mhurhangee/patent-ind-claim-en huggingface dataset:
A method for fabricating a denture base , the method comprising; a preparation step (S10) of preparing a cutting target mold including a bottom wall , a first side wall , a second side wall , a third side wall , a fourth side wall , an opening facing the bottom wall , and molding space surrounded by the bottom wall , the first side wall , the second side wall , the third side wall , and the fourth side wall , the first side wall and the second side wall extending upward from the bottom wall and being opposed to each other, the third side wall and the fourth side wall extending upward from the bottom wall , being opposed to each other, and being respectively connected to the first side wall and the second side wall ; an attachment step (S20) of attaching a rod-shaped first rod member to a portion of the first side wall defining the molding space in such a manner that an axis of the first rod member extends from the third side wall toward the fourth side wall and the first rod member covers a portion of the opening , and attaching a rod-shaped second rod member to a portion of the second side wall defining the molding space in such a manner that an axis of the second rod member extends from the third side wall toward the fourth side wall and the second rod member covers a portion of the opening ; an injection step (S30) of injecting a denture base material into the molding space ; an arrangement step (S40) of disposing a plate member in the cutting target mold in such a manner that the plate member is located above the first rod member and the second rod member and covers a portion of the opening ; a molding step (S50) of polymerizing the denture base material and molding a cutting target including the polymerized denture base material, the first rod member , and the second rod member ; a detachment step (S60) of detaching the cutting target from the cutting target mold ; a first fabrication step (S70) of cutting a portion of the polymerized the denture base material in the cutting target with a cutting machine and fabricating a rod member-including denture base including the first rod member and the second rod member ; and a second fabrication step (S80) of removing the first rod member and the second rod member from the rod member-including denture base and fabricating a denture base .
A method for tethering wireless audio devices, comprising: establishing a first wireless connection between an intermediary device and a primary audio device ; receiving a random resolvable address by the intermediary device from a secondary audio device , the random resolvable address including a dynamically changing identifier that prevents unique identification of the secondary audio device unless an entity attempting the identification has a corresponding identity resolving key, wherein the intermediary device does not have the identity resolving key associated with the random resolvable address; transmitting the random resolvable address to the primary audio device from the intermediary device via the first wireless connection; transmitting an instruction to the primary audio device from the intermediary device, via the first wireless connection, to analyze broadcasted data from nearby audio devices for a matching audio device having broadcasted data corresponding to the random resolvable address, and to initiate a second wireless connection with the matching audio device; and transmitting audio data to the primary audio device from the intermediary device via the first wireless connection for streaming the audio data from the primary audio device to the secondary audio device, identified to the primary audio device as the matching audio device, via the second wireless connection. establishing a first wireless connection between an intermediary device and a primary audio device ; receiving a random resolvable address by the intermediary device from a secondary audio device , the random resolvable address including a dynamically changing identifier that prevents unique identification of the secondary audio device unless an entity attempting the identification has a corresponding identity resolving key, wherein the intermediary device does not have the identity resolving key associated with the random resolvable address; transmitting the random resolvable address to the primary audio device from the intermediary device via the first wireless connection; transmitting an instruction to the primary audio device from the intermediary device, via the first wireless connection, to analyze broadcasted data from nearby audio devices for a matching audio device having broadcasted data corresponding to the random resolvable address, and to initiate a second wireless connection with the matching audio device; and transmitting audio data to the primary audio device from the intermediary device via the first wireless connection for streaming the audio data from the primary audio device to the secondary audio device, identified to the primary audio device as the matching audio device, via the second wireless connection.
An optical system comprising: a fiber amplifier comprising an optically active doped fiber; a source of seed pulses ; and a pump source , wherein the doped fiber is doped with one or more active elements selected such that the seed pulses are amplified in intensity; the doped fiber has a negative group velocity dispersion in the region from the wavelength of the seed pulses to a threshold wavelength at which the magnitude of the optical loss of the doped fiber is greater than a gain due to stimulated Raman scattering, so that in use due to stimulated Raman scattering, formation of a Raman soliton occurs, the Raman soliton is further shifted in the wavelength domain, and the shifting of the soliton in the wavelength domain is stopped at the threshold wavelength; the fiber is doped with thulium Tm, the fiber has a negative group velocity dispersion in the region of 1.8 to 2.6 μm; the pump source is arranged to pump at a wavelength from 0.77 to 0.82 μm; the source of seed pulses provides pulses having wavelengths from 1.8-2.1 μm; the duration of the seed optical pulses is limited to less than 100 ps; the threshold wavelength is longer than the wavelength of the seed pulses ; and the optical system is operable to generate a series of spectrally separated soliton pulses in the region from the seed pulse wavelength to 2.6μm. a fiber amplifier comprising an optically active doped fiber; a source of seed pulses ; and a pump source , wherein the doped fiber is doped with one or more active elements selected such that the seed pulses are amplified in intensity; the doped fiber has a negative group velocity dispersion in the region from the wavelength of the seed pulses to a threshold wavelength at which the magnitude of the optical loss of the doped fiber is greater than a gain due to stimulated Raman scattering, so that in use due to stimulated Raman scattering, formation of a Raman soliton occurs, the Raman soliton is further shifted in the wavelength domain, and the shifting of the soliton in the wavelength domain is stopped at the threshold wavelength; the fiber is doped with thulium Tm, the fiber has a negative group velocity dispersion in the region of 1.8 to 2.6 μm; the pump source is arranged to pump at a wavelength from 0.77 to 0.82 μm; the source of seed pulses provides pulses having wavelengths from 1.8-2.1 μm; the duration of the seed optical pulses is limited to less than 100 ps; the threshold wavelength is longer than the wavelength of the seed pulses ; and the optical system is operable to generate a series of spectrally separated soliton pulses in the region from the seed pulse wavelength to 2.6μm.
An adjustment mechanism for adjustably positioning a moveable aerodynamic surface relative to a support structure thereof, wherein the adjustment mechanism comprises: a base structure adapted for fixed connection to the moveable aerodynamic surface , the base structure including an elongate slot defining an elongate axis which is aligned with an adjustment axis for the moveable aerodynamic surface ; a fixed-position receiver opposing the base structure and adapted for positionally fixed connection to the support structure of the moveable aerodynamic surface ; and an adjustment bolt having a head and a threaded shaft extending from the head through the elongate slot of the base structure and being threadably coupled to the receiver to operably interconnect the base structure and the receiver , wherein the base structure is moveable relative to the fixed-position receiver within the elongate slot in a direction of the elongate axis thereof to thereby allow positionally adjustment of the moveable aerodynamic surface in a direction parallel to the adjustment axis; wherein the base structure comprises a recessed cup defining a space for receiving the head of the adjustment bolt and having a wall which defines the elongate slot; and characterised in that the adjustment mechanism further comprises a removable cover plate which covers the space of the recessed cup. a base structure adapted for fixed connection to the moveable aerodynamic surface , the base structure including an elongate slot defining an elongate axis which is aligned with an adjustment axis for the moveable aerodynamic surface ; a fixed-position receiver opposing the base structure and adapted for positionally fixed connection to the support structure of the moveable aerodynamic surface ; and an adjustment bolt having a head and a threaded shaft extending from the head through the elongate slot of the base structure and being threadably coupled to the receiver to operably interconnect the base structure and the receiver , wherein the base structure is moveable relative to the fixed-position receiver within the elongate slot in a direction of the elongate axis thereof to thereby allow positionally adjustment of the moveable aerodynamic surface in a direction parallel to the adjustment axis; wherein the base structure comprises a recessed cup defining a space for receiving the head of the adjustment bolt and having a wall which defines the elongate slot; and characterised in that the adjustment mechanism further comprises a removable cover plate which covers the space of the recessed cup.
Method for changing the surface properties, in particular for smoothing the surface of a component, characterized in that - the surface of the component is coated with a layer material which is applied in liquid form and deposited by chemical reaction in an immersion bath and which has a composition containing at least one constituent which - melts at a lower temperature than the component material or - forms, together with the component material, at least one component part that has a lower melting temperature than the component material, and in that - the coated component is subjected to a heat treatment which is carried out in the range of the solution annealing temperature of the component material such that diffusion processes can take place between the coating and the component, - the component material being a metal alloy and the layer material being a metal alloy or a technically pure metal; and - the coating being optionally removed again after the heat treatment by means of a property-sensitive removal process. - the surface of the component is coated with a layer material which is applied in liquid form and deposited by chemical reaction in an immersion bath and which has a composition containing at least one constituent which - melts at a lower temperature than the component material or - forms, together with the component material, at least one component part that has a lower melting temperature than the component material, and in that - melts at a lower temperature than the component material or - forms, together with the component material, at least one component part that has a lower melting temperature than the component material, - the coated component is subjected to a heat treatment which is carried out in the range of the solution annealing temperature of the component material such that diffusion processes can take place between the coating and the component, - the component material being a metal alloy and the layer material being a metal alloy or a technically pure metal; and - the coating being optionally removed again after the heat treatment by means of a property-sensitive removal process.
A method for measuring cross-link interference, performed by a terminal , the method comprising: receiving, from a base station , time-frequency resource configuration information, wherein the time-frequency resource configuration information includes configuration information about measurement time-frequency resources for measuring the cross-link interference and receiving, from the base station, information about reference signal time-frequency resources, and wherein at least one of period information, time information, or frequency information for the measurement time-frequency resources is identified based on the information on reference signal time-frequency resources; identifying the measurement time-frequency resources for measuring the cross-link interference based on the time-frequency resource configuration information; measuring the cross-link interference based on the measurement time-frequency resources; and transmitting, to the base station , a measurement result of the cross-link interference. receiving, from a base station , time-frequency resource configuration information, wherein the time-frequency resource configuration information includes configuration information about measurement time-frequency resources for measuring the cross-link interference and receiving, from the base station, information about reference signal time-frequency resources, and wherein at least one of period information, time information, or frequency information for the measurement time-frequency resources is identified based on the information on reference signal time-frequency resources; identifying the measurement time-frequency resources for measuring the cross-link interference based on the time-frequency resource configuration information; measuring the cross-link interference based on the measurement time-frequency resources; and transmitting, to the base station , a measurement result of the cross-link interference.
A press device for pressing adjacent lamellae which are glued together to form a laminated carpet, comprising pressure pieces which can be displaced by means of drive units , characterized in that the drive units are detachably connected to at least one synchronizing rail in such a manner that the drive units are decoupled from the synchronizing rail when a predefined retaining force is exceeded.
Digital decorating machine for ceramic products, comprising at least a conveyor , suitable to transport the products to be decorated (P) along a feed direction (A), and a plurality of decoration modules , positioned over said conveyor and adjacent to each other along said feed direction (A), said modules comprising respective printing heads provided with nozzles for ejecting a fluid to be delivered on the surface of the products to be decorated (P), said conveyor comprising at least a movable member for supporting the products to be decorated (P), suitable for translating them along said feed direction (A), said conveyor comprising at least a supporting surface , located along a respective flank of said movable member , provided with a plurality of predetermined positioning zones for the removable engagement of respective coupling portions of said decoration modules , wherein said conveyor comprises a first supporting surface and a second supporting surface , respectively positioned along the first flank and along the second flank of said movable member , said first supporting surface and said second supporting surface comprising respective pluralities of first positioning zones and second positioning zones for the modules , opposite to each other with reference to said movable member , wherein each of said modules comprises a first coupling portion and a second coupling portion , opposite each other with respect to said printing heads , suitable to be connected, in a removable manner, respectively to said first positioning zones and second positioning zones , wherein each of said modules comprises a box , including said coupling portions , and housing all the components required to operate the module , wherein it comprises at least a detection device for sensing the dimensional and/or structural and/or surface parameters of the products (P) entering the decorating area of the machine .
An implantable medical device, comprising: an implantable housing; and a pulse generator carried by the housing, the pulse generator being programmed with instructions that, when executed: receive at least one patient-specific therapy signal parameter; direct a patient therapy signal to a signal delivery device in accordance with the at least one patient-specific therapy signal parameter; based at least on the at least one patient-specific therapy signal parameter, determine a discharge rate for a battery of the implantable medical device; based at least in part on the discharge rate, determine a therapy run time; and based at least in part on the therapy run time, determine at least one battery charging parameter, and charging the battery of the implantable medical device using the determined at least one battery charging parameter. an implantable housing; and a pulse generator carried by the housing, the pulse generator being programmed with instructions that, when executed: receive at least one patient-specific therapy signal parameter; direct a patient therapy signal to a signal delivery device in accordance with the at least one patient-specific therapy signal parameter; based at least on the at least one patient-specific therapy signal parameter, determine a discharge rate for a battery of the implantable medical device; based at least in part on the discharge rate, determine a therapy run time; and based at least in part on the therapy run time, determine at least one battery charging parameter, and charging the battery of the implantable medical device using the determined at least one battery charging parameter. receive at least one patient-specific therapy signal parameter; direct a patient therapy signal to a signal delivery device in accordance with the at least one patient-specific therapy signal parameter; based at least on the at least one patient-specific therapy signal parameter, determine a discharge rate for a battery of the implantable medical device; based at least in part on the discharge rate, determine a therapy run time; and based at least in part on the therapy run time, determine at least one battery charging parameter, and charging the battery of the implantable medical device using the determined at least one battery charging parameter.
Pre-form assembly to make a container for beverages comprising an external pre-form and an internal pre-form , each configured to form respectively an external drum and an internal bag of said container , said internal pre-form being associable internally with said external pre-form so as to define with said external pre-form a hollow space , wherein said internal and external pre-forms comprise respective coupling members in correspondence with respective neck portions suitable to reciprocally position said external pre-form and said internal pre-form along a longitudinal axis (X), characterized in that at least one of either said external pre-form or said internal pre-form comprises at least one spacer element protruding toward the inside of the hollow space , extending circumferentially or helically and defining at least one channel for the passage of a fluid.
A network connection method, comprising: sending , by a network control element, a first connection parameter to a terminal; and sending , by the network control element, a second connection parameter to a security node, wherein the first connection parameter comprises a first security key and a randomizer; and the second connection parameter comprises a second security key and the randomizer, wherein the first security key and the randomizer are used by the terminal for generating a new security key of the terminal; and the second security key and the randomizer are used by the security node for generating a new security key of the security node; and wherein the new security key of the terminal is used for decrypting data encrypted by using the new security key of the security node, the new security key of the security node is used for decrypting data encrypted by using the new security key of the terminal, and the first connection parameter and the second connection parameter each comprise a security parameter used when the terminal and the security node establish a network connection. sending , by a network control element, a first connection parameter to a terminal; and sending , by the network control element, a second connection parameter to a security node, wherein the first connection parameter comprises a first security key and a randomizer; and the second connection parameter comprises a second security key and the randomizer, wherein the first security key and the randomizer are used by the terminal for generating a new security key of the terminal; and the second security key and the randomizer are used by the security node for generating a new security key of the security node; and the first security key and the randomizer are used by the terminal for generating a new security key of the terminal; and the second security key and the randomizer are used by the security node for generating a new security key of the security node; and wherein the new security key of the terminal is used for decrypting data encrypted by using the new security key of the security node, the new security key of the security node is used for decrypting data encrypted by using the new security key of the terminal, and the first connection parameter and the second connection parameter each comprise a security parameter used when the terminal and the security node establish a network connection.