mhurhangee/patent-ind-claim-en huggingface dataset:
A method of using a wireless communication network operating in accordance with a network communication technology, the wireless communication network including an access point , the method being characterized by a mobile device : receiving signals from a transmitter of a disparate communication technology potentially interfered by communications over resource allocations from the access point; determining whether an n-th power harmonic order product of a resource allocation from the access point is in the frequency band of the transmitter, where n is 2, 3, ...; determining one or more time periods over which devices of the disparate communication technology communicate; and if the n-th power harmonic order product of a resource allocation from the access point is in the frequency band, determining potential interference to the transmitter of the disparate communication technology during the one or more time periods, and transmitting one or more parameters related to the interference to the access point. receiving signals from a transmitter of a disparate communication technology potentially interfered by communications over resource allocations from the access point; determining whether an n-th power harmonic order product of a resource allocation from the access point is in the frequency band of the transmitter, where n is 2, 3, ...; determining one or more time periods over which devices of the disparate communication technology communicate; and if the n-th power harmonic order product of a resource allocation from the access point is in the frequency band, determining potential interference to the transmitter of the disparate communication technology during the one or more time periods, and transmitting one or more parameters related to the interference to the access point.
A laundry treating apparatus comprising: a drum comprising a drum body providing a space to store laundry therein, a front cover forming a front surface of the drum body , a rear cover forming a rear surface of the drum body , and a drum introduction opening formed through the front cover to communicate with an inside of the drum body ; a drying unit configured to supply heated air to the drum body ; a fixing panel disposed at a position spaced apart from the rear cover ; a power transmission unit comprising a housing (H) secured to the fixing panel , an input shaft having one end located outside the housing (H) and an opposite end located in the housing (H), an output shaft having one end secured to the rear cover and an opposite end located in the housing (H), and a gear unit (G) located in the housing (H) to transmit rotational motion of the input shaft to the output shaft ; a motor comprising a stator secured to the fixing panel or the housing (H) to form a rotating magnetic field and a rotor configured to be rotated by the rotating magnetic field and to allow the one end of the input shaft to be secured thereto; and a heat insulation part made of a material having heat conductivity lower than heat conductivity of the housing (H) to reduce an amount of heat that is transferred from an outside of the housing (H) to an inside of the housing (H), wherein the fixing panel is located between the rear cover and the housing (H), and the heat insulation part is located at a position between the housing (H) and the fixing panel . a drum comprising a drum body providing a space to store laundry therein, a front cover forming a front surface of the drum body , a rear cover forming a rear surface of the drum body , and a drum introduction opening formed through the front cover to communicate with an inside of the drum body ; a drying unit configured to supply heated air to the drum body ; a fixing panel disposed at a position spaced apart from the rear cover ; a power transmission unit comprising a housing (H) secured to the fixing panel , an input shaft having one end located outside the housing (H) and an opposite end located in the housing (H), an output shaft having one end secured to the rear cover and an opposite end located in the housing (H), and a gear unit (G) located in the housing (H) to transmit rotational motion of the input shaft to the output shaft ; a motor comprising a stator secured to the fixing panel or the housing (H) to form a rotating magnetic field and a rotor configured to be rotated by the rotating magnetic field and to allow the one end of the input shaft to be secured thereto; and a heat insulation part made of a material having heat conductivity lower than heat conductivity of the housing (H) to reduce an amount of heat that is transferred from an outside of the housing (H) to an inside of the housing (H), wherein the fixing panel is located between the rear cover and the housing (H), and the heat insulation part is located at a position between the housing (H) and the fixing panel .
An electrode assembly comprising: a plurality of first electrode units and second electrode units on which electrode tabs are formed; and a full length-side separator member folded in a direction in which the electrode tabs are formed and a direction opposite to the direction in which the electrode tabs are formed so as to stack the plurality of first electrode units and separate them from each other, a full width-side separator member extending from the full length-side separator member and formed in a direction perpendicular to the full length-side separator member , wherein the full width-side separator member is folded in a direction perpendicular to the direction in which the electrode tab is formed so that the plurality of second electrode units are sequentially stacked on the plurality of first electrode units and separated from each other, wherein the full length-side separator member comprises a folding part that is folded at a portion corresponding to each of the electrode tabs , wherein the full length-side separator member comprises a tab hole that is punched to allow the electrode tab to pass therethrough at the folding part . a plurality of first electrode units and second electrode units on which electrode tabs are formed; and a full length-side separator member folded in a direction in which the electrode tabs are formed and a direction opposite to the direction in which the electrode tabs are formed so as to stack the plurality of first electrode units and separate them from each other, a full width-side separator member extending from the full length-side separator member and formed in a direction perpendicular to the full length-side separator member , wherein the full width-side separator member is folded in a direction perpendicular to the direction in which the electrode tab is formed so that the plurality of second electrode units are sequentially stacked on the plurality of first electrode units and separated from each other, wherein the full length-side separator member comprises a folding part that is folded at a portion corresponding to each of the electrode tabs , wherein the full length-side separator member comprises a tab hole that is punched to allow the electrode tab to pass therethrough at the folding part .
A thermoplastic resin composition, comprising: 35 to 50 % by weight of a polybutylene terephthalate resin (A) having an intrinsic viscosity of 0.6 to 0.9 dl/ g, whereby the intrinsic viscosity is determined in accordance with the method disclosed in the specification; 5 to 15 % by weight of a polyethylene terephthalate homopolymer (B); 7 to 9 % by weight of an acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer (C) comprising 23 to 35 % by weight of a vinyl cyanide compound; 7 to 12 % by weight of an aromatic vinyl compound-vinyl cyanide compound copolymer (D) comprising 26 to 40 % by weight of a vinyl cyanide compound; and 20 to 37 % by weight of glass fiber (E) comprising 50 to 70 % by weight of silica (SiO 2 ). 35 to 50 % by weight of a polybutylene terephthalate resin (A) having an intrinsic viscosity of 0.6 to 0.9 dl/ g, whereby the intrinsic viscosity is determined in accordance with the method disclosed in the specification; 5 to 15 % by weight of a polyethylene terephthalate homopolymer (B); 7 to 9 % by weight of an acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer (C) comprising 23 to 35 % by weight of a vinyl cyanide compound; 7 to 12 % by weight of an aromatic vinyl compound-vinyl cyanide compound copolymer (D) comprising 26 to 40 % by weight of a vinyl cyanide compound; and 20 to 37 % by weight of glass fiber (E) comprising 50 to 70 % by weight of silica (SiO 2 ).
A MEMS pressure sensor comprising opposing electrode arrangements (16, 18; 22, 24, 26; 34, 36; 40, 44), wherein one of the electrode arrangements (16, 18; 22, 24, 26; 34, 36; 40, 44) is suspended over the other such that it is movable in response to an applied pressure (Pambient), and means for deriving an output from a capacitance between the electrode arrangements (16, 18; 22, 24, 26; 34, 36; 40, 44), wherein the MEMS pressure sensor is realized as a surface-micromachined capacitive-pressure-sensor, characterized by a membrane comprising the movable electrode arrangement (22, 24, 26; 40, 44), which is generally rectangular, with a length to width aspect ratio of 3 or more.
A synchronization method for a relay system, comprising: receiving, by a relay node, a synchronization signal from a parent node; determining reception time of the synchronization signal; determining , by the relay node, a first time slot boundary according to the reception time of the synchronization signal sent by the parent node and a predetermined offset, wherein the predetermined offset is a time offset between the reception time of the synchronization signal and the first time slot boundary; sending , by the relay node, downlink data to a child node in a mode that a second time slot boundary of sending downlink data to the child node is time aligned with the first time slot boundary. receiving, by a relay node, a synchronization signal from a parent node; determining reception time of the synchronization signal; determining , by the relay node, a first time slot boundary according to the reception time of the synchronization signal sent by the parent node and a predetermined offset, wherein the predetermined offset is a time offset between the reception time of the synchronization signal and the first time slot boundary; sending , by the relay node, downlink data to a child node in a mode that a second time slot boundary of sending downlink data to the child node is time aligned with the first time slot boundary.
Use of a fusible conductor for a DC fuse and a high-voltage high-capacity fuse (HH-DC fuse), wherein the fusible conductor has an electrically conductive fusible wire , wherein the fusible wire has at least two overload points in the form of a cross-sectional constriction, wherein, preferably between the two directly successive overload points , in at least one first section a first layer is provided which comprises solder and/or consists thereof and circumferentially surrounds the outer circumferential surface of the fusible wire at least in regions, preferably completely, characterised in that adjacent to each of the overload points in a respective second section , a second layer is provided which circumferentially surrounds the outer circumferential surface of the fusible wire at least in regions, preferably completely, and wherein the fusible wire has at least one short-circuit constriction in the form of a cross-sectional constriction between two directly successive overload points .
A functional layer comprising a layered double hydroxide that comprises Ni, Al, Ti, Zn and incidental impurities, and has an atomic ratio Zn/(Ni+Ti+AI+Zn) of 0.04 or more determined by an energy dispersive X-ray analysis (EDS), the layered double hydroxide being composed of a plurality of basic hydroxide layers and intermediate layers interposed between these basic hydroxide layers, wherein Ni, Al, Ti and OH groups are contained in the basic hydroxide layers as main constituent elements and the intermediate layers are composed of monovalent or multivalent anions and H 2 O, and wherein the EDS analysis is performed on a surface of the functional layer with an EDS analyzer, wherein the analysis comprises 1) taking an image at an acceleration voltage of 20 kV with 5 000-fold magnification, 2) analysis in a point analytic mode at three points spaced with about 5 μm each other, 3) repeating steps 1) and 2) further two times, and 4) calculation of an average value of nine points in total, characterized in that the basic composition of the LDH, assuming that the basic hydroxide layers are mainly composed of Ni 2+ , Al 3+ , Ti 4+ , Zn 2+ and OH groups, is represented by the following general formula: Ni 2+ 1-x-y-z Al 3+ x Ti 4+ y Zn 2+ z (OH) 2 A n- (x+2y)/n ·mH 2 O, wherein A n- is an n-valent anion, n is an integer of 1 or more, x is 0.01 to 0.5, y is 0.01 to 0.5, x+y is above 0.02 to below 1, z is 0.04 to 0.25, and m is a real number of 0 or more.
Use of a silsesquioxane of the following formula II [RSiO 3/2 ] n (formula II), wherein R represents an alkyl group, Si represents a silicon atom, O represents an oxygen atom and n represents an integer for the removal of microplastic particles from water and/or a body of water. a silsesquioxane of the following formula II [RSiO 3/2 ] n (formula II), wherein R represents an alkyl group, Si represents a silicon atom, O represents an oxygen atom and n represents an integer for the removal of microplastic particles from water and/or a body of water. R represents an alkyl group, Si represents a silicon atom, O represents an oxygen atom and n represents an integer for the removal of microplastic particles from water and/or a body of water.
A headrest (100;200;400) for a vehicle-seat , the headrest comprising: a first acoustic assembly including a first set of one or more acoustic transducers , the first acoustic assembly configured to radiate acoustic energy from a first portion of the headrest in a first radiation pattern ; and a second acoustic assembly including a second set of one or more acoustic transducers , the second acoustic assembly configured to radiate acoustic energy from a second portion of the headrest in a second radiation pattern , wherein the one or more acoustic transducers of the first acoustic assembly and the one or more acoustic transducers of the second acoustic assembly are oriented substantially symmetrically with respect to a center line of the headrest, an acoustic channel disposed between the second set of one or more acoustic transducers and an external opening disposed on the second portion of the headrest, wherein the acoustic channel is configured such that the second set of one or more acoustic transducers radiates acoustic energy through the acoustic channel in accordance with the second radiation pattern, and wherein the acoustic channel includes an acoustic guide configured to direct acoustic energy out of the acoustic channel in accordance with the second radiation pattern, wherein, by means of the acoustic guide, the first acoustic assembly and the second acoustic assembly are configured such that the first radiation pattern and the second radiation pattern are substantially different from one another, and generate an asymmetric radiation pattern for the headrest. a first acoustic assembly including a first set of one or more acoustic transducers , the first acoustic assembly configured to radiate acoustic energy from a first portion of the headrest in a first radiation pattern ; and a second acoustic assembly including a second set of one or more acoustic transducers , the second acoustic assembly configured to radiate acoustic energy from a second portion of the headrest in a second radiation pattern , wherein the one or more acoustic transducers of the first acoustic assembly and the one or more acoustic transducers of the second acoustic assembly are oriented substantially symmetrically with respect to a center line of the headrest, an acoustic channel disposed between the second set of one or more acoustic transducers and an external opening disposed on the second portion of the headrest, wherein the acoustic channel is configured such that the second set of one or more acoustic transducers radiates acoustic energy through the acoustic channel in accordance with the second radiation pattern, and wherein the acoustic channel includes an acoustic guide configured to direct acoustic energy out of the acoustic channel in accordance with the second radiation pattern, wherein, by means of the acoustic guide, the first acoustic assembly and the second acoustic assembly are configured such that the first radiation pattern and the second radiation pattern are substantially different from one another, and generate an asymmetric radiation pattern for the headrest.
An electronic device , comprising: a touch screen display ; drawing means for drawing, on the touch screen display , a locus of a stroke input by handwriting; display control means for capturing a screen image of the touch screen display , the screen image displayed by starting up an application, when the screen image is touched by a user, and switching the screen image of the touch screen display from the captured screen image to another screen image with a lower gradation when drawing of the locus of the stroke by the drawing means starts after capturing the screen image; and storing means for storing, as scrap data, the captured screen image with the locus of the stroke drawn by the drawing means; generation means for generating thumbnail data for displaying thumbnails of images corresponding to the scrap data, wherein the display control means is configured to display, when a range selection mode for specifying a handwriting range on the captured screen image and a handwriting input mode are designated, an inside of a rectangular range specified by a user with a gradation at a start of the application, to not display the screen image outside of the rectangular range, and to display, on the captured screen image, buttons for associating the scrap data with one of scrap notes, and the generation means is configured to generate the thumbnail data corresponding to the scrap data when one of the buttons (631 632 633) is tapped, wherein each button is associated to a scrap note, and wherein a scrap note comprises thumbnails of scrap data. a touch screen display ; drawing means for drawing, on the touch screen display , a locus of a stroke input by handwriting; display control means for capturing a screen image of the touch screen display , the screen image displayed by starting up an application, when the screen image is touched by a user, and switching the screen image of the touch screen display from the captured screen image to another screen image with a lower gradation when drawing of the locus of the stroke by the drawing means starts after capturing the screen image; and storing means for storing, as scrap data, the captured screen image with the locus of the stroke drawn by the drawing means; generation means for generating thumbnail data for displaying thumbnails of images corresponding to the scrap data, wherein the display control means is configured to display, when a range selection mode for specifying a handwriting range on the captured screen image and a handwriting input mode are designated, an inside of a rectangular range specified by a user with a gradation at a start of the application, to not display the screen image outside of the rectangular range, and to display, on the captured screen image, buttons for associating the scrap data with one of scrap notes, and the generation means is configured to generate the thumbnail data corresponding to the scrap data when one of the buttons (631 632 633) is tapped, wherein each button is associated to a scrap note, and wherein a scrap note comprises thumbnails of scrap data.
Bale cutting device having a carrier , which is pivotable about a pivot axis (S), and at least one cutter bar , wherein the cutter bar is accommodated on the carrier so as to be movable at least substantially in the direction of a longitudinal extent (L) of the carrier , characterized in that the carrier can take up at least one position (C) in which the cutter bar can engage on and/or in a bale at least substantially opposite the pivot axis (S), with respect to a bale centre point (M) of a bale .
Impedance matching circuit intended to be connected to a non-linear impedance (L) comprising a superconductor, said circuit comprising a first terminal designated first connection port (J1) intended to be connected to a first connector (B1) of the non-linear impedance (L), a second terminal designated second connection port (J2) intended to be connected to a second connector (B2) of the non-linear impedance (L), a third terminal designated input/output terminal (ES) intended to receive the signal to amplify with a gain in power G and a pass band BW and a fourth terminal designated supply terminal (TA) intended to be connected to a polarisation source (ST) and configured so that a voltage V is applied between the first connection port (J1) and the second connection port (J2), said circuit comprising a plurality of passive electrical components configured such that the impedance Z(f) between the first connection port (J1) and the second connection port (J2) for a signal of frequency f has a real part Re(Z(f)) such that: - Re(Z(f s )) > 0 with f s a first frequency designated frequency of the signal to amplify; - Re(Z(f i )) > 0 with f i a second frequency designated idler frequency; - Re Z 0 < h 4 e 2 f p G . BW with f p a third frequency designated pump frequency; - Re Z f p + f s < f p + f s f i Re Z f i ; the pump frequency being chosen such that nf p = f s + f i with n an integer belonging to [1, +∞] and the idler frequency being chosen such that f i > k B T h with T the temperature of the circuit, k B Boltzmann's constant and h Planck's constant. - Re(Z(f s )) > 0 with f s a first frequency designated frequency of the signal to amplify; - Re(Z(f i )) > 0 with f i a second frequency designated idler frequency; - Re Z 0 < h 4 e 2 f p G . BW with f p a third frequency designated pump frequency; - Re Z f p + f s < f p + f s f i Re Z f i ;
Energy absorption element for a steering column of a motor vehicle, comprising at least one deformation element , a first fastening element and a second fastening element , wherein the deformation element is connected to the first fastening element and to the second fastening element and is arranged in the force flux with respect to a force which can be exerted on the one fastening element relative to the other fastening element, wherein at least one predetermined breaking element is connected to the first and to the second fastening element (61 and 62) parallel to the deformation element in the force flux, characterized in that the energy absorption element is designed as a single-piece shaped part, wherein the predetermined breaking element is an integral component of the energy absorption element .
Method for the recovery of fibers of textile multilayer composites of automotive construction from non-laminated, laminated and/or deformed carpet scraps and/or underlayer scraps, wherein one 1. cuts the scraps to a desired size by cutting them lengthwise and crosswise in a cutting machine, 2. dissolves the cut scraps in a first tearing process with one or two roller feeds, 3. roughly separates the fibers from the dust and powder components, 4. the separated fibers are dosed and, if necessary, stored, 5. the fibers are subjected to at least a second continuous tearing process and 6. the fibers obtained are used for the production of nonwovens or sound insulation components in automotive engineering. 1. cuts the scraps to a desired size by cutting them lengthwise and crosswise in a cutting machine, 2. dissolves the cut scraps in a first tearing process with one or two roller feeds, 3. roughly separates the fibers from the dust and powder components, 4. the separated fibers are dosed and, if necessary, stored, 5. the fibers are subjected to at least a second continuous tearing process and 6. the fibers obtained are used for the production of nonwovens or sound insulation components in automotive engineering.