mhurhangee/ep-ind-claims huggingface dataset:
A method for moving an object in a graphic user interface that displays windows in a layered structure, the method comprising: causing the display of a plurality of open windows (12,14) on a display device (305; 412) to establish an original display position in the layered structure for each of the plurality of windows (12,14), wherein a first window of said layered windows (12,14) is partially hidden by at least one window in a higher layer than the first window; and causing the dragging of an object on the display device (305; 412), under control of a user input device, from a second window of the plurality of windows (12, 14) to a visible portion of the first window, characterized by: in the event the object is held under control of the user input device for a predetermined time after the object is dragged to the visible portion of the first window, automatically bringing the first window to the top layer of the layered structure, and in the event the held object is dropped from control of the pointer in the first window after the first window is brought to the top layer, retaining the first window at the top layer and organizing the other windows in their original order in the layered structure relative to one another, and in the event the held object is dragged under control of the user input device outside of the first window after the first window is brought to the top layer, returning the first window to the original display position of the first window in the layered structure. causing the display of a plurality of open windows (12,14) on a display device (305; 412) to establish an original display position in the layered structure for each of the plurality of windows (12,14), wherein a first window of said layered windows (12,14) is partially hidden by at least one window in a higher layer than the first window; and causing the dragging of an object on the display device (305; 412), under control of a user input device, from a second window of the plurality of windows (12, 14) to a visible portion of the first window, in the event the object is held under control of the user input device for a predetermined time after the object is dragged to the visible portion of the first window, automatically bringing the first window to the top layer of the layered structure, and in the event the held object is dropped from control of the pointer in the first window after the first window is brought to the top layer, retaining the first window at the top layer and organizing the other windows in their original order in the layered structure relative to one another, and in the event the held object is dragged under control of the user input device outside of the first window after the first window is brought to the top layer, returning the first window to the original display position of the first window in the layered structure.
Multipurpose tractor comprising a base structure, wheels and/or tracks (3a, 3b), at least one electric motor, first tool means that can perform work in a work area A located on a first side of the base structure, second tool means that can perform work in a work area B located on the second side of the base structure, and a control means, the base structure consisting of a peripheral frame defining an opening that forms a central work area (C'), at least two of said wheels and/or tracks comprising an integrated drive, the central work area (C') having no traction and/or transmission member connected to the movement of the tractor, said tractor being characterized in that the peripheral frame comprises at least two side members bearing at least one battery which powers the motors of the wheels.
A liquid discharge structure comprising: a casing configured to be installed in a vehicle, including: a plate-shaped bottom wall to be disposed tilted relative to a horizontal plane; and a lateral wall which is a plate-shaped wall arranged vertically at a lower end edge of the bottom wall so as to extend orthogonally to said bottom wall, wherein the lower end edge is configured to be located on a lower side of the bottom wall when the bottom wall is disposed tilted relative to the horizontal plane, wherein the lateral wall has a discharge opening for liquid collected within the casing, the discharge opening being located at an end of the lateral wall closer to the bottom wall; a tubular rib wall projecting at least inwardly within the casing from the lateral wall so as to surround the discharge opening; and a partitioning rib wall which is arranged vertically on an inner surface of the bottom wall at a position closer to the lateral wall so that the partitioning rib wall extends intersecting a center axis of the tubular rib wall. a plate-shaped bottom wall to be disposed tilted relative to a horizontal plane; and a lateral wall which is a plate-shaped wall arranged vertically at a lower end edge of the bottom wall so as to extend orthogonally to said bottom wall, wherein the lower end edge is configured to be located on a lower side of the bottom wall when the bottom wall is disposed tilted relative to the horizontal plane, wherein the lateral wall has a discharge opening for liquid collected within the casing, the discharge opening being located at an end of the lateral wall closer to the bottom wall; a tubular rib wall projecting at least inwardly within the casing from the lateral wall so as to surround the discharge opening; and a partitioning rib wall which is arranged vertically on an inner surface of the bottom wall at a position closer to the lateral wall so that the partitioning rib wall extends intersecting a center axis of the tubular rib wall.
A signal processing circuit comprising: a CMOS bridge rectifier circuit including: a first input terminal and a second input terminal for receiving a rectangular wave form that includes a data sequence; a first output terminal and a second output terminal for providing a rectified dc output voltage; wherein a first switch is coupled between the first input terminal and a first node, a second switch is coupled between the second input terminal and the first node, the first node is coupled to said first output terminal, a third switch is coupled between the first input terminal and a second node, a fourth switch is coupled between the second input terminal and the second node; the second node is coupled to said second output terminal; wherein the first switch and fourth switch are gated on when the input signal is of a first polarity; and wherein the second switch and the third switch are gated on when the input signal is of a second polarity opposite the first polarity so that the first and second output terminals provide the dc voltage, and characterized by a first data output terminal connected to the second input terminal, and a second data output terminal connected to the second output terminal, wherein the data output terminals provide an output signal representative of the data sequence. a first input terminal and a second input terminal for receiving a rectangular wave form that includes a data sequence; a first output terminal and a second output terminal for providing a rectified dc output voltage; wherein a first switch is coupled between the first input terminal and a first node, a second switch is coupled between the second input terminal and the first node, the first node is coupled to said first output terminal, a third switch is coupled between the first input terminal and a second node, a fourth switch is coupled between the second input terminal and the second node; the second node is coupled to said second output terminal; wherein the first switch and fourth switch are gated on when the input signal is of a first polarity; and wherein the second switch and the third switch are gated on when the input signal is of a second polarity opposite the first polarity so that the first and second output terminals provide the dc voltage, and characterized by a first data output terminal connected to the second input terminal, and a second data output terminal connected to the second output terminal, wherein the data output terminals provide an output signal representative of the data sequence.
An assembly for an aircraft turbojet engine, the assembly comprising: - a central element for exhausting gas, which is annular about an axis and is adapted to have gas exhausted by the turbojet engine around it, from upstream to downstream; and - a connecting flange interposed between, upstream, a metallic outlet of the turbojet engine and, downstream, the central element, to join them together, wherein the connecting flange comprises an annular portion and, circumferentially, flexible lugs individually having axially: - a first end where the lug is connected to said annular portion, and - a second free end towards which said lug is fixed with the central element, characterized in that the second free end is located axially upstream of the first end. - a central element for exhausting gas, which is annular about an axis and is adapted to have gas exhausted by the turbojet engine around it, from upstream to downstream; and - a connecting flange interposed between, upstream, a metallic outlet of the turbojet engine and, downstream, the central element, to join them together, - a first end where the lug is connected to said annular portion, and - a second free end towards which said lug is fixed with the central element,
A method for controlling a gas supply to a process chamber, the method comprising: measuring a gas parameter by each of two or more sensors (35, 36, 313, 314) provided in the process chamber; determining a combined gas parameter from the measured gas parameters; and controlling the gas supply to the process chamber based on the determined combined gas parameter, wherein controlling the gas supply includes adjusting the gas supply such that the gas parameter measured by at least one of the two or more sensors (35, 36, 313, 314) corresponds to the combined gas parameter. measuring a gas parameter by each of two or more sensors (35, 36, 313, 314) provided in the process chamber; determining a combined gas parameter from the measured gas parameters; and controlling the gas supply to the process chamber based on the determined combined gas parameter, wherein controlling the gas supply includes adjusting the gas supply such that the gas parameter measured by at least one of the two or more sensors (35, 36, 313, 314) corresponds to the combined gas parameter.
An analyte monitoring system, comprising: a first sensor for monitoring an analyte of a patient, at least a portion of the first sensor being positioned in fluid contact with the bodily fluid of the patient; and a second sensor configured to determine an analyte level of the patient at a predetermined time, data from said second sensor being configured for calibration of said first sensor; wherein the system is arranged such that an initial calibration of said first sensor is delayed until after a fixed time duration measured from positioning the first sensor in fluid contact with the bodily fluid has elapsed to provide an increased accuracy in data from the first sensor, and the last calibration of said first sensor is performed at a fixed time period prior to the end of the life of the first sensor, the end of the life of the first sensor being a predetermined time at which the first sensor is designed to be removed, the data from the sensor during the sensor life providing a clinically acceptable degree of accuracy of sensor data during the sensor use, and wherein the sensor life is at least 3 days; characterised in that: the fixed time duration measured from positioning the first sensor in fluid contact with the bodily fluid is about 10 hours. a first sensor for monitoring an analyte of a patient, at least a portion of the first sensor being positioned in fluid contact with the bodily fluid of the patient; and a second sensor configured to determine an analyte level of the patient at a predetermined time, data from said second sensor being configured for calibration of said first sensor; wherein the system is arranged such that an initial calibration of said first sensor is delayed until after a fixed time duration measured from positioning the first sensor in fluid contact with the bodily fluid has elapsed to provide an increased accuracy in data from the first sensor, and the last calibration of said first sensor is performed at a fixed time period prior to the end of the life of the first sensor, the end of the life of the first sensor being a predetermined time at which the first sensor is designed to be removed, the data from the sensor during the sensor life providing a clinically acceptable degree of accuracy of sensor data during the sensor use, and wherein the sensor life is at least 3 days;
Polymeric amino (meth)acrylate suitable for use in radiation curable compositions, wherein said polymeric amino (meth)acrylate is the reaction product of a secondary amine-terminated copolymer and a multifunctional (meth)acrylate; wherein said secondary amine-terminated copolymer is the reaction product of a difunctional (meth)acrylate (Ai) and a bireactive amine (Aii); and wherein the multifunctional (meth) acrylate is different from the difunctional (meth)acrylate (Ai) and which multifunctional (meth) acrylate comprises two or more (meth)acrylate groups. wherein said secondary amine-terminated copolymer is the reaction product of a difunctional (meth)acrylate (Ai) and a bireactive amine (Aii); and wherein the multifunctional (meth) acrylate is different from the difunctional (meth)acrylate (Ai) and which multifunctional (meth) acrylate comprises two or more (meth)acrylate groups.
A container to hold an initial or refillable volume of fluid, comprising: a housing defining a fluid exit port and an interior to retain the volume of fluid, the interior oriented during use to deplete the volume of fluid in a direction of gravity toward a bottom surface of the interior; and a mixing chamber having a chamber interior in fluid communication between the interior of the housing and the fluid exit port, the mixing chamber having fluid inlet ports arranged to pass the volume of fluid from the interior of the housing into the chamber interior at multiple heights above the bottom surface of the interior, wherein a topmost fluid inlet port allows direct passage of fluid from the interior into the chamber along a path in the direction of gravity upon proper orientation of the housing during use. a housing defining a fluid exit port and an interior to retain the volume of fluid, the interior oriented during use to deplete the volume of fluid in a direction of gravity toward a bottom surface of the interior; and a mixing chamber having a chamber interior in fluid communication between the interior of the housing and the fluid exit port, the mixing chamber having fluid inlet ports arranged to pass the volume of fluid from the interior of the housing into the chamber interior at multiple heights above the bottom surface of the interior, wherein a topmost fluid inlet port allows direct passage of fluid from the interior into the chamber along a path in the direction of gravity upon proper orientation of the housing during use.
Method of producing a planar ceramic sensor element for an exhaust gas sensor for determination of a physical property of an exhaust gas, comprising at least a first ceramic film and a second ceramic film that have been laminated onto and connected to one another, wherein the first ceramic film has been provided with a functional structure over its large area facing the second ceramic film, wherein the functional structure is partly or fully surrounded by an embedding paste, wherein the functional structure is disposed on the films (22, 21), wherein the functional structure consists of a first electrode and a second electrode that are part of an electrochemical cell, a separation pad composed of YSZ, a porous region and an insulating region, with complete filling of a horizontal gap between the separation pad and the first solid electrolyte film and of a vertical join between the separation pad and the insulating region and/or between the separation pad and the first electrode by the embedding paste, wherein the method involves the following steps: - providing at least a first and a second ceramic green film (21, 22); - printing at least one of the large areas of the first ceramic green film with at least one functional structure; - printing the at least one large area of the first ceramic green films with an embedding paste, where the solids content of the embedding paste is 55-75% by weight of YSZ, - co-laminating the first ceramic green film and the second ceramic green film such that the at least one large area of the first ceramic green film faces the second ceramic green film and - sintering the co-laminated green films. - providing at least a first and a second ceramic green film (21, 22); - printing at least one of the large areas of the first ceramic green film with at least one functional structure; - printing the at least one large area of the first ceramic green films with an embedding paste, where the solids content of the embedding paste is 55-75% by weight of YSZ, - co-laminating the first ceramic green film and the second ceramic green film such that the at least one large area of the first ceramic green film faces the second ceramic green film and - sintering the co-laminated green films.
A sheath having a body portion adapted to at least partially encapsulate an insertion tube of an endoscope, comprising: at least two radially expandable flexible members (800a, 800b) sealably attached to the body portion to form at least two enclosed spaces capable of separate and selective inflation, each space having an opening (134a, 134b) that projects through the body portion, wherein the flexible members (800a, 800b) are spaced apart along a length of the body portion to define one or more isolated body spaces that extend between the members when the members are inflated, wherein each of the radially expandable flexible members (800a, 800b) is configured to have a respective forward portion (801a, 801b) and a respective rear portion (802a, 802b), characterized in that the expansion of the forward portions (801a, 801b) is less than the expansion of the rear portions (802a, 802b) when the members are inflated. at least two radially expandable flexible members (800a, 800b) sealably attached to the body portion to form at least two enclosed spaces capable of separate and selective inflation, each space having an opening (134a, 134b) that projects through the body portion, wherein the flexible members (800a, 800b) are spaced apart along a length of the body portion to define one or more isolated body spaces that extend between the members when the members are inflated, wherein each of the radially expandable flexible members (800a, 800b) is configured to have a respective forward portion (801a, 801b) and a respective rear portion (802a, 802b), characterized in that the expansion of the forward portions (801a, 801b) is less than the expansion of the rear portions (802a, 802b) when the members are inflated.
An energy-absorbing connection arrangement for joining at least two components (12, 14), in particular a transverse member and a circular frame element of a fuselage cell structure of an aircraft, with a multitude of connectors that are, in particular, arranged in a matrix-like manner, wherein each connector comprises a head with a shaft, and the shafts reach through associated boreholes (58, 60) in the components (12, 14), and wherein in each case counter-bearings are provided on the shaft ends facing away from the heads, a first of said components comprising a fibre-reinforced plastic material and at least one further of said components comprising a metallic material and/or comprising a fibre-reinforced plastic material, characterised in that a head and/or a counter-bearing of at least one connector rests against at least one underlay device, and the at least one underlay device is received in at least one guide groove embedded at least in the first component, with commencement of the guide groove being in the region of the boreholes (58, 60), wherein as a result of exceeding a mechanical threshold load F threshold the at least one underlay device is slidable in a direction facing away from the boreholes (58, 60), and energy absorption takes place essentially along a longitudinal centre axis of the at least one guide groove, in particular as a result of hole-bearing failure and/or shearing-off of the at least one component formed by means of the fibre-reinforced plastic material.
Inspection vehicle for the inspection of substantially cylindrical objects composed of a material which can be magnetized, in particular rotors of steam turbines or other turbines, which inspection vehicle has a chassis and a plurality of wheels which are arranged on the chassis such that they can rotate and at least some of which can be driven by a motor or motors, such that the chassis can be moved on the wheels along the external circumference of the cylindrical object to be inspected, wherein magnetic means (17 - 19) are arranged on the chassis and hold the inspection vehicle on the surface of the cylindrical object, and wherein the inspection vehicle has adequate chassis clearance which allows it to move without any problems over obstructions which are located on the external circumference of the cylindrical object to be inspected, in particular one or more annular obstructions which project radially from the cylinder surface and the majority of which extend in the circumferential direction, in particular radially projecting sealing strips, characterized in that the magnetic means (17 - 19) comprise a magnet arrangement which is arranged under the chassis, in the area of the chassis clearance.
Pump device comprising: a shaft, rotor means (3a, 3b) fixed to said shaft in rotational direction, said rotor means (3a, 3b) having pressure chambers (5a, 5b) the volume of which varying during a rotation of said rotor means (3a, 3b), port plate means (15a, 15b) having a through going opening (16a, 16b) for each of said pressure chambers (5a, 5b) and being connected to said rotor means (3a, 3b) in rotational direction, and valve plate means (17a, 17b) cooperating with said port plate means (15a, 15b), characterized in that said rotor means (3a, 3b) comprise a first rotor and at least a second rotor, said rotors being fixed to said shaft in rotational direction, said first rotor having at least a first pressure chamber and said second rotor having at least a second pressure chamber, said port plate means (15a, 15b) having a first port plate and at least a second port plate, said first port plate having a through going opening for said first pressure chamber and being connected to said first rotor in rotational direction, said second port plate having a through going opening for said second pressure chamber and being connected to said second rotor in rotational direction, said valve plate means (17a, 17b) having a first valve plate and at least a second valve plate, said first valve plate cooperating with said first port plate, and said second valve plate cooperating with said second port plate, wherein at least one of said first and said second rotor (3a, 3b) comprises force generating means pressing said second port plate against said second valve plate even in absence of hydraulic pressure in said second pressure chamber, wherein a port housing is located between said first rotor and said second rotor, and wherein said shaft extends freely through said port housing.