mhurhangee/ep-ind-claims huggingface dataset:
Tyre, in the uncured or cured state, of which the tread comprises: - a plurality of tread pattern features formed from a first rubber material referred to as base material, defined by cut-outs (3, 4); - these tread pattern features comprising a contact surface intended to come into contact with the road while the tyre is rolling, and at least one sidewall (13, 14, 15, 16); - on at least one sidewall of all or a portion of said tread pattern features, the base material being covered at least partially by a layer of a second rubber material referred to as coating material, different from the base material, that comprises at least one rubber composition, characterised in that said rubber composition of the coating material is heat-expandable and comprises between 2 and 25 phr of a blowing agent, in the tyre in the uncured state, in the form of foam rubber in the tyre in the cured state, and in that it comprises, in the tyre in the uncured state as in the cured state, at least: - 50 to 100 phr of a styrene unit and butadiene unit copolymer, of which the glass transition temperature is greater than -40°C; - optionally, 0 to 50 phr of another diene elastomer; - more than 50 phr of a reinforcing filler; - more than 25 phr of a hydrocarbon plastifying resin of which the glass transition temperature is greater than 20°C; - optionally, 0 to less than 20 phr of a liquid plastifying agent. - a plurality of tread pattern features formed from a first rubber material referred to as base material, defined by cut-outs (3, 4); - these tread pattern features comprising a contact surface intended to come into contact with the road while the tyre is rolling, and at least one sidewall (13, 14, 15, 16); - on at least one sidewall of all or a portion of said tread pattern features, the base material being covered at least partially by a layer of a second rubber material referred to as coating material, different from the base material, that comprises at least one rubber composition, - 50 to 100 phr of a styrene unit and butadiene unit copolymer, of which the glass transition temperature is greater than -40°C; - optionally, 0 to 50 phr of another diene elastomer; - more than 50 phr of a reinforcing filler; - more than 25 phr of a hydrocarbon plastifying resin of which the glass transition temperature is greater than 20°C; - optionally, 0 to less than 20 phr of a liquid plastifying agent.
A displacement detecting device, comprising: a light source configured to project light to an object to be examined, said light source being movable relative to the object to be examined; a first reflecting element being fixed to the object to be examined and including a reflection portion configured to reflect light from said light source and a non-reflection portion; a first light receiving element configured to receive light reflected by said first reflecting element; characterized by further comprising: a second reflecting element being fixed to the object to be examined and including a reflection portion configured to reflect light from said light source and a non-reflection portion; and a second light receiving element configured to receive light reflected by said second reflecting element; wherein said second reflecting element is disposed at a light path through which at least a portion of light projected from said light source and advancing via said first reflecting element is directed to said second light receiving element. a light source configured to project light to an object to be examined, said light source being movable relative to the object to be examined; a first reflecting element being fixed to the object to be examined and including a reflection portion configured to reflect light from said light source and a non-reflection portion; a first light receiving element configured to receive light reflected by said first reflecting element; characterized by further comprising: a second reflecting element being fixed to the object to be examined and including a reflection portion configured to reflect light from said light source and a non-reflection portion; and a second light receiving element configured to receive light reflected by said second reflecting element; a second reflecting element being fixed to the object to be examined and including a reflection portion configured to reflect light from said light source and a non-reflection portion; and a second light receiving element configured to receive light reflected by said second reflecting element; wherein said second reflecting element is disposed at a light path through which at least a portion of light projected from said light source and advancing via said first reflecting element is directed to said second light receiving element.
A passive two-phase cooling circuit having a vaporiser and a condenser for a coolant conducted in the cooling circuit, a vaporiser supply line and a vaporiser discharge line being connected to the vaporiser, and a condenser supply line and a condenser discharge line being connected to the condenser, the vaporiser supply line, the vaporiser discharge line, the condenser supply line and the condenser discharge line further being connected to a common damping container, a liquid column of liquid coolant forming in the condenser discharge line during operation of the cooling circuit, which liquid column assumes the function of a liquid seal and the function of a fluid-dynamic vibration damper characterised in that the condenser discharge line feeds into the cover region of the damping container and comprises a pipe portion projecting into the internal space of the damping container, in which the liquid seal is realized.
A power generation system having a gas turbine engine that utilizes sunlight, the power generation system comprising: a compressor configured to compress an air which is a working medium; a solar heater configured to heat the air compressed by the compressor, utilizing sunlight as a heat source; a hydrogen combustor configured to burn the air compressed by the compressor, utilizing hydrogen as a fuel; a turbine configured to output a motive power from a high-temperature gas heated by at least one of the solar heater and the hydrogen combustor; a power generator configured to be driven by the turbine; characterized by further comprising an electrolysis hydrogen-generating unit configured to generate hydrogen by performing electrolysis of a water utilizing power generated by the power generator, and supply the hydrogen so generated to the hydrogen combustor; and a pyrolysis hydrogen-generating unit configured to generate hydrogen by utilizing an exhaust gas from the turbine to pyrolyze a water; and a compressed air preheating path configured to preheat the air compressed by the compressor, utilizing a heat generated in the pyrolysis hydrogen-generating unit. a compressor configured to compress an air which is a working medium; a solar heater configured to heat the air compressed by the compressor, utilizing sunlight as a heat source; a hydrogen combustor configured to burn the air compressed by the compressor, utilizing hydrogen as a fuel; a turbine configured to output a motive power from a high-temperature gas heated by at least one of the solar heater and the hydrogen combustor; a power generator configured to be driven by the turbine; characterized by further comprising an electrolysis hydrogen-generating unit configured to generate hydrogen by performing electrolysis of a water utilizing power generated by the power generator, and supply the hydrogen so generated to the hydrogen combustor; and a pyrolysis hydrogen-generating unit configured to generate hydrogen by utilizing an exhaust gas from the turbine to pyrolyze a water; and a compressed air preheating path configured to preheat the air compressed by the compressor, utilizing a heat generated in the pyrolysis hydrogen-generating unit.
System for the collection and provision of three-dimensional characteristic data of the bone, soft tissue and mouth situation of a patient, with a field generator for generating a reference field varying in a space zone at least in the vicinity of said field generator regionally in a characteristic way such that said reference field has specific properties depending on the position and with a number of sensors associated to said field generator, each generating a data set characteristic for their current position in space, depending on their properties present in their respective positions of the reference field generated by said field generator, and connected to a common analysis unit on the data side, at least one of the sensors being configured as sensing sensor, mounted on a handgrip equipped with a grip surface and being activatable via a manual control element to collect measurement data sets and at least one of said sensors being configured as drill monitoring sensor and being mounted on an angle piece provided as a carrier for a dentist drill and wherein said analysis unit is configured to determine position data sets by comparison of measurement data sets collected by said sensing sensor respectively by said drill monitoring sensor with a reference data set collected simultaneously by a reference sensor, said sensor configured as a reference sensor being firmly mounted in the carrier anchorable in the patient's mouth.
Alarm system element comprising a casing and an electronic board arranged inside the casing, said electronic board comprising a breaker switch provided with a control member, said casing comprising a base and a cover that can be detached from said base, the alarm system element further comprising an actuating element comprising a baseplate as well as an actuating rod acting on the control member, said base comprising a first fixing face, the alarm system element further comprising a first double-sided self-adhesive sticker with a first self-adhesive face and a second self-adhesive face, said first self-adhesive face being stuck to the first fixing face, characterized by a second double-sided self-adhesive sticker with a third self-adhesive face and a fourth self-adhesive face, the baseplate comprising a second fixing face to which the third self-adhesive face is stuck.
A method of initiating a base station router device, comprising: automatically registering a base station router device at a communication server by authenticating an identification code of the base station router device; automatically configuring the base station router device, wherein the configuration comprises setting at least an initial parameter for a scrambling code and/or pseudo noise offset at the base station router device, a frequency and a transmit power of the registered base station router device; selecting a first base station router device scrambling code and/or pseudo noise offset; transmitting at a power level adapted to be adequate to connect with a mobile station in the same building as the base station router device; determining whether a connection with a mobile station is made; gathering the information from the mobile station if the connection is made; and selecting a second base station router device scrambling code and/or pseudo noise offset if the connection is not made and performing the transmitting step using the second base station router device scrambling code and/or pseudo noise offset. automatically registering a base station router device at a communication server by authenticating an identification code of the base station router device; automatically configuring the base station router device, wherein the configuration comprises setting at least an initial parameter for a scrambling code and/or pseudo noise offset at the base station router device, a frequency and a transmit power of the registered base station router device; selecting a first base station router device scrambling code and/or pseudo noise offset; transmitting at a power level adapted to be adequate to connect with a mobile station in the same building as the base station router device; determining whether a connection with a mobile station is made; gathering the information from the mobile station if the connection is made; and selecting a second base station router device scrambling code and/or pseudo noise offset if the connection is not made and performing the transmitting step using the second base station router device scrambling code and/or pseudo noise offset.
Apparatus (100, 200) for generating training data for two-dimensional scans of a ground radar system, wherein the apparatus (100, 200) comprises an interference object extractor that is configured to determine a quotient image (230a, 360, 360') with a reference image (110b, 340, 340') from a source GPR image (110a, 330, 330') and to extract at least one interference object (110c, 620) on the basis of the quotient image; and wherein the apparatus (100, 200) comprises a result image generator that is configured to generate at least one result GPR image (120a, 470) for the source GPR image (110a, 330, 330') on the basis of the at least one extracted interference object (110c, 620) in order to generate the training data. wherein the apparatus (100, 200) comprises an interference object extractor that is configured to determine a quotient image (230a, 360, 360') with a reference image (110b, 340, 340') from a source GPR image (110a, 330, 330') and to extract at least one interference object (110c, 620) on the basis of the quotient image; and wherein the apparatus (100, 200) comprises a result image generator that is configured to generate at least one result GPR image (120a, 470) for the source GPR image (110a, 330, 330') on the basis of the at least one extracted interference object (110c, 620) in order to generate the training data.
A heel retainer, comprising: a) a base structure (2, 2*) for connecting the heel retainer to a ski; b) a housing (3, 4) comprising a first housing part (3, 3*), which is or can be connected to the base structure (2, 2*), and a second housing part which is or can be connected to the first housing part (3, 3*), such that the second housing part can be moved relative to the first housing part (3, 3*), preferably in order to laterally release the heel retainer; c) a sole retainer which is or can be connected to the second housing part or is formed in part by the second housing part; and d) a device for predetermining the release characteristics when the heel retainer is laterally released, comprising a linkage or a receptacle for a control body; e) a separate functional element which includes the device and which cannot be moved relative to the first housing part (3, 3*) when the heel retainer is being used; and f) a pushing spring which allows the sole retainer to yield linearly when the ski flexes, wherein the pushing spring is supported on the first housing part or on the separate functional element, characterised in that g) the separate functional element forms at least one cage in which the pushing spring is arranged. a) a base structure (2, 2*) for connecting the heel retainer to a ski; b) a housing (3, 4) comprising a first housing part (3, 3*), which is or can be connected to the base structure (2, 2*), and a second housing part which is or can be connected to the first housing part (3, 3*), such that the second housing part can be moved relative to the first housing part (3, 3*), preferably in order to laterally release the heel retainer; c) a sole retainer which is or can be connected to the second housing part or is formed in part by the second housing part; and d) a device for predetermining the release characteristics when the heel retainer is laterally released, comprising a linkage or a receptacle for a control body; e) a separate functional element which includes the device and which cannot be moved relative to the first housing part (3, 3*) when the heel retainer is being used; and f) a pushing spring which allows the sole retainer to yield linearly when the ski flexes, wherein the pushing spring is supported on the first housing part or on the separate functional element,
An intraosseous screw (1; 101; 201), intended to attach to a bone a bone fragment for an osteosynthesis or a transplant for a ligament surgery, the intraosseous screw (1; 101; 201) comprising: - at least one external thread (2; 102; 202) which is formed by a plurality of nets (4; 104; 204) and which extends along a helix called outer helix about a longitudinal axis; - a housing which extends inside the external thread (2; 102; 202) and generally parallel to the longitudinal axis; and - connecting means arranged to connect the nets (4; 104; 204) together; the connecting means comprising spacers (10; 110; 210), each spacer (10; 110; 210) preferably connecting at least two consecutive nets (4; 104; 204), the spacers (10; 110; 210) being arranged to define a plurality of through holes (12; 112; 212) which open into the housing, the housing delimiting a hollow cylindrical volume which opens into at least one end of the external thread (2; 102) and being shaped to house, after screwing of the intraosseous screw (1; 101; 201) in the bone, a portion of a cylindrical bone, the intraosseous screw being characterized in that the hollow cylindrical volume has a diameter substantially equal to the internal diameter of the end portion of the external thread. - at least one external thread (2; 102; 202) which is formed by a plurality of nets (4; 104; 204) and which extends along a helix called outer helix about a longitudinal axis; - a housing which extends inside the external thread (2; 102; 202) and generally parallel to the longitudinal axis; and - connecting means arranged to connect the nets (4; 104; 204) together;
Method for producing butadiene from butanol that comprises at least the following steps: a) Dehydration of said butanol, fed by a dehydration feed that is formed from at least said n-butanol feedstock that is diluted with at least a portion of the purified water effluent that is obtained from step c), leading to a butene effluent in at least one reactor, in the presence of a catalyst that comprises an alumina, b) Oxidizing dehydrogenation of said butene effluent, diluted with at least a portion of the purified water effluent that is obtained from step c), into butadiene, with said butene effluent not having undergone any treatment following the dehydration step a), c) Separation of the effluent that is obtained from step b) into at least one butadiene effluent and one purified water effluent, wherein at least a portion of the necessary thermal energy is supplied by the dehydrogenation reaction of step b), with the high temperature of the butadiene effluent exiting the dehydrogenation step making it possible to preheat or to heat the streams that enter and/or exit from the dehydration step a) and/or to vaporize the n-butanol feedstock and/or to vaporize a portion of the dilution water of the feedstock. a) Dehydration of said butanol, fed by a dehydration feed that is formed from at least said n-butanol feedstock that is diluted with at least a portion of the purified water effluent that is obtained from step c), leading to a butene effluent in at least one reactor, in the presence of a catalyst that comprises an alumina, b) Oxidizing dehydrogenation of said butene effluent, diluted with at least a portion of the purified water effluent that is obtained from step c), into butadiene, with said butene effluent not having undergone any treatment following the dehydration step a), c) Separation of the effluent that is obtained from step b) into at least one butadiene effluent and one purified water effluent,
A bonder comprising: a first chuck unit and a second chuck unit as chuck units in a pair including respective suction surfaces (11a, 11b) for suction of bonding targets, the first chuck unit and the second chuck unit being arranged with the respective suction surfaces (11a, 11b) facing each other; a first base and a second base that support the first chuck unit and the second chuck unit respectively; and a first floating mechanism that applies gas pressure to the back surface of the first chuck unit to float the first chuck unit from the first base, thereby moving the suction surface of the first chuck unit toward the suction surface of the second chuck unit, characterized in that the first chuck unit comprises a shaft that projects from the back surface of the first chuck unit, in that the first base comprises a recessed receiver into which the shaft of the first chuck unit is slidably inserted to prevent a center position of the first chuck unit from deviating from a predetermined position while the first chuck unit is floated, and in that a play for permitting slight tilt of the suction surface of the first chuck unit is provided between the shaft of the first chuck unit and the receiver of the first base. a first chuck unit and a second chuck unit as chuck units in a pair including respective suction surfaces (11a, 11b) for suction of bonding targets, the first chuck unit and the second chuck unit being arranged with the respective suction surfaces (11a, 11b) facing each other; a first base and a second base that support the first chuck unit and the second chuck unit respectively; and a first floating mechanism that applies gas pressure to the back surface of the first chuck unit to float the first chuck unit from the first base, thereby moving the suction surface of the first chuck unit toward the suction surface of the second chuck unit, characterized in that the first chuck unit comprises a shaft that projects from the back surface of the first chuck unit, in that the first base comprises a recessed receiver into which the shaft of the first chuck unit is slidably inserted to prevent a center position of the first chuck unit from deviating from a predetermined position while the first chuck unit is floated, and in that a play for permitting slight tilt of the suction surface of the first chuck unit is provided between the shaft of the first chuck unit and the receiver of the first base.
A reciprocating tool including a plunger holding a tip tool, a motor reciprocating the plunger in a first direction, and a housing accommodating the motor, the reciprocating tool comprising: a power transmission member configured to revolve around a center line of rotation with the power of the motor; a conversion mechanism (25, 26, 64, 65) configured to convert a revolving force of the power transmission member into a force for reciprocating the connector member in the first direction; a guide member fixed to the housing and provided along the first direction; and a connector member sandwiching the guide member and reciprocating in the first direction when power of the motor is transmitted to the connector member, characterized in that the connector member comprises a support portion (38, 39, 66, 67) which is protruding in a plane that includes an axis of the plunger and a center line of the power transmission member, the plunger is attached to the connector member and is capable of reciprocating in the first direction with the connector member, and the connector member is supported by the support portion (38, 39, 66, 67) rockably and slidably with respect to the guide member, and supports the plunger and the tip tool. a power transmission member configured to revolve around a center line of rotation with the power of the motor; a conversion mechanism (25, 26, 64, 65) configured to convert a revolving force of the power transmission member into a force for reciprocating the connector member in the first direction; a guide member fixed to the housing and provided along the first direction; and a connector member sandwiching the guide member and reciprocating in the first direction when power of the motor is transmitted to the connector member, characterized in that the connector member comprises a support portion (38, 39, 66, 67) which is protruding in a plane that includes an axis of the plunger and a center line of the power transmission member, the plunger is attached to the connector member and is capable of reciprocating in the first direction with the connector member, and the connector member is supported by the support portion (38, 39, 66, 67) rockably and slidably with respect to the guide member, and supports the plunger and the tip tool.