mhurhangee/patent-ind-claim-en huggingface dataset:
An orthodontic implant device which is fixable in an oral cavity to perform orthodontics by connecting an extension arm formed of a wire for moving teeth, comprising: a pair of implant members which are fixed in the oral cavity, each having a shank on which a ridge is formed, and a head formed in one end of the shank , in which a head groove having a perpendicular relationship between side surfaces and a bottom surface is formed in the head ; a bridge member arranged so as to link places between the pair of implant members ; and an arrangement member having a fixing portion for fixing the extension arm , and a wire-shaped projection portion for arranging the fixing portion in the bridge member , wherein the bridge member has a connecting portion provided with an insertion hole into which the projection portion is to be inserted, and a pair of rectangular wire-shaped portions arranged in the connecting portion , and to be fitted into the head grooves of the pair of implant members , characterized in that the fixing portion has a fixing groove having a perpendicular relationship between a pair of side surfaces and a bottom surface , fastening portions are each provided in projecting inward on upper sides of the pair of side surfaces , and part of the extension arm is fittable into and caulked at the fixing portion , thereby being fixed at the fixing portion . a pair of implant members which are fixed in the oral cavity, each having a shank on which a ridge is formed, and a head formed in one end of the shank , in which a head groove having a perpendicular relationship between side surfaces and a bottom surface is formed in the head ; a bridge member arranged so as to link places between the pair of implant members ; and an arrangement member having a fixing portion for fixing the extension arm , and a wire-shaped projection portion for arranging the fixing portion in the bridge member , wherein the bridge member has a connecting portion provided with an insertion hole into which the projection portion is to be inserted, and a pair of rectangular wire-shaped portions arranged in the connecting portion , and to be fitted into the head grooves of the pair of implant members , characterized in that the fixing portion has a fixing groove having a perpendicular relationship between a pair of side surfaces and a bottom surface , fastening portions are each provided in projecting inward on upper sides of the pair of side surfaces , and part of the extension arm is fittable into and caulked at the fixing portion , thereby being fixed at the fixing portion .
A method for providing a graphical user interface (100; 200) for a video editing system, the method comprising: displaying a graphical user interface (100; 200) including: a media bin (101; 201) displaying a plurality of media elements (102A-F; 202A.1-D.6) imported into the video editing system; a viewing window (110; 210) for viewing a selected one of the media elements (102A-F; 202A.1-D.6); a timeline (120; 140; 220; 240); a concatenator element ; and a focus element; responsive to a user actuating the concatenator element , concatenating the media elements (102A-F; 202A.1-D.6) present in the media bin (101; 201) together into a single media element and loading the single media element into the viewing window (110; 210); and responsive to a user actuating said focus element, once the single media element has been formed, modifying the single media element to form a focused single media element that concatenates only those media elements (102A-F; 202A.1-D.6) present in the media bin (101; 201) with related metadata and loading the focused single media element into the viewing window (110; 210). displaying a graphical user interface (100; 200) including: a media bin (101; 201) displaying a plurality of media elements (102A-F; 202A.1-D.6) imported into the video editing system; a viewing window (110; 210) for viewing a selected one of the media elements (102A-F; 202A.1-D.6); a timeline (120; 140; 220; 240); a concatenator element ; and a focus element; a media bin (101; 201) displaying a plurality of media elements (102A-F; 202A.1-D.6) imported into the video editing system; a viewing window (110; 210) for viewing a selected one of the media elements (102A-F; 202A.1-D.6); a timeline (120; 140; 220; 240); a concatenator element ; and a focus element; responsive to a user actuating the concatenator element , concatenating the media elements (102A-F; 202A.1-D.6) present in the media bin (101; 201) together into a single media element and loading the single media element into the viewing window (110; 210); and responsive to a user actuating said focus element, once the single media element has been formed, modifying the single media element to form a focused single media element that concatenates only those media elements (102A-F; 202A.1-D.6) present in the media bin (101; 201) with related metadata and loading the focused single media element into the viewing window (110; 210).
The compound with formula wherein said compound is a 1-amino-tetratriacontyl- henicosa-20-on-21-al.
A method of data transmission, the method comprising: receiving a first non-access stratum, NAS, message from a wireless transmit receive unit, WTRU, wherein the first NAS message indicates that the WTRU is requesting to send user plane data using one or more NAS layer control plane messages; determining a maximum transmission rate for the WTRU to send user plane data using one or more NAS layer control plane messages during a duration of time, wherein the maximum transmission rate is based on at least network conditions or proposed information received from the WTRU; in response to the first NAS message indicating that the WTRU is requesting to send user plane data in NAS layer control plane messages, sending a second NAS message to the WTRU, wherein the second NAS message is an attach message, indicates that the WTRU is permitted to attach to the network, indicates the maximum transmission rate, and indicates that the WTRU is allowed to send the user plane data using the one or more NAS layer control plane messages; and receiving, from the WTRU, the user plane data via one or more NAS layer control plane messages. receiving a first non-access stratum, NAS, message from a wireless transmit receive unit, WTRU, wherein the first NAS message indicates that the WTRU is requesting to send user plane data using one or more NAS layer control plane messages; determining a maximum transmission rate for the WTRU to send user plane data using one or more NAS layer control plane messages during a duration of time, wherein the maximum transmission rate is based on at least network conditions or proposed information received from the WTRU; in response to the first NAS message indicating that the WTRU is requesting to send user plane data in NAS layer control plane messages, sending a second NAS message to the WTRU, wherein the second NAS message is an attach message, indicates that the WTRU is permitted to attach to the network, indicates the maximum transmission rate, and indicates that the WTRU is allowed to send the user plane data using the one or more NAS layer control plane messages; and receiving, from the WTRU, the user plane data via one or more NAS layer control plane messages.
A computer-implemented method for testing signature verification for a blockchain system, comprising: obtaining a testing configuration from a configuration file, wherein the testing configuration specifies a cryptography algorithm used in the blockchain system, a group of private keys corresponding to the cryptography algorithm, and a predetermined execution result based on the cryptography algorithm and the group of private keys, wherein the group of private keys includes duplicative private keys, one being valid and the other being an invalid private key; generating a transaction for the testing configuration; signing the transaction, by encrypting data representing the transaction based on the cryptography algorithm and the group of private keys, to generate one or more signed transactions; sending the one or more signed transactions to the blockchain system and receiving an execution result from the blockchain system, the execution result indicating whether the one or more signed transactions correspond to a valid transaction or an invalid transaction; and determining whether the predetermined execution result is satisfied based on the execution result received from the blockchain system. obtaining a testing configuration from a configuration file, wherein the testing configuration specifies a cryptography algorithm used in the blockchain system, a group of private keys corresponding to the cryptography algorithm, and a predetermined execution result based on the cryptography algorithm and the group of private keys, wherein the group of private keys includes duplicative private keys, one being valid and the other being an invalid private key; generating a transaction for the testing configuration; signing the transaction, by encrypting data representing the transaction based on the cryptography algorithm and the group of private keys, to generate one or more signed transactions; sending the one or more signed transactions to the blockchain system and receiving an execution result from the blockchain system, the execution result indicating whether the one or more signed transactions correspond to a valid transaction or an invalid transaction; and determining whether the predetermined execution result is satisfied based on the execution result received from the blockchain system.
Method for automatically positioning ramps in a station for heating preforms of a facility for manufacturing containers from preforms made from a thermoplastic material, each preform having a neck and, directly below the neck , an under-neck section with an outer diameter referred to as the "under-neck diameter (D1)", the heating station comprising: - at least one pair of longitudinal ramps that define a slot for the preforms to travel through, at least one of the ramps being transversely movable in order to vary the width of the slot ; - at least one motorized device for transversely moving the at least one movable ramp in order to adapt the width of the slot , said motorized device being automatically controlled by an electronic control unit ; the positioning method during a change of format of preforms being characterized in that it comprises: - a step (E1) of acquiring an image of at least part of the preform taken by means of an image capturing device ; - a step (E2) of automatically determining the under-neck diameter (D1) of the preform by computer processing of said image; - a step (E4) of automatically adjusting the width of the slot by moving the at least one movable ramp as a function of the under-neck diameter (D1) determined during the step (E2) of determining the under-neck diameter in order to adapt the width of the slot to a passage width equal to the under-neck diameter (D1) plus a determined transverse clearance (j). - at least one pair of longitudinal ramps that define a slot for the preforms to travel through, at least one of the ramps being transversely movable in order to vary the width of the slot ; - at least one motorized device for transversely moving the at least one movable ramp in order to adapt the width of the slot , said motorized device being automatically controlled by an electronic control unit ; - a step (E1) of acquiring an image of at least part of the preform taken by means of an image capturing device ; - a step (E2) of automatically determining the under-neck diameter (D1) of the preform by computer processing of said image; - a step (E4) of automatically adjusting the width of the slot by moving the at least one movable ramp as a function of the under-neck diameter (D1) determined during the step (E2) of determining the under-neck diameter in order to adapt the width of the slot to a passage width equal to the under-neck diameter (D1) plus a determined transverse clearance (j).
A method of calibrating a game controller including a magnetometer during game play, comprising: sampling (402; 602) magnetic information received from the magnetometer, each sample of the magnetic information including a vector component of an ambient magnetic field along each of a first axis, a second axis, and a third axis, the first axis, the second axis, and the third axis being orthogonal to each other characterised in outputting (408; 604), to a computing device, an initial game controller orientation signal derived from a first sample of a plurality of samples of the magnetic information and from directional offset data of magnetic information including a first directional offset along the first axis, a second directional offset along the second axis, and a third directional offset along the third axis, the directional offset data being used for calibrating the initial game controller orientation signal; calculating (420; 606) updated directional offset data by filtering unfiltered offset data determined based on the plurality of samples of the magnetic information with the directional offset data; and outputting (424; 616) to the computing device a calibrated game controller orientation signal derived from a second sample of the plurality of samples of the magnetic information and the updated directional offset data. sampling (402; 602) magnetic information received from the magnetometer, each sample of the magnetic information including a vector component of an ambient magnetic field along each of a first axis, a second axis, and a third axis, the first axis, the second axis, and the third axis being orthogonal to each other characterised in outputting (408; 604), to a computing device, an initial game controller orientation signal derived from a first sample of a plurality of samples of the magnetic information and from directional offset data of magnetic information including a first directional offset along the first axis, a second directional offset along the second axis, and a third directional offset along the third axis, the directional offset data being used for calibrating the initial game controller orientation signal; calculating (420; 606) updated directional offset data by filtering unfiltered offset data determined based on the plurality of samples of the magnetic information with the directional offset data; and outputting (424; 616) to the computing device a calibrated game controller orientation signal derived from a second sample of the plurality of samples of the magnetic information and the updated directional offset data.
A process for the removal of heavy metals from a liquid comprising phosphoric acid and heavy metals, wherein hydrochloric acid is added to the liquid, wherein the liquid and the hydrochloric acid are brought in contact in a fixed-bed adsorber with a mixture consisting of between 30 %vol. and 60 %vol. of an activated carbon impregnated with sulfur, between 30 %vol. and 60 %vol. of an activated carbon impregnated with iron and between 5 %vol. and 40 %vol. of a filler material, leaving the liquid in contact with the mixture, absorption of the heavy metals onto the mixture to obtain a liquid with a depleted level of heavy metals, evacuation of the liquid with a depleted level of heavy metals from the mixture.
A method for executing a function by an electronic device using voice recognition, the method comprising: displaying a user function execution screen including a plurality of image components; in response to a request for executing voice recognition, determining a plurality of functions associated with a voice input and the displayed user function execution screen, and, for each of the determined functions, detecting a voice command associated with that function from among registered voice commands thereby providing detected voice commands; displaying the detected voice commands on the displayed user function execution screen; performing voice recognition on a voice input received through a microphone of the electronic device, and in response to determining that the request for executing the voice recognition stops, recognizing that the voice input matches one of the displayed voice commands; and executing the function associated with the one of the displayed voice commands, in response to recognizing that the voice input matches the one of the displayed voice commands; wherein the method is characterised by : testing for similarity of the detected voice commands; and changing at least one of similar voice commands, according to a result of the testing, before displaying the voice commands. displaying a user function execution screen including a plurality of image components; in response to a request for executing voice recognition, determining a plurality of functions associated with a voice input and the displayed user function execution screen, and, for each of the determined functions, detecting a voice command associated with that function from among registered voice commands thereby providing detected voice commands; displaying the detected voice commands on the displayed user function execution screen; performing voice recognition on a voice input received through a microphone of the electronic device, and in response to determining that the request for executing the voice recognition stops, recognizing that the voice input matches one of the displayed voice commands; and executing the function associated with the one of the displayed voice commands, in response to recognizing that the voice input matches the one of the displayed voice commands; wherein the method is characterised by : testing for similarity of the detected voice commands; and changing at least one of similar voice commands, according to a result of the testing, before displaying the voice commands. testing for similarity of the detected voice commands; and changing at least one of similar voice commands, according to a result of the testing, before displaying the voice commands.
A depot precursor formulation comprising: a) a controlled-release polymer matrix; b) at least one oxygen containing organic solvent comprising a sulfoxide; c) 31 to 45% by weight of at least one active agent selected from buprenorphine and salts thereof, calculated as buprenorphine free base; wherein said depot precursor formulation is in ready-to-administer form; and wherein said depot precursor formulation forms a depot composition upon administration to the body of a subject. a) a controlled-release polymer matrix; b) at least one oxygen containing organic solvent comprising a sulfoxide; c) 31 to 45% by weight of at least one active agent selected from buprenorphine and salts thereof, calculated as buprenorphine free base;
A resource scheduling method, comprising: receiving , by a management node, a Pod creation request from a user, wherein the Pod creation request comprises: requirements of each container for each type of shareable resources; and selecting , by the management node, a node for a Pod object to be created, and allocating each type of shareable resources of each container to the Pod object according to shareable resource information of a shareable device in the selected node, wherein the shareable resource information comprises: an identifier, ID, of the shareable device, resource property information of the shareable device and a maximum shareable number of the shareable device; wherein in a case where a unit is not specified for the number of each type of shareable resources requested in the Pod creation request, the unit of the shareable resource requested is device by default and the device is processed according to an exclusive mode, and the unit of the number of each type of shareable resources requested is converted into slice; in a case where a unit is specified for the number of each type of shareable resources requested in the Pod creation request, the device is processed according to a sharing mode, and the number of each type of shareable resources requested is required to be less than or equal to the maximum shareable number of the shareable device. receiving , by a management node, a Pod creation request from a user, wherein the Pod creation request comprises: requirements of each container for each type of shareable resources; and selecting , by the management node, a node for a Pod object to be created, and allocating each type of shareable resources of each container to the Pod object according to shareable resource information of a shareable device in the selected node, wherein the shareable resource information comprises: an identifier, ID, of the shareable device, resource property information of the shareable device and a maximum shareable number of the shareable device; wherein in a case where a unit is not specified for the number of each type of shareable resources requested in the Pod creation request, the unit of the shareable resource requested is device by default and the device is processed according to an exclusive mode, and the unit of the number of each type of shareable resources requested is converted into slice; in a case where a unit is specified for the number of each type of shareable resources requested in the Pod creation request, the device is processed according to a sharing mode, and the number of each type of shareable resources requested is required to be less than or equal to the maximum shareable number of the shareable device.
A pharmaceutical composition for topical administration comprising 2,3-dimethyl-6-(N,N-dimethylaminoethyl)-6H-indolo-(2,3-b)quinoxaline (B-220) or a pharmaceutically acceptable salt thereof in a pharmaceutically acceptable carrier, for use in the topical treatment of orofacial herpes virus infection in a mammal.
A hearing device configured to be worn at or in an ear of a user, the hearing device comprising: - a substrate comprising one or more electronic components mounted on the substrate; - a shielding component arranged on the substrate to provide a space between the shielding component and the substrate ; where the shielding component is configured to cover at least a first electronic component of the one or more electronic components on the substrate , wherein the space between the shielding component and the substrate is at least partly filled with a fill encapsulation material configured for encapsulating at least the first electronic component ; wherein the shielding component comprises a reservoir configured to collect/accumulate any excess fill encapsulation material from the space between the shielding component and the substrate and wherein the shielding component comprises one or more side parts being substantially perpendicular to the substrate , and wherein the shielding component comprises a top part being substantially parallel to the substrate , characterized in that the reservoir is provided as a recess in the top part of the shielding component . - a substrate comprising one or more electronic components mounted on the substrate; - a shielding component arranged on the substrate to provide a space between the shielding component and the substrate ; where the shielding component is configured to cover at least a first electronic component of the one or more electronic components on the substrate , wherein the space between the shielding component and the substrate is at least partly filled with a fill encapsulation material configured for encapsulating at least the first electronic component ; wherein the shielding component comprises a reservoir configured to collect/accumulate any excess fill encapsulation material from the space between the shielding component and the substrate and wherein the shielding component comprises one or more side parts being substantially perpendicular to the substrate , and wherein the shielding component comprises a top part being substantially parallel to the substrate , characterized in that the reservoir is provided as a recess in the top part of the shielding component .