mhurhangee/ep-ind-claims huggingface dataset:
Process to obtain a compressed gas starting from a starting gas having a lower pressure by performing the following steps: (i) increasing the pressure and temperature of a gas having an intermediate pressure by means of indirect heat exchange against a fluid having a higher temperature to obtain a gas high in pressure and temperature (ii) obtaining part of the gas high in temperature and pressure as the compressed gas, (iii) using another part of the gas high in temperature and pressure as a driving gas to increase the pressure of the starting gas in one or more stages to obtain the gas having an intermediate pressure for use in step (i). (i) increasing the pressure and temperature of a gas having an intermediate pressure by means of indirect heat exchange against a fluid having a higher temperature to obtain a gas high in pressure and temperature (ii) obtaining part of the gas high in temperature and pressure as the compressed gas, (iii) using another part of the gas high in temperature and pressure as a driving gas to increase the pressure of the starting gas in one or more stages to obtain the gas having an intermediate pressure for use in step (i).
Aircraft nacelle that at its outside wall comprises a cowl that can move relative to the rest of the nacelle in such a way as to block or unblock an opening, whereby said cowl comprises an articulation relative to the rest of the nacelle and locking/unlocking means distant from the upstream edge of said cowl that comprises means for limiting the appearance of scooping phenomena, said means for limiting the appearance of the scooping phenomenon comprise at least one lock that is integral with the rest of the nacelle or respectively the cowl that can occupy a so-called locked state in which a part of the lock interferes with the cowl or respectively the rest of the nacelle and prevents a deformation that comprises a radial component of said cowl and another so-called free state in which said part of the lock no longer interferes with the cowl or respectively the rest of the nacelle and allows the opening movement of said cowl, characterized in that the switch from one state to the next is generated by a pressure variation of a gas.
Biological clarification device, comprising a drain with a drain line for conveying purified waste water from a clarification chamber to a clear water outlet and a buffer tank (52,152,252) integrated into the drain line, characterized in that the buffer tank (52,152,252) comprises two outlets, namely an outlet (58,158,258) in an elevated position above the bottom (82,182,282) of the buffer tank, leading towards a clear water outlet, and an outlet (80,180,280) in a lower position formed as a valve seat (181,281) and provided to be closed by a valve body (84,184,284) at least partially, wherein the buffer tank (52,152,252) further comprises a floating body (86,186,286) disposed within the buffer tank (52,152,252) between a lower and an elevated position and being connected mechanically to the valve body (84,184,284) in a way that the valve body (84,184,284) is movable against the valve seat (181,281) by lifting the floating body (86,186,286).
A method of forming an imaging fibre apparatus comprising: arranging core rods and cladding rods to form at least one primary stack, each primary stack comprising a plurality of core rods and cladding rods arranged in a stack arrangement thereby to form a plurality of core regions within a cladding region, wherein the cladding rods comprise capillary tubes such that the cladding region comprises at least in part an air cladding region; performing a drawing process to form a plurality of drawn stacks from the at least one primary stack; wherein the plurality of core rods and cladding rods are further arranged to have a selected shape such that the plurality of stacks stack together in a desired arrangement and wherein the stack arrangement comprises an at least partial outer layer of cladding rods thereby to provide separation between core regions of respective adjacent stacks when stacked in the desired arrangement, the method further comprising: stacking the plurality of drawn stacks together in the desired arrangement to form a further stack; drawing the further stack; and using the drawn further stack to form an imaging fibre apparatus. arranging core rods and cladding rods to form at least one primary stack, each primary stack comprising a plurality of core rods and cladding rods arranged in a stack arrangement thereby to form a plurality of core regions within a cladding region, wherein the cladding rods comprise capillary tubes such that the cladding region comprises at least in part an air cladding region; performing a drawing process to form a plurality of drawn stacks from the at least one primary stack; wherein the plurality of core rods and cladding rods are further arranged to have a selected shape such that the plurality of stacks stack together in a desired arrangement and wherein the stack arrangement comprises an at least partial outer layer of cladding rods thereby to provide separation between core regions of respective adjacent stacks when stacked in the desired arrangement, the method further comprising: stacking the plurality of drawn stacks together in the desired arrangement to form a further stack; drawing the further stack; and using the drawn further stack to form an imaging fibre apparatus. stacking the plurality of drawn stacks together in the desired arrangement to form a further stack; drawing the further stack; and using the drawn further stack to form an imaging fibre apparatus.
A cooling system for a hand-held electronic device comprising: a casing including a compartment, at least one air inlet in communication with the compartment, and at least one air outlet in communication with the compartment; and a wind driving assembly mounted in the compartment, wherein the wind driving assembly includes a frame and a thermally conductive cover, with the thermally conductive cover engaged with the frame, with an impeller rotatably mounted in the frame, with the frame including an outlet hole adjacent to the at least one air outlet of the casing, and with the thermally conductive cover including an inlet hole in communication with an interior of the frame, wherein an air channel is formed between the thermally conductive cover and an interior wall face of the casing, and the at least one air inlet of the casing intercommunicates with the inlet hole of the thermally conductive cover via the air channel, wherein the cooling system is characterized in that: the wind driving assembly further includes a package, wherein the thermally conductive cover is engaged with the package, with the package adapted to receive and completely envelop at least one electronic element, with the at least one electronic element generating heat during operation. a casing including a compartment, at least one air inlet in communication with the compartment, and at least one air outlet in communication with the compartment; and a wind driving assembly mounted in the compartment, wherein the wind driving assembly includes a frame and a thermally conductive cover, with the thermally conductive cover engaged with the frame, with an impeller rotatably mounted in the frame, with the frame including an outlet hole adjacent to the at least one air outlet of the casing, and with the thermally conductive cover including an inlet hole in communication with an interior of the frame, wherein an air channel is formed between the thermally conductive cover and an interior wall face of the casing, and the at least one air inlet of the casing intercommunicates with the inlet hole of the thermally conductive cover via the air channel, wherein the cooling system is characterized in that: the wind driving assembly further includes a package, wherein the thermally conductive cover is engaged with the package, with the package adapted to receive and completely envelop at least one electronic element, with the at least one electronic element generating heat during operation. the wind driving assembly further includes a package, wherein the thermally conductive cover is engaged with the package, with the package adapted to receive and completely envelop at least one electronic element, with the at least one electronic element generating heat during operation.
An irrigation device for use with a drip irrigation conduit for providing water to individual plants planted in rows in fields, the irrigation device comprising a water distribution element (2, 100, 200, 500) configured with at least one water flow trough (4, 6, 104, 106, 206) configured for supporting the drip irrigation conduit, and a plurality of water direction elements (14, 114, 214, 514), wherein water emitted by the drip irrigation conduit is collected by said water distribution element and each of said plurality of water direction elements directs said water to a different delivery point (66, 166, 266), the irrigation device including at least one coincidental-moisture collection structure, said coincidental-moisture collection structure configured to direct coincidental moisture toward the desired delivery point, wherein said water distribution element is configured for deployment between the rows of plants and said coincidental-moisture collection structure is configured as at least one downwardly sloping surface (10, 12, 110, 112, 212, 512) extending outwardly from said water flow trough, said at least one downwardly sloping surface configured with an element, consisting of a raised lip or a moisture collection trough, on a peripheral edge that directs coincidental-moisture toward one of said delivery points.
A process for the preparation of Lenvatinib of formula which comprises: a) reacting 1 equivalent of 4-chloro-7-methoxyquinoline-6-carboxamide with 2 equivalents of the compound of formula at a temperature ranging from 45°C to 55°C, in dimethylsulfoxide and in the presence of cesium carbonate to provide Lenvatinib; b) crystallizing Lenvatinib in 1:3 dimethylsulfoxide: dichloromethane. a) reacting 1 equivalent of 4-chloro-7-methoxyquinoline-6-carboxamide with 2 equivalents of the compound of formula at a temperature ranging from 45°C to 55°C, in dimethylsulfoxide and in the presence of cesium carbonate to provide Lenvatinib; b) crystallizing Lenvatinib in 1:3 dimethylsulfoxide: dichloromethane.
A laser processing device configured to: irradiate in use a sheet-like object to be processed with a laser light while locating a converging point within the object, so as to form a modified region (7, 7a, 7b) in the object along a line to cut of the object, the laser processing device comprising: a laser light source configured to emit the laser light; and control means configured to control a pulse width of the laser light; characterized in that the laser processing device is configured to generate in use a fracture extending along a thickness direction of the object from the modified region as the modified region is formed, wherein the fracture extends from upper and lower end portions of the modified region, the fracture is not the modified region, wherein the control means is configured to change the pulse width according to a length of the fracture to be generated from the modified region based on a predetermined association between the pulse width of the laser light, the thickness of the object and the length of the fracture, the length of the fracture indicates the distance from one end of the fracture to the other end thereof, wherein the control means is configured to change the pulse width according to an input value concerning the length of the fracture, and wherein the control means is configured to change the pulse width according to an input value concerning a thickness of the object. a laser light source configured to emit the laser light; and control means configured to control a pulse width of the laser light; characterized in that the laser processing device is configured to generate in use a fracture extending along a thickness direction of the object from the modified region as the modified region is formed, wherein the fracture extends from upper and lower end portions of the modified region, the fracture is not the modified region, wherein the control means is configured to change the pulse width according to a length of the fracture to be generated from the modified region based on a predetermined association between the pulse width of the laser light, the thickness of the object and the length of the fracture, the length of the fracture indicates the distance from one end of the fracture to the other end thereof, wherein the control means is configured to change the pulse width according to an input value concerning the length of the fracture, and wherein the control means is configured to change the pulse width according to an input value concerning a thickness of the object.
An ophthalmic illuminated infusion line, comprising: an infusion arrangement comprising: a first flexible elongate member (114, 710); and a flow tube (112, 730),,the first flexible elongate member having a lumen configured to deliver a fluid to an eye of a patient during a surgical procedure, the flow tube being sized to penetrate the eye of the patient and having a lumen configured to deliver the fluid to an interior of the eye, the lumen of the first flexible elongate member being in fluid communication with the lumen of the flow tube; and an optical fiber coupled to the infusion arrangement and configured to penetrate the eye of the patient with the flow tube and operable to transmit light to illuminate the interior of the eye during the surgical procedure at the same time that the flow tube delivers the fluid to the interior of the eye; wherein the optical fiber is coupled to an exterior of the flow tube; wherein the flow tube comprises a groove on an exterior surface thereof, wherein the groove is sized and shaped to receive the optical fiber, and wherein the optical fiber is disposed within the groove. an infusion arrangement comprising: a first flexible elongate member (114, 710); and a flow tube (112, 730),,the first flexible elongate member having a lumen configured to deliver a fluid to an eye of a patient during a surgical procedure, the flow tube being sized to penetrate the eye of the patient and having a lumen configured to deliver the fluid to an interior of the eye, the lumen of the first flexible elongate member being in fluid communication with the lumen of the flow tube; and a first flexible elongate member (114, 710); and a flow tube (112, 730),,the first flexible elongate member having a lumen configured to deliver a fluid to an eye of a patient during a surgical procedure, the flow tube being sized to penetrate the eye of the patient and having a lumen configured to deliver the fluid to an interior of the eye, the lumen of the first flexible elongate member being in fluid communication with the lumen of the flow tube; and an optical fiber coupled to the infusion arrangement and configured to penetrate the eye of the patient with the flow tube and operable to transmit light to illuminate the interior of the eye during the surgical procedure at the same time that the flow tube delivers the fluid to the interior of the eye; wherein the optical fiber is coupled to an exterior of the flow tube; wherein the flow tube comprises a groove on an exterior surface thereof, wherein the groove is sized and shaped to receive the optical fiber, and wherein the optical fiber is disposed within the groove.
A screw capable of rapidly drilling and cutting comprising a shank, a head disposed at one end of said shank, a drilling portion disposed at the other end of said shank, and a plurality of threaded units spirally disposed around said shank; two inclined cutting planes being formed on said drilling portion and said two inclined cutting planes being connected at a cutting edge; wherein a tapered positioning member extends outward from a convergence of said cutting planes for dividing said cutting edge into dual sub cutting edges; and said threaded units on said shank are spread to said sub cutting edges for connecting to one end of said sub cutting edges; wherein each sub cutting edge is disposed by an inclined angle and is inclined to said shank by said inclined angle; a first included angle ( θ 1) formed by said sub cutting edges being less than 180 degrees; said first included angle ( θ 1) of said sub cutting edges being different from a second included angle ( θ 2) of a taper of said tapered positioning member. wherein a tapered positioning member extends outward from a convergence of said cutting planes for dividing said cutting edge into dual sub cutting edges; and said threaded units on said shank are spread to said sub cutting edges for connecting to one end of said sub cutting edges; wherein each sub cutting edge is disposed by an inclined angle and is inclined to said shank by said inclined angle; a first included angle ( θ 1) formed by said sub cutting edges being less than 180 degrees; said first included angle ( θ 1) of said sub cutting edges being different from a second included angle ( θ 2) of a taper of said tapered positioning member.
Permanent mould plate which has, for fastening, a plurality of fastening points on its rear side, wherein cooling channels in the form of recesses that are arranged in the rear side and are open towards the rear side extend adjacent to the fastening points, wherein at least one cooling channel, when viewed from one of the fastening points towards its casting side of the mould plate opposite the rear side, extends up to below the fastening point, characterised in that the at least one cooling channel is widened in the region of its base.
An ophthalmologic instrument, comprising: a base unit having a lateral gripping surface; a small diameter instrument extending from the base unit, the small diameter instrument having a length; a support frame slidably coupled to the small diameter instrument along the length; a biasing device (140; 150) to urge the support frame towards an extended location along the length of the small diameter instrument; and one or more supply lines routed through an interior of the base unit to the small diameter instrument, wherein a distal portion of the support frame is adapted to make contact with a patient's eye and wherein a biasing force of the biasing device (140; 150) may be overcome by pressing the distal portion of the support frame against the patient's eye, to extend the small diameter instrument into a posterior portion of the patient's eye when in use, and, wherein the support frame is spaced apart from the one or more supply lines, characterised in that the support frame is contained completely within the lateral gripping surface. a base unit having a lateral gripping surface; a small diameter instrument extending from the base unit, the small diameter instrument having a length; a support frame slidably coupled to the small diameter instrument along the length; a biasing device (140; 150) to urge the support frame towards an extended location along the length of the small diameter instrument; and one or more supply lines routed through an interior of the base unit to the small diameter instrument, wherein a distal portion of the support frame is adapted to make contact with a patient's eye and wherein a biasing force of the biasing device (140; 150) may be overcome by pressing the distal portion of the support frame against the patient's eye, to extend the small diameter instrument into a posterior portion of the patient's eye when in use, and, wherein the support frame is spaced apart from the one or more supply lines, characterised in that the support frame is contained completely within the lateral gripping surface.
A system comprising: a touch control panel (300; 1300; 1400; 1500; 1600; 1700; 1800; 1910; 2510; 2600) configured to receive an input corresponding to an augmented virtual control button (710; 810; 910; 1010; 1210; 2010; 2210; 2310; 2520) displayed on a display, the augmented virtual control button being converted from a virtual control button (700; 800; 900; 902; 904; 1000; 1002; 1004; 1100; 1102; 1104) comprising a control function, wherein the augmented virtual control button retains the control function of the virtual control button; a controller in signal communication with the touch control panel and configured to control at least one operational setting of a powered apparatus; and a haptic output device (160; 330, 332, 334; 340) in signal communication with the controller and configured to output a friction effect indicating a state of at least one of the augmented virtual control button as the user provides the input corresponding to the augmented virtual control button, wherein the apparatus includes a conducting layer having at least one electrode and an insulating layer, and the thickness of the insulating layer varies to break an electrostatic friction effect at certain locations whilst maintaining an active electrostatic friction layer at the location of the virtual button. a touch control panel (300; 1300; 1400; 1500; 1600; 1700; 1800; 1910; 2510; 2600) configured to receive an input corresponding to an augmented virtual control button (710; 810; 910; 1010; 1210; 2010; 2210; 2310; 2520) displayed on a display, the augmented virtual control button being converted from a virtual control button (700; 800; 900; 902; 904; 1000; 1002; 1004; 1100; 1102; 1104) comprising a control function, wherein the augmented virtual control button retains the control function of the virtual control button; a controller in signal communication with the touch control panel and configured to control at least one operational setting of a powered apparatus; and a haptic output device (160; 330, 332, 334; 340) in signal communication with the controller and configured to output a friction effect indicating a state of at least one of the augmented virtual control button as the user provides the input corresponding to the augmented virtual control button, wherein the apparatus includes a conducting layer having at least one electrode and an insulating layer, and the thickness of the insulating layer varies to break an electrostatic friction effect at certain locations whilst maintaining an active electrostatic friction layer at the location of the virtual button.