mhurhangee/ep-ind-claims huggingface dataset:
Pressing means for pressing a fitting for sealing connection with a pipe, - having at least two pressing elements (2, 4) with a receiving area for receiving a fitting with a pipe and - with a pressing contour formed on the inside of the pressing elements (2, 4), - wherein the pressing elements (2, 4) are pivotably connected to one another, are spaced apart in an open position at the end (20, 22) having the pressing contour and, after completion of pressing, are spaced apart a smaller distance or abut one another, thereby forming a closing plane, - wherein the pressing contour has a pressing area (26, 28, 30) for sealing pressing of the fitting and pressing webs (36, 38) for fixing pressing of the fitting, and - wherein at least one pressing web (36, 38) of one of the pressing elements (4, 6) has a radially inwardly extending cam (40, 42), characterized in - that the at least one cam (40, 42) is arranged in an angular range (α) of more than 90° to the closing plane and - that all cams (40, 42) are positioned in an angular range (α) of more than 90° to the closing plane. - having at least two pressing elements (2, 4) with a receiving area for receiving a fitting with a pipe and - with a pressing contour formed on the inside of the pressing elements (2, 4), - wherein the pressing elements (2, 4) are pivotably connected to one another, are spaced apart in an open position at the end (20, 22) having the pressing contour and, after completion of pressing, are spaced apart a smaller distance or abut one another, thereby forming a closing plane, - wherein the pressing contour has a pressing area (26, 28, 30) for sealing pressing of the fitting and pressing webs (36, 38) for fixing pressing of the fitting, and - wherein at least one pressing web (36, 38) of one of the pressing elements (4, 6) has a radially inwardly extending cam (40, 42), - that the at least one cam (40, 42) is arranged in an angular range (α) of more than 90° to the closing plane and - that all cams (40, 42) are positioned in an angular range (α) of more than 90° to the closing plane.
A control device for a continuously variable transmission of a vehicle which includes a belt wound around a primary pulley and a secondary pulley, and which is arranged to transmit a power to a driving wheel, wherein the continuously variable transmission further includes a lock-up clutch of a torque converter which is arranged to connect and disconnect a power transmission between a power source and the driving wheel; the control device comprising: a control means configured to output a hydraulic pressure control command value, and to control a transmission gear ratio of the continuously variable transmission and an engagement state of the lock-up clutch in accordance with a traveling state of the vehicle; a learning control means configured to perform a learning control of the engagement state of the lock-up clutch with respect to the hydraulic pressure control command value; an oil vibration sensing section configured to sense a hydraulic line pressure vibration; and a learning control prohibiting means configured to prohibit the learning control when the oil vibration sensingsection senses the hydraulic line pressure vibration. a control means configured to output a hydraulic pressure control command value, and to control a transmission gear ratio of the continuously variable transmission and an engagement state of the lock-up clutch in accordance with a traveling state of the vehicle; a learning control means configured to perform a learning control of the engagement state of the lock-up clutch with respect to the hydraulic pressure control command value; an oil vibration sensing section configured to sense a hydraulic line pressure vibration; and a learning control prohibiting means configured to prohibit the learning control when the oil vibration sensingsection senses the hydraulic line pressure vibration.
Electrode separator element for electrochemical battery cells having a SO 2 -containing electrolyte, comprising - a rigid electrode (4, 5) which comprises an active mass, and - a ceramic separator layer, characterized in that the surfaces of the electrode separator element are plane-parallel to one another such that cracks are prevented from forming in the separator layer when the electrode separator element is stacked or connected to form a stack, and the plane parallelism of the electrode over the surface of the electrode having height differences of a maximum of 10% of the thickness of the electrode. - a rigid electrode (4, 5) which comprises an active mass, and - a ceramic separator layer, the surfaces of the electrode separator element are plane-parallel to one another such that cracks are prevented from forming in the separator layer when the electrode separator element is stacked or connected to form a stack, and the plane parallelism of the electrode over the surface of the electrode having height differences of a maximum of 10% of the thickness of the electrode.
Attraction for amusement rides, such as an amusement park attraction, provided with at least one support construction comprising two or more masts (12, 13), wherein on the underside each of the masts is mountable on a base, wherein at least one first mast comprises two mast segments (12A, 12B) connected movably to each other, wherein each of the masts is mounted pivotally on the base on the underside and the mast segments are attached to each other by means of a pivotable connection, wherein the attraction is provided with a number of passenger seats which are connected rotatably to the support construction, and the attraction is provided with positioning means (14, 15) for moving the mast segments of the at least one first mast relative to each other in order to move the support construction between a boarding position, in which the passenger seats are accessible to the passengers, and a position of use in which the passenger seats can execute the movements of the amusement ride, wherein the positioning means are configured to pivot the mast segments, characterized in that the two or more masts (12, 13) converge from an underside toward an upper side of the support construction and at least the first mast is mounted pivotally in the support construction on the upper side and at least one second mast is attached fixedly on the upper side in the support construction, wherein the positioning means are configured to urge the mast segments of the first mast toward each other in the boarding position and to tilt the second mast toward the first mast during movement from the position of use to the boarding position.
Shrouded impeller for centrifugal compressors wherein the shroud comprises at least one layer of metallic material deposited by cold spraying; the shrouded impeller being characterised in that the at least one layer of metallic material is made of a plurality of sectors, separated from the adjacent ones by a plurality of grooves.
Suction lance, having at least one tube and a guide body made of an elastomeric material which is axially displaceable on this tube, having a holding region for a connecting body, further having a conical region which is axially adjacent to the holding region, whose radially largest region is axially closer to the holding region than its radially smallest region, further comprising a connecting body for detachably connecting the suction lance to a removal opening of a container, the connecting body being fastened to the holding region of the guide body, the conical region of the guide body being designed, on the basis of its material, its radial size and the shape of its outer contour, to act as a sealing body in a removal opening of a container when in use, characterized in that the guide body has an elliptical cross-section over the axial length of the conical region.
An interventional system comprising: - an introduction element for being introduced into an object, - a moving unit for moving the introduction element within the object, - a tracking image generating unit for generating tracking images of the introduction element within the object, wherein the tracking image generating unit comprises a radiation source for emitting a radiation beam for traversing the object, a radiation detector for detecting the radiation beam after having traversed the object and a controller for controlling the tracking image generating unit, wherein the moving unit is adapted to provide movement parameters, which define a movement of the introduction element within the object, to the tracking image generating unit via a wired or wireless data connection and wherein the controller is adapted to control the tracking image generating unit depending on the provided movement parameters such that the radiation beam traverses a region of the object that includes the introduction element. - an introduction element for being introduced into an object, - a moving unit for moving the introduction element within the object, - a tracking image generating unit for generating tracking images of the introduction element within the object, wherein the tracking image generating unit comprises a radiation source for emitting a radiation beam for traversing the object, a radiation detector for detecting the radiation beam after having traversed the object and a controller for controlling the tracking image generating unit, wherein the moving unit is adapted to provide movement parameters, which define a movement of the introduction element within the object, to the tracking image generating unit via a wired or wireless data connection and wherein the controller is adapted to control the tracking image generating unit depending on the provided movement parameters such that the radiation beam traverses a region of the object that includes the introduction element.
A method for manufacturing a lithium secondary battery, the method comprising: manufacturing a lithium secondary battery, the lithium secondary battery including: an electrode assembly including a positive electrode including a positive electrode active material and carbon nanotubes as a conductive material, a negative electrode including a negative electrode active material, and a separator interposed between the positive electrode and the negative electrode; a non-aqueous electrolyte in which the electrode assembly is impregnated; and a battery case receiving the electrode assembly and the non-aqueous electrolyte; performing formation of the lithium secondary battery; and performing a degassing process for removing gas generated inside the lithium secondary battery, wherein the non-aqueous electrolyte includes a lithium salt, an organic solvent, and 1,2,3-trifluorobenzene as an additive, wherein the 1,2,3-trifluorobenzene is included in an amount of 0.1 wt% to 10 wt%, based on the total weight of the non-aqueous electrolyte, and wherein the performing formation of the lithium secondary battery is performed by charging the state of charge of the battery up to 10% to 80%, while applying a voltage of 3.5 V to 4.5 V under a pressure of 0.5 kgf/cm 2 to 5 kgf/cm 2 at 45°C to 80°C. manufacturing a lithium secondary battery, the lithium secondary battery including: an electrode assembly including a positive electrode including a positive electrode active material and carbon nanotubes as a conductive material, a negative electrode including a negative electrode active material, and a separator interposed between the positive electrode and the negative electrode; a non-aqueous electrolyte in which the electrode assembly is impregnated; and a battery case receiving the electrode assembly and the non-aqueous electrolyte; performing formation of the lithium secondary battery; and performing a degassing process for removing gas generated inside the lithium secondary battery, wherein the non-aqueous electrolyte includes a lithium salt, an organic solvent, and 1,2,3-trifluorobenzene as an additive, wherein the 1,2,3-trifluorobenzene is included in an amount of 0.1 wt% to 10 wt%, based on the total weight of the non-aqueous electrolyte, and wherein the performing formation of the lithium secondary battery is performed by charging the state of charge of the battery up to 10% to 80%, while applying a voltage of 3.5 V to 4.5 V under a pressure of 0.5 kgf/cm 2 to 5 kgf/cm 2 at 45°C to 80°C.
A method for improving 2D seismic acquisition comprising the following steps: a first step of incremental distributing a plurality of dynamite charges; a second step of individual firing of the plurality of dynamite charges comprising generating seismic waves and recording of the reflections of the seismic waves by returning to a plurality of receivers; and a third step of processing reflection of generated seismic waves and stacking of records performed under the previous conditions; characterized in that: the first step of incremental distributing the plurality of charges further comprises organizing the plurality of dynamite charges using different charge weights at separate shot points for generating seismic waves with different energies, wherein the dynamite charges are distributed along a seismic line in a decreasing sequence of the dynamite charge weights. a first step of incremental distributing a plurality of dynamite charges; a second step of individual firing of the plurality of dynamite charges comprising generating seismic waves and recording of the reflections of the seismic waves by returning to a plurality of receivers; and a third step of processing reflection of generated seismic waves and stacking of records performed under the previous conditions; characterized in that: the first step of incremental distributing the plurality of charges further comprises organizing the plurality of dynamite charges using different charge weights at separate shot points for generating seismic waves with different energies, wherein the dynamite charges are distributed along a seismic line in a decreasing sequence of the dynamite charge weights. the first step of incremental distributing the plurality of charges further comprises organizing the plurality of dynamite charges using different charge weights at separate shot points for generating seismic waves with different energies, wherein the dynamite charges are distributed along a seismic line in a decreasing sequence of the dynamite charge weights.
An ultra capacitor module comprising: a first ultra capacitor having a first polar terminal provided with a screw thread formed on an outer peripheral surface; a second ultra capacitor having a second polar terminal provided with a screw thread formed on an outer peripheral surface; and a connecting member having a screw hole formed corresponding to the screw thread on an inner peripheral surface through which the first polar terminal is inserted from one side and the second polar terminal is inserted from the other side to connect the first and second ultra capacitors (100, 200) in series and characterized by having a gas emission hole formed through the wall of the connecting member. a first ultra capacitor having a first polar terminal provided with a screw thread formed on an outer peripheral surface; a second ultra capacitor having a second polar terminal provided with a screw thread formed on an outer peripheral surface; and a connecting member having a screw hole formed corresponding to the screw thread on an inner peripheral surface through which the first polar terminal is inserted from one side and the second polar terminal is inserted from the other side to connect the first and second ultra capacitors (100, 200) in series and characterized by having a gas emission hole formed through the wall of the connecting member.
A method for filling a tank with liquid oxygen from a submarine, said tank being disposed inside a hull of a submarine and comprising: a storage enclosure, an inlet for liquid oxygen and an outlet for gaseous oxygen, said outlet being located in the upper part of the storage enclosure, said method comprising: - introducing liquid oxygen into the storage enclosure via an introduction line connected to the inlet of the tank, said introduction line comprising an introduction pump; and - discharging gaseous oxygen from the storage enclosure via a discharge line connected to the outlet of the tank; characterized in that the discharge line comprises a discharge compressor reducing a pressure of gaseous oxygen in the upper part of the storage enclosure. - introducing liquid oxygen into the storage enclosure via an introduction line connected to the inlet of the tank, said introduction line comprising an introduction pump; and - discharging gaseous oxygen from the storage enclosure via a discharge line connected to the outlet of the tank;
A solenoid operated valve having a bleed port in use providing continuous pressurized fluid bleed flow, comprising: a solenoid portion; a valve member portion connected to the solenoid portion, the valve member portion having a body including first and second valve seats (64, 76) and an outlet port; a valve member slidably disposed in the body having a valve element positioned between the first and second valve seats (64, 76), the valve element when in direct contact with the first valve seat defining a valve closed position; and the bleed port is created in the body between the first valve seat and the valve outlet port through which in the valve closed position continuously flows a bleed flow of a pressurized fluid present at a valve body inlet port to the outlet port; characterised in that the body includes a first fluid cavity between the first valve seat and the outlet port, and a flow path of the bleed flow includes a first flow space between the valve element and the second valve seat, in through the bleed port, and through the first fluid cavity to the valve outlet port whereby in use a constant flow of the pressurized fluid is maintained out through the outlet port with the valve member in the valve closed position. a solenoid portion; a valve member portion connected to the solenoid portion, the valve member portion having a body including first and second valve seats (64, 76) and an outlet port; a valve member slidably disposed in the body having a valve element positioned between the first and second valve seats (64, 76), the valve element when in direct contact with the first valve seat defining a valve closed position; and the bleed port is created in the body between the first valve seat and the valve outlet port through which in the valve closed position continuously flows a bleed flow of a pressurized fluid present at a valve body inlet port to the outlet port; characterised in that the body includes a first fluid cavity between the first valve seat and the outlet port, and a flow path of the bleed flow includes a first flow space between the valve element and the second valve seat, in through the bleed port, and through the first fluid cavity to the valve outlet port whereby in use a constant flow of the pressurized fluid is maintained out through the outlet port with the valve member in the valve closed position.
A lawn mower robot comprising: - a frame; - cutting means configured for cutting a lawn, adjusting the height of said lawn; - movement means associated with the frame for moving it along a working trajectory; said movement means comprising at least one movement module comprising: - an adjustable drive wheel defining internally a containment space; - a rotation motor positioned at least partly inside the containment space and configured for controlling an axial rotation, about a respective axis of rotation, of the adjustable drive wheel to allow an advancing, with rolling, of the wheel on the grass; - a shaft for orientation of the wheel, rotatably supported by said frame rotating about an orientation axis at right angles to the axis of rotation of the adjustable drive wheel and supporting the adjustable drive wheel and the rotation motor, - an orientation motor supported by the frame and operatively connected to the orientation shaft for rotating it about the orientation axis and orienting said adjustable drive wheel in a predetermined direction; characterised in that the movement means comprise: - at least one axle designed to connect each movement module to the frame and configured to rotate about a reference axis, positioned perpendicularly to said axle, between a lowered position and a raised position relative to the frame, - elastic means configured to operate on the at least one axle against a raising motion of said axle. - a frame; - cutting means configured for cutting a lawn, adjusting the height of said lawn; - movement means associated with the frame for moving it along a working trajectory; - an adjustable drive wheel defining internally a containment space; - a rotation motor positioned at least partly inside the containment space and configured for controlling an axial rotation, about a respective axis of rotation, of the adjustable drive wheel to allow an advancing, with rolling, of the wheel on the grass; - a shaft for orientation of the wheel, rotatably supported by said frame rotating about an orientation axis at right angles to the axis of rotation of the adjustable drive wheel and supporting the adjustable drive wheel and the rotation motor, - an orientation motor supported by the frame and operatively connected to the orientation shaft for rotating it about the orientation axis and orienting said adjustable drive wheel in a predetermined direction; - at least one axle designed to connect each movement module to the frame and configured to rotate about a reference axis, positioned perpendicularly to said axle, between a lowered position and a raised position relative to the frame, - elastic means configured to operate on the at least one axle against a raising motion of said axle.
A method of producing a plastic scintillating fiber that comprises a core that contains a fluorescent agent having ultraviolet absorption and luminescence properties and a clad that covers an outer peripheral surface of the core, the method comprising: preparing a preform by inserting a rod-shaped core rod, which is composed of a resin that contains the fluorescent agent having ultraviolet absorption and luminescence properties, into a cylindrical clad pipe composed of a resin having a lower refractive index than that of the core rod; and drawing the preform while heating, wherein a concentration of the fluorescent agent in the core rod is distributed such that it increases from a center toward an outer periphery in a cross-section of the core rod, wherein the concentration of the fluorescent agent is distributed such that it increases discontinuously in two or more steps from the center toward the outer periphery in the cross-section of the core rod, and characterized in that the core rod is obtained by polymerization of a rod having a lower fluorescent agent concentration and a smaller diameter and a pipe having a higher fluorescent agent concentration and a larger diameter and subsequently combining the rod and the pipe. preparing a preform by inserting a rod-shaped core rod, which is composed of a resin that contains the fluorescent agent having ultraviolet absorption and luminescence properties, into a cylindrical clad pipe composed of a resin having a lower refractive index than that of the core rod; and drawing the preform while heating, wherein a concentration of the fluorescent agent in the core rod is distributed such that it increases from a center toward an outer periphery in a cross-section of the core rod, wherein the concentration of the fluorescent agent is distributed such that it increases discontinuously in two or more steps from the center toward the outer periphery in the cross-section of the core rod, and characterized in that the core rod is obtained by polymerization of a rod having a lower fluorescent agent concentration and a smaller diameter and a pipe having a higher fluorescent agent concentration and a larger diameter and subsequently combining the rod and the pipe.