mhurhangee/patent-ind-claim-en huggingface dataset:
A jet engine comprising: a fan provided with a plurality of stages of rotor blades (3b1, 3d1, 3g1, 3i1, 3k1); a compressor which compresses air which is sent from the fan ; a combustor which generates combustion gas by using compressed air generated by the compressor ; a turbine which generates a driving force from the combustion gas; a nozzle which discharges the combustion gas; a cylindrical casing in which the fan , the compressor , the combustor , and the turbine are accommodated; a core channel and a bypass channel provided by radially dividing the inside of the casing downstream of the fan , the jet engine comprises: a variable guide vane (3f1, 3fa1, 3fb1, 3fc1) disposed upstream of the rotor blades (3d1, 3g1, 3i1, 3k1) of a second and later stage of the rotor blades (3b1, 3d1, 3g1, 3i1, 3k1) of the fan and configured to adjust an inlet angle of air flow against the second and later stage of the rotor blades (3d1, 3g1, 3i1, 3k1); a fluid resistance adjusting device which is an opening space varying mechanism configured to adjust an opening space of the nozzle and is configured to adjust a fluid resistance at the nozzle ; and a controller configured to control the variable guide vane (3f1, 3fa1, 3fb1, 3fc1) such that the inlet angle at the time of cruise flight is smaller than the inlet angle at the time of acceleration and configured to control the fluid resistance adjusting device such that increase in the fluid resistance, due to an increase in a volume flow at an outlet of the fan corresponding to a reduction in the inlet angle, is suppressed, characterized in that the controller is configured to maximize a rotating speed of the fan at the time of cruise flight such that the rotating speed of the fan is 100%. a variable guide vane (3f1, 3fa1, 3fb1, 3fc1) disposed upstream of the rotor blades (3d1, 3g1, 3i1, 3k1) of a second and later stage of the rotor blades (3b1, 3d1, 3g1, 3i1, 3k1) of the fan and configured to adjust an inlet angle of air flow against the second and later stage of the rotor blades (3d1, 3g1, 3i1, 3k1); a fluid resistance adjusting device which is an opening space varying mechanism configured to adjust an opening space of the nozzle and is configured to adjust a fluid resistance at the nozzle ; and a controller configured to control the variable guide vane (3f1, 3fa1, 3fb1, 3fc1) such that the inlet angle at the time of cruise flight is smaller than the inlet angle at the time of acceleration and configured to control the fluid resistance adjusting device such that increase in the fluid resistance, due to an increase in a volume flow at an outlet of the fan corresponding to a reduction in the inlet angle, is suppressed, characterized in that the controller is configured to maximize a rotating speed of the fan at the time of cruise flight such that the rotating speed of the fan is 100%.
A vehicle lamp comprising: light output units configured to perform light output separately from each other for each of left front , left rear , right front and right rear corner parts of a vehicle body at least at both side positions of the corner part, wherein the vehicle lamp is configured to perform light output for each of the right front and right rear corner parts from the light output units of both sides of each corner part, as a right turn signal, and wherein the vehicle lamp is configured to perform light output for each of the left front and left rear corner parts from the light output units of both sides of each corner part, as a left turn signal, characterised in that a front window , a right side window , a left side window , and a rear window of the vehicle are respectively configured as the light output units. light output units configured to perform light output separately from each other for each of left front , left rear , right front and right rear corner parts of a vehicle body at least at both side positions of the corner part, wherein the vehicle lamp is configured to perform light output for each of the right front and right rear corner parts from the light output units of both sides of each corner part, as a right turn signal, and wherein the vehicle lamp is configured to perform light output for each of the left front and left rear corner parts from the light output units of both sides of each corner part, as a left turn signal, characterised in that a front window , a right side window , a left side window , and a rear window of the vehicle are respectively configured as the light output units.
Driver's cab stabilizer with two levers which extend parallel to one another in a vehicle longitudinal direction (x) and are extended in the vehicle longitudinal direction (x) in each case by way of a connecting element , and with a torsion bar which extends between the two connecting elements in a vehicle transverse direction (y) and is fixedly connected at its two ends via the respective associated connecting element indirectly to the respective associated one of the two levers , the driver's cab stabilizer having, in order to simplify the assembly, an assembly interface which lies within it, characterized in that the assembly interface is formed by way of a total of precisely two points of separation which are planar per se, extend at the same time in the vehicle transverse direction (y), and run between the two connecting elements and the lever which is assigned to them in each case.
A resin composition, comprising a thermoplastic elastomer and an epoxy resin as resins, and zinc cyanurate.
A bicycle trainer , comprising: a base having a base portion ; at least one leg pivotally mounted on the base ; a supporting frame ; a cassette module mounted on the supporting frame and having multiple sprockets; a flywheel module mounted on the supporting frame ; and characterized in that : the supporting frame is rotationally pivoted on a standing portion of the base around an axle , and the bicycle trainer further comprises: a height adjusting member comprising the standing portion , the supporting frame and a fixing element, and wherein the fixing element is placed in or between the standing portion and the supporting frame for keeping the supporting frame at a predetermined angle with respect to the standing portion . a base having a base portion ; at least one leg pivotally mounted on the base ; a supporting frame ; a cassette module mounted on the supporting frame and having multiple sprockets; a flywheel module mounted on the supporting frame ; and characterized in that : the supporting frame is rotationally pivoted on a standing portion of the base around an axle , and the bicycle trainer further comprises: a height adjusting member comprising the standing portion , the supporting frame and a fixing element, and wherein the fixing element is placed in or between the standing portion and the supporting frame for keeping the supporting frame at a predetermined angle with respect to the standing portion . a height adjusting member comprising the standing portion , the supporting frame and a fixing element, and wherein the fixing element is placed in or between the standing portion and the supporting frame for keeping the supporting frame at a predetermined angle with respect to the standing portion .
Seed press wheel for sowing units for precision seeders, comprising a solid tyre in the shape of a disc that has a predetermined axis for mounting said tyre on a hub , said solid tyre comprising a first portion extending radially from said axis , and at least one second portion extending radially from said first portion , characterised in that said first portion is made of a first material having a first modulus of elasticity value (E1), and said second portion is made of a second material having a second modulus of elasticity value (E2), said first modulus of elasticity value (E1) being different from said second modulus of elasticity value (E2).
A video point cloud compression, V-PCC, method implemented in an encoder to code three dimensional objects represented by a three dimensional cloud of points, the method comprising: encoding , by a processor of the encoder, a sequence of point cloud, PCC, components into a bitstream, encoding into the bitstream, by the processor, a buffering period supplemental enhancement information, SEI, message, a sequence of point cloud compression, PCC, components and an atlas frame timing SEI message; initializing , by the processor, a hypothetical reference decoder, HRD, at a coded atlas access unit, AU, associated with the buffering period SEI message; performing , by the processor, a HRD conformance check of the bitstream starting at the coded atlas AU; and removing , by the processor, decoding units from a coded atlas buffer, CAB, in the HRD during the HRD conformance check as specified by the atlas frame timing SEI message. encoding , by a processor of the encoder, a sequence of point cloud, PCC, components into a bitstream, encoding into the bitstream, by the processor, a buffering period supplemental enhancement information, SEI, message, a sequence of point cloud compression, PCC, components and an atlas frame timing SEI message; initializing , by the processor, a hypothetical reference decoder, HRD, at a coded atlas access unit, AU, associated with the buffering period SEI message; performing , by the processor, a HRD conformance check of the bitstream starting at the coded atlas AU; and removing , by the processor, decoding units from a coded atlas buffer, CAB, in the HRD during the HRD conformance check as specified by the atlas frame timing SEI message.
A method for forming an assembly , particularly a panel, the method comprising: adhering at least one tacking pad to a first surface of a first subassembly ; dispensing an adhesive onto one of the first surface , a second surface of a second subassembly , or both; placing the second surface in physical contact with the at least one tacking pad after the adhering of the at least one tacking pad and after the dispensing of the adhesive , thereby tacking the first and second subassemblies together; physically contacting the adhesive with the first and second surfaces during the placing wherein, during the placing, a thickness of the adhesive decreases and a surface area of the adhesive increases; and curing the adhesive after the tacking of the first and second subassemblies together. adhering at least one tacking pad to a first surface of a first subassembly ; dispensing an adhesive onto one of the first surface , a second surface of a second subassembly , or both; placing the second surface in physical contact with the at least one tacking pad after the adhering of the at least one tacking pad and after the dispensing of the adhesive , thereby tacking the first and second subassemblies together; physically contacting the adhesive with the first and second surfaces during the placing wherein, during the placing, a thickness of the adhesive decreases and a surface area of the adhesive increases; and curing the adhesive after the tacking of the first and second subassemblies together.
Smartcard (SC, 100) comprising: a card body (CB, 201, 301, 401), wherein a given area of the card body is designated for receiving a transponder chip module having a module antenna (MA); and a coupling frame antenna (CFA, 202, 302, 402) comprising a conductive track routed around a perimeter of the card body, and further routed toward an interior of the card body to the area of the card body designated for receiving the transponder chip module, resulting in two portions of the coupling frame antenna being closely adjacent one another with a gap (S, 203, 303, 403) therebetween, the gap extending from a peripheral edge of the card body to the area of the card body designated for receiving the transponder chip module; wherein the coupling frame antenna comprises a single-turn, closed-loop circuit; characterized in that the smartcard comprises a capacitor which affects a resonance frequency of the coupling frame antenna and which is either connected across the gap or is connected at some point along a path of the coupling frame antenna where the coupling frame antenna is broken such that the capacitor completes the single-turn, closed-loop circuit of the coupling frame antenna. a card body (CB, 201, 301, 401), wherein a given area of the card body is designated for receiving a transponder chip module having a module antenna (MA); and a coupling frame antenna (CFA, 202, 302, 402) comprising a conductive track routed around a perimeter of the card body, and further routed toward an interior of the card body to the area of the card body designated for receiving the transponder chip module, resulting in two portions of the coupling frame antenna being closely adjacent one another with a gap (S, 203, 303, 403) therebetween, the gap extending from a peripheral edge of the card body to the area of the card body designated for receiving the transponder chip module; wherein the coupling frame antenna comprises a single-turn, closed-loop circuit; characterized in that the smartcard comprises a capacitor which affects a resonance frequency of the coupling frame antenna and which is either connected across the gap or is connected at some point along a path of the coupling frame antenna where the coupling frame antenna is broken such that the capacitor completes the single-turn, closed-loop circuit of the coupling frame antenna.
A liquid dispensing container comprising: an outer shell including a wall having an inner surface and an outer surface ; an inner core coupled to the outer shell and having an outer surface and an inner surface that defines a reservoir configured to contain a fluid, the inner core and outer shell cooperatively defining a longitudinal axis (A), the inner core including an annular ridge and the outer shell having a top end that is flush with the annular ridge , the inner core including a retention cleat disposed below the annular ridge , the annular ridge and the retention cleat cooperating to define a channel , and the top end of the outer shell being snap-fit into the channel ; and a liner positioned between the outer shell and the inner core , wherein the liner comprises a stretchable material that is stretched along the longitudinal axis (A). an outer shell including a wall having an inner surface and an outer surface ; an inner core coupled to the outer shell and having an outer surface and an inner surface that defines a reservoir configured to contain a fluid, the inner core and outer shell cooperatively defining a longitudinal axis (A), the inner core including an annular ridge and the outer shell having a top end that is flush with the annular ridge , the inner core including a retention cleat disposed below the annular ridge , the annular ridge and the retention cleat cooperating to define a channel , and the top end of the outer shell being snap-fit into the channel ; and a liner positioned between the outer shell and the inner core , wherein the liner comprises a stretchable material that is stretched along the longitudinal axis (A).
A drive lever assembly for an agricultural vehicle, with a shift gate and a drive lever which engages in the shift gate , which can be deflected in a longitudinal direction (L) of the shift gate from a neutral position at least into a forward drive position, and which has play in a transverse direction (T) of the shift gate , wherein at least in the forward drive position, the drive lever is movable in the transverse direction (T) between an adjustment position, in which the drive lever is movable in the longitudinal direction (L) against a reduced frictional moment, and a retaining position, in which a raised frictional moment is applied on the drive lever, characterized in that an elastic friction body extends in the longitudinal direction (L) of the shift gate and in that in the retaining position, the drive lever is pressed against the friction body .
Covering device (4; 50), in particular charging flap device, having a cover component (5; 51) and a displacement mechanism for the cover component (4; 51) for closing and releasing an opening (6; 52) in a vehicle body , wherein the cover component (5; 51) can be lowered under an adjacent region of the vehicle body ; 51) can be lowered below an adjacent region of the vehicle body , having a rail guide system (7; 53) by means of which the cover component (5; 51) is guided moveable between a position closing the opening (6; 52) and a position releasing the opening (6; 52), characterized in that at least one control element (8; 54A, 54B) is provided which can be pivoted about a pivot point (9; 55) and is operatively connected to the cover component (5; 51) in a coupling region (10A; 59, 60A, 60B) spaced apart from the pivot point (9; 55), wherein the cover component (5; 51) is moved during pivoting of the control element (8; 54A, 54B) in the direction of a position corresponding to the releasing position of the cover component (5; 51) and during a further pivoting of the control element (8; 54A, 54B) in the direction of a position corresponding to the closing position of the cover component (5; 51).
HIPIMS process for coating a substrate with a layer containing at least one microcrystalline metal borocarbide phase, wherein the metal borocarbide is a material according to the formula Me 2 BC, characterized in that in the HIPIMS process the source power is pulsed in such a way that in the X-ray spectrum of a layer thus produced at a substrate temperature below 600°C at least one peak can be identified whose half-value width indicates the presence of a microcrystalline phase of the metal borocarbide.
Hybrid vertical take-off and landing drone comprising at least two substantially parallel fixed wings each comprising at least two fins distributed on either side of a roll axis of the drone and individually controlled, and that comprises at least two counter-rotating rotors with a collective pitch system and a swashplate , which are arranged between said at least two wings on either side of the roll axis , individually controlled and articulated so as to allow independent tilting of each rotor on a tilt axis substantially parallel to the pitch axis of the drone, the rotational axis of the blades of each rotor being substantially perpendicular to said tilt axis .
Grinding base body - with a substantially cylindrical outer member for accepting an abrasive material, - with an inner member for attaching the grinding base body to a drive unit, and - with a connecting structure for mechanical force transmission between the outer member and the inner member , wherein the outer member , the inner member and/or the connecting structure are made at least in sections of a fiber-plastic composite and wherein the grinding base body is characterized in that the inner member is formed substantially cylindrically and the outer member has a larger axial extension than the inner member . - with a substantially cylindrical outer member for accepting an abrasive material, - with an inner member for attaching the grinding base body to a drive unit, and - with a connecting structure for mechanical force transmission between the outer member and the inner member ,
An electrolyte, comprising: an organic solvent; an electrolyte lithium salt dissolved in the organic solvent; and an additive comprising a first additive and a second additive, the first additive being selected from one or more of the compounds represented by Formula I: in which R 1 is selected from -S(=O)z-, -O-S(=O)z-O-, -O-S(=O)z-, -O-S(=O)-O- or 1,1-dioxo-tetrahydrothiophene-3,4-di-yl, R 2 and R 3 are each independently selected from saturated or unsaturated hydrocarbylene groups containing 1-10 carbon atoms, wherein the H atoms on the hydrocarbylene groups may be partially substituted or fully substituted by halo, nitro, cyano, carboxyl, or sulfonic acid group; and the second additive being selected from one or more of the compounds represented by Formula II : in which R 4 , R 5 , R 6 , R 7 , R 8 , R 9 , R 10 , R 11 , R 12 each are independently selected from alkyl or haloalkyl containing 1-6 carbon atoms; and wherein X represents B, P or P=O, and the compound of Formula II is a borate, a phosphite or a phosphate, respectively. an organic solvent; an electrolyte lithium salt dissolved in the organic solvent; and an additive comprising a first additive and a second additive, the first additive being selected from one or more of the compounds represented by Formula I: in which R 1 is selected from -S(=O)z-, -O-S(=O)z-O-, -O-S(=O)z-, -O-S(=O)-O- or 1,1-dioxo-tetrahydrothiophene-3,4-di-yl, R 2 and R 3 are each independently selected from saturated or unsaturated hydrocarbylene groups containing 1-10 carbon atoms, wherein the H atoms on the hydrocarbylene groups may be partially substituted or fully substituted by halo, nitro, cyano, carboxyl, or sulfonic acid group; and the second additive being selected from one or more of the compounds represented by Formula II : in which R 4 , R 5 , R 6 , R 7 , R 8 , R 9 , R 10 , R 11 , R 12 each are independently selected from alkyl or haloalkyl containing 1-6 carbon atoms; and wherein X represents B, P or P=O, and the compound of Formula II is a borate, a phosphite or a phosphate, respectively.
A method at a media device , the method comprising: receiving, from a control device , a first request during a presentation of first media content on a display screen having margins, the first request being associated with a key of the control device , the key indicating a direction; identifying, from among the margins of the display screen , a margin that is associated with the key associated with the first request; causing, during the presentation of the first media content, display of a recommendations menu on a portion of the display screen , the portion corresponding to the identified margin, the displayed recommendations menu including a plurality of recommended media content; receiving a selection of a recommended media content to request further recommended media content; and based on the selected recommended media content, the first media content, and a profile of a viewer, causing display of further recommended media content. receiving, from a control device , a first request during a presentation of first media content on a display screen having margins, the first request being associated with a key of the control device , the key indicating a direction; identifying, from among the margins of the display screen , a margin that is associated with the key associated with the first request; causing, during the presentation of the first media content, display of a recommendations menu on a portion of the display screen , the portion corresponding to the identified margin, the displayed recommendations menu including a plurality of recommended media content; receiving a selection of a recommended media content to request further recommended media content; and based on the selected recommended media content, the first media content, and a profile of a viewer, causing display of further recommended media content.
A method for purifying phenol, comprising: contacting a phenol stream comprising hydroxyacetone, 2-methylbenzofuran, 3-methylbenzofuran and phenol with an acyl chloride in the presence of an organic sulfonic acid to convert one or more selected from the group consisting of hydroxyacetone, 2-methylbenzofuran and 3-methylbenzofuran into a high boiling point compound having a boiling point higher than that of the phenol; and recovering the high boiling point compound from the phenol stream. contacting a phenol stream comprising hydroxyacetone, 2-methylbenzofuran, 3-methylbenzofuran and phenol with an acyl chloride in the presence of an organic sulfonic acid to convert one or more selected from the group consisting of hydroxyacetone, 2-methylbenzofuran and 3-methylbenzofuran into a high boiling point compound having a boiling point higher than that of the phenol; and recovering the high boiling point compound from the phenol stream.
A milk-derived disrupted exosome the membrane vesicle of which is partially or completely disrupted for use in a therapeutic treatment or prophylactic treatment of inflammation or an inflammatory disease.