mhurhangee/patent-ind-claim-en huggingface dataset:
A method of repairing a domestic hydraulic installation including a faulty circulation pump , having hydraulic characteristics adapted to this hydraulic installation, the method comprising: - the determination of the characteristics of the faulty circulation pump to enable a parameterizing device to obtain its characteristics; - the replacement of the faulty circulation pump by a generic circulation pump that can be parameterized to emulate the faulty circulation pump, replacement comprising the following steps: - the connection of the parameterizing device to the generic circulation pump; - the emulation, with the help of specific databases, of the generic circulation pump with the operating characteristics of the faulty circulation pump previously determined, the parameterizing device generating a list of parameters needed by the generic pump in order to obtain the operating characteristics of the faulty circulation pump, - the substitution of the faulty circulation pump by the generic circulation pump before or after the emulation step of the generic circulation pump, wherein the replacement of the generic circulation pump that can be parameterized to emulate the faulty circulation pump is facilitated by the standardization of circulation pumps for domestic hydraulic installation. - the determination of the characteristics of the faulty circulation pump to enable a parameterizing device to obtain its characteristics; - the replacement of the faulty circulation pump by a generic circulation pump that can be parameterized to emulate the faulty circulation pump, replacement comprising the following steps: - the connection of the parameterizing device to the generic circulation pump; - the emulation, with the help of specific databases, of the generic circulation pump with the operating characteristics of the faulty circulation pump previously determined, the parameterizing device generating a list of parameters needed by the generic pump in order to obtain the operating characteristics of the faulty circulation pump, - the substitution of the faulty circulation pump by the generic circulation pump before or after the emulation step of the generic circulation pump, wherein the replacement of the generic circulation pump that can be parameterized to emulate the faulty circulation pump is facilitated by the standardization of circulation pumps for domestic hydraulic installation. - the connection of the parameterizing device to the generic circulation pump; - the emulation, with the help of specific databases, of the generic circulation pump with the operating characteristics of the faulty circulation pump previously determined, the parameterizing device generating a list of parameters needed by the generic pump in order to obtain the operating characteristics of the faulty circulation pump, - the substitution of the faulty circulation pump by the generic circulation pump before or after the emulation step of the generic circulation pump,
Forecarriage of a rolling motor vehicle with three or four wheels, comprising: a forecarriage frame , - at least a pair of front wheels (10',10") kinematically connected to each other and to the forecarriage frame by means of a kinematic roll mechanism , - a roll block system comprising a rod which directly connects to each other two parts of the forecarriage, at least one of said parts being subject to roll movements, characterized in that said rod comprises a first portion of rod and a second portion of rod kinematically connected to said two parts of the forecarriage by transmission means suitable to convert a rotation movement around an axis perpendicular to a roll plane into a rotation movement of the respective rod portion around to its longitudinal extension axis (X); wherein said roll block system comprises a blocking device (111a, 112a; 130) suitable to block the relative rotation of said first portion of rod and of said second portion of rod between a blocking position, in which said first and second portion of rod are rotationally integral to block the angle of rotation of said rod with respect to said rolling plane, and a release position, in which said first and second portion of rod are free to rotate around to said longitudinal extension axis (X) to allow the rotation of said rod with respect to said rolling plane. a forecarriage frame , - at least a pair of front wheels (10',10") kinematically connected to each other and to the forecarriage frame by means of a kinematic roll mechanism , - a roll block system comprising a rod which directly connects to each other two parts of the forecarriage, at least one of said parts being subject to roll movements, characterized in that - at least a pair of front wheels (10',10") kinematically connected to each other and to the forecarriage frame by means of a kinematic roll mechanism , - a roll block system comprising a rod which directly connects to each other two parts of the forecarriage, at least one of said parts being subject to roll movements, characterized in that said rod comprises a first portion of rod and a second portion of rod kinematically connected to said two parts of the forecarriage by transmission means suitable to convert a rotation movement around an axis perpendicular to a roll plane into a rotation movement of the respective rod portion around to its longitudinal extension axis (X); wherein said roll block system comprises a blocking device (111a, 112a; 130) suitable to block the relative rotation of said first portion of rod and of said second portion of rod between a blocking position, in which said first and second portion of rod are rotationally integral to block the angle of rotation of said rod with respect to said rolling plane, and a release position, in which said first and second portion of rod are free to rotate around to said longitudinal extension axis (X) to allow the rotation of said rod with respect to said rolling plane.
An injector with needle wavering prevention structure, which is a side feeding type injector including a fuel injection chamber in which fuel is injected into a combustion chamber of an engine through a fuel inlet , and a fuel supply passage through which fuel is injected into the fuel injection chamber in a direction transverse an injection direction of the fuel inlet , wherein the injector including a nozzle assembly which includes a carrier and a nozzle body , a needle assembly which opens and closes the fuel inlet , an actuator which operates the needle assembly , wherein the carrier has the fuel injection chamber which is formed therein and has a tubular shape, and the nozzle body is coupled to the lower end of the carrier , wherein the needle assembly 20 includes a needle 21, characterized in that the fuel supply passage consists of at least three fuel supply passages formed at equal intervals in a circumferential direction of the carrier , and the fuel supply passages are formed in a radial direction of the fuel injection chamber and formed in the carrier , and the fuel supply passages inject fuel to the outer peripheral surface of the needle 21 to maintain the centering of the needle 21. wherein the injector including a nozzle assembly which includes a carrier and a nozzle body , a needle assembly which opens and closes the fuel inlet , an actuator which operates the needle assembly , wherein the carrier has the fuel injection chamber which is formed therein and has a tubular shape, and the nozzle body is coupled to the lower end of the carrier , wherein the needle assembly 20 includes a needle 21, characterized in that the fuel supply passage consists of at least three fuel supply passages formed at equal intervals in a circumferential direction of the carrier , and the fuel supply passages are formed in a radial direction of the fuel injection chamber and formed in the carrier , and the fuel supply passages inject fuel to the outer peripheral surface of the needle 21 to maintain the centering of the needle 21.
A process for the manufacture of flexible, thin-walled articles comprising the steps of injection moulding a polymer blend having an MFI > 10 dg/min, wherein MFI is measured according to ASTM D 1238, 2.16 kg; 190°C; and comprising at least one polymer wherein said polymer includes a polypropylene having varying tacticity within its structure wherein the polypropylene homopolymer or copolymer having varying tacticity has a tacticity which varies within the range of between 25 and 60 % of [mmmm] pentad concentration due to a statistical distribution of stereoscopic errors in the polymer chains.
A system for forming a multiple layer object, the system comprising: a spreader to form a layer of polymer particles , the polymer particles having a melting temperature (Tm) of at least 250° C; a fluid ejection head configured to selectively deposit a first fusing agent on a first portion of the layer and selectively deposit a second fusing agent on a second portion of the layer and not deposit a fusing agent on a third portion of the layer; and a heat source to heat the first portion and second portion, wherein the first portion is part of the multiple layer object and the second portion is not part of the multiple layer object and wherein the second portion reduces a thermal gradient between the first portion and other portions of the layer that will not be part of the formed object, and raises a temperature of polymer particles in a subsequent layer. a fluid ejection head configured to selectively deposit a first fusing agent on a first portion of the layer and selectively deposit a second fusing agent on a second portion of the layer and not deposit a fusing agent on a third portion of the layer; and a heat source to heat the first portion and second portion, wherein the first portion is part of the multiple layer object and the second portion is not part of the multiple layer object and wherein the second portion reduces a thermal gradient between the first portion and other portions of the layer that will not be part of the formed object, and raises a temperature of polymer particles in a subsequent layer.
A tensioner comprising: an arm rotatable about a first axis, the arm comprising an arm arbor having a sleeve defining a slot therethrough and having a first abutment feature ; a bushing having a protrusion ; a spring coupled to the arm urging the arm to rotate about the first axis into tensioning engagement with an endless power transmitting element ; a cap having a spring abutment feature, the cap enclosing the spring within the tensioner ; wherein the bushing surrounds the arm arbor and is positioned with the protrusion extending through the slot of the arm arbor ; wherein the spring has a first end coupled to the arm and a second end coupled to the cap and is positioned to radially expand into contact with the protrusion of the bushing as the arm is rotated in a direction opposite the direction of tensioning engagement such that the bushing is urged radially outward relative to the arm arbor to provide frictional damping; and characterized in that the arm further comprises a spring support , the bushing includes a longitudinal slit that allows radial expansion and splits the protrusion into a first part and a second part , and the slot of the arm arbor is positioned 30 degrees from the first abutment feature of the c arm , and the spring support of the arm arbor is positioned at or between 90 degrees through 180 degrees from the first abutment feature . an arm rotatable about a first axis, the arm comprising an arm arbor having a sleeve defining a slot therethrough and having a first abutment feature ; a bushing having a protrusion ; a spring coupled to the arm urging the arm to rotate about the first axis into tensioning engagement with an endless power transmitting element ; a cap having a spring abutment feature, the cap enclosing the spring within the tensioner ; wherein the bushing surrounds the arm arbor and is positioned with the protrusion extending through the slot of the arm arbor ; wherein the spring has a first end coupled to the arm and a second end coupled to the cap and is positioned to radially expand into contact with the protrusion of the bushing as the arm is rotated in a direction opposite the direction of tensioning engagement such that the bushing is urged radially outward relative to the arm arbor to provide frictional damping; and characterized in that the arm further comprises a spring support , the bushing includes a longitudinal slit that allows radial expansion and splits the protrusion into a first part and a second part , and the slot of the arm arbor is positioned 30 degrees from the first abutment feature of the c arm , and the spring support of the arm arbor is positioned at or between 90 degrees through 180 degrees from the first abutment feature .
A radio wave measurement method in which a transmitter and a receiver are used, the receiver comprising a housing of a polyhedron that includes one main reception surface (MPL1) and a plurality of sub-reception surfaces (SPL1-SPL4), wherein a reception antenna is provided on the one main reception surface (MPL1) and different reception antennas (2v-6v) are provided on the plurality of sub-reception surfaces (SPL1-SPL4), the radio wave measurement method comprising steps of: transmitting (St1) a radio wave (WV1) from the transmitter ; receiving (St2) the radio wave (WV1) by the receiver through a scatterer (W1); measuring (St3), a plurality of times, reception qualities (STR1-STR5) of the radio waves (WV1) received by the reception antenna of the main reception surface (MPL1) and received respectively by the reception antennas (2v-6v) of the plurality of sub-reception surfaces (SPL1-SPL4) while changing (St5) a position of the receiver ; and determining (St6) a position of the receiver when the reception quality (STR1) of the radio wave (WV1) corresponding to the reception antenna of the main reception surface (MPL1) and the reception qualities (STR2-STR5) of the radio waves (WV1) corresponding to the plurality of sub-reception surfaces (SPL1-SPL4) satisfy (St4) a predetermined condition as a measurement position used for derivation (St7) of a material constant of the scatterer (W1). transmitting (St1) a radio wave (WV1) from the transmitter ; receiving (St2) the radio wave (WV1) by the receiver through a scatterer (W1); measuring (St3), a plurality of times, reception qualities (STR1-STR5) of the radio waves (WV1) received by the reception antenna of the main reception surface (MPL1) and received respectively by the reception antennas (2v-6v) of the plurality of sub-reception surfaces (SPL1-SPL4) while changing (St5) a position of the receiver ; and determining (St6) a position of the receiver when the reception quality (STR1) of the radio wave (WV1) corresponding to the reception antenna of the main reception surface (MPL1) and the reception qualities (STR2-STR5) of the radio waves (WV1) corresponding to the plurality of sub-reception surfaces (SPL1-SPL4) satisfy (St4) a predetermined condition as a measurement position used for derivation (St7) of a material constant of the scatterer (W1).
An epoxy resin composition comprising components (A) to (C) shown below: the component (A): an aliphatic epoxy resin having 1 hydroxyl group and 2 or more and 3 or less epoxy groups in a molecule; the component (B): an aliphatic epoxy resin having 0 hydroxyl groups and 3 epoxy groups in a molecule; and the component (C): a polyisocyanate compound, the epoxy resin composition satisfying formulae shown below: 0.125 ≤ A / B ≤ 3 and 0.2 < A + B / T ≤ 0.8 , wherein wherein A is parts by mass of the component (A), B is parts by mass of the component (B), and T is total parts by mass of an epoxy resin in the epoxy resin composition. the component (A): an aliphatic epoxy resin having 1 hydroxyl group and 2 or more and 3 or less epoxy groups in a molecule; the component (B): an aliphatic epoxy resin having 0 hydroxyl groups and 3 epoxy groups in a molecule; and the component (C): a polyisocyanate compound, the epoxy resin composition satisfying formulae shown below: 0.125 ≤ A / B ≤ 3 and 0.2 < A + B / T ≤ 0.8 , wherein wherein A is parts by mass of the component (A), B is parts by mass of the component (B), and T is total parts by mass of an epoxy resin in the epoxy resin composition. A is parts by mass of the component (A), B is parts by mass of the component (B), and T is total parts by mass of an epoxy resin in the epoxy resin composition.
Neutron shielding device comprising a plate consisting of steel and a layer on the plate , wherein in the layer one or more channels are present, said one or more channels having at least one inlet and at least one outlet , characterized in that the thermal conductivity of the layer is at least twice as great or at least five times as great as the thermal conductivity of the plate consisting of steel.
An organic light-emitting diode (OLED) display panel, comprising: a plurality of pixel units arranged in an array, in which each pixel unit includes an organic light-emitting element provided with a first light-emitting surface and a second light-emitting surface; and light shield layers configured to shield at least the first light-emitting surfaces of organic light-emitting elements of a portion of the pixel units ; wherein the light shield layers include first light shield layers and second light shield layers , in which the first light shield layers are configured to shield the first light-emitting surfaces of the organic light-emitting elements of a portion of the pixel units , and the second light shield layers are configured to shield the second light-emitting surfaces of organic light-emitting elements of the remaining pixel units except the pixel units shielded by the first light shield layers; characterized in that : the OLED display panel further comprises a first substrate and a second substrate ; wherein the pixel units are formed on one side of the first substrate , the one side facing the second substrate ; and the first light shield layers are disposed on an other side of the first substrate , the other side facing away from the second substrate , wherein the second light shield layers are disposed on one side of the second substrate , the one side facing away from the pixel units . a plurality of pixel units arranged in an array, in which each pixel unit includes an organic light-emitting element provided with a first light-emitting surface and a second light-emitting surface; and light shield layers configured to shield at least the first light-emitting surfaces of organic light-emitting elements of a portion of the pixel units ; wherein the light shield layers include first light shield layers and second light shield layers , in which the first light shield layers are configured to shield the first light-emitting surfaces of the organic light-emitting elements of a portion of the pixel units , and the second light shield layers are configured to shield the second light-emitting surfaces of organic light-emitting elements of the remaining pixel units except the pixel units shielded by the first light shield layers; the OLED display panel further comprises a first substrate and a second substrate ; wherein the pixel units are formed on one side of the first substrate , the one side facing the second substrate ; and the first light shield layers are disposed on an other side of the first substrate , the other side facing away from the second substrate , wherein the second light shield layers are disposed on one side of the second substrate , the one side facing away from the pixel units .
A Microelectromechanical system (MEMS) device comprising: a substrate ; a sacrificial layer deposited on the substrate ; a trench as an etched structure formed in a portion of the sacrificial layer ; a cap layer epitaxially grown in the trench and on the sacrificial layer ;access openings formed in a portion of the cap layer and a cavity formed between the cap layer and the substrate in a former portion of the sacrificial layer beneath the access openings ; a barrier layer deposited over the cap layer , walls of the access openings , and walls of the cavity ; and a refill material epitaxially grown over the barrier layer in the access openings to seal the access openings , wherein the refill material is polysilicon; wherein the barrier layer is formed from Aluminum Oxide (Al 2 O 3 ). a substrate ; a sacrificial layer deposited on the substrate ; a trench as an etched structure formed in a portion of the sacrificial layer ; a cap layer epitaxially grown in the trench and on the sacrificial layer ;access openings formed in a portion of the cap layer and a cavity formed between the cap layer and the substrate in a former portion of the sacrificial layer beneath the access openings ; a barrier layer deposited over the cap layer , walls of the access openings , and walls of the cavity ; and a refill material epitaxially grown over the barrier layer in the access openings to seal the access openings , wherein the refill material is polysilicon; wherein the barrier layer is formed from Aluminum Oxide (Al 2 O 3 ).
A compound of formula (I): including any stereochemically isomeric form thereof, wherein : Y is CH or N, I is 0 or 1, R 1 is a substituted or unsubstituted C 1 -C 6 alkyl or a substituted or unsubstituted aryl, R 2 and R 3 are independently of each other, are H, halogen, substituted or unsubstituted C 1 -C 6 alkyl, cycloalkyl, substituted or unsubstituted aryl, NO 2 , OH, CN, acyl, alkoxy, alkoxycarbonyl, SH, X is O or CH 2 , m is 1 or 2, n is 3, 4 or 5, or a pharmaceutically acceptable salt thereof. Y is CH or N, I is 0 or 1, R 1 is a substituted or unsubstituted C 1 -C 6 alkyl or a substituted or unsubstituted aryl, R 2 and R 3 are independently of each other, are H, halogen, substituted or unsubstituted C 1 -C 6 alkyl, cycloalkyl, substituted or unsubstituted aryl, NO 2 , OH, CN, acyl, alkoxy, alkoxycarbonyl, SH, X is O or CH 2 , m is 1 or 2, n is 3, 4 or 5, or a pharmaceutically acceptable salt thereof.