mhurhangee/patent-ind-claim-en huggingface dataset:
A method for aligning high efficiency long training fields ("HE-LTF") for data corresponding to a plurality of users, the method comprising: determining a respective number of spatial streams corresponding to each user of a plurality of users; determining a highest respective number of spatial streams of the spatial streams corresponding to the plurality of users; setting an alignment number of HE-LTF symbols to be equal to or larger than the highest respective number of spatial streams; the method being characterized by : for each respective user, selecting a respective matrix of HE-LTF symbols corresponding to the respective number of spatial streams of the respective user; determining whether the respective matrix of HE-LTF symbols has fewer symbols than the alignment number; and in response to determining that the respective matrix of HE-LTF symbols has fewer symbols than the alignment number, adding padding symbols to the respective matrix to yield a number of HE-LTF symbols in the respective matrix that corresponds to the alignment number. determining a respective number of spatial streams corresponding to each user of a plurality of users; determining a highest respective number of spatial streams of the spatial streams corresponding to the plurality of users; setting an alignment number of HE-LTF symbols to be equal to or larger than the highest respective number of spatial streams; the method being characterized by : for each respective user, selecting a respective matrix of HE-LTF symbols corresponding to the respective number of spatial streams of the respective user; determining whether the respective matrix of HE-LTF symbols has fewer symbols than the alignment number; and in response to determining that the respective matrix of HE-LTF symbols has fewer symbols than the alignment number, adding padding symbols to the respective matrix to yield a number of HE-LTF symbols in the respective matrix that corresponds to the alignment number. for each respective user, selecting a respective matrix of HE-LTF symbols corresponding to the respective number of spatial streams of the respective user; determining whether the respective matrix of HE-LTF symbols has fewer symbols than the alignment number; and in response to determining that the respective matrix of HE-LTF symbols has fewer symbols than the alignment number, adding padding symbols to the respective matrix to yield a number of HE-LTF symbols in the respective matrix that corresponds to the alignment number.
A cavity filter comprising: an RF signal connecting portion spaced apart, by a predetermined distance, from an outer member having an electrode pad provided on a surface thereof; and a terminal portion configured to electrically connect the electrode pad of the outer member and the RF signal connecting portion so as to absorb assembly tolerance existing at the predetermined distance and to prevent disconnection of the electric flow between the electrode pad and the RF signal connecting portion , wherein the terminal portion comprises: a first side terminal contacted with the electrode pad; and a second side terminal connected to the RF signal connecting portion , further comprising a dielectric body inserted into a terminal insertion port so as to cover the outside of the terminal portion , wherein the first side terminal of the terminal portion is disposed in the terminal insertion port and configured to be moved with the dielectric body by an assembly force provided by an assembler, and any one of the first side terminal and the second side terminal is housed into the other so as to overlap the other by a predetermined length. an RF signal connecting portion spaced apart, by a predetermined distance, from an outer member having an electrode pad provided on a surface thereof; and a terminal portion configured to electrically connect the electrode pad of the outer member and the RF signal connecting portion so as to absorb assembly tolerance existing at the predetermined distance and to prevent disconnection of the electric flow between the electrode pad and the RF signal connecting portion , wherein the terminal portion comprises: a first side terminal contacted with the electrode pad; and a second side terminal connected to the RF signal connecting portion , further comprising a dielectric body inserted into a terminal insertion port so as to cover the outside of the terminal portion , wherein the first side terminal of the terminal portion is disposed in the terminal insertion port and configured to be moved with the dielectric body by an assembly force provided by an assembler, and a first side terminal contacted with the electrode pad; and a second side terminal connected to the RF signal connecting portion , further comprising a dielectric body inserted into a terminal insertion port so as to cover the outside of the terminal portion , wherein the first side terminal of the terminal portion is disposed in the terminal insertion port and configured to be moved with the dielectric body by an assembly force provided by an assembler, and any one of the first side terminal and the second side terminal is housed into the other so as to overlap the other by a predetermined length.
Electrical appliance , designed to be mounted onto the surface of a wall, comprising at least one electric functional block and a mounting box for mounting onto the wall and securing said at least one functional block, said mounting box having, from an inner side of said mounting box relative to a back wall , a receiving cavity for said at least one functional block, delimited by said back wall , the mounting box having, on the back wall for passing a traversing element such as a cable or screw through the latter, a plurality of passage areas , in particular in the form of an opening hole arranged in said back wall and/or an arrangement of weakened areas for facilitating the creation of such a hole by removing a detachable portion , characterised in that the electrical appliance also comprises a single seal fully covering each passage area , placed against the back wall from an outer side of the mounting box opposite the inner side around the at least one passage area , fixed to the back wall at least in each passage area and able to match with the section of the whole traversing element introduced through the passage area so as to contribute to the sealing of the passage area , and in that said seal is fixed to the back wall at least in the area of each passage area , at least along a closed contour surrounding the latter, in that said seal covers substantially all of the back wall , and in that said seal has, along its outer perimeter and from the side opposite the receiving cavity , a continuous rib forming at least one lip.
Cannabidiol for use in a method of treating one or more behavioral symptoms of Fragile X Syndrome in a subject, the method comprising: transdermally administering an effective amount of cannabidiol (CBD) to the subject wherein one or more behavioral symptoms of Fragile X Syndrome are treated in the subject.
An aerosol generating device comprising: a heating chamber arranged to hold an aerosol generating medium ; a heater arranged, in use, to heat the heating chamber ; a temperature measuring means arranged to measure the temperature of the heater or heating chamber; at least one indicator (11-14) configured to indicate when an initialisation heating time has elapsed; a memory storing one or more rules, each rule defining an operating process of the heater and the indicator; control circuitry configured to select a rule stored in the memory and operate the heater and indicator (11-14) according to the selected rule; wherein the memory stores a first rule and the control circuitry is configured to operate the heater and the indicator (11-14) according to the first rule, the first rule comprising: operating the heater to heat the heating chamber to a use temperature during a heat-up period and then maintaining the heating chamber at the use temperature; and characterised by operating the indicator (11-14) to signal that the aerosol generating device is ready for use when the initialisation heating time has elapsed, wherein the initialisation heating time is longer than the heat-up period. a heating chamber arranged to hold an aerosol generating medium ; a heater arranged, in use, to heat the heating chamber ; a temperature measuring means arranged to measure the temperature of the heater or heating chamber; at least one indicator (11-14) configured to indicate when an initialisation heating time has elapsed; a memory storing one or more rules, each rule defining an operating process of the heater and the indicator; control circuitry configured to select a rule stored in the memory and operate the heater and indicator (11-14) according to the selected rule; wherein the memory stores a first rule and the control circuitry is configured to operate the heater and the indicator (11-14) according to the first rule, the first rule comprising: operating the heater to heat the heating chamber to a use temperature during a heat-up period and then maintaining the heating chamber at the use temperature; and characterised by operating the indicator (11-14) to signal that the aerosol generating device is ready for use when the initialisation heating time has elapsed, wherein the initialisation heating time is longer than the heat-up period. operating the heater to heat the heating chamber to a use temperature during a heat-up period and then maintaining the heating chamber at the use temperature; and characterised by operating the indicator (11-14) to signal that the aerosol generating device is ready for use when the initialisation heating time has elapsed, wherein the initialisation heating time is longer than the heat-up period.
A process for preparing a 3D texture decorative panel, comprising the following steps: step A, printing a pattern on an upper surface of a substrate and curing to form a pattern layer ; step B: carrying out digital inkjet printing on an area where a convex pattern is required on the pattern layer by using a first UV varnish to obtain a first UV varnish layer , and before the first UV varnish layer is cured, in a crack area with a predetermined sharp boundary on the pattern layer , digital inkjet printing is performed on an edge of the first UV varnish layer with an ink to obtain an ink layer , the ink layer is in contact with the first UV varnish layer , then the first UV varnish layer is subjected to curing, and the first UV varnish is an UV transparent varnish or an UV translucent varnish, and the ink is selected from an aqueous transparent ink or a second UV varnish, and the second UV varnish is different from the first UV varnish; step C, removing the ink to obtain a 3D texture decorative panel with sharp edges; wherein the aqueous transparent ink is not dissolvable with the first UV varnish; and the aqueous transparent ink and the first UV varnish have a liquid surface tension of 10 mN/m to 40 mN/m, respectively, and a difference between the liquid surface tension of the aqueous transparent ink and the first UV varnish is 0 mN/m to 10 mN/m. step A, printing a pattern on an upper surface of a substrate and curing to form a pattern layer ; step B: carrying out digital inkjet printing on an area where a convex pattern is required on the pattern layer by using a first UV varnish to obtain a first UV varnish layer , and before the first UV varnish layer is cured, in a crack area with a predetermined sharp boundary on the pattern layer , digital inkjet printing is performed on an edge of the first UV varnish layer with an ink to obtain an ink layer , the ink layer is in contact with the first UV varnish layer , then the first UV varnish layer is subjected to curing, and the first UV varnish is an UV transparent varnish or an UV translucent varnish, and the ink is selected from an aqueous transparent ink or a second UV varnish, and the second UV varnish is different from the first UV varnish; step C, removing the ink to obtain a 3D texture decorative panel with sharp edges; wherein the aqueous transparent ink is not dissolvable with the first UV varnish; and the aqueous transparent ink and the first UV varnish have a liquid surface tension of 10 mN/m to 40 mN/m, respectively, and a difference between the liquid surface tension of the aqueous transparent ink and the first UV varnish is 0 mN/m to 10 mN/m.
Process for converting waste plastic, comprising more than 50 % by weight of polystyrene and polyolefin, based on the total weight of the waste plastic, into gases, liquid fuels and waxes by catalytic cracking, the process comprising : • introducing waste plastic and a catalyst within a reactor; • allowing at least a portion of the waste plastic to be converted to gases, liquid fuels and waxes within the reactor; and • removing a product stream containing said gases, liquid fuels and waxes from the reactor, • characterized in that additionally a gas stream comprising propylene is introduced within the reactor and in that the catalyst is a zeolite-type catalyst and/or an amorphous-type catalyst. • introducing waste plastic and a catalyst within a reactor; • allowing at least a portion of the waste plastic to be converted to gases, liquid fuels and waxes within the reactor; and • removing a product stream containing said gases, liquid fuels and waxes from the reactor, • characterized in that additionally a gas stream comprising propylene is introduced within the reactor and in that the catalyst is a zeolite-type catalyst and/or an amorphous-type catalyst.
An autoclave electrolyte container for platinum group metal recovery from used catalytic converters and other recyclable parts that contain noble metals, having a metal housing in which a coaxially positioned perforated cylindrical cathode is located in a cathode cassette having a membrane , characterized in that the metal housing has an outer surface which is embodied with a heat- and tension-insulated sheathing ; that direct current anodes are located on the inner surface of the metal housing , which anodes simultaneously serve as sacrificial anodes; that simultaneously on the inner surface of the metal housing , isolated alternating current electrodes are placed in pairs, which alternating current electrodes are insulated; and that an upper region of the autoclave electrolyte container, which is insulated from the metal housing , has an upper lid , electrically insulated from the metal housing , has a valve , which is joined by connectors to a descending radiator for distillation and condensation of the electrolytes, the radiator having a storage chamber for the electrolytes.
An apparatus for checking value documents , in particular banknotes, having - at least one first sensor , which is configured to detect electromagnetic radiation reflected and/or transmitted by a value document and to convert said radiation into corresponding first sensor signals, and - at least one second sensor , which is configured to detect sound waves, in particular ultrasonic waves, reflected and/or transmitted by the value document and to convert said waves into corresponding second sensor signals, and an evaluation device , which is configured to determine a first area value characterizing a first area of the value document on the basis of the first sensor signals, to determine a second area value characterizing a second area of the value document on the basis of the second sensor signals, and to infer a possible identification marking of the value document with a marking ink in the event that a predetermined value for an area difference between the first and the second area value is exceeded. - at least one first sensor , which is configured to detect electromagnetic radiation reflected and/or transmitted by a value document and to convert said radiation into corresponding first sensor signals, and - at least one second sensor , which is configured to detect sound waves, in particular ultrasonic waves, reflected and/or transmitted by the value document and to convert said waves into corresponding second sensor signals, and an evaluation device , which is configured to determine a first area value characterizing a first area of the value document on the basis of the first sensor signals, to determine a second area value characterizing a second area of the value document on the basis of the second sensor signals, and to infer a possible identification marking of the value document with a marking ink in the event that a predetermined value for an area difference between the first and the second area value is exceeded.
A residual stress measuring apparatus comprising: an X-ray generating source adapted to radiate X-rays toward a measuring object; a first detecting element adapted to detect intensity of diffracted X-rays of the measuring object at a first detecting position; a second detecting element adapted to detect intensity of the diffracted X-rays of the measuring object at a second detecting position different from the first detecting position; a moving mechanism adapted to move each of the first detecting element and the second detecting element along a straight line extending in a direction orthogonal to a direction of incidence of the X-rays; a movement control unit adapted to control respective detecting positions of the first detecting element and the second detecting element by driving the moving mechanism ; and a stress calculation unit adapted to calculate residual stress of the measuring object based on intensity peaks of the diffracted X-rays detected, respectively, by the first detecting element and the second detecting element each moved by the moving mechanism , wherein the movement control unit synchronizes movement of the first detecting element and movement of the second detecting element with each other. an X-ray generating source adapted to radiate X-rays toward a measuring object; a first detecting element adapted to detect intensity of diffracted X-rays of the measuring object at a first detecting position; a second detecting element adapted to detect intensity of the diffracted X-rays of the measuring object at a second detecting position different from the first detecting position; a moving mechanism adapted to move each of the first detecting element and the second detecting element along a straight line extending in a direction orthogonal to a direction of incidence of the X-rays; a movement control unit adapted to control respective detecting positions of the first detecting element and the second detecting element by driving the moving mechanism ; and a stress calculation unit adapted to calculate residual stress of the measuring object based on intensity peaks of the diffracted X-rays detected, respectively, by the first detecting element and the second detecting element each moved by the moving mechanism , wherein the movement control unit synchronizes movement of the first detecting element and movement of the second detecting element with each other.
Method for producing a dimensionally stable concrete workpiece , characterized in that , for the production of the concrete workpiece, a fully closed mould with a predetermined geometry is completely filled with fresh concrete, during the subsequent and undisturbed hydration, a predetermined temperature distribution of the walls of the mould surrounding the hydrating concrete is maintained and the concrete workpiece is demoulded at a compressive strength of more than 10 MPa, whereby the largest grain of the fresh concrete having a diameter of less than 20% of the smallest dimension of the mould, characterized in that the temperature distribution of the walls of the mould is set in such a way that the temperature distribution in the hydrating concrete from the start of hydration to demoulding is within a permissible interval of 15 0 .
A method of inferring a risk of developing, a diagnosis of, a stage of, a prognosis of, a progression of, or a degree of response to a putative neuroprotective agent for a synucleinopathy, wherein the method comprises: a) determining, from a blood sample from a subject that is enriched for CNS-derived microsomal particles, an alpha-synuclein profile comprising quantitative measures of one or more oligomeric forms of alpha-synuclein and, optionally, a monomeric form of alpha-synuclein to create a test dataset; and b) executing a model on the test dataset to infer a risk of developing, a diagnosis of, a stage of, a prognosis of, a progression of, or a degree of response to a putative neuroprotective agent for the synucleinopathy, wherein the model is obtained by: (I) providing a training dataset comprising, for each of a plurality of subjects, values indicating state of a synucleinopathy or response to putative neuroprotective agent for a synucleinopathy , and quantitative measures of amounts of each of one or more oligomeric forms of alpha-synuclein and, optionally, a monomeric form of alpha-synuclein in a blood sample enriched for CNS-derived microsomal particles; and (II) performing a statistical analysis on the training dataset to develop a model that infers the state of the synucleinopathy in an individual. a) determining, from a blood sample from a subject that is enriched for CNS-derived microsomal particles, an alpha-synuclein profile comprising quantitative measures of one or more oligomeric forms of alpha-synuclein and, optionally, a monomeric form of alpha-synuclein to create a test dataset; and b) executing a model on the test dataset to infer a risk of developing, a diagnosis of, a stage of, a prognosis of, a progression of, or a degree of response to a putative neuroprotective agent for the synucleinopathy, wherein the model is obtained by: (I) providing a training dataset comprising, for each of a plurality of subjects, values indicating state of a synucleinopathy or response to putative neuroprotective agent for a synucleinopathy , and quantitative measures of amounts of each of one or more oligomeric forms of alpha-synuclein and, optionally, a monomeric form of alpha-synuclein in a blood sample enriched for CNS-derived microsomal particles; and (II) performing a statistical analysis on the training dataset to develop a model that infers the state of the synucleinopathy in an individual. (I) providing a training dataset comprising, for each of a plurality of subjects, values indicating state of a synucleinopathy or response to putative neuroprotective agent for a synucleinopathy , and quantitative measures of amounts of each of one or more oligomeric forms of alpha-synuclein and, optionally, a monomeric form of alpha-synuclein in a blood sample enriched for CNS-derived microsomal particles; and (II) performing a statistical analysis on the training dataset to develop a model that infers the state of the synucleinopathy in an individual.