mhurhangee/patent-ind-claim-en huggingface dataset:
A method of employing a device as a resonator for electrons of an electrical circuit or for a terahertz electromagnetic wave , the device comprising: a heterostructure ; a bottom electrode arranged below the heterostructure ; and a top electrode arranged above the heterostructure ; wherein: the heterostructure comprises a plurality of dielectric layers , a plurality of ferroelectric layers , and an alternating stacking sequence of the dielectric layers of the plurality of dielectric layers and the ferroelectric layers of the plurality of ferroelectric layers , wherein: the ferroelectric layers comprise respective pluralities of ferroelectric polarization domains forming respective polarization patterns, and the polarization patterns are adapted to execute respective oscillations with resonance frequencies in a terahertz frequency range; wherein the method comprises: functionally coupling the oscillations of the polarization pattern and an oscillation of the electrons of the electrical circuit or of the terahertz electromagnetic wave by the device . a heterostructure ; a bottom electrode arranged below the heterostructure ; and a top electrode arranged above the heterostructure ; wherein: the heterostructure comprises a plurality of dielectric layers , a plurality of ferroelectric layers , and an alternating stacking sequence of the dielectric layers of the plurality of dielectric layers and the ferroelectric layers of the plurality of ferroelectric layers , wherein: the ferroelectric layers comprise respective pluralities of ferroelectric polarization domains forming respective polarization patterns, and the polarization patterns are adapted to execute respective oscillations with resonance frequencies in a terahertz frequency range; wherein the method comprises: functionally coupling the oscillations of the polarization pattern and an oscillation of the electrons of the electrical circuit or of the terahertz electromagnetic wave by the device .
An ignition plug comprising: - a cylindrical main fitting ; - a rod-shaped ground electrode connected to one end surface of the main fitting ; - a rod-shaped high voltage electrode , one end of which is exposed from the end surface side of the main fitting ; and - a first dielectric covering a peripheral surface of the high voltage electrode and held in the main fitting , wherein the end portion of the high voltage electrode is covered with a second dielectric that has a thickness dimension smaller than a thickness dimension of the first dielectric , and wherein the end portion of the high voltage electrode and the ground electrode are disposed to face each other with a discharge region facing the second dielectric being interposed therebetween, a thickness dimension of the second dielectric facing the discharge region is uniform, and, an area of the ground electrode facing the discharge region is smaller than a surface area of the second dielectric facing the discharge region , characterized in that assuming that an area of the end portion of the main fitting is S1 and an area of the end surface , which is occupied by the ground electrode when the ground electrode is projected onto the end surface is S2, the relation 0.15 ≤ S2/S1 ≤ 0.35 is valid. - a cylindrical main fitting ; - a rod-shaped ground electrode connected to one end surface of the main fitting ; - a rod-shaped high voltage electrode , one end of which is exposed from the end surface side of the main fitting ; and - a first dielectric covering a peripheral surface of the high voltage electrode and held in the main fitting , wherein the end portion of the high voltage electrode is covered with a second dielectric that has a thickness dimension smaller than a thickness dimension of the first dielectric , and wherein the end portion of the high voltage electrode and the ground electrode are disposed to face each other with a discharge region facing the second dielectric being interposed therebetween, a thickness dimension of the second dielectric facing the discharge region is uniform, and, an area of the ground electrode facing the discharge region is smaller than a surface area of the second dielectric facing the discharge region , characterized in that assuming that an area of the end portion of the main fitting is S1 and an area of the end surface , which is occupied by the ground electrode when the ground electrode is projected onto the end surface is S2, the relation 0.15 ≤ S2/S1 ≤ 0.35 is valid.
A multi layer tablet comprising: • A controlled release part comprising tamsulosin.HCl; and • An immediate release part made by wet granulation comprising: a) Solifenacin succinate; b) A water insoluble diluent in an amount of 80 to 95% w/w relative to the total weight of the immediate release part of the tablet, wherein the insoluble diluent is a combination of dicalcium phosphate and microcrystalline cellulose c) A glidant with a specific surface area ≤ 400 m 2 /g in an amount of 0.05 to 10% w/w relative to the weight of the immediate release part of the tablet, the glidant being silicon dioxide; d) A disintegrant in an amount of 1 to 10% w/w relative to the total weight of the immediate release part of the tablet. e) A lubricant in a range from 0.25 to 5% w/w relative to the total weight of the immediate release part of the tablet. • A controlled release part comprising tamsulosin.HCl; and • An immediate release part made by wet granulation comprising: a) Solifenacin succinate; b) A water insoluble diluent in an amount of 80 to 95% w/w relative to the total weight of the immediate release part of the tablet, wherein the insoluble diluent is a combination of dicalcium phosphate and microcrystalline cellulose c) A glidant with a specific surface area ≤ 400 m 2 /g in an amount of 0.05 to 10% w/w relative to the weight of the immediate release part of the tablet, the glidant being silicon dioxide; d) A disintegrant in an amount of 1 to 10% w/w relative to the total weight of the immediate release part of the tablet. e) A lubricant in a range from 0.25 to 5% w/w relative to the total weight of the immediate release part of the tablet. a) Solifenacin succinate; b) A water insoluble diluent in an amount of 80 to 95% w/w relative to the total weight of the immediate release part of the tablet, wherein the insoluble diluent is a combination of dicalcium phosphate and microcrystalline cellulose c) A glidant with a specific surface area ≤ 400 m 2 /g in an amount of 0.05 to 10% w/w relative to the weight of the immediate release part of the tablet, the glidant being silicon dioxide; d) A disintegrant in an amount of 1 to 10% w/w relative to the total weight of the immediate release part of the tablet. e) A lubricant in a range from 0.25 to 5% w/w relative to the total weight of the immediate release part of the tablet.
A glass-ceramic article, comprising at least one substrate, such as a plate, made of glass-ceramic, said substrate being coated in at least one zone with at least one layer comprising zirconium silicon nitride, Si x Zr y N z , with an atomic ratio of Zr to the sum Si + Zr, y/(x + y), of 10% to 90%, preferably of 15% to 50% and in particular of 28% to 33%, the thickness of said layer being within a range extending from 200 to 5000 nm.
Screw (1, 1', 1", 1′′′), in particular wood screw, having a head (2, 2', 2", 2′′′), characterized in that the head (2, 2', 2", 2′′′) is stepped, wherein the head (2, 2', 2", 2′′′) has support pieces (9, 9', 9", 9′′′, 9 IV , 9 V , 9 VI , 9 VII , 9 VIII , 9 IX , 9 X , 9 XI , 9 XII , 9 XIII , 9 XIV , 9 XV ) on the steps (3, 3', 3", 3′′′, 3 IV , 3 V , 3 VI , 3 VII , 3 VIII , 3 IX , 3 X ) for support in a fitting (B).
A radio access network paging area RPA information transmission method in a fifth generation, 5G, communication system, wherein the method comprises: receiving (S1201), by a first gNB, a Xn interface setup request message or a gNB configuration update message sent by a second gNB, wherein the Xn interface setup request message or the gNB configuration update message carries a RPA code corresponding to a cell of the second gNB, wherein the RPA code is used to identify an RPA, a cell ID of the cell of the second gNB, and a broadcast PLMNs list comprising one or more PLMN identities corresponding to the cell of the second gNB; and sending (S1202), by the first gNB, a Xn interface setup feedback message or a configuration update confirmation message to the second gNB. receiving (S1201), by a first gNB, a Xn interface setup request message or a gNB configuration update message sent by a second gNB, wherein the Xn interface setup request message or the gNB configuration update message carries a RPA code corresponding to a cell of the second gNB, wherein the RPA code is used to identify an RPA, a cell ID of the cell of the second gNB, and a broadcast PLMNs list comprising one or more PLMN identities corresponding to the cell of the second gNB; and sending (S1202), by the first gNB, a Xn interface setup feedback message or a configuration update confirmation message to the second gNB.
A palm device for non-invasive collection of biomarkers in living beings, wherein the palm device has an anatomic body , comprising a lower part , a middle third and a convex surface , wherein the convex surface extends from the middle third up to a central opening concentric to a photoelectric sensor ; the lower part defines a lower perimeter that is substantially square with rounded corners, and comprises four walls extending from the lower perimeter and positioned at an angle of 45°, one from the other, the walls converging to the middle third ; a collection adapter , with medium-sized, circular-contoured hollow , is encased inside the central opening of the anatomic body , in which the collection adapter is configured for keeping a palm of a hand of a target individual, the hand supported on the device , at a distance between 5 and 10 mm of the photoelectric sensor ; and wherein the collection adapter has on its upper surface juxtaposed concave grooves ; a chamber of an optical system is formed by the photoelectric sensor mounted on a support , wherein the chamber also houses a set of LEDs whose beams of light are configured to pass through a lens preceding the medium-sized hollow of the collection adapter to return to the photoelectric sensor after having reached the palm of the hand of the target individual when the target individual puts his palm on the collection adapter ; a printed circuit board fixed at the bottom of a support and positioned inside the anatomic body of the device below the chamber ; a protection lid of the optical sensor covers the collection adapter and protects the photoelectric sensor on which the printed circuit board is configured to run an operational program to calibrate the device in a non-invasive manner before each collection using the protection lid attached to the collection adapter as an optical standard.
Method for producing a decorative component , which is designed as an interior trim part of a passenger cabin of a vehicle and has a visible surface embossed in a raised manner, said method comprising the following steps: - providing an embossing device which has a female embossing mould and a male embossing mould , - providing at least one decorative material layer having a thickness between 0.6 mm and 5 mm, wherein the decorative material layer comprises leather or consists of leather, - disposing the decorative material layer between the female embossing mould and the male embossing mould in such a manner that a visible surface of the decorative material layer faces the female embossing mould , and a reverse face of the decorative material layer that is opposite the visible surface faces the male embossing mould , - carrying out an embossing procedure by means of the embossing device such that the decorative material layer after the embossing procedure has a raised region on the visible surface and an opposite depressed region on the reverse face , - producing an insert element by an additive manufacturing method, wherein the insert element after production has a cellular structure which is generated by the additive manufacturing method, wherein the insert element comprises a thermoplastic elastomer, and - disposing the insert element in the depressed region for stabilizing the raised region , wherein the insert element is adhesively bonded into the depressed region . - providing an embossing device which has a female embossing mould and a male embossing mould , - providing at least one decorative material layer having a thickness between 0.6 mm and 5 mm, wherein the decorative material layer comprises leather or consists of leather, - disposing the decorative material layer between the female embossing mould and the male embossing mould in such a manner that a visible surface of the decorative material layer faces the female embossing mould , and a reverse face of the decorative material layer that is opposite the visible surface faces the male embossing mould , - carrying out an embossing procedure by means of the embossing device such that the decorative material layer after the embossing procedure has a raised region on the visible surface and an opposite depressed region on the reverse face , - producing an insert element by an additive manufacturing method, wherein the insert element after production has a cellular structure which is generated by the additive manufacturing method, wherein the insert element comprises a thermoplastic elastomer, and - disposing the insert element in the depressed region for stabilizing the raised region , wherein the insert element is adhesively bonded into the depressed region .
An imaging method comprising: providing ultrasound pulse-echo data of a region in which at least one portion of a blood vessel is located; using speckle tracking of one or more speckle regions of the region in which at least one portion of the blood vessel is located to track motion of at least blood flow through the at least one portion of the blood vessel or to track motion of both the vessel wall defining the at least one portion of the blood vessel and the blood flow through the at least one portion of the blood vessel; and removing echo reverberations in the pulse-echo data due to reflection at the vessel wall when performing speckle tracking of the pulse-echo data from the one or more speckle regions in the blood by applying a dereverberation filter to the pulse-echo data from the one or more speckle regions in the blood. providing ultrasound pulse-echo data of a region in which at least one portion of a blood vessel is located; using speckle tracking of one or more speckle regions of the region in which at least one portion of the blood vessel is located to track motion of at least blood flow through the at least one portion of the blood vessel or to track motion of both the vessel wall defining the at least one portion of the blood vessel and the blood flow through the at least one portion of the blood vessel; and removing echo reverberations in the pulse-echo data due to reflection at the vessel wall when performing speckle tracking of the pulse-echo data from the one or more speckle regions in the blood by applying a dereverberation filter to the pulse-echo data from the one or more speckle regions in the blood.
An apparatus for correcting a deviation between a plurality of transmission channels, wherein the plurality of transmission channels comprise a first transmission channel and a second transmission channel, wherein the apparatus comprises: a phase offset unit , configured to set a phase offset between the first transmission channel and the second transmission channel, such that a phase deviation between the first transmission channel and the second transmission channel deviates from zero; a power detection unit , configured to detect signal powers of the first transmission channel and the second transmission channel under the phase offset, wherein the detected signal powers comprise one or more signal power sets, and each signal power set comprises a first signal power detected on the first transmission channel, a second signal power detected on the second transmission channel, and a third signal power detected on the first transmission channel and the second transmission channel; a processing unit , configured to determine, based on the detected signal powers, a deviation correction value between the first transmission channel and the second transmission channel, wherein the deviation correction value comprises a phase correction value; and a phase correction unit , configured to set the phase correction value between the first transmission channel and the second transmission channel. a phase offset unit , configured to set a phase offset between the first transmission channel and the second transmission channel, such that a phase deviation between the first transmission channel and the second transmission channel deviates from zero; a power detection unit , configured to detect signal powers of the first transmission channel and the second transmission channel under the phase offset, wherein the detected signal powers comprise one or more signal power sets, and each signal power set comprises a first signal power detected on the first transmission channel, a second signal power detected on the second transmission channel, and a third signal power detected on the first transmission channel and the second transmission channel; a processing unit , configured to determine, based on the detected signal powers, a deviation correction value between the first transmission channel and the second transmission channel, wherein the deviation correction value comprises a phase correction value; and a phase correction unit , configured to set the phase correction value between the first transmission channel and the second transmission channel.
A beam combiner , included in a laser system , comprising: an array of source elements , each source element, of the array of source elements, being configured to output a beam of light locked at a center wavelength different from center wavelengths of other source elements of the array of source elements, wherein each source element comprises or is coupled to a laser gain element; a dispersive element configured to combine the beams of light into a combined beam; a beam separator configured to separate the combined beam exiting the dispersive element into an output beam and a locking beam , the locking beam comprising a smaller portion of the combined beam than the output beam, the smaller portion including a portion of the beam of light of each source element; a spatial filter configured to prevent crosstalk within the locking beam, and to redirect the locking beam back through the beam separator, the dispersive element and to the array of source elements; and the dispersive element configured to disperse the locking beam into constituent wavelength beams, each constituent wavelength beam being directed to a respective one of the array of source elements for locking that source element at its center wavelength, and each constituent wavelength beam corresponding in wavelength to the center wavelength of the respective source element. an array of source elements , each source element, of the array of source elements, being configured to output a beam of light locked at a center wavelength different from center wavelengths of other source elements of the array of source elements, wherein each source element comprises or is coupled to a laser gain element; a dispersive element configured to combine the beams of light into a combined beam; a beam separator configured to separate the combined beam exiting the dispersive element into an output beam and a locking beam , the locking beam comprising a smaller portion of the combined beam than the output beam, the smaller portion including a portion of the beam of light of each source element; a spatial filter configured to prevent crosstalk within the locking beam, and to redirect the locking beam back through the beam separator, the dispersive element and to the array of source elements; and the dispersive element configured to disperse the locking beam into constituent wavelength beams, each constituent wavelength beam being directed to a respective one of the array of source elements for locking that source element at its center wavelength, and each constituent wavelength beam corresponding in wavelength to the center wavelength of the respective source element. each constituent wavelength beam being directed to a respective one of the array of source elements for locking that source element at its center wavelength, and each constituent wavelength beam corresponding in wavelength to the center wavelength of the respective source element.
A component mounting system comprising: a component mounter group made up by aligning multiple component mounters , each comprising multiple component supply devices that are set detachably therein and configured to mount components supplied by the multiple component supply devices on a mounting target, in a conveyance direction of the mounting target; a storage container configured to detachably support some of the multiple component supply devices in an aligned fashion; the component mounting system further comprising a loader configured to move along the conveyance direction so as to automatically unload and/or load the component supply device from and/or in the component mounter and the storage container ; a production management computer, and a host computer configured to prepare, based on a production plan for producing various types of products in each of which predetermined various types of components are mounted on the mounting target, a job for each of the products, set a job in the jobs so prepared which satisfies a specified determination condition as a determined job, and copy the determined job to the production management computer, wherein the production management computer is configured to make a preparation for processing the determined job, and thereafter cause the loader to unload and/or load the component supply device to and/or from the storage container to load them in the component mounters accordingly for the determined job based on a result of the preparation for processing the determined job. a component mounter group made up by aligning multiple component mounters , each comprising multiple component supply devices that are set detachably therein and configured to mount components supplied by the multiple component supply devices on a mounting target, in a conveyance direction of the mounting target; a storage container configured to detachably support some of the multiple component supply devices in an aligned fashion; the component mounting system further comprising a loader configured to move along the conveyance direction so as to automatically unload and/or load the component supply device from and/or in the component mounter and the storage container ; a production management computer, and a host computer configured to prepare, based on a production plan for producing various types of products in each of which predetermined various types of components are mounted on the mounting target, a job for each of the products, set a job in the jobs so prepared which satisfies a specified determination condition as a determined job, and copy the determined job to the production management computer, wherein the production management computer is configured to make a preparation for processing the determined job, and thereafter cause the loader to unload and/or load the component supply device to and/or from the storage container to load them in the component mounters accordingly for the determined job based on a result of the preparation for processing the determined job.