; an imaging element for capturing an optical image of the sample guided by the light guiding optical system; an image processing unit for processing an image data output from the imaging element; and a control unit for controlling the light emitting means, the imaging element is a two-dimensional imaging element that includes 1,...,N pixel rows and is capable of rolling reading in which reading is performed sequentially in each pixel row in the imaging element, the control unit is adapted to cause the light to be emitted from the light emitting means during a period of time from a start (T 1 ) of exposure of the N-th pixel row to a start (T 2 ) of the reading of the first pixel row, and the image processing unit is adapted to sequentially acquire image data from the imaging element, and combine the acquired image data to form combined image data, wherein the driving unit is adapted to move a focal position of the objective lens to a focusing position during a period of time from the start (T 2 ) of reading of the first pixel row to the start (T 1 ) of exposure of the N-th pixel row.
A process for manufacturing a turbine engine component , said process comprising the steps of: providing a MAXMET composite material ; providing a partially machined forging of a material to be used to form said turbine engine component ; and joining said MAXMET composite material to said partially machined forging; wherein the step of joining the MAXMET composite material to the partially machined forging comprises diffusion bonding or transient liquid phase brazing of a MAXMET composite ring to said partially machined forging of the material to be used to form said turbine engine component . providing a MAXMET composite material ; providing a partially machined forging of a material to be used to form said turbine engine component ; and joining said MAXMET composite material to said partially machined forging; wherein the step of joining the MAXMET composite material to the partially machined forging comprises diffusion bonding or transient liquid phase brazing of a MAXMET composite ring to said partially machined forging of the material to be used to form said turbine engine component .
A compressor , comprising: a casing ; a retaining ring coupled to an inside of the casing ; a plurality of cantilever type vanes fastened to an inner circumferential surface of the retaining ring and spaced apart from each other along a circumferential direction of the retaining ring ; a diffuser fixed to face an end of a rotor disk installed in an inner space of the casing ; characterised in that it further comprises a shroud segment movably disposed on the diffuser to face at least one vane tip of the plurality of vanes ; and an elastic member installed between the shroud segment and the diffuser . a casing ; a retaining ring coupled to an inside of the casing ; a plurality of cantilever type vanes fastened to an inner circumferential surface of the retaining ring and spaced apart from each other along a circumferential direction of the retaining ring ; a diffuser fixed to face an end of a rotor disk installed in an inner space of the casing ; characterised in that it further comprises a shroud segment movably disposed on the diffuser to face at least one vane tip of the plurality of vanes ; and an elastic member installed between the shroud segment and the diffuser .
An optical fiber organizer comprising: a first support which is connected to a second support ; a. the first support comprising a first section rotatably connected to a second section with a hinge , the first section being rotatable with respect to the second section ; b. a plurality of optical-fiber storage trays rotatably connected to the first section with hinge means ; and c. an area configured such that a cable and/or other optical components are arrangeable in the area, wherein the first section is configured to be connected to the second support by clip means and configured to be arranged with a predetermined angle relative to the second section to cover the area ; wherein the optical fiber organizer is configured such that a free space for accessing the area is provided when the clip means are loosened and the first section is rotated via the rotational axis of the hinge away from a sidewall of the second support ; wherein the first section is configured to be connected to the sidewall of the second support by the clip means . a first support which is connected to a second support ; a. the first support comprising a first section rotatably connected to a second section with a hinge , the first section being rotatable with respect to the second section ; b. a plurality of optical-fiber storage trays rotatably connected to the first section with hinge means ; and c. an area configured such that a cable and/or other optical components are arrangeable in the area, a. the first support comprising a first section rotatably connected to a second section with a hinge , the first section being rotatable with respect to the second section ; b. a plurality of optical-fiber storage trays rotatably connected to the first section with hinge means ; and c. an area configured such that a cable and/or other optical components are arrangeable in the area, wherein the first section is configured to be connected to the second support by clip means and configured to be arranged with a predetermined angle relative to the second section to cover the area ; wherein the optical fiber organizer is configured such that a free space for accessing the area is provided when the clip means are loosened and the first section is rotated via the rotational axis of the hinge away from a sidewall of the second support ; wherein the first section is configured to be connected to the sidewall of the second support by the clip means .
A circuit for dimming a lighting load , said circuit comprising an AC leading-edge phase-cut dimmer and a control circuit, wherein said dimmer is adapted to be connected to an AC supply via the control circuit and comprises a phase-cutting switch and a timing capacitor , wherein said control circuit is adapted to be connected to the lighting load to supply said lighting load , wherein said control circuit comprises a detection circuit adapted to detect a deadlock state of said dimmer , wherein the deadlock state is a state in which a voltage at a control terminal of said phase-cutting switch does not reach a predetermined trigger level required to turn on said phase-cutting switch , said circuit being characterised in that said control circuit further comprises: - an activation circuit electrically coupled in series with said dimmer and said lighting load , wherein in normal operation, said activation circuit is inactivated, wherein in response to said detection circuit detecting a deadlock state of said dimmer , said detection circuit is adapted to activate said activation circuit so that said activation circuit performs single sided rectification in order to supply a DC current to said dimmer , until the voltage at the control terminal of said phase-cutting switch reaches the predetermined trigger level to exit the deadlock state thereby activating said dimmer . - an activation circuit electrically coupled in series with said dimmer and said lighting load , wherein in normal operation, said activation circuit is inactivated,