mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a confidence indicator relating to the trajectory of a moving object equipped with a receiver capable of estimating the position of said moving object on the basis of the reception of GNSS navigation signals transmitted by a satellite constellation, said navigation signals being modulated by a code and said receiver comprising a local replica of said code, said method comprising a preliminary step that involves estimating successive positions of said receiver at various position measurement instants and identifying a trajectory segment R1 passing in the vicinity of the successive estimated positions, said method being characterised in that said trajectory segment R1 is estimated using mapping means and in that it further comprises the following steps: a. determining successive auto-correlation functions between said received navigation signals and said local replica of said code; b. making an assumption with respect to the displacement speed of said receiver over the identified trajectory segment R1; c. deducing a Doppler delay function, from the assumption with respect to the displacement speed of said receiver, that corresponds to the movement of said receiver; d. applying said Doppler delay function to each auto-correlation function determined during step c and deducing corrected auto-correlation functions therefrom; e. adding said corrected auto-correlation functions, with the result of the addition corresponding to the corrected auto-correlation function R̂ ( τ) of said navigation signal; f. comparing the result of the addition of said corrected auto-correlation functions R̂ ( τ) with a theoretical auto-correlation function R Theo ( τ) and deducing therefrom a confidence indicator that the identified trajectory segment corresponds to the actual trajectory followed by said moving object equipped with said receiver. a. determining successive auto-correlation functions between said received navigation signals and said local replica of said code; b. making an assumption with respect to the displacement speed of said receiver over the identified trajectory segment R1; c. deducing a Doppler delay function, from the assumption with respect to the displacement speed of said receiver, that corresponds to the movement of said receiver; d. applying said Doppler delay function to each auto-correlation function determined during step c and deducing corrected auto-correlation functions therefrom; e. adding said corrected auto-correlation functions, with the result of the addition corresponding to the corrected auto-correlation function R̂ ( τ) of said navigation signal; f. comparing the result of the addition of said corrected auto-correlation functions R̂ ( τ) with a theoretical auto-correlation function R Theo ( τ) and deducing therefrom a confidence indicator that the identified trajectory segment corresponds to the actual trajectory followed by said moving object equipped with said receiver.
A composition comprising a film, the film comprising: a first shielding polymer layer, a middle decorative polymer layer, and a second shielding polymer layer, wherein the first and second shielding layers obscure at least a portion of middle decorative layer and are adapted to reveal the middle decorative layer upon use of the composition, and wherein the composition is an oral care composition, a home care composition, or a personal care composition. a first shielding polymer layer, a middle decorative polymer layer, and a second shielding polymer layer, wherein the first and second shielding layers obscure at least a portion of middle decorative layer and are adapted to reveal the middle decorative layer upon use of the composition, and wherein the composition is an oral care composition, a home care composition, or a personal care composition.
A lignan-type compound for use in skin whitening, wherein the lignan-type compound is selected from the group consisting of the compounds represented by the following Chemical Formulas 1 to 3
Shock-absorbing bearing for an arbor of a wheel of a timepiece, said arbor comprising a pivot-shank, said bearing comprising a support (1, 101) provided with a housing (6, 106) designed to receive a pivot system comprising a pivot assembly in which the pivot-shank is inserted, and elastic means arranged to mount said pivot assembly in a suspended fashion and to exert at least an axial force on said pivot system, the elastic means being produced from an elastomer material and characterised in that said bearing further comprises a premounting element in which the pivot assembly and the elastic means are inserted so as to facilitate the manipulation and mounting of the pivot system, the premounting element comprising an internal wall, the pivot system comprising an external wall, and in that the internal wall of the premounting element and the external wall of the pivot system have structurings (117, 118), and in that the structurings comprise a male part or a female part.
An aerosol generating apparatus comprising: a housing; a heater (130, 420) configured to heat an aerosol generating material inserted into the housing; an optical sensor configured to sense an optical signal reflected from a user's hand; and a processor (120, 450) configured to: obtain fingerprint information of a user from the optical signal sensed by the optical sensor, determine whether the user is authorized to use the aerosol generating apparatus based on the obtained fingerprint information, obtain heart rate information from the sensed optical signal based on the user being determined to be an authorized user, and control power supplied to the heater (130, 420) based on the heart rate information. a housing; a heater (130, 420) configured to heat an aerosol generating material inserted into the housing; an optical sensor configured to sense an optical signal reflected from a user's hand; and a processor (120, 450) configured to: obtain fingerprint information of a user from the optical signal sensed by the optical sensor, determine whether the user is authorized to use the aerosol generating apparatus based on the obtained fingerprint information, obtain heart rate information from the sensed optical signal based on the user being determined to be an authorized user, and control power supplied to the heater (130, 420) based on the heart rate information. obtain fingerprint information of a user from the optical signal sensed by the optical sensor, determine whether the user is authorized to use the aerosol generating apparatus based on the obtained fingerprint information, obtain heart rate information from the sensed optical signal based on the user being determined to be an authorized user, and control power supplied to the heater (130, 420) based on the heart rate information.
A method of generating a dynamic light effect on a light source array, the light source array comprising a plurality of individually controllable light sources, the method comprising: - obtaining or generating a vector, wherein the vector has a plurality of behavior parameters comprising at least a speed and a direction, and the vector has one or more appearance parameters comprising at least a color and/or a brightness, - mapping the vector onto the light source array over time according to the behavior parameters of the vector, and - controlling the light output of the plurality of light sources over time according to the mapping of the vector onto the light source array and according to the one or more appearance parameters of the vector, wherein an area of influence is mapped onto the light source array, and wherein the method further comprises: - changing at least one behavior parameter and/or at least one appearance parameter of the vector if the vector is located in the area of influence, or - generating at least one additional vector if the vector is located in the area of influence, the method being characterized in that the area of influence is mapped at a location relative to the light source array based on a user input indicative of a selection of an input location relative to the light source array, and wherein the light source array comprises one or more sensors for receiving the user input. - obtaining or generating a vector, wherein the vector has a plurality of behavior parameters comprising at least a speed and a direction, and the vector has one or more appearance parameters comprising at least a color and/or a brightness, - mapping the vector onto the light source array over time according to the behavior parameters of the vector, and - controlling the light output of the plurality of light sources over time according to the mapping of the vector onto the light source array and according to the one or more appearance parameters of the vector, wherein an area of influence is mapped onto the light source array, and wherein the method further comprises: - changing at least one behavior parameter and/or at least one appearance parameter of the vector if the vector is located in the area of influence, or - generating at least one additional vector if the vector is located in the area of influence, the method being characterized in that the area of influence is mapped at a location relative to the light source array based on a user input indicative of a selection of an input location relative to the light source array, and wherein the light source array comprises one or more sensors for receiving the user input.
A heat dissipation structure, comprising: a first body, a second body, a heat dissipation member and a connection member, wherein a first end of the connection member is fixedly connected to the first body, a second end of the connection member is fixedly connected to the second body, and the heat dissipation member is disposed in the middle of the connection member along a length direction of the connection member and is located between the first body and the second body, the heat dissipation member comprises a first heat sink and a second heat sink; the first heat sink is located on a side of the first body; the second heat sink is located on a side of the second body, and the heat dissipation structure further comprises an elastic member, characterized in that, the elastic member, the first heat sink and the second heat sink are all sleeved in the middle of the connection member, the elastic member is configured to abut against each of the first heat sink and the second heat sink, the first heat sink is fixed in position with respect to one end of the elastic member, and the second heat sink is fixed in position with respect to another end of the elastic member, the first heat sink is movable along the connection member via deformation of the elastic member, and the first heat sink has a distance, which is within a first preset distance range, from the first body, and the second heat sink is movable along the connection member via deformation of the elastic member, and the second heat sink has a distance, which is within a second preset distance range, from the second body. a first end of the connection member is fixedly connected to the first body, a second end of the connection member is fixedly connected to the second body, and the heat dissipation member is disposed in the middle of the connection member along a length direction of the connection member and is located between the first body and the second body, the heat dissipation member comprises a first heat sink and a second heat sink; the first heat sink is located on a side of the first body; the second heat sink is located on a side of the second body, and the heat dissipation structure further comprises an elastic member, characterized in that, the elastic member, the first heat sink and the second heat sink are all sleeved in the middle of the connection member, the elastic member is configured to abut against each of the first heat sink and the second heat sink, the first heat sink is fixed in position with respect to one end of the elastic member, and the second heat sink is fixed in position with respect to another end of the elastic member, the first heat sink is movable along the connection member via deformation of the elastic member, and the first heat sink has a distance, which is within a first preset distance range, from the first body, and the second heat sink is movable along the connection member via deformation of the elastic member, and the second heat sink has a distance, which is within a second preset distance range, from the second body.
Preparation, comprising a) from 5 to 50% by weight of triacetin and b) from 50 to 95% by weight of one or more plasticizers from the group of isononyl benzoate, di-2-ethylhexyl adipate, tributyl citrate, diisononyl 1,2-cyclohexanedicarboxylate, di-2-ethylhexyl terephthalate, diphenyl cresyl phosphate, tri-2-ethylhexyl phosphate, phenyl esters of alkanesulphonic acids (CAS 091082-17-6). a) from 5 to 50% by weight of triacetin and b) from 50 to 95% by weight of one or more plasticizers from the group of isononyl benzoate, di-2-ethylhexyl adipate, tributyl citrate, diisononyl 1,2-cyclohexanedicarboxylate, di-2-ethylhexyl terephthalate, diphenyl cresyl phosphate, tri-2-ethylhexyl phosphate, phenyl esters of alkanesulphonic acids (CAS 091082-17-6).
A thermoacoustic electric generator system comprising: a tube component that is configured by including an annular tube and a branched tube branched from the annular tube and communicating with the annular tube and, in which specified working gas is enclosed in both of the annular tube and the branched tube; a thermoacoustic engine that includes: a stack incorporated in an inside of the annular tube in the tube component and having plural channels, each of which extends in a tube longitudinal direction; and a heat exchanger exchanging heat with the working gas such that a temperature gradient is generated between both ends of each of the plural channels in the stack, so as to cause thermoacoustic oscillation of the working gas; a turbine that includes: a turbine blade provided in an inside of the branched tube in the tube component and rotating by the thermoacoustic oscillation of the working gas in the thermoacoustic engine; and a turbine rotational shaft configured to be coupled to the turbine blade, penetrate a tube wall of the branched tube, and extend from the inside to an outside thereof; characterized by a generator provided on the outside of the branched tube in the tube component, coupled to the turbine rotational shaft of the turbine, and converting rotational energy of the turbine blade to electric energy, and in that the branched tube includes a crank tube section that is bent in a crank shape, and the turbine rotational shaft of the turbine is configured to extend in the same direction as an axial direction of the branched tube while penetrating a tube wall of the crank tube section. a tube component that is configured by including an annular tube and a branched tube branched from the annular tube and communicating with the annular tube and, in which specified working gas is enclosed in both of the annular tube and the branched tube; a thermoacoustic engine that includes: a stack incorporated in an inside of the annular tube in the tube component and having plural channels, each of which extends in a tube longitudinal direction; and a heat exchanger exchanging heat with the working gas such that a temperature gradient is generated between both ends of each of the plural channels in the stack, so as to cause thermoacoustic oscillation of the working gas; a turbine that includes: a turbine blade provided in an inside of the branched tube in the tube component and rotating by the thermoacoustic oscillation of the working gas in the thermoacoustic engine; and a turbine rotational shaft configured to be coupled to the turbine blade, penetrate a tube wall of the branched tube, and extend from the inside to an outside thereof; characterized by a generator provided on the outside of the branched tube in the tube component, coupled to the turbine rotational shaft of the turbine, and converting rotational energy of the turbine blade to electric energy, and in that the branched tube includes a crank tube section that is bent in a crank shape, and the turbine rotational shaft of the turbine is configured to extend in the same direction as an axial direction of the branched tube while penetrating a tube wall of the crank tube section.
Distribution device for a pneumatically operated agricultural distribution machine, comprising - a distribution chamber having an inlet and a plurality of outlets, and - a distribution rotor which is arranged in the distribution chamber and is designed to perform a rotational movement during operation of the distribution machine and to distribute granular material flowing into the distribution chamber via the inlet to the outlets of the distribution chamber, the distribution rotor having a plurality of outwardly extending guide elements (46, 54) which are arranged at least over a large part of the circumference, in particular the entire circumference, around an inflow region in the distribution chamber which adjoins the inlet of the distribution chamber, characterized in that - radially inner end portions of a first group of guide elements are arranged on a first common circular path (B1a), and - radially inner end portions of a second group of guide elements are arranged on a second common circular path (B1b), wherein the second circular path (B1b) has a larger diameter than the first circular path (B1a). - a distribution chamber having an inlet and a plurality of outlets, and - a distribution rotor which is arranged in the distribution chamber and is designed to perform a rotational movement during operation of the distribution machine and to distribute granular material flowing into the distribution chamber via the inlet to the outlets of the distribution chamber, the distribution rotor having a plurality of outwardly extending guide elements (46, 54) which are arranged at least over a large part of the circumference, in particular the entire circumference, around an inflow region in the distribution chamber which adjoins the inlet of the distribution chamber, characterized in that the distribution rotor having a plurality of outwardly extending guide elements (46, 54) which are arranged at least over a large part of the circumference, in particular the entire circumference, around an inflow region in the distribution chamber which adjoins the inlet of the distribution chamber, characterized in that - radially inner end portions of a first group of guide elements are arranged on a first common circular path (B1a), and - radially inner end portions of a second group of guide elements are arranged on a second common circular path (B1b),
A molding material mixture for producing casting molds for metalworking, comprising at least: - a refractory mold raw material; - a binder based on water glass; - a proportion of a particulate metal oxide selected from the group consisting of silicon dioxide, aluminum oxide, titanium oxide and zinc oxide; characterized in that a proportion of a phosphorus-containing compound is added to the molding material mixture. - a refractory mold raw material; - a binder based on water glass; - a proportion of a particulate metal oxide selected from the group consisting of silicon dioxide, aluminum oxide, titanium oxide and zinc oxide;
A gas turbine engine comprising: a combustor section; a low spool along an engine axis with a fan section; a high spool along said engine axis with a high pressure compressor section and a high pressure turbine section, said high pressure compressor section forward of said combustor section; and an intercooling turbine section forward of said combustor section and rotatable about said engine axis; characterised in that: said low spool includes a low pressure compressor section, said low pressure compressor section producing a core flow; said intercooling turbine section is situated in flow communication with and axially between said low pressure compressor section and said high pressure compressor section; and by further comprising: an intercooling turbine section bypass to selectively bypass at least a portion of said core flow through an intercooling turbine section bypass path around said intercooling turbine section, the remainder of the core flow passing through the intercooling turbine section along a core flow path. a combustor section; a low spool along an engine axis with a fan section; a high spool along said engine axis with a high pressure compressor section and a high pressure turbine section, said high pressure compressor section forward of said combustor section; and an intercooling turbine section forward of said combustor section and rotatable about said engine axis; characterised in that: said low spool includes a low pressure compressor section, said low pressure compressor section producing a core flow; said intercooling turbine section is situated in flow communication with and axially between said low pressure compressor section and said high pressure compressor section; and by further comprising: an intercooling turbine section bypass to selectively bypass at least a portion of said core flow through an intercooling turbine section bypass path around said intercooling turbine section, the remainder of the core flow passing through the intercooling turbine section along a core flow path. said low spool includes a low pressure compressor section, said low pressure compressor section producing a core flow; said intercooling turbine section is situated in flow communication with and axially between said low pressure compressor section and said high pressure compressor section; and by further comprising: an intercooling turbine section bypass to selectively bypass at least a portion of said core flow through an intercooling turbine section bypass path around said intercooling turbine section, the remainder of the core flow passing through the intercooling turbine section along a core flow path.
An electric assist bicycle comprising a motor drive unit with a motor, the electric assist bicycle being capable of traveling with a combination of a human driving force generated by a pedal force from a pedal and an auxiliary driving force generated by the motor, wherein the electric assist bicycle comprises a crank shaft that receives the human driving force transmitted from the pedal and rotates about a different axis from the motor, the crank shaft has a human-power transmission member on an outer periphery of the crank shaft, the human-power transmission member receiving the transmitted human driving force, the crank shaft has a resultant-force transmission member on the outer periphery of the crank shaft, the resultant-force transmission member receiving a resultant force of the human driving force and the auxiliary driving force from the motor, and the motor drive unit includes a planet gear mechanism that changes a gear for the resultant force of the human driving force and the auxiliary driving force from the motor, wherein the planet gear mechanism includes an internal gear that inputs the resultant force of the human driving force and the auxiliary driving force from the motor, and a carrier that outputs the resultant force with a variable speed, characterized by the electric assist bicycle further comprising a transmission clutch that switches the internal gear and the carrier between an integral rotation state and a non-integral rotation state.