mhurhangee/patent-ind-claim-en huggingface dataset:
A polysilicon feeder for supplying polysilicon to a growth chamber for growing a single crystal ingot from a melt, the polysilicon feeder comprising: a tube for supplying polysilicon exiting an interchangeable tray to the growth chamber; one or more support rails for receiving the interchangeable tray ; a vibrator that vibrates the interchangeable tray , the interchangeable tray and vibrator being rotatable with respect to the tube and rotating between a feeding position, in which an exit of the interchangeable tray is positioned above the tube such that polysilicon may enter the growth chamber, and a parked position, in which the tray may be interchanged; and a feed material reservoir positioned above the support rail to feed the tray . a tube for supplying polysilicon exiting an interchangeable tray to the growth chamber; one or more support rails for receiving the interchangeable tray ; a vibrator that vibrates the interchangeable tray , the interchangeable tray and vibrator being rotatable with respect to the tube and rotating between a feeding position, in which an exit of the interchangeable tray is positioned above the tube such that polysilicon may enter the growth chamber, and a parked position, in which the tray may be interchanged; and a feed material reservoir positioned above the support rail to feed the tray .
An information processing apparatus comprising: acquisition means for acquiring usage authorization information indicating authority to use any one of a plurality of types of devices , in response to an operation request not dependent on a type of the device , based on user identification information of a user requesting an operation; specifying means for specifying, based on the acquired usage authorization information, user account information with respect to the device related to the operation request; and operation means to cause the device to process the requested operation through a unique API of the device , based on the specified account information, wherein the unique API of the device is unique to the type of the device , and wherein the specifying means specifies user account information for the type of device corresponding to the operation request from a third storage unit that stores the account information in association with a combination of the type of device and the usage authorization information. acquisition means for acquiring usage authorization information indicating authority to use any one of a plurality of types of devices , in response to an operation request not dependent on a type of the device , based on user identification information of a user requesting an operation; specifying means for specifying, based on the acquired usage authorization information, user account information with respect to the device related to the operation request; and operation means to cause the device to process the requested operation through a unique API of the device , based on the specified account information, wherein the unique API of the device is unique to the type of the device , and wherein the specifying means specifies user account information for the type of device corresponding to the operation request from a third storage unit that stores the account information in association with a combination of the type of device and the usage authorization information.
A heat alarm unit comprising: a housing defining a chamber and an opening in fluid communication with the chamber, wherein the opening is centered to a central axis ; a shuttle outwardly and axially biased and extending through the opening; a touch pad axially spaced from and engaged to the shuttle, wherein the touch pad is visually exposed through the housing for pressing by user to perform a heat alarm test; a heat sensor element disposed axially between the touch pad and the shuttle, wherein the heat sensor element is centered to the central axis; and an electrical heat sensor lead electrically connected to the heat sensor element and attached to the shuttle, wherein the electrical heat sensor lead provides the structural positioning of the heat sensor element; wherein the shuttle includes a base portion and a collet configured to snap fit axially into the base portion , the electrical heat sensor lead rigidly attached to the collet ; and wherein the base portion functions as a thermal barrier, or heat shield, between the chamber and an outside environment. a housing defining a chamber and an opening in fluid communication with the chamber, wherein the opening is centered to a central axis ; a shuttle outwardly and axially biased and extending through the opening; a touch pad axially spaced from and engaged to the shuttle, wherein the touch pad is visually exposed through the housing for pressing by user to perform a heat alarm test; a heat sensor element disposed axially between the touch pad and the shuttle, wherein the heat sensor element is centered to the central axis; and an electrical heat sensor lead electrically connected to the heat sensor element and attached to the shuttle, wherein the electrical heat sensor lead provides the structural positioning of the heat sensor element; wherein the shuttle includes a base portion and a collet configured to snap fit axially into the base portion , the electrical heat sensor lead rigidly attached to the collet ; and wherein the base portion functions as a thermal barrier, or heat shield, between the chamber and an outside environment.
A method of operating a wireless power transmitter , the method comprising: receiving power consumption information about the wireless power receiver from the wireless power receiver ; calculating a power loss based on the received power consumption information about the wireless power receiver ; and if the power loss exceeds a threshold, shutting down power transmission to the wireless power receiver ; wherein the power consumption information includes information about a power loss in a reception resonator of the wireless power receiver, a power loss caused by induction of the wireless power receiver, and a power applied to a rectifier of the wireless power receiver . receiving power consumption information about the wireless power receiver from the wireless power receiver ; calculating a power loss based on the received power consumption information about the wireless power receiver ; and
A method for calibrating a digital imager using a sequence of P input images (An) acquired beforehand by the imager, consisting of an image content and a non-uniformity defect, to which images a calibrating image (C_REF) is applied to obtain a sequence of P output images (Yn, ..., Yn-p), characterized in that the calibration is carried out by updating the calibrating image (C_REF) by estimating, in an iteration n, n being an integer higher than or equal to 1, an image (Cn) representative of the calibrating image (C_REF), wherein said representative image (Cn) is a patch of said non-uniformity defect, in that an initial image (C0) representative of the calibrating image (C_REF) is defined, in that a first mathematical transformation is chosen, having properties designed to separate the image content from said non-uniformity defect that is able to transform an output image (Yn) into an image (Zn), which is called the transform of the output image (Yn), and for which there is a second mathematical transformation, called inverse transformation, capable of transforming the transform of the output image (Zn) into the image (Yn), which is called the inverse transform (Zn) of the transform of the output image (Yn), and in that the estimation of the image (Cn) representative of the calibrating image (C_REF) comprises the following steps: • transforming at least one of the P output images (Yn), giving an image (Zn) of the transform of the output image (Yn); • estimating an image (MZn) representative of the transform of an image of a deviation (dCn) between the initial image (C0) representative of the calibrating image (C_REF) and the calibrating image (C_REF) from at least the representative image (MZn-1) of the preceding iteration and the image (Zn) of the transform of the most recent output image (Yn) in the sequence of the P images (Yn, ..., Yn-p) • inversely transforming , according to the second mathematical transformation, the representative image (MZn) to obtain the image of the deviation (dCn); • combining the initial image (C0) and the image of the deviation (dCn) and obtaining the image (Cn) representative of the calibrating image (C_REF). • transforming at least one of the P output images (Yn), giving an image (Zn) of the transform of the output image (Yn); • estimating an image (MZn) representative of the transform of an image of a deviation (dCn) between the initial image (C0) representative of the calibrating image (C_REF) and the calibrating image (C_REF) from at least the representative image (MZn-1) of the preceding iteration and the image (Zn) of the transform of the most recent output image (Yn) in the sequence of the P images (Yn, ..., Yn-p) • inversely transforming , according to the second mathematical transformation, the representative image (MZn) to obtain the image of the deviation (dCn); • combining the initial image (C0) and the image of the deviation (dCn) and obtaining the image (Cn) representative of the calibrating image (C_REF).
Method for manufacturing a wound fuel cell comprising: - a supporting strip , - an anodic insulating band , - a H 2 diffusion band , - a electrochemical cell carrying band , the anodes (A) of which are on a first side of the carrier band and the cathodes (K) of which are on a second side of the carrier band, and - a corrugated cathodic separating band , characterised in that it comprises: - a step of producing a winding mandrel including a device for H 2 fluid connection and for electric connection of a first end of the cell and including assembling a start end of the supporting strip to a holding flange integral with a winding spindle of the cell, the mandrel provided with the holding flange receiving first endings of said supporting strip , anodic insulating band , H 2 diffusion band , electrochemical cell carrying band and corrugated cathodic separating band , - a step of winding the cell for which the tension of the supporting strip between an unwinder and the mandrel is controlled so as to apply a calibrated pressure to the wound layers of the cell. - a supporting strip , - an anodic insulating band , - a H 2 diffusion band , - a electrochemical cell carrying band , the anodes (A) of which are on a first side of the carrier band and the cathodes (K) of which are on a second side of the carrier band, and - a corrugated cathodic separating band , - a step of producing a winding mandrel including a device for H 2 fluid connection and for electric connection of a first end of the cell and including assembling a start end of the supporting strip to a holding flange integral with a winding spindle of the cell, the mandrel provided with the holding flange receiving first endings of said supporting strip , anodic insulating band , H 2 diffusion band , electrochemical cell carrying band and corrugated cathodic separating band , - a step of winding the cell for which the tension of the supporting strip between an unwinder and the mandrel is controlled so as to apply a calibrated pressure to the wound layers of the cell.
A dental appliance , comprising: an appliance body, at least a portion thereof formed from a material that is transparent to laser energy used to mark the body; a target area for laser marking on the appliance body between an interior surface and an exterior surface of the appliance body; a laser access area on the exterior surface of the appliance body, wherein the exterior surface at the laser access area has a rougher surface texture than a region of the exterior surface outside of the laser access area, wherein the rougher surface texture of the laser access area is configured to disperse laser energy from a laser beam at the target area as the laser beam interacts with the rougher surface texture; and a particulate material within the target area, the particulate material having a laser energy absorption characteristic that is greater than that of the material forming the appliance body without the particulate material; wherein the target area comprises a laser mark. an appliance body, at least a portion thereof formed from a material that is transparent to laser energy used to mark the body; a target area for laser marking on the appliance body between an interior surface and an exterior surface of the appliance body; a laser access area on the exterior surface of the appliance body, wherein the exterior surface at the laser access area has a rougher surface texture than a region of the exterior surface outside of the laser access area, wherein the rougher surface texture of the laser access area is configured to disperse laser energy from a laser beam at the target area as the laser beam interacts with the rougher surface texture; and a particulate material within the target area, the particulate material having a laser energy absorption characteristic that is greater than that of the material forming the appliance body without the particulate material; wherein the target area comprises a laser mark.
Rechargeable battery pack apparatus for an electric handheld power tool, comprising a housing device and a rechargeable battery pack having at least one pouch cell , wherein a detecting device comprising a detecting element coupled to the rechargeable battery pack and comprising a sensor fixed with respect to the housing is provided, wherein the sensor is designed for detecting the detecting element when a distance between the detecting element and the sensor is below a defined distance, characterized in that at least one spring device is provided, applying to the detecting element a force which pushes the detecting element in a direction away from the sensor . wherein a detecting device comprising a detecting element coupled to the rechargeable battery pack and comprising a sensor fixed with respect to the housing is provided, wherein the sensor is designed for detecting the detecting element when a distance between the detecting element and the sensor is below a defined distance, characterized in that at least one spring device is provided, applying to the detecting element a force which pushes the detecting element in a direction away from the sensor .
A method performed by a personal identifier identity provider, PI-IP, service of a computing system, the method comprising: receiving a sign-in request for a user via a sign-in portal , the sign-in request including a personal identifier, wherein the personal identifier uniquely identifies a person and is tenant-independent; performing a verification based on the personal identifier to authenticate the user, wherein the performing of the verification includes: sending an electronic message to an address associated with the personal identifier; or sending a verification code addressed to a phone number, wherein the phone number is the personal identifier; mapping the personal identifier to multiple tenants, wherein the multiple tenants are hosted on a cloud data center; receiving , from the user, a selection of one of the multiple tenants for which the user is to be authenticated; retrieving , from a user store for the one tenant, user information relating to the user; creating a security token based on the user information; and after successful verification of the user, sending the security token to the sign-in portal as evidence that the user has been authenticated. receiving a sign-in request for a user via a sign-in portal , the sign-in request including a personal identifier, wherein the personal identifier uniquely identifies a person and is tenant-independent; performing a verification based on the personal identifier to authenticate the user, wherein the performing of the verification includes: sending an electronic message to an address associated with the personal identifier; or sending a verification code addressed to a phone number, wherein the phone number is the personal identifier; sending an electronic message to an address associated with the personal identifier; or sending a verification code addressed to a phone number, wherein the phone number is the personal identifier; mapping the personal identifier to multiple tenants, wherein the multiple tenants are hosted on a cloud data center; receiving , from the user, a selection of one of the multiple tenants for which the user is to be authenticated; retrieving , from a user store for the one tenant, user information relating to the user; creating a security token based on the user information; and after successful verification of the user, sending the security token to the sign-in portal as evidence that the user has been authenticated.
A switchgear drive arrangement comprising a transmission element for transmitting a movement through a wall of a housing , wherein the transmission element is guided such that it is supported in a linearly displaceable manner on the wall of the housing , wherein a first guide bearing has a bearing sleeve on which the transmission element is supported in a displaceable manner and the bearing sleeve engages around a reversibly deformable section of the wall, characterized in that a spacer is arranged between the bearing sleeve and the reversibly deformable section .
A heterocyclic compound of any one of the following Chemical Formulae 1-1 to 1-3: wherein, in Chemical Formula 1-1 to 1-3: L is selected from any one of substituents below Ar is a phenyl group, a biphenyl group, a naphthyl group, a phenanthrene group, a triphenylene group, a dibenzofuran group, a dibenzothiophene group, or a carbazole group, and the phenyl group, the biphenyl group, the naphthyl group, the phenanthrene group, the triphenylene group, the dibenzofuran group, the dibenzothiophene group, or the carbazole group is unsubstituted or substituted with an alkyl group having 1 to 10 carbon atoms, an aryl group having 6 to 20 carbon atoms, or a heteroaryl group having 3 to 30 carbon atoms ; and R1 to R14 are hydrogen. L is selected from any one of substituents below Ar is a phenyl group, a biphenyl group, a naphthyl group, a phenanthrene group, a triphenylene group, a dibenzofuran group, a dibenzothiophene group, or a carbazole group, and the phenyl group, the biphenyl group, the naphthyl group, the phenanthrene group, the triphenylene group, the dibenzofuran group, the dibenzothiophene group, or the carbazole group is unsubstituted or substituted with an alkyl group having 1 to 10 carbon atoms, an aryl group having 6 to 20 carbon atoms, or a heteroaryl group having 3 to 30 carbon atoms ; and R1 to R14 are hydrogen.
A cylindrical rechargeable battery comprising a positive electrode , a negative electrode, and a separator, wherein the positive electrode includes a positive electrode tab , and a piezoelectric element and a thermoelectric element are formed at edges (A, B) of the positive electrode tab .
A method for the non-invasive ultrasound characterization of a heterogeneous medium, the method comprising: - a step of generating, by means of at least a first array of transducers, a series of incident ultrasound waves in a region of said heterogeneous medium; - a step of recording an experimental reflection matrix ( R ui (t) ) defined between an emission basis (i) at input and the transducer basis (u) at output; - a step of determining, on the basis of said experimental reflection matrix, at least a first wideband reflection matrix ( R rr (Δω 1 )), defined in a focused basis at input and at output, in a first spectral band (Δω 1 ); - a step of determining a first distortion matrix ( D θr , D rr ) defined in said first spectral band, between said focused basis and an observation basis, said first distortion matrix resulting, directly or after change of basis, from the term-by-term matrix product of said first wideband reflection matrix ( R θr (Δω 1 )), defined between said focused basis and an aberration correction basis, with the phase conjugate matrix of a reference reflection matrix, defined for a model medium, between the same bases; - a step of determining, on the basis of said first distortion matrix, at least one mapping of a physical parameter of said heterogeneous medium. - a step of generating, by means of at least a first array of transducers, a series of incident ultrasound waves in a region of said heterogeneous medium; - a step of recording an experimental reflection matrix ( R ui (t) ) defined between an emission basis (i) at input and the transducer basis (u) at output; - a step of determining, on the basis of said experimental reflection matrix, at least a first wideband reflection matrix ( R rr (Δω 1 )), defined in a focused basis at input and at output, in a first spectral band (Δω 1 ); - a step of determining a first distortion matrix ( D θr , D rr ) defined in said first spectral band, between said focused basis and an observation basis, said first distortion matrix resulting, directly or after change of basis, from the term-by-term matrix product of said first wideband reflection matrix ( R θr (Δω 1 )), defined between said focused basis and an aberration correction basis, with the phase conjugate matrix of a reference reflection matrix, defined for a model medium, between the same bases; - a step of determining, on the basis of said first distortion matrix, at least one mapping of a physical parameter of said heterogeneous medium.
A method of manufacturing molten iron, comprising: manufacturing a coal briquette in a coal briquette manufacturing device; providing hot gas to the coal briquette and partially carbonizing the coal briquette; charging the coal briquette into a melter-gasifier which is connected to the coal briquette manufacturing device; and melting reduced iron charged into the melter-gasifier by the coal briquette and manufacturing molten iron, characterized in that in the partially carbonizing of the coal briquette, a carbonization initiation temperature is 600°C to 650°C, and a carbonization termination temperature is 700°C or more, the method further comprising providing raw coals for manufacturing the coal briquette before manufacturing the coal briquette; and wherein fluidity of the raw coal is in a range of 1.2 log ddpm to 1.9 log ddpm, wherein total dilatation of the raw coal is maintained at 60 % or less. manufacturing a coal briquette in a coal briquette manufacturing device; providing hot gas to the coal briquette and partially carbonizing the coal briquette; charging the coal briquette into a melter-gasifier which is connected to the coal briquette manufacturing device; and melting reduced iron charged into the melter-gasifier by the coal briquette and manufacturing molten iron, characterized in that in the partially carbonizing of the coal briquette, a carbonization initiation temperature is 600°C to 650°C, and a carbonization termination temperature is 700°C or more, the method further comprising providing raw coals for manufacturing the coal briquette before manufacturing the coal briquette; and wherein fluidity of the raw coal is in a range of 1.2 log ddpm to 1.9 log ddpm, wherein total dilatation of the raw coal is maintained at 60 % or less.
Electronic module comprising a set of electronic switches intended to produce a rectifier/inverter bridge arm for a phase of the machine for a rotating electric machine comprising: - a housing defined by a top face, a bottom face and at least three lateral faces, - electronic components disposed in said housing , said electronic components being mounted on power links , and said power links comprising ends which are all disposed in the vicinity of one and the same lateral face of the housing characterized in that the power links comprise at least one phase trace intended to be connected to a phase of the stator and electrical power conductors for supplying power to the components of said module, and in that a phase trace comprises an end placed between two electrical power conductors supplying power to the components of said module. - a housing defined by a top face, a bottom face and at least three lateral faces, - electronic components disposed in said housing ,