mhurhangee/ep-ind-claims huggingface dataset:
A combustion heater comprising an inner tube (20, 120, 220) having a supply passage (21, 121, 211) for combustion gas in an inner portion, an outer tube (10, 110) disposed to provide a separated combustion space (30, 130) in an outer periphery of the inner tube (20, 120, 220), and a hole part (24, 124, 224) for ejecting the combustion gas being formed in a tube wall of the inner tube (20, 120, 220), wherein the inner tube (20, 120, 220) comprises a base end and a distal end and is cantilever supported at the base end, wherein the combustion heater further comprises a supporting member (40, 140) which supports a distal end side of the inner tube (20, 120, 220), and which is placed between the inner tube (20, 120, 220) and the outer tube (10, 110), and which maintains an interval between an outer peripheral surface (20A, 120A, 220A) of the inner tube (20, 120, 220) and an inner peripheral surface (10A, 110A) of the outer tube (10, 110), the supporting member (40, 140) being supported to freely displace in an axial direction relative to the outer tube (10, 110), wherein the combustion heater is configured such that a stagnation point for combustion gas is formed in the combustion space (30, 130), and such that a circulating flow of combustion gas in the combustion space (30, 130) is formed in the periphery of the stagnation point, the combustion heater being characterized in that: the supporting member (40, 140) is disposed further towards the distal end than the hole part (24, 124) positioned furthest towards the distal end and has a size which covers the whole combustion space (30, 130).
A DNA demethylating agent for use in improving the immune response to a papillomavirus of a subject infected with said PV, wherein said improving the immune response is increasing the frequency of PV late antigen-specific CD-8+ and/or CD4+ T-cells in the blood of said subject.
A robot cleaner comprising: a cleaner body including a controller and a wheel unit of which driving is controlled by the controller; a suction unit disposed at one side of the cleaner body and configured to suck dust or air through a suction port at a lower surface thereof; a front bumper disposed at a front portion of the suction unit, the front bumper configured to be movable to the inside of the suction unit when the front bumper is in contact with an external object, characterised in that the robot cleaner further comprises side bumpers (223', 223") respectively disposed at left and right side portions of the suction unit, and each configured to be movable to the inside of the suction unit when the side bumper (223', 223") is in contact with an obstacle; a link member disposed at the inside of the side bumper (223', 223") to allow the side bumper (223', 223") and the front bumper to interlock with each other; and projection parts (321a, 321b) protruded forward of the front bumper, wherein, when the projection parts (321a, 321b) are in contact with the external object: at least one portion of the front bumper is moved together with the side bumper (223', 223") to the inside of the suction unit, and a suction flow path communicating with the suction port is formed between the major surface of the front bumper and the external object. a cleaner body including a controller and a wheel unit of which driving is controlled by the controller; a suction unit disposed at one side of the cleaner body and configured to suck dust or air through a suction port at a lower surface thereof; a front bumper disposed at a front portion of the suction unit, the front bumper configured to be movable to the inside of the suction unit when the front bumper is in contact with an external object, characterised in that the robot cleaner further comprises side bumpers (223', 223") respectively disposed at left and right side portions of the suction unit, and each configured to be movable to the inside of the suction unit when the side bumper (223', 223") is in contact with an obstacle; a link member disposed at the inside of the side bumper (223', 223") to allow the side bumper (223', 223") and the front bumper to interlock with each other; and projection parts (321a, 321b) protruded forward of the front bumper, wherein, when the projection parts (321a, 321b) are in contact with the external object: at least one portion of the front bumper is moved together with the side bumper (223', 223") to the inside of the suction unit, and a suction flow path communicating with the suction port is formed between the major surface of the front bumper and the external object. at least one portion of the front bumper is moved together with the side bumper (223', 223") to the inside of the suction unit, and a suction flow path communicating with the suction port is formed between the major surface of the front bumper and the external object.
Process for the production of a moulding material mould for a casting having a minimum strength, and casting metal, wherein - a granular moulding material is filled as moulding material into a moulding box, - the moulding material is compressed in the moulding box in a moulding installation above a model which stands on a model plate, wherein - in a first step, the moulding box is moved by a pressing device over a first path length to a stop against a frame of a pressing head; - in a second step, the pattern plate is moved from the pressing device over a second path length (s 1, s 2) into an end position for hardening or compacting the moulding material mould; and the second path length (s 1, s 2) is changed by a controller (100,100') as a function of a determined force at the end of a previous hardening or compaction of the moulding material of a previous mould, as a result of a change in at least one property of the non-compacted moulding material. - a granular moulding material is filled as moulding material into a moulding box, - the moulding material is compressed in the moulding box in a moulding installation above a model which stands on a model plate, wherein - in a first step, the moulding box is moved by a pressing device over a first path length to a stop against a frame of a pressing head; - in a second step, the pattern plate is moved from the pressing device over a second path length (s 1, s 2) into an end position for hardening or compacting the moulding material mould; and the second path length (s 1, s 2) is changed by a controller (100,100') as a function of a determined force at the end of a previous hardening or compaction of the moulding material of a previous mould, as a result of a change in at least one property of the non-compacted moulding material. - in a first step, the moulding box is moved by a pressing device over a first path length to a stop against a frame of a pressing head; - in a second step, the pattern plate is moved from the pressing device over a second path length (s 1, s 2) into an end position for hardening or compacting the moulding material mould;
A case assembly for a gas turbine engine case, comprising: a flange; a recess in the flange defined by a spot face; a jacking insert comprising a back plate disposed in the recess; a threaded cylinder extending from the back plate into the flange; wherein the recess is surrounded by a D-shaped wall; the back plate of the jacking insert has a D-shaped geometry, wherein the D-shaped wall is configured to constrain the jacking insert from rotation; a bulkhead is pressed against the flange and covers the spot face; wherein the back plate 205 of jacking insert 201 is disposed between the bulkhead 216 and the flange 206; and a bolt (202; 224) is configured to pass through the jacking insert and an opening defined by the bulkhead. a flange; a recess in the flange defined by a spot face; a jacking insert comprising a back plate disposed in the recess; a threaded cylinder extending from the back plate into the flange; wherein the recess is surrounded by a D-shaped wall; the back plate of the jacking insert has a D-shaped geometry, wherein the D-shaped wall is configured to constrain the jacking insert from rotation; a bulkhead is pressed against the flange and covers the spot face; wherein the back plate 205 of jacking insert 201 is disposed between the bulkhead 216 and the flange 206; and a bolt (202; 224) is configured to pass through the jacking insert and an opening defined by the bulkhead.
A liquid discharging apparatus comprising: nozzle rows, in which a plurality of nozzles capable of discharging liquid onto a medium are arranged, the nozzle rows being arranged in an intersection direction intersecting with a nozzle-arrangement direction in which the nozzles are arranged; a shielding portion configured to shield an area between the nozzle rows; and a recovering portion configured to recover mist (lm) which is attached to the shielding portion and is generated due to discharging of the liquid from the nozzles, wherein the shielding portion includes an inclined portion which is inclined when seen from the nozzle-arrangement direction; and wherein the recovering portion is provided on a downstream side of the inclined portion in a direction in which the mist attached to the inclined portion flows, characterized in that the recovering portion is detachable. nozzle rows, in which a plurality of nozzles capable of discharging liquid onto a medium are arranged, the nozzle rows being arranged in an intersection direction intersecting with a nozzle-arrangement direction in which the nozzles are arranged; a shielding portion configured to shield an area between the nozzle rows; and a recovering portion configured to recover mist (lm) which is attached to the shielding portion and is generated due to discharging of the liquid from the nozzles, wherein the shielding portion includes an inclined portion which is inclined when seen from the nozzle-arrangement direction; and wherein the recovering portion is provided on a downstream side of the inclined portion in a direction in which the mist attached to the inclined portion flows, characterized in that the recovering portion is detachable.
A flow battery electrode assembly comprising: a first impermeable electrode; a second permeable, electrode; characterized in that: the first, impermeable electrode and the second permeable electrode each comprise greater than 50% metal by volume, and at least one electrically conductive spacer (518, 519) connects the first impermeable electrode and the second permeable electrode such that the first impermeable electrode and the second permeable electrode are spaced apart from each other by an electrolyte flow path (526, 527). a first impermeable electrode; a second permeable, electrode; the first, impermeable electrode and the second permeable electrode each comprise greater than 50% metal by volume, and at least one electrically conductive spacer (518, 519) connects the first impermeable electrode and the second permeable electrode such that the first impermeable electrode and the second permeable electrode are spaced apart from each other by an electrolyte flow path (526, 527).
An orthopaedic surgical instrument system comprising: a cutting tool including (i) a shank, (ii) a shaft extending distally from the shank, the shaft having a plurality of cutting flutes defined at its distal end, and (iii) an outer sleeve coupled to the shaft, and a cutting guide block, comprising: a superior surface, an inferior surface positioned opposite the superior surface, the inferior surface defining an imaginary plane, and a slot extending through the superior surface and the inferior surface, the slot defining a cutting guide that extends from a first end to a second end that is sized to receive the cutting tool, in which when the slot is viewed in a cross-sectional plane extending perpendicular to the imaginary plane at each of a plurality of points between the first end and the second end, (i) the slot has a central axis that extends through the superior surface and the inferior surface, and (ii) an angle is defined between the central axis and the imaginary plane, characterised in that the magnitude of the angle is non-constant between the first end of the cutting guide and the second end of the cutting guide. a cutting tool including (i) a shank, (ii) a shaft extending distally from the shank, the shaft having a plurality of cutting flutes defined at its distal end, and (iii) an outer sleeve coupled to the shaft, and a cutting guide block, comprising: a superior surface, an inferior surface positioned opposite the superior surface, the inferior surface defining an imaginary plane, and a slot extending through the superior surface and the inferior surface, the slot defining a cutting guide that extends from a first end to a second end that is sized to receive the cutting tool, a superior surface, an inferior surface positioned opposite the superior surface, the inferior surface defining an imaginary plane, and a slot extending through the superior surface and the inferior surface, the slot defining a cutting guide that extends from a first end to a second end that is sized to receive the cutting tool, in which when the slot is viewed in a cross-sectional plane extending perpendicular to the imaginary plane at each of a plurality of points between the first end and the second end, (i) the slot has a central axis that extends through the superior surface and the inferior surface, and (ii) an angle is defined between the central axis and the imaginary plane, characterised in that the magnitude of the angle is non-constant between the first end of the cutting guide and the second end of the cutting guide.
A quick detachable toilet cover, comprising a hollow casing which is arrangeable at a rear end of a cover assembly, as well as adaptor mechanisms, positioning sleeves and damping mechanisms which are axially and serially arranged, wherein the adaptor mechanisms are arranged in the hollow casing and are matingly engageable with support poles on a toilet seat body, and the damping mechanisms are connectable between the cover assembly and the hollow casing; wherein, the damping mechanisms are also sheathed with the positioning sleeves, the damping mechanisms are located at and co-operate with the positioning sleeves along a circumferential direction, and the positioning sleeves are located at and co-operate with the hollow casing along the circumferential direction; characterised in that each positioning sleeve is formed as a separate piece from each adaptor mechanism and each damping mechanism.
A manufacturing method for an acicular body (1; 51) provided with a support substrate (10; 52) and a needle (20; 53) provided on the support substrate (10; 52), the manufacturing method comprising: a first step of supplying a needle forming solution onto an intaglio plate (30; 111) having a recess (23; 30a; 31) that has a shape corresponding to the needle (20; 53); a second step of disposing a film (10a; 36; 52a; 251) directly on the needle forming solution so that the film gets in contact with the needle forming solution and compressing the needle forming solution from above the film (10a; 36; 52a; 251) to move the needle forming solution into the recess (23; 30a; 31); and a third step of removing liquid components from the needle forming solution inside the recess (23; 30a; 31) to solidify the needle forming solution, and forming the needle (20; 53). a first step of supplying a needle forming solution onto an intaglio plate (30; 111) having a recess (23; 30a; 31) that has a shape corresponding to the needle (20; 53); a second step of disposing a film (10a; 36; 52a; 251) directly on the needle forming solution so that the film gets in contact with the needle forming solution and compressing the needle forming solution from above the film (10a; 36; 52a; 251) to move the needle forming solution into the recess (23; 30a; 31); and a third step of removing liquid components from the needle forming solution inside the recess (23; 30a; 31) to solidify the needle forming solution, and forming the needle (20; 53).
Fastening element, comprising a holding area to hold down an electronic module such as a circuit board, in particular a circuit board fitted with LEDs, on a light holder, and a fastening area to be supported against the light holder, wherein the fastening area, for supporting against the light holder, comprises a base having a spreader pair comprising two spreader elements (8.1), wherein the spreader elements are designed in such a way that the spreader elements can be deflected resiliently in opposite directions to each other for locking in or on a fastening recess provided on the light holder perpendicularly or approximately perpendicularly to an intended insertion direction (e) of the fastening element into the light holder while creating a spring bias, in opposite directions characterized in that the spreader elements (8.1) each have a leaf spring-like construction with a free end (8.2), and the free ends (8.2) of the spreader elements (8.1) are designed in a tapered manner to dig into the wall of the light holder on the end side thereof and hence being fixed more strongly, and that the spreader elements (8.1) and/or the base are configured in a manner bent against the insertion direction (e) with one extension component.
A surgical instrument, comprising: a handle portion; a shaft housing a firing bar; an end effector comprising an anvil, a lower jaw, and a stapling and severing assembly responsive to a longitudinal closing motion produced by the handle portion and the shaft; a removable cartridge, wherein the lower jaw is configured to receive a cartridge when the end effector is in an open configuration, the cartridge comprising: a housing, a plurality of staples disposed in the housing, and a deck disposed over the plurality of staples, the deck defining apertures, each aperture being substantially disposed over each staple; and a movable buttress; characterized in that the buttress is stored within the housing of the cartridge or stored within the lower jaw of the end effector, the buttress (100, 122) being movable relative to the cartridge and relative to the end effector to dispense the buttress material so that an exposed portion of the buttress (100, 122) is available for receipt of tissue. a handle portion; a shaft housing a firing bar; an end effector comprising an anvil, a lower jaw, and a stapling and severing assembly responsive to a longitudinal closing motion produced by the handle portion and the shaft; a removable cartridge, wherein the lower jaw is configured to receive a cartridge when the end effector is in an open configuration, the cartridge comprising: a housing, a plurality of staples disposed in the housing, and a deck disposed over the plurality of staples, the deck defining apertures, each aperture being substantially disposed over each staple; and a housing, a plurality of staples disposed in the housing, and a deck disposed over the plurality of staples, the deck defining apertures, each aperture being substantially disposed over each staple; and a movable buttress; characterized in that the buttress is stored within the housing of the cartridge or stored within the lower jaw of the end effector, the buttress (100, 122) being movable relative to the cartridge and relative to the end effector to dispense the buttress material so that an exposed portion of the buttress (100, 122) is available for receipt of tissue.
An agricultural vehicle (1; 14) having an interchangeable implement (2; 15) which can be elastically deflected in relation to ground travelled over by the vehicle (1; 14) against the pressure of at least one first compressed gas supply, a second compressed gas supply, wherein the first and second compressed gas supplies (29; 31) are connected via a compressed gas line, characterized in that a check valve is disposed in the compressed gas line and means (25, 33) are provided to vary the volume of the second compressed gas supply.
A DNA which does not undergo cleavage with a microRNA comprising the base sequence of SEQ ID NO: 10, and which imparts cleistogamy to a plant, wherein the DNA is described in any one of the following (a) to (c): (a) a DNA comprising a coding region of the base sequence shown in SEQ ID NO: 1, 2, 4, or 5; (b) a DNA comprising a base sequence in which one or a plurality of bases are substituted, deleted, added, and/or inserted in a coding region of the base sequence shown in SEQ ID NO: 1, 2, 4, 5, 7, or 8, and has a microRNA target site comprising a base sequence in which "a" at position 8 is substituted with "g" in comparison with the base sequence shown in SEQ ID NO: 11 or in which both "a"s at positions 2 and 14 are substituted in comparison with the base sequence shown in SEQ ID NO: 11; and (c) a DNA which hybridizes with a DNA comprising the base sequence shown in SEQ ID NO: 1, 2, 4, 5, 7, or 8 under stringent conditions, and has a microRNA target site comprising a base sequence in which "a" at position 8 is substituted in comparison with the base sequence shown in SEQ ID NO: 11 or in which both "a"s at positions 2 and 14 are substituted with "g" in comparison with the base sequence shown in SEQ ID NO: 11. (a) a DNA comprising a coding region of the base sequence shown in SEQ ID NO: 1, 2, 4, or 5; (b) a DNA comprising a base sequence in which one or a plurality of bases are substituted, deleted, added, and/or inserted in a coding region of the base sequence shown in SEQ ID NO: 1, 2, 4, 5, 7, or 8, and has a microRNA target site comprising a base sequence in which "a" at position 8 is substituted with "g" in comparison with the base sequence shown in SEQ ID NO: 11 or in which both "a"s at positions 2 and 14 are substituted in comparison with the base sequence shown in SEQ ID NO: 11; and (c) a DNA which hybridizes with a DNA comprising the base sequence shown in SEQ ID NO: 1, 2, 4, 5, 7, or 8 under stringent conditions, and has a microRNA target site comprising a base sequence in which "a" at position 8 is substituted in comparison with the base sequence shown in SEQ ID NO: 11 or in which both "a"s at positions 2 and 14 are substituted with "g" in comparison with the base sequence shown in SEQ ID NO: 11.
A receiver comprising: an antenna configured to receive a radio signal; a pulse generator configured to generate a pulse; an oscillator configured to be driven based on the pulse to generate an oscillation signal based on the radio signal; a measurer configured to be driven based on the pulse to measure an oscillation degree of the oscillation signal, wherein the oscillation degree of the oscillation signal is measured as an oscillation time of the oscillation signal or as an envelope of the oscillation signal, wherein the radio signal is received based on the oscillation degree of the oscillation signal; and further characterized in comprising a current supplier configured to provide a first current to the oscillator in a first period of time from a start point in time of the pulse to an intermediate point in time between the start point in time of the pulse and an end point in time of the pulse, and configured to provide a second current smaller than the first current to the oscillator in a second period of time from the intermediate point in time to the end point in time of the pulse. an antenna configured to receive a radio signal; a pulse generator configured to generate a pulse; an oscillator configured to be driven based on the pulse to generate an oscillation signal based on the radio signal; a measurer configured to be driven based on the pulse to measure an oscillation degree of the oscillation signal, wherein the oscillation degree of the oscillation signal is measured as an oscillation time of the oscillation signal or as an envelope of the oscillation signal, wherein the radio signal is received based on the oscillation degree of the oscillation signal; and further characterized in comprising a current supplier configured to provide a first current to the oscillator in a first period of time from a start point in time of the pulse to an intermediate point in time between the start point in time of the pulse and an end point in time of the pulse, and configured to provide a second current smaller than the first current to the oscillator in a second period of time from the intermediate point in time to the end point in time of the pulse.