mhurhangee/patent-ind-claim-en huggingface dataset:
A method to inject fluid into a well below a subsurface safety valve comprising: deploying a subsurface safety valve upon a distal end of an upper injection conduit to a string of production tubing , the string of production tubing including a landing profile , the subsurface safety valve including a flapper disc and a lower injection conduit extending from the subsurface safety valve to a lower zone, said lower injection conduit in communication with the upper injection conduit through a bypass pathway of the subsurface safety valve ; extending an actuating line to the subsurface safety valve through an annulus between a wellbore and the string of production tubing ; engaging the subsurface safety valve into the landing profile ; extending an actuation conduit to the subsurface safety valve through a bore of the string of production tubing ; and further comprising actuating the flapper disc between an open position and a closed position through the actuation conduit or the actuating line ; and injecting a fluid from a surface location to the lower zone through the upper injection conduit , the bypass pathway , and the lower injection conduit . deploying a subsurface safety valve upon a distal end of an upper injection conduit to a string of production tubing , the string of production tubing including a landing profile , the subsurface safety valve including a flapper disc and a lower injection conduit extending from the subsurface safety valve to a lower zone, said lower injection conduit in communication with the upper injection conduit through a bypass pathway of the subsurface safety valve ; extending an actuating line to the subsurface safety valve through an annulus between a wellbore and the string of production tubing ; engaging the subsurface safety valve into the landing profile ; extending an actuation conduit to the subsurface safety valve through a bore of the string of production tubing ; and further comprising actuating the flapper disc between an open position and a closed position through the actuation conduit or the actuating line ; and injecting a fluid from a surface location to the lower zone through the upper injection conduit , the bypass pathway , and the lower injection conduit .
A cryogen free cooling apparatus comprising: a vacuum chamber ; a first heat radiation shield surrounding a working region and located in the vacuum chamber ; a cryofree cooling system, for example a mechanical cooler such as a GM cooler, Stirling cooler or pulse tube device, having a cooling stage coupled to the first heat radiation shield ; a cold body formed by a surface linked to a cold plate coupled to a cooling stage of the cooling system; a cold mounting body located at the working region and held at a lower temperature than the cold body ; aligned apertures in the first heat radiation shield and vacuum chamber wall; sample loading apparatus having one or more elongate probes and a sample holding device attached to the one or more elongate probes, the one or more elongate probes for inserting the sample holding device through the aligned apertures to the working region ; and a thermal connector , whereby the sample holding device is configured to be connected to the cold mounting body via the connector, and whereby the elongate probe or each of the elongate probes is relesably coupled to the sample holding device for releasing the sample holding device when the sample holding device is connected to the cold mounting body; characterised in that the sample holding device is releasably coupled for heat conduction via said connector to the cold body so as to pre-cool a sample on or in the sample holding device before the sample holding device is connected to the cold mounting body . a vacuum chamber ; a first heat radiation shield surrounding a working region and located in the vacuum chamber ; a cryofree cooling system, for example a mechanical cooler such as a GM cooler, Stirling cooler or pulse tube device, having a cooling stage coupled to the first heat radiation shield ; a cold body formed by a surface linked to a cold plate coupled to a cooling stage of the cooling system; a cold mounting body located at the working region and held at a lower temperature than the cold body ; aligned apertures in the first heat radiation shield and vacuum chamber wall; sample loading apparatus having one or more elongate probes and a sample holding device attached to the one or more elongate probes, the one or more elongate probes for inserting the sample holding device through the aligned apertures to the working region ; and a thermal connector , whereby the sample holding device is configured to be connected to the cold mounting body via the connector, and whereby the elongate probe or each of the elongate probes is relesably coupled to the sample holding device for releasing the sample holding device when the sample holding device is connected to the cold mounting body; characterised in that the sample holding device is releasably coupled for heat conduction via said connector to the cold body so as to pre-cool a sample on or in the sample holding device before the sample holding device is connected to the cold mounting body .
An electrostatic capacitance sensor for measuring a distance between a detection unit and an object (W) to be detected, comprising: an AC supply source for supplying AC voltage to the detection unit ; a parasitic capacitance compensation circuit ; an operational amplifier ; a differential amplifier ; a phase detection means ; and a low-pass filter , wherein the detection unit is connected to input terminals of the operational amplifier , an input terminal of the operational amplifier is provided with the parasitic capacitance compensation circuit , an output terminal of the operational amplifier is connected to an inverting input terminal of the differential amplifier through a first band-pass filter , the AC supply source is connected to a non-inverting input terminal of the differential amplifier through a second band-pass filter , an output terminal of the differential amplifier is connected to an input terminal of the phase detection means , the phase detection means uses an AC signal output from the AC supply source as a reference signal, and the low-pass filter is configured to remove noises in a signal extracted from the phase detection means . an AC supply source for supplying AC voltage to the detection unit ; a parasitic capacitance compensation circuit ; an operational amplifier ; a differential amplifier ; a phase detection means ; and a low-pass filter , wherein the detection unit is connected to input terminals of the operational amplifier , an input terminal of the operational amplifier is provided with the parasitic capacitance compensation circuit , an output terminal of the operational amplifier is connected to an inverting input terminal of the differential amplifier through a first band-pass filter , the AC supply source is connected to a non-inverting input terminal of the differential amplifier through a second band-pass filter , an output terminal of the differential amplifier is connected to an input terminal of the phase detection means , the phase detection means uses an AC signal output from the AC supply source as a reference signal, and the low-pass filter is configured to remove noises in a signal extracted from the phase detection means .
A connector for a medical instrument , in particular a bipolar electrode or forceps, the connector comprises at least one alignment element for receiving an end portion of at least one of the arms of the instrument , thereby to align the arm or arms relative to the alignment element ; wherein the connector further comprises: - a housing element for receiving and holding the alignment element , wherein the alignment element is insertable into the housing element , wherein the housing element comprises an opening through which the alignment element is insertable into the housing element , and a side of the housing element opposing the opening is closed and comprises at least one through hole for one or more electric lines for connecting an external power supply to the arm or arms of the medical instrument , wherein the electric lines comprise one or more electric cables and/or one or more pins to form a plug for connecting with an external electrical power supply, - wherein the alignment element and the end portion/s of the arm or arms are fixed in an end position in which the alignment element is fully inserted into the housing element. - a housing element for receiving and holding the alignment element , wherein the alignment element is insertable into the housing element , wherein the housing element comprises an opening through which the alignment element is insertable into the housing element , and a side of the housing element opposing the opening is closed and comprises at least one through hole for one or more electric lines for connecting an external power supply to the arm or arms of the medical instrument , wherein the electric lines comprise one or more electric cables and/or one or more pins to form a plug for connecting with an external electrical power supply, - wherein the alignment element and the end portion/s of the arm or arms are fixed in an end position in which the alignment element is fully inserted into the housing element.
A method of fabricating a part , the method comprising: stacking sheets of fusible material to form a stack ; directing a laser beam through at least one sheet of the stack ; and transferring energy from the laser beam to multiple locations on at least one interface between adjacent ones of the sheets of the stack , according to a predetermined pattern corresponding with a design of the part , to form corresponding multiple molten regions , conjoined together to form a fused portion of the adjacent ones of the sheets , wherein the fused portion of the adjacent ones of the sheets defines the part , wherein transferring energy from the laser beam to multiple locations comprises focusing the laser beam at the multiple locations, and wherein: the laser beam is focused at multiple locations on a first interface between a first sheet of the sheets of the stack and a second sheet of the sheets of the stack ; the laser beam is focused at multiple locations on a second interface between the second sheet of the sheets of the stack and a third sheet of the sheets of the stack ; and the second sheet is interposed between the first sheet and the third sheet. stacking sheets of fusible material to form a stack ; directing a laser beam through at least one sheet of the stack ; and transferring energy from the laser beam to multiple locations on at least one interface between adjacent ones of the sheets of the stack , according to a predetermined pattern corresponding with a design of the part , to form corresponding multiple molten regions , conjoined together to form a fused portion of the adjacent ones of the sheets , wherein the fused portion of the adjacent ones of the sheets defines the part , wherein transferring energy from the laser beam to multiple locations comprises focusing the laser beam at the multiple locations, and wherein: the laser beam is focused at multiple locations on a first interface between a first sheet of the sheets of the stack and a second sheet of the sheets of the stack ; the laser beam is focused at multiple locations on a second interface between the second sheet of the sheets of the stack and a third sheet of the sheets of the stack ; and the second sheet is interposed between the first sheet and the third sheet. the laser beam is focused at multiple locations on a first interface between a first sheet of the sheets of the stack and a second sheet of the sheets of the stack ; the laser beam is focused at multiple locations on a second interface between the second sheet of the sheets of the stack and a third sheet of the sheets of the stack ; and the second sheet is interposed between the first sheet and the third sheet.
Electric machine with - an outer stator , - an inner stator , which is arranged concentrically with the outer stator within the outer stator , - a rotor , which is arranged concentrically with the outer stator and the inner stator between the outer stator and the inner stator and which can be moved relative to the outer stator and the inner stator , and - a shaft , - a first cooling facility for cooling the inner stator , - a second cooling facility for cooling the outer stator , wherein the second cooling facility has a helical cooling channel , wherein the second cooling facility has a bifilar shape, wherein the outer stator has an outer housing and the inner stator has an inner housing , wherein the outer housing and the inner housing together embody a pot-shaped housing, characterised in that the first cooling facility is connected to the second cooling facility , wherein the first cooling facility and the second cooling facility have a shared inlet and/or a shared outlet , the first cooling facility has a helical cooling duct , wherein the first cooling facility has a bifilar shape and the pot-shaped housing is designed in one piece, wherein housing braces are provided for reinforcing the housing . - an outer stator , - an inner stator , which is arranged concentrically with the outer stator within the outer stator , - a rotor , which is arranged concentrically with the outer stator and the inner stator between the outer stator and the inner stator and which can be moved relative to the outer stator and the inner stator , and - a shaft , - a first cooling facility for cooling the inner stator , - a second cooling facility for cooling the outer stator , wherein the second cooling facility has a helical cooling channel , wherein the second cooling facility has a bifilar shape, wherein the outer stator has an outer housing and the inner stator has an inner housing , wherein the outer housing and the inner housing together embody a pot-shaped housing, characterised in that the first cooling facility is connected to the second cooling facility , wherein the first cooling facility and the second cooling facility have a shared inlet and/or a shared outlet , the first cooling facility has a helical cooling duct , wherein the first cooling facility has a bifilar shape and the pot-shaped housing is designed in one piece, wherein housing braces are provided for reinforcing the housing . wherein the second cooling facility has a helical cooling channel , wherein the second cooling facility has a bifilar shape, wherein the outer stator has an outer housing and the inner stator has an inner housing , wherein the outer housing and the inner housing together embody a pot-shaped housing, characterised in that the first cooling facility is connected to the second cooling facility , wherein the first cooling facility and the second cooling facility have a shared inlet and/or a shared outlet , the first cooling facility has a helical cooling duct , wherein the first cooling facility has a bifilar shape and the pot-shaped housing is designed in one piece, wherein housing braces are provided for reinforcing the housing .
Eraser for removing marks by writing, painting and/or drawing tools, comprising at least one binder and at least one softener, characterised in that the eraser comprises pentaerythritoltetra valerate as first softener component, the eraser comprise epoxidised soya bean (ESBO) as second softener component and the eraser is composed of binder 20 - 60 weight % pentaerythritoltetra valerate 10 - 30 weight % epoxidised plant oil 10 - 30 weight % fillers 0 - 60 weight % additives 0 - 10 weight % the eraser comprises pentaerythritoltetra valerate as first softener component, the eraser comprise epoxidised soya bean (ESBO) as second softener component and the eraser is composed of binder 20 - 60 weight % pentaerythritoltetra valerate 10 - 30 weight % epoxidised plant oil 10 - 30 weight % fillers 0 - 60 weight % additives 0 - 10 weight %
A method for predicting an anthracycline treatment outcome in a patient with breast cancer; said method comprising: a) establishing a reference methylation signature comprises determining the methylation status of the INA RASSF1, SEMA3B, KLHL6, and PTPRCAP genes in a test sample from a responder or non-responder to anthracycline treatment, thereby producing a reference methylation signature of a responder or non-responder to anthracycline treatment; b) assaying in a test sample from the patient the methylation status of the SEMA3B, PTPRCAP, INA, KLHL6, and RASSF1 gene; c) calculating a methylation signature of the test sample based on the methylation status obtained in step b); and d) comparing said test sample methylation signature with the reference methylation signature of a responder or non-responder obtained in step a), thereby preidicting the anthracycline treatment outcome in said patient. a) establishing a reference methylation signature comprises determining the methylation status of the INA RASSF1, SEMA3B, KLHL6, and PTPRCAP genes in a test sample from a responder or non-responder to anthracycline treatment, thereby producing a reference methylation signature of a responder or non-responder to anthracycline treatment; b) assaying in a test sample from the patient the methylation status of the SEMA3B, PTPRCAP, INA, KLHL6, and RASSF1 gene; c) calculating a methylation signature of the test sample based on the methylation status obtained in step b); and d) comparing said test sample methylation signature with the reference methylation signature of a responder or non-responder obtained in step a), thereby preidicting the anthracycline treatment outcome in said patient.
A blender system comprising: a base; a container selectively attached with the base; a blending mechanism positioned in the container; a memory storing at least one recipe; a processor , communicatively coupled to the memory , wherein the processor generates a blending process comprising a series of blender motor speeds to operate the blender blade at the given speed and a series of time intervals corresponding to the given motor speeds, wherein the processor generates the blending process at least as a function of a set of ingredients of the at least one recipe and executes at least one instruction of the blending process to operate at least one of the blending mechanism and the container; and a wireless communication device communicatively coupled to the processor to modify the at least one recipe, characterized in that the wireless communication device further receives a rating identifying a user's affinity for a blended product and communicates the rating to a network, wherein the processor receives data related to the rating identifying the user's affinity for the blended product, and wherein the processor applies the data to modify the at least one recipe. a base; a container selectively attached with the base; a blending mechanism positioned in the container; a memory storing at least one recipe; a processor , communicatively coupled to the memory , wherein the processor generates a blending process comprising a series of blender motor speeds to operate the blender blade at the given speed and a series of time intervals corresponding to the given motor speeds, wherein the processor generates the blending process at least as a function of a set of ingredients of the at least one recipe and executes at least one instruction of the blending process to operate at least one of the blending mechanism and the container; and a wireless communication device communicatively coupled to the processor to modify the at least one recipe, characterized in that the wireless communication device further receives a rating identifying a user's affinity for a blended product and communicates the rating to a network, wherein the processor receives data related to the rating identifying the user's affinity for the blended product, and wherein the processor applies the data to modify the at least one recipe.
A method comprising: determining a volume of a box ; determining a content of the box , a largest dimension of the content, and a smallest dimension of the content; determining a void volume based at least in part on the volume of the box and a volume of the content of the box; characterized in comprising: determining an average fill aspect ratio by dividing the largest dimension by the smallest dimension; determining a filled ratio comprising a percentage of the volume of the box occupied by the content of the box; and determining a packing element requirement based at least in part on average fill aspect ratio, the filled ratio, and the void volume. determining a volume of a box ; determining a content of the box , a largest dimension of the content, and a smallest dimension of the content; determining a void volume based at least in part on the volume of the box and a volume of the content of the box; characterized in comprising: determining an average fill aspect ratio by dividing the largest dimension by the smallest dimension; determining a filled ratio comprising a percentage of the volume of the box occupied by the content of the box; and determining a packing element requirement based at least in part on average fill aspect ratio, the filled ratio, and the void volume. determining an average fill aspect ratio by dividing the largest dimension by the smallest dimension; determining a filled ratio comprising a percentage of the volume of the box occupied by the content of the box; and determining a packing element requirement based at least in part on average fill aspect ratio, the filled ratio, and the void volume.
An arrangement for horizontally supporting a first side wall of a top-supported vertical flue gas pass (24, 24', 24") in a thermal power steam generator (10, 10', 10", 10′′′), wherein the first side wall comprises evaporative water tubes for conveying a mixture of water and steam in a first temperature, and the vertical flue gas pass comprises a superheating tube for conveying steam in a second temperature higher than the first temperature, the superheating tube comprising multiple rigid, horizontally extending tube legs extending across the flue gas pass from the proximity of the first side wall to the proximity of a second side wall opposite to the first side wall in the flue gas pass, wherein the superheating tube is supported from above by a hanger which is in operation in a third temperature higher than the first temperature, and the rigidity of the first side wall is increased by each of the rigid, horizontally extending tube legs comprising first and second end sections , wherein each of the first and second end sections being attached to the proximate side wall by an attaching means , characterized in that the attaching means allows relative movement between the respective end section and the proximate side wall only in direction of relative thermal movement between the end section and the proximate side wall, but does not allow purely horizontal movement between the respective end section and the proximate side wall.