mhurhangee/ep-ind-claims huggingface dataset:
A process for determining real-time drilling dysfunctions where the process comprises: a. acquiring a first time series from a mid-string drilling sub sensor associated with a drill string in a wellbore in a first well; b. acquiring a second time series from a sensor associated with the drill string wherein the sensor is on or near a drill rig on the surface of the earth; c. determining the geometry of the wellbore; characterised in that the process measures power-loss of signal propagation associated with a drill string for drilling a wellbore by: d. determining model parameters alpha and beta for characterizing a wellbore using the first time series, the second time series and the geometry of the wellbore by deriving a power loss of signal propagation; and further charcaterised in that e. the process further comprises drilling a second well and acquiring a third time series from a sensor associated with a drill string in a wellbore wherein the sensor is on or near the drill rig on the surface of the earth, further comprising mitigating drilling dysfunctions in drilling the second well, dysfunctions determined using the determined model parameters alpha and beta, the third time series and geometry of the second wellbore. a. acquiring a first time series from a mid-string drilling sub sensor associated with a drill string in a wellbore in a first well; b. acquiring a second time series from a sensor associated with the drill string wherein the sensor is on or near a drill rig on the surface of the earth; c. determining the geometry of the wellbore; characterised in that the process measures power-loss of signal propagation associated with a drill string for drilling a wellbore by: d. determining model parameters alpha and beta for characterizing a wellbore using the first time series, the second time series and the geometry of the wellbore by deriving a power loss of signal propagation; and further charcaterised in that e. the process further comprises drilling a second well and acquiring a third time series from a sensor associated with a drill string in a wellbore wherein the sensor is on or near the drill rig on the surface of the earth, further comprising mitigating drilling dysfunctions in drilling the second well, dysfunctions determined using the determined model parameters alpha and beta, the third time series and geometry of the second wellbore.
A sheet cutting device comprising: a cutter to cut a sheet conveyed through a conveyance path to a desired length, wherein the cutter is movable in a direction perpendicular to the sheet conveyance direction; a movable member to move the cutter in a cutting direction; a driving device to drive the movable member; a sheet ejection guide; characterized in that the device is comprising: a lower guide; and a sheet holder disposed on a downstream side of a sheet cutting position of the cutter in the sheet conveyance direction, to hold the sheet, the sheet holder including a sheet holding member that is disposed on a sheet cutting start side of the cutter and is movable to a sheet holding position at which the sheet holding member holds the sheet and a non-holding position at which the sheet holding member does not hold the sheet, wherein the sheet holding member is configured to sandwich the sheet with the lower guide to hold the sheet in the sheet holding position, wherein, when the sheet is cut by the cutter, the sheet holding member moves to the sheet holding position, and after cutting of the sheet has been completed, the sheet holding member moves to the non-holding position. a cutter to cut a sheet conveyed through a conveyance path to a desired length, wherein the cutter is movable in a direction perpendicular to the sheet conveyance direction; a movable member to move the cutter in a cutting direction; a driving device to drive the movable member; a sheet ejection guide; characterized in that the device is comprising: a lower guide; and a sheet holder disposed on a downstream side of a sheet cutting position of the cutter in the sheet conveyance direction, to hold the sheet, the sheet holder including a sheet holding member that is disposed on a sheet cutting start side of the cutter and is movable to a sheet holding position at which the sheet holding member holds the sheet and a non-holding position at which the sheet holding member does not hold the sheet, wherein the sheet holding member is configured to sandwich the sheet with the lower guide to hold the sheet in the sheet holding position, wherein, when the sheet is cut by the cutter, the sheet holding member moves to the sheet holding position, and after cutting of the sheet has been completed, the sheet holding member moves to the non-holding position. a lower guide; and a sheet holder disposed on a downstream side of a sheet cutting position of the cutter in the sheet conveyance direction, to hold the sheet, the sheet holder including a sheet holding member that is disposed on a sheet cutting start side of the cutter and is movable to a sheet holding position at which the sheet holding member holds the sheet and a non-holding position at which the sheet holding member does not hold the sheet, wherein the sheet holding member is configured to sandwich the sheet with the lower guide to hold the sheet in the sheet holding position, wherein, when the sheet is cut by the cutter, the sheet holding member moves to the sheet holding position, and after cutting of the sheet has been completed, the sheet holding member moves to the non-holding position.
A heat pump-type heating device comprising: a refrigerant circuit in which a compressor, a heat-source-side heat exchanger, a motor-operated valve, and a target-side heat exchanger (16A, 16B) are provided; and an outdoor fan which is provided for the heat-source-side heat exchanger, the target-side heat exchanger being capable of heating, by a refrigerant, fluid supplied from outside, and a control unit characterized in that the control unit is configured to carry out a rotation number reduction control when a difference between a temperature of the fluid supplied to the target-side heat exchanger (16A, 16B) and an outside temperature is equal to or larger than a predetermined temperature difference, so that the rotation number of the outdoor fan upon activation of the compressor is smaller than when the difference is smaller than the predetermined temperature difference. a refrigerant circuit in which a compressor, a heat-source-side heat exchanger, a motor-operated valve, and a target-side heat exchanger (16A, 16B) are provided; and an outdoor fan which is provided for the heat-source-side heat exchanger, the target-side heat exchanger being capable of heating, by a refrigerant, fluid supplied from outside, and a control unit characterized in that the control unit is configured to carry out a rotation number reduction control when a difference between a temperature of the fluid supplied to the target-side heat exchanger (16A, 16B) and an outside temperature is equal to or larger than a predetermined temperature difference, so that the rotation number of the outdoor fan upon activation of the compressor is smaller than when the difference is smaller than the predetermined temperature difference.
An antimicrobial laminate comprising: at least one polymeric adhesive layer; a polymeric backing outwardly exposed on a first side of the adhesive layer; and optionally, a release liner outwardly exposed on a second side of the adhesive layer opposite from the first side of the adhesive layer, wherein at least one of the adhesive layer and the backing comprises an antimicrobially effective amount of chlorhexidine as a free base dispersed within the polymer, and wherein the laminate is free of chlorhexidine salt. at least one polymeric adhesive layer; a polymeric backing outwardly exposed on a first side of the adhesive layer; and optionally, a release liner outwardly exposed on a second side of the adhesive layer opposite from the first side of the adhesive layer, wherein at least one of the adhesive layer and the backing comprises an antimicrobially effective amount of chlorhexidine as a free base dispersed within the polymer, and wherein the laminate is free of chlorhexidine salt.
Use of a material, which comprises (a) at least one mono- or multifunctional (meth)acrylate or a mixture thereof as polymerizable binder, (b) at least one mono(meth)acrylate as volume expansion component, (c) at least one photoinitiator for the radical polymerization, and (d) at least one inorganic or organic dye and/or at least one inorganic or organic pigment as energy transformation component, for use as construction material for energy-pulse-induced transfer printing (LIFT). (a) at least one mono- or multifunctional (meth)acrylate or a mixture thereof as polymerizable binder, (b) at least one mono(meth)acrylate as volume expansion component, (c) at least one photoinitiator for the radical polymerization, and (d) at least one inorganic or organic dye and/or at least one inorganic or organic pigment as energy transformation component,
A stylet configured for use within an endoscopic needle, the stylet comprising: a proximal end terminus and a distal end terminus; an elongate single-wire, memory-metal alloy body with a generally cylindrical body profile that is circumferentially bounded by a first outer circumference, extending distally from the proximal end terminus; said stylet configured to reduce removal force from within a needle lumen, characterised by a polymeric distal tip member fixedly attached directly at a distal end of the single-wire body; where the polymeric distal tip member has a generally cylindrical body profile circumferentially bounded by a second outer circumference that is substantially equal to or greater than the first outer circumference; and where at least a lengthwise portion of the single-wire body is in martensitic phase at operating temperatures at and below about 37°C. a proximal end terminus and a distal end terminus; an elongate single-wire, memory-metal alloy body with a generally cylindrical body profile that is circumferentially bounded by a first outer circumference, extending distally from the proximal end terminus; said stylet configured to reduce removal force from within a needle lumen, characterised by a polymeric distal tip member fixedly attached directly at a distal end of the single-wire body; where the polymeric distal tip member has a generally cylindrical body profile circumferentially bounded by a second outer circumference that is substantially equal to or greater than the first outer circumference; and where at least a lengthwise portion of the single-wire body is in martensitic phase at operating temperatures at and below about 37°C.
A watercraft having a hull which has each a hydrofoil assembly (20, 30) in the region of the stern and in the region of the bow, the hydrofoil assemblies (20, 30) having hydrofoils (21, 31) arranged on both sides of the hull, wherein the hydrofoil assemblies (20, 30) are coupled to at least one adjustment unit (22, 32) in such a way that the bow-side hydrofoil assembly and the stern-side hydrofoil assembly each are at least partially individually height adjustable, characterized in that the bow-side and/or stern-side hydrofoils (21, 31) are each individually height adjustable, in that a boat drive is assigned to the hull, wherein the boat drive has a thrust unit, in that the boat drive or at least a part of the boat drive is vertically adjustably connected to the hull, in that an actuating unit for adjustment of the boat drive or the adjustable part of the boat drive is provided, and in that the actuating unit is synchronized with the adjustment units (22, 32) of the hydrofoils (21, 31) and/or the hydrofoil assemblies (20, 30). the hydrofoil assemblies (20, 30) having hydrofoils (21, 31) arranged on both sides of the hull, wherein the hydrofoil assemblies (20, 30) are coupled to at least one adjustment unit (22, 32) in such a way that the bow-side hydrofoil assembly and the stern-side hydrofoil assembly each are at least partially individually height adjustable, characterized in that the bow-side and/or stern-side hydrofoils (21, 31) are each individually height adjustable, in that a boat drive is assigned to the hull, wherein the boat drive has a thrust unit, in that the boat drive or at least a part of the boat drive is vertically adjustably connected to the hull, in that an actuating unit for adjustment of the boat drive or the adjustable part of the boat drive is provided, and in that the actuating unit is synchronized with the adjustment units (22, 32) of the hydrofoils (21, 31) and/or the hydrofoil assemblies (20, 30).
A compound of Formula or a salt thereof, wherein R 1 is selected from the group consisting of hydrogen, -CH 3, -CCH, -OCH 3 and halogen; R 2 is hydrogen or halogen; R 3 is selected from the group consisting of formula (i.1), (i.2), (i.3) and (i.4); R 4 is selected from the group consisting of R 4.a and R 4.b wherein R 4.a is R 4.a.1 wherein R 6 is -H or -CH 3, n is 1 or 2; m is 1 or 2; and R 4.b is R 4.b.1 wherein p is 1 or 2; q is 1 or 2; R 5 is -H or -CH 3; and at least one of R 1 and R 2 is not hydrogen. R 1 is selected from the group consisting of hydrogen, -CH 3, -CCH, -OCH 3 and halogen; R 2 is hydrogen or halogen; R 3 is selected from the group consisting of formula (i.1), (i.2), (i.3) and (i.4); R 4 is selected from the group consisting of R 4.a and R 4.b wherein R 4.a is R 4.a.1 wherein R 6 is -H or -CH 3, n is 1 or 2; m is 1 or 2; and R 4.b is R 4.b.1 R 6 is -H or -CH 3, n is 1 or 2; m is 1 or 2; and R 4.b is R 4.b.1 wherein p is 1 or 2; q is 1 or 2; R 5 is -H or -CH 3; p is 1 or 2; q is 1 or 2; R 5 is -H or -CH 3; and at least one of R 1 and R 2 is not hydrogen.
A method of providing a graphic user interface, GUI, the method comprising: determining connections between a plurality of devices (100 - 100-4) and location of the plurality of devices (100 - 100-4) relative to one another based on a signal received from the plurality of devices (100 - 100-4); generating a GUI that displays the plurality of devices (100 - 100-4), the connections between the plurality of devices (100 - 100-4) and an arrangement of the plurality of devices (100 - 100-4), based on the determined location; and displaying the GUI; wherein the arrangement of the plurality of devices (100 - 100-4) indicates the locations of the plurality of devices (100 - 100-4) relative to each other; and wherein the connections between the plurality of devices (100 - 100-4) include connections between a predetermined device and one or more direct neighboring devices (100-1 - 100-3) of the predetermined device and connections between each of the direct neighboring devices (100-1 - 100-3) and one or more neighboring devices of a corresponding direct neighboring device (100-1 - 100-3). determining connections between a plurality of devices (100 - 100-4) and location of the plurality of devices (100 - 100-4) relative to one another based on a signal received from the plurality of devices (100 - 100-4); generating a GUI that displays the plurality of devices (100 - 100-4), the connections between the plurality of devices (100 - 100-4) and an arrangement of the plurality of devices (100 - 100-4), based on the determined location; and displaying the GUI; wherein the arrangement of the plurality of devices (100 - 100-4) indicates the locations of the plurality of devices (100 - 100-4) relative to each other; and wherein the connections between the plurality of devices (100 - 100-4) include connections between a predetermined device and one or more direct neighboring devices (100-1 - 100-3) of the predetermined device and connections between each of the direct neighboring devices (100-1 - 100-3) and one or more neighboring devices of a corresponding direct neighboring device (100-1 - 100-3).
An operating method of a transmitting apparatus in a multimedia system, the operating method comprising: inputting at least one network layer packet; generating a link layer packet based on the at least one network layer packet, wherein the link layer packet comprises a header and a payload, the header comprising a base header, and transmitting the link layer packet, characterized in that: the base header includes packet type information indicating a type of the at least one network layer packet, and payload configuration information indicating whether the link layer packet includes a single network layer packet, and in case that the link layer packet includes the single network layer packet, the base header further includes header mode information indicating whether an additional header following the base header is present. inputting at least one network layer packet; generating a link layer packet based on the at least one network layer packet, wherein the link layer packet comprises a header and a payload, the header comprising a base header, and transmitting the link layer packet, characterized in that: the base header includes packet type information indicating a type of the at least one network layer packet, and payload configuration information indicating whether the link layer packet includes a single network layer packet, and in case that the link layer packet includes the single network layer packet, the base header further includes header mode information indicating whether an additional header following the base header is present. the base header includes packet type information indicating a type of the at least one network layer packet, and payload configuration information indicating whether the link layer packet includes a single network layer packet, and in case that the link layer packet includes the single network layer packet, the base header further includes header mode information indicating whether an additional header following the base header is present.
A solvent extraction method for hydrometallurgical liquid-liquid extraction processes, in which method solution phases are separated from a dispersion while the dispersion flows horizontally in a settler from a feed end to a discharge end, characterized in that the mass flow of the dispersion and solution phases is divided into a plurality of parallel and mutually separated plug flows flowing in the settler from the feed end to the discharge end.
Method for mounting interior components in an aircraft having the steps: - preassembling a first interior component, - preassembling a second interior component, - fastening the first and/or the second interior component (14, 18) to an assembly apparatus and connecting the first and the second interior component (14, 18) to form an individual module, - connecting a plurality of individual modules fastened to the assembly apparatus to form a large module fastened to the assembly apparatus, - detaching the large module from the assembly apparatus and transporting the large module into a final-mounting position in an aircraft fuselage element with the aid of a transporting carriage, and - final-mounting of the large module in the aircraft fuselage element. - preassembling a first interior component, - preassembling a second interior component, - fastening the first and/or the second interior component (14, 18) to an assembly apparatus and connecting the first and the second interior component (14, 18) to form an individual module, - connecting a plurality of individual modules fastened to the assembly apparatus to form a large module fastened to the assembly apparatus, - detaching the large module from the assembly apparatus and transporting the large module into a final-mounting position in an aircraft fuselage element with the aid of a transporting carriage, and - final-mounting of the large module in the aircraft fuselage element.
An apparatus comprising: a fabric layer; a cord of conductive thread overlying the fabric layer; an electrode; and a connector electrically interconnecting the cord of conductive thread with the electrode; wherein the connector has a passage in which the cord of conductive thread reaches through the connector. a fabric layer; a cord of conductive thread overlying the fabric layer; an electrode; and a connector electrically interconnecting the cord of conductive thread with the electrode; wherein the connector has a passage in which the cord of conductive thread reaches through the connector.
Spray gun, in particular a compressed air atomizing paint spray gun, in particular a hand-held compressed air atomizing paint spray gun, comprising at least one first air valve (80, 82) that can be actuated by means of at least one actuating element, in particular by means of at least one trigger, and that has at least one first valve inlet region (62, 64) and at least one first valve outlet region (92, 93), wherein the spray gun has at least one material valve, in particular for material to be sprayed, and wherein the at least one material valve is designed such that it can be pneumatically actuated, in particular opened, in particular exclusively pneumatically actuated, in particular opened, in particular that it can be actuated, in particular opened, by means of air from the at least one first valve outlet region (92, 93), in particular that it can be actuated, in particular opened, exclusively by means of air from the at least one valve outlet region (92, 93), wherein the spray gun is designed such that the material valve can assume at least one first end position in which the material valve is closed, a second end position in which the material valve is fully open, and at least one intermediate position in which the material valve is partially open, and that the actuating element can assume at least one first end position in which the actuating element is unactuated, a second end position in which the actuating element is fully actuated, and at least one intermediate position in which the actuating element is partially actuated, wherein the position of the actuating element determines the position of the material valve, characterized in that the spray gun and/or the material valve have a material valve actuating device, wherein the material valve actuating device has at least one air inlet, one air outlet and an air chamber arranged therebetween, wherein the air chamber is delimited on at least one side by at least one material valve actuating element for actuating, in particular for opening and/or closing, the material valve, wherein the spray gun and/or the material valve actuating device are designed such that the pressure in the air chamber is determined at least by the amount of air supplied via the air inlet to the air chamber, in particular by the amount of air supplied via the air inlet to the air chamber that can be controlled via the actuating element, and by at least one air outlet valve, in particular an air outlet valve arranged in the air outlet, in particular a throttle valve and/or a pressure relief valve.