mhurhangee/ep-ind-claims huggingface dataset:
A computer based method for updating a 3D virtual model of an intraoral cavity of a patient, the method comprising: obtaining first 3D scan data of the intraoral cavity including the dentition and associated anatomical structures of a patient, said first 3D scan data having been acquired by a hand-held intraoral scanner; displaying an image of a first virtual model on a display operatively connected to a computer system to enable a user to interact with the displayed image, wherein the first virtual model is based on said first 3D scan data of the intraoral cavity; identifying, based on the user's interaction with the displayed image, a part of the first virtual model which it is desired to retain; and the method being characterised by updating (440, 450, 460) another part of the first 3D virtual model by modifying the 3D virtual model with second 3D scan data obtained from a corresponding physical part of the intraoral cavity while concurrently retaining the part of the first virtual model which it is desired to retain thereby providing an updated 3D virtual model of the intraoral cavity. obtaining first 3D scan data of the intraoral cavity including the dentition and associated anatomical structures of a patient, said first 3D scan data having been acquired by a hand-held intraoral scanner; displaying an image of a first virtual model on a display operatively connected to a computer system to enable a user to interact with the displayed image, wherein the first virtual model is based on said first 3D scan data of the intraoral cavity; identifying, based on the user's interaction with the displayed image, a part of the first virtual model which it is desired to retain; and the method being characterised by updating (440, 450, 460) another part of the first 3D virtual model by modifying the 3D virtual model with second 3D scan data obtained from a corresponding physical part of the intraoral cavity while concurrently retaining the part of the first virtual model which it is desired to retain thereby providing an updated 3D virtual model of the intraoral cavity.
A position adjustment device for a vehicle seat, comprising: a. two slideways extending along a longitudinal axis, each slideway comprising a fixed profile and a movable profile, each slideway comprising a mechanism for adjusting the position of the movable profile relative to the fixed profile along the longitudinal axis, the adjustment mechanism being configured to cooperate with an electric motor, b. a crossmember fixed to the respective movable profiles of the two slideways, c. an electric motor configured to drive each of the adjustment mechanisms via a transmission link, the electric motor being fixed to the crossmember, d. an electronic control unit configured to control the electric motor, wherein the electronic control unit is fixed to the crossmember, characterized in that the crossmember comprises a housing for receiving the electric motor, the receiving housing comprising a bottom wall and two side walls, wherein a side wall is arranged between the electric motor and the electronic control unit, in that the electronic control unit is arranged against an outer surface of a side wall of the housing for receiving the electric motor, and in that the crossmember comprises guide elements configured to guide the electronic control unit during the connection of the electronic control unit to the electric motor. a. two slideways extending along a longitudinal axis, each slideway comprising a fixed profile and a movable profile, each slideway comprising a mechanism for adjusting the position of the movable profile relative to the fixed profile along the longitudinal axis, the adjustment mechanism being configured to cooperate with an electric motor, b. a crossmember fixed to the respective movable profiles of the two slideways, c. an electric motor configured to drive each of the adjustment mechanisms via a transmission link, the electric motor being fixed to the crossmember, d. an electronic control unit configured to control the electric motor, wherein the electronic control unit is fixed to the crossmember, characterized in that the crossmember comprises a housing for receiving the electric motor, the receiving housing comprising a bottom wall and two side walls, wherein a side wall is arranged between the electric motor and the electronic control unit, in that the electronic control unit is arranged against an outer surface of a side wall of the housing for receiving the electric motor, and in that the crossmember comprises guide elements configured to guide the electronic control unit during the connection of the electronic control unit to the electric motor. the crossmember comprises a housing for receiving the electric motor, the receiving housing comprising a bottom wall and two side walls, wherein a side wall is arranged between the electric motor and the electronic control unit, in that the electronic control unit is arranged against an outer surface of a side wall of the housing for receiving the electric motor, and in that the crossmember comprises guide elements configured to guide the electronic control unit during the connection of the electronic control unit to the electric motor.
Method for supplying a polymerizable mixture to at least one molding device, said method comprising the following steps: a) providing a tank containing the polymerizable mixture, b) reaching a set value of pressure (Ps) in the tank, smaller than the ambient pressure (Pam), c) continuously maintaining the pressure in the tank at the set value of pressure (Ps) while supplying the polymerizable mixture to the molding device through a looping line which both ends are connected to the tank and which is connected to an inlet of said molding device in between said ends, wherein in step c), an entry of inert gas into the tank is controlled based on the pressure contained within the tank. a) providing a tank containing the polymerizable mixture, b) reaching a set value of pressure (Ps) in the tank, smaller than the ambient pressure (Pam), c) continuously maintaining the pressure in the tank at the set value of pressure (Ps) while supplying the polymerizable mixture to the molding device through a looping line which both ends are connected to the tank and which is connected to an inlet of said molding device in between said ends,
A system (20, 200, 280, 300, 360) for analysing a sample (28, 236) comprising: an input light source (22, 202); a multi-channel fluorescence detector (32, 260, 350) positioned to receive and detect multiple wavelengths of light emitted by the sample (28, 236) for each of the plurality of excitation wavelengths; an absorption detector (30, 240) positioned to receive and detect light passing through the sample; a computer in communication with a monochromator (24, 208), the fluorescence detector (32, 260, 350), and the absorption detector (30, 240); the computer controlling the monochromator (24, 208) to sequentially illuminate the sample with each of the plurality of wavelengths while measuring absorption and fluorescence of the sample based on signals received from the fluorescence and absorption detectors; characterised in that the monochromator (24, 208) is a double subtractive monochromator positioned to receive light from the input light source (22, 202) and to sequentially illuminate the sample with each of a plurality of wavelengths; and wherein said system furthermore comprises at least one optical element comprising a concave mirror (100, 230) having an associated F/number faster than an aperture positioned between the sample and the absorption detector (30, 240) and positioned to direct light from the monochromator (24, 208) to the sample (28, 236) and provide a substantially collimated beam from the sample to the absorption detector (30, 240) while providing high-throughput to the fluorescence detector (32, 260, 350). an input light source (22, 202); a multi-channel fluorescence detector (32, 260, 350) positioned to receive and detect multiple wavelengths of light emitted by the sample (28, 236) for each of the plurality of excitation wavelengths; an absorption detector (30, 240) positioned to receive and detect light passing through the sample; a computer in communication with a monochromator (24, 208), the fluorescence detector (32, 260, 350), and the absorption detector (30, 240); the computer controlling the monochromator (24, 208) to sequentially illuminate the sample with each of the plurality of wavelengths while measuring absorption and fluorescence of the sample based on signals received from the fluorescence and absorption detectors; characterised in that the monochromator (24, 208) is a double subtractive monochromator positioned to receive light from the input light source (22, 202) and to sequentially illuminate the sample with each of a plurality of wavelengths; and wherein said system furthermore comprises at least one optical element comprising a concave mirror (100, 230) having an associated F/number faster than an aperture positioned between the sample and the absorption detector (30, 240) and positioned to direct light from the monochromator (24, 208) to the sample (28, 236) and provide a substantially collimated beam from the sample to the absorption detector (30, 240) while providing high-throughput to the fluorescence detector (32, 260, 350).
An ultrasound transducer for imaging an object, the ultrasound transducer comprising a transducer element, at least one first electrode or electrical contact and at least one elongate second electrode or electrical contact, wherein the transducer element is a layered thin film transducer element comprising: a substrate, wherein the substrate is an electrically conductive metallic foil, and the substrate forms, or is connected to, the at least one first electrode or electrical contact; and a piezoelectric material, the piezoelectric material being a thin layer of non-polymeric inorganic material deposited on at least part of the substrate; wherein the piezoelectric material comprises a coating of the piezoelectric material on the substrate to form layers of the transducer element; and the at least one elongate second electrode or electrical contact is connected, coupled or bonded to the transducer element and extends generally in a direction substantially perpendicular to a surface of the transducer element; and a total or combined surface area of the regions of the at least one second electrode or electrical contact that contact, couple or bond to, or support, the transducer element is less than the surface area of the transducer element. a substrate, wherein the substrate is an electrically conductive metallic foil, and the substrate forms, or is connected to, the at least one first electrode or electrical contact; and a piezoelectric material, the piezoelectric material being a thin layer of non-polymeric inorganic material deposited on at least part of the substrate; wherein the piezoelectric material comprises a coating of the piezoelectric material on the substrate to form layers of the transducer element; and the at least one elongate second electrode or electrical contact is connected, coupled or bonded to the transducer element and extends generally in a direction substantially perpendicular to a surface of the transducer element; and a total or combined surface area of the regions of the at least one second electrode or electrical contact that contact, couple or bond to, or support, the transducer element is less than the surface area of the transducer element.
A malleable solid explosive, wherein it is in the form of a block consisting, for at least 98% of its weight: of a powdery explosive charge consisting of octogen, hexogen, pentaerythrite nitrate (pentrite or PETN), hexanitrohexaazaisowurtzitane, triaminotrinitrobenzene (TATB), 5-nitro-2,2,4-triazole-3-one (ONTA), hexanitrostilbene, 1,1-diamino-2,2-dinitroethene (DADNE or Fox-7) or a mixture thereof; and of a liquid chosen from polyol polymers of the group of polyisobutylene polyols, polybutadiene polyols, polyether polyols, polyester polyols and polysiloxane polyols, the number-average molecular weight of which is between 500 and 10 000, and mixtures thereof. of a powdery explosive charge consisting of octogen, hexogen, pentaerythrite nitrate (pentrite or PETN), hexanitrohexaazaisowurtzitane, triaminotrinitrobenzene (TATB), 5-nitro-2,2,4-triazole-3-one (ONTA), hexanitrostilbene, 1,1-diamino-2,2-dinitroethene (DADNE or Fox-7) or a mixture thereof; and of a liquid chosen from polyol polymers of the group of polyisobutylene polyols, polybutadiene polyols, polyether polyols, polyester polyols and polysiloxane polyols, the number-average molecular weight of which is between 500 and 10 000, and mixtures thereof.
A method comprising: instantiating a data connector component as a stateless container for accessing an object store within which objects comprising backup data of snapshots are stored within storage structures; wherein the state information of the stateless container does not need to be tracked, saved, or restored; evaluating, by the data connector component, metadata associated with the snapshots to perform an integrity check for the objects; wherein performing the integrity check comprises: evaluating a bitmap for the snapshot to identify a set of objects comprising backup data of the snapshot, wherein the bitmap comprises bits corresponding to objects, wherein a bit for the object is populated with a value to indicate whether backup data of the snapshot is stored within the object; and for each object of the set of objects identified as comprising the backup data of the snapshot, implementing a head API test to determine whether the object is accessible within the object store; and in response to determining that an object is not accessible, generating, by the data connector component, an indication of the integrity issue. instantiating a data connector component as a stateless container for accessing an object store within which objects comprising backup data of snapshots are stored within storage structures; wherein the state information of the stateless container does not need to be tracked, saved, or restored; evaluating, by the data connector component, metadata associated with the snapshots to perform an integrity check for the objects; wherein performing the integrity check comprises: evaluating a bitmap for the snapshot to identify a set of objects comprising backup data of the snapshot, wherein the bitmap comprises bits corresponding to objects, wherein a bit for the object is populated with a value to indicate whether backup data of the snapshot is stored within the object; and for each object of the set of objects identified as comprising the backup data of the snapshot, implementing a head API test to determine whether the object is accessible within the object store; and evaluating a bitmap for the snapshot to identify a set of objects comprising backup data of the snapshot, wherein the bitmap comprises bits corresponding to objects, wherein a bit for the object is populated with a value to indicate whether backup data of the snapshot is stored within the object; and for each object of the set of objects identified as comprising the backup data of the snapshot, implementing a head API test to determine whether the object is accessible within the object store; and in response to determining that an object is not accessible, generating, by the data connector component, an indication of the integrity issue.
A method executed by at least one processor comprising: converting first and second integers from a first format to a second format; wherein the first and second integers each have more digits in the second format than in the first format and each of the digits in the second format is smaller in bit size than in the first format; performing an arithmetic operation between the first and second converted digits using both scalar and vector instructions, wherein performing the arithmetic operation using the scalar and vector instructions comprises simultaneously performing the arithmetic operation on multiple digits in the second format and simultaneously performing the scalar and vector instructions; and determining a modular exponentiation based on the arithmetic operation. converting first and second integers from a first format to a second format; wherein the first and second integers each have more digits in the second format than in the first format and each of the digits in the second format is smaller in bit size than in the first format; performing an arithmetic operation between the first and second converted digits using both scalar and vector instructions, wherein performing the arithmetic operation using the scalar and vector instructions comprises simultaneously performing the arithmetic operation on multiple digits in the second format and simultaneously performing the scalar and vector instructions; and determining a modular exponentiation based on the arithmetic operation.
A wireless communication method, comprising: sending, by a first terminal device, a first request that is used to request a second terminal device to release a first radio resource, wherein the first radio resource is a radio resource currently used by the second terminal device; determining, by the first terminal device, a first available radio resource set, wherein the first available radio resource set comprises at least a part of the first radio resource, and radio resources comprised in the first available radio resource set are consecutive in frequency domain; and sending, by the first terminal device, information by using the first available radio resource set, characterized in that the first request comprises information about a radio resource that the second terminal device is recommended to select. sending, by a first terminal device, a first request that is used to request a second terminal device to release a first radio resource, wherein the first radio resource is a radio resource currently used by the second terminal device; determining, by the first terminal device, a first available radio resource set, wherein the first available radio resource set comprises at least a part of the first radio resource, and radio resources comprised in the first available radio resource set are consecutive in frequency domain; and sending, by the first terminal device, information by using the first available radio resource set, characterized in that the first request comprises information about a radio resource that the second terminal device is recommended to select.
A one-way clutch comprising: - a first gear having one side in an axial direction on which a first ratchet portion is formed; - a second gear coaxially arranged with a shaft of the first gear, the second gear including a shaft portion, an outer peripheral portion, and a connection wall, the connection wall having a surface extending in the axial direction and connecting between the shaft portion and the outer peripheral portion; - a transmission unit arranged between the first gear and the second gear, the transmission unit transmitting a torque of the first gear to the second gear by rotating forward around a shaft of the shaft portion, the transmission unit including a second ratchet portion that fits into the first ratchet portion on the first gear side, the transmission unit including a contact portion (86B1) that contacts the surface on the second gear side; and - a stretchable member, characterized in that the stretchable member is arranged on a side opposite to the transmission unit by sandwiching the second gear, stretchable in the axial direction and pressing the second gear to the transmission unit in a shrunk state, and in that the first gear is an input gear, and the second gear is an output gear. - a first gear having one side in an axial direction on which a first ratchet portion is formed; - a second gear coaxially arranged with a shaft of the first gear, the second gear including a shaft portion, an outer peripheral portion, and a connection wall, the connection wall having a surface extending in the axial direction and connecting between the shaft portion and the outer peripheral portion; - a transmission unit arranged between the first gear and the second gear, the transmission unit transmitting a torque of the first gear to the second gear by rotating forward around a shaft of the shaft portion, the transmission unit including a second ratchet portion that fits into the first ratchet portion on the first gear side, the transmission unit including a contact portion (86B1) that contacts the surface on the second gear side; and - a stretchable member,
A high frequency window, comprising: a circular waveguide that has a cylindrical section having a circular pipe conduit (72a, 72b) with a circular shaped cross section, and side wall sections (73a, 73b) joined to both sides in an axial direction of the cylindrical section; a first rectangular waveguide that has a first rectangular pipe conduit with a rectangular shaped cross section and that is joined to one of the side wall sections so that the first rectangular pipe conduit communicates with the circular pipe conduit; a second rectangular waveguide that has a second rectangular pipe conduit with a rectangular shaped cross section and that is joined to the other of the side wall sections so that the second rectangular pipe conduit communicates with the circular pipe conduit; and a dielectric plate that is configured as a plate shape, is disposed in the circular pipe conduit (72a, 72b), and is airtightly held to the cylindrical section; characterized in that the circular waveguide has a plastically deformable section (75a, 75b) that is plastically deformable so that at least a length in an axial direction of the circular waveguide can be changed; wherein the plastically deformable section (75a, 75b) is a diaphragm that protrudes to an axially outer side of the circular waveguide ranging over the entire periphery in at least part of one or both of the side wall sections (73a, 73b). a circular waveguide that has a cylindrical section having a circular pipe conduit (72a, 72b) with a circular shaped cross section, and side wall sections (73a, 73b) joined to both sides in an axial direction of the cylindrical section; a first rectangular waveguide that has a first rectangular pipe conduit with a rectangular shaped cross section and that is joined to one of the side wall sections so that the first rectangular pipe conduit communicates with the circular pipe conduit; a second rectangular waveguide that has a second rectangular pipe conduit with a rectangular shaped cross section and that is joined to the other of the side wall sections so that the second rectangular pipe conduit communicates with the circular pipe conduit; and a dielectric plate that is configured as a plate shape, is disposed in the circular pipe conduit (72a, 72b), and is airtightly held to the cylindrical section; characterized in that the circular waveguide has a plastically deformable section (75a, 75b) that is plastically deformable so that at least a length in an axial direction of the circular waveguide can be changed; wherein the plastically deformable section (75a, 75b) is a diaphragm that protrudes to an axially outer side of the circular waveguide ranging over the entire periphery in at least part of one or both of the side wall sections (73a, 73b).