mhurhangee/patent-ind-claim-en huggingface dataset:
A light fixture comprising: a base frame extending longitudinally along a first axis (A), a translucent cover arranged to the base frame, at least one end cap , wherein said at least one end cap is rotationally moveable around a second axis (B) relative to the base frame between an open position and a closed position, such that the translucent cover is fixed relative to the base frame by the at least one end cap being in the closed position, and wherein the translucent cover is removable from the base frame when the at least one end cap is in the open position, wherein the first axis (A) is perpendicular to the second axis (B), and wherein the at least one end cap is held in the closed position by means of attaching means , characterized in that the attaching means comprise at least one first attaching member and at least one second attaching member configured to adhere to each other. a base frame extending longitudinally along a first axis (A), a translucent cover arranged to the base frame, at least one end cap ,
A metal complex of the formula 1 or 2: Wherein: M(II) is a divalent metal ion selected from the group consisting of iron, cobalt, nickel, copper, platinum, and zinc; R is selected from the group consisting of O-R 1 , NH-R 1 , N(R 1 ) 2 and S-R 1 . wherein R 1 is selected from the group consisting of: - a short chain alkyl, alkenyl, or alkynyl group consisting of 1-15 carbon atoms; - a short chain alkyl group consisting of 1-4 carbon atoms and carrying 1 to 4 hydroxyl groups; - a carbohydrate moiety; - wherein R 2 is a carbohydrate moiety or a substituted borondipyrromethene moiety; and - wherein n = 1 to 5, X is O or NH and R 2 is a carbohydrate moiety or a substituted borondipyrromethene moiety. M(II) is a divalent metal ion selected from the group consisting of iron, cobalt, nickel, copper, platinum, and zinc; R is selected from the group consisting of O-R 1 , NH-R 1 , N(R 1 ) 2 and S-R 1 . wherein R 1 is selected from the group consisting of: - a short chain alkyl, alkenyl, or alkynyl group consisting of 1-15 carbon atoms; - a short chain alkyl group consisting of 1-4 carbon atoms and carrying 1 to 4 hydroxyl groups; - a carbohydrate moiety; - wherein R 2 is a carbohydrate moiety or a substituted borondipyrromethene moiety; and - wherein n = 1 to 5, X is O or NH and R 2 is a carbohydrate moiety or a substituted borondipyrromethene moiety. - a short chain alkyl, alkenyl, or alkynyl group consisting of 1-15 carbon atoms; - a short chain alkyl group consisting of 1-4 carbon atoms and carrying 1 to 4 hydroxyl groups; - a carbohydrate moiety; - wherein R 2 is a carbohydrate moiety or a substituted borondipyrromethene moiety; and - wherein n = 1 to 5, X is O or NH and R 2 is a carbohydrate moiety or a substituted borondipyrromethene moiety.
A floor covering comprising a substrate, and a coating layer formed from a curable coating composition comprising: a binder comprising a silicon acrylate in a first amount; and a fluoropolymer in a second amount; wherein a weight ratio of the first amount of the silicon acrylate to the second amount of fluoropolymer ranges from 1:2 to 2:1. a binder comprising a silicon acrylate in a first amount; and a fluoropolymer in a second amount; wherein a weight ratio of the first amount of the silicon acrylate to the second amount of fluoropolymer ranges from 1:2 to 2:1.
A heating and temperature measuring device , for simulating reactor pressure vessel (RPV) heat exchange characteristics when an accident occurs, wherein the heating and temperature measuring device comprises a tube portion , a hemispherical lower head connected to a lower end of the tube portion , a heating assembly for heating the lower head and a temperature measuring assembly disposed in the lower head ; and the temperature measuring assembly is configured to monitor a temperature change of the lower head in a wall thickness direction to monitor a temperature change of a surface of the lower head , wherein an inner wall surface of the lower head is provided with a number of temperature measuring holes along a spherical center direction of the lower head , and corresponding to the heating assembly, a number of heating holes are provided in the inner wall surface of the lower head along a spherical center direction of the lower head . characteristics when an accident occurs, wherein the heating and temperature measuring device comprises a tube portion , a hemispherical lower head connected to a lower end of the tube portion , a heating assembly for heating the lower head and a temperature measuring assembly disposed in the lower head ; and the temperature measuring assembly is configured to monitor a temperature change of the lower head in a wall thickness direction to monitor a temperature change of a surface of the lower head , wherein an inner wall surface of the lower head is provided with a number of temperature measuring holes along a spherical center direction of the lower head , and corresponding to the heating assembly, a number of heating holes are provided in the inner wall surface of the lower head along a spherical center direction of the lower head .
A method performed by an electronic device , the method comprising: displaying a first application on a full-sized window; displaying a second application on a sub-window overlapping at least a portion of the full sized window (S601); detecting a gesture on the sub-window for requesting the sub-window to be displayed in a hide mode (S607); based on the gesture being detected on the sub-window for requesting the sub-window to be displayed in the hide mode, hiding the sub-window and displaying an alternative image indicating the second application on a part of the full sized window (S609); detecting a gesture on the alternative image for releasing the hide mode (S611); and based on the gesture being detected on the alternative image for releasing the hide mode, displaying the second application on the sub-window overlapping the at least a portion of the full sized window again (S613); characterized in that the displaying again (S613) happens without displaying the alternative image. displaying a first application on a full-sized window; displaying a second application on a sub-window overlapping at least a portion of the full sized window (S601); detecting a gesture on the sub-window for requesting the sub-window to be displayed in a hide mode (S607); based on the gesture being detected on the sub-window for requesting the sub-window to be displayed in the hide mode, hiding the sub-window and displaying an alternative image indicating the second application on a part of the full sized window (S609); detecting a gesture on the alternative image for releasing the hide mode (S611); and based on the gesture being detected on the alternative image for releasing the hide mode, displaying the second application on the sub-window overlapping the at least a portion of the full sized window again (S613); characterized in that the displaying again (S613) happens without displaying the alternative image.
Bandwidth extension decoder for providing a bandwidth extended audio signal based on an input audio signal and a parameter signal , wherein the parameter signal comprises an indication of an offset frequency and an indication of a power density parameter, the bandwidth extension decoder comprising: a patch generator configured to generate a bandwidth extension high-frequency signal comprising a high-frequency band, wherein the high-frequency band of the bandwidth extension high-frequency signal is generated by performing a frequency shift of a frequency band of the input audio signal to higher frequencies, wherein the frequency shift is based on the offset frequency, and wherein the patch generator is configured to amplify or attenuate the high-frequency band of the bandwidth extension high-frequency signal by a factor equal to the value of the power density parameter or equal to the reciprocal value of the power density parameter, respectively; a combiner configured to combine the bandwidth extension high-frequency signal and the input audio signal to obtain the bandwidth extended audio signal ; and an output interface configured to provide the bandwidth extended audio signal , wherein the indication of the offset frequency is the offset frequency itself, a quantized offset frequency or another quantity based on the offset frequency. a patch generator configured to generate a bandwidth extension high-frequency signal comprising a high-frequency band, wherein the high-frequency band of the bandwidth extension high-frequency signal is generated by performing a frequency shift of a frequency band of the input audio signal to higher frequencies, wherein the frequency shift is based on the offset frequency, and wherein the patch generator is configured to amplify or attenuate the high-frequency band of the bandwidth extension high-frequency signal by a factor equal to the value of the power density parameter or equal to the reciprocal value of the power density parameter, respectively; a combiner configured to combine the bandwidth extension high-frequency signal and the input audio signal to obtain the bandwidth extended audio signal ; and an output interface configured to provide the bandwidth extended audio signal , wherein the indication of the offset frequency is the offset frequency itself, a quantized offset frequency or another quantity based on the offset frequency.
A method for registering an imaging detector to a surface , the method executed at least in part on a computer and comprising: projecting and recording (S100, S110), on a portion of the surface , light in a first sparse pattern of lines and a second sparse pattern of lines, the first sparse pattern of lines and the second sparse pattern of lines being projected and recorded in an illumination sequence, wherein the first sparse pattern of lines is followed by the second sparse pattern of lines, wherein a first subset of positions on the surface is illuminated by lines from both first and second sparse patterns (F1, F2) corresponding to a first label (B), wherein a second subset of positions on the surface is illuminated only by lines from the first sparse pattern (F1) corresponding to a second label (R); and wherein a third subset of positions on the surface is illuminated only by lines from the second sparse pattern (F2) corresponding to a third label (G); decoding the first, second, and third labels (R,G,B) from the surface positions and registering each member element of the first, second, and third subsets of positions to the imaging detector according to the decoded labels (R,G,B); and forming and displaying (S170) an image of a contour of the surface according to only the recorded first and second sparse patterns (F1, F2). projecting and recording (S100, S110), on a portion of the surface , light in a first sparse pattern of lines and a second sparse pattern of lines, the first sparse pattern of lines and the second sparse pattern of lines being projected and recorded in an illumination sequence, wherein the first sparse pattern of lines is followed by the second sparse pattern of lines, wherein a first subset of positions on the surface is illuminated by lines from both first and second sparse patterns (F1, F2) corresponding to a first label (B), wherein a second subset of positions on the surface is illuminated only by lines from the first sparse pattern (F1) corresponding to a second label (R); and wherein a third subset of positions on the surface is illuminated only by lines from the second sparse pattern (F2) corresponding to a third label (G); decoding the first, second, and third labels (R,G,B) from the surface positions and registering each member element of the first, second, and third subsets of positions to the imaging detector according to the decoded labels (R,G,B); and forming and displaying (S170) an image of a contour of the surface according to only the recorded first and second sparse patterns (F1, F2).
Magnetic-inductive flowmeter, having at least one measuring tube for the flow of an electrically conductive medium, having at least one magnetic field generating device for generating an alternating magnetic field extending at least also perpendicularly to the longitudinal axis of the measuring tube , having at least two measuring electrodes , having a signal voltage source or signal current source connected to the measuring electrodes for generating conductivity measuring signals, having a control circuit for the magnetic field generating device and for the signal voltage source or the signal current source , as well as with an evaluation circuit , wherein the control circuit and/or the evaluation circuit is/are designed in such a way that only during a flow measuring operation the signal voltage source or the signal current source is/are generated in such a way that the measuring voltage tapped or tappable from the measuring electrodes is evaluated for the flow measurement only during a flow measurement time which is less than half the period duration of the magnetic field generation, and wherein the control circuit is designed in such a way that conductivity measurement signals are applied to the measuring electrodes only during a conductivity measurement time which lies outside the flow measurement time, characterized in that the control circuit is designed in such a way that, in addition to the conductivity measurement signals, the signal voltage source or the signal current source generates, with a time delay relative to the conductivity measurement signals, correction signals for reducing or eliminating measurement errors of different types or causes.
A method comprising: receiving, by an access point, AP, a first authentication request from a station, STA, the first authentication request requesting authentication of the STA, wherein the first authentication request is a fast initial link setup, FILS, authentication request including extensible authentication protocol over local area network, EAPOL, start with security parameters for a FILS handshake; transmitting, by the AP, a second authentication request to a server, the second authentication request including extensible authentication protocol, EAP, authentication signaling; receiving, by the AP, a first authentication response from the server in response to the second authentication request, the first authentication response including an indication that authentication of the STA was successful; transmitting, by the AP, a second authentication response to the STA; and receiving, by the AP, an association request that includes a message integrity code, MIC, from the STA, wherein a master session key, MSK, is generated in the station, the MSK is also generated in the server, a pairwise master key, PMK, is generated in the station, the PMK is also generated in the server and the PMK is transmitted from the server to the AP in the first authentication response. receiving, by an access point, AP, a first authentication request from a station, STA, the first authentication request requesting authentication of the STA, wherein the first authentication request is a fast initial link setup, FILS, authentication request including extensible authentication protocol over local area network, EAPOL, start with security parameters for a FILS handshake; transmitting, by the AP, a second authentication request to a server, the second authentication request including extensible authentication protocol, EAP, authentication signaling; receiving, by the AP, a first authentication response from the server in response to the second authentication request, the first authentication response including an indication that authentication of the STA was successful; transmitting, by the AP, a second authentication response to the STA; and receiving, by the AP, an association request that includes a message integrity code, MIC, from the STA, wherein a master session key, MSK, is generated in the station, the MSK is also generated in the server, a pairwise master key, PMK, is generated in the station, the PMK is also generated in the server and the PMK is transmitted from the server to the AP in the first authentication response.
A circuit structure for efficiently demodulating a Frequency-Shift Keying, FSK, signal in a wireless charging device, the circuit structure comprises: a data sampling module configured to receive raw data from a coil, smooth the raw data, and sample period points in the data; a period point counting module configured to calculate a sum of the period points, the period point counting module having an input terminal connected to an output terminal of the data sampling module; a data distribution module configured to generate left channel data and right channel data, and divide data on the sum of the period points into two channels to achieve time-division multiplexing of a circuit, and the data distribution module having an input terminal connected to an output terminal of the period point counting module; and a period point processing module configured to smooth the left channel data and the right channel data, perform data bit determination and output a demodulated FSK signal, the period point processing module having an input terminal connected to an output terminal of the data distribution module. a data sampling module configured to receive raw data from a coil, smooth the raw data, and sample period points in the data; a period point counting module configured to calculate a sum of the period points, the period point counting module having an input terminal connected to an output terminal of the data sampling module; a data distribution module configured to generate left channel data and right channel data, and divide data on the sum of the period points into two channels to achieve time-division multiplexing of a circuit, and the data distribution module having an input terminal connected to an output terminal of the period point counting module; and a period point processing module configured to smooth the left channel data and the right channel data, perform data bit determination and output a demodulated FSK signal, the period point processing module having an input terminal connected to an output terminal of the data distribution module.
A light emitting device comprising: a semiconductor structure comprising a light emitting layer disposed between an n-type region and a p-type region; a bottom contact disposed on a bottom surface of the semiconductor structure , the bottom contact being electrically connected to one of the n-type region and the p-type region; a top contact disposed on a top surface of the semiconductor structure , the top contact being electrically connected to the other of the n-type region and the p-type region, the top contact comprising a first edge and a second edge opposite the first edge ; a first trench formed in a bottom surface of the semiconductor structure beneath the first edge of the top contact ; a second trench formed in the bottom surface of the semiconductor structure beneath the second edge of the top contact ; and a dielectric layer lining the bottom surface, the first trench , and the second trench characterised in that the sum of the widths, defined at the bottom surface, of the first trench , the second trench and a gap between the two trenches is approximately equal to the width between the first and the second edge of the top contact . a semiconductor structure comprising a light emitting layer disposed between an n-type region and a p-type region; a bottom contact disposed on a bottom surface of the semiconductor structure , the bottom contact being electrically connected to one of the n-type region and the p-type region; a top contact disposed on a top surface of the semiconductor structure , the top contact being electrically connected to the other of the n-type region and the p-type region, the top contact comprising a first edge and a second edge opposite the first edge ; a first trench formed in a bottom surface of the semiconductor structure beneath the first edge of the top contact ; a second trench formed in the bottom surface of the semiconductor structure beneath the second edge of the top contact ; and a dielectric layer lining the bottom surface, the first trench , and the second trench characterised in that the sum of the widths, defined at the bottom surface, of the first trench , the second trench and a gap between the two trenches is approximately equal to the width between the first and the second edge of the top contact .
A decorative sheet comprising at least a base material layer, and a surface protective layer formed of an ionizing radiation curable resin composition, further comprising a primer layer between the base material layer and the surface protective layer, the surface protective layer containing a blocked isocyanate; wherein the ionizing radiation curable resin composition contains a polycarbonate (meth)acrylate. further comprising a primer layer between the base material layer and the surface protective layer, the surface protective layer containing a blocked isocyanate;
A method of producing a modified panel, comprising: providing a panel, which has a first major face that is opposed to a second major face and at least one minor face extending between the major faces; providing a foam composition; applying the foam composition to a minor face of the panel; and curing the applied foam composition, thereby forming a layer of cured polymeric foam, wherein the cured polymeric foam is a polyurethane foam, a silicone foam or an epoxy foam, wherein the panel is selected from the group consisting of a man-made vitreous fibre (MMVF) panel and a wood wool cement panel. providing a panel, which has a first major face that is opposed to a second major face and at least one minor face extending between the major faces; providing a foam composition; applying the foam composition to a minor face of the panel; and curing the applied foam composition, thereby forming a layer of cured polymeric foam, wherein the cured polymeric foam is a polyurethane foam, a silicone foam or an epoxy foam, wherein the panel is selected from the group consisting of a man-made vitreous fibre (MMVF) panel and a wood wool cement panel.
A wheel well apparatus for a model vehicle comprising: a wheel well (100, 100A-100D) configured to fit within a wheel well recess of a model vehicle body , the wheel well (100, 100A-100D) including: body attachment bores (2A-2E) for coupling the wheel well (100, 100A-100D) to the model vehicle body ; and support member bores (4A-4D); and a support member for removably securing the wheel well to the support member , the support member configured to couple to the wheel well via the support member bores (4A-4D). a wheel well (100, 100A-100D) configured to fit within a wheel well recess of a model vehicle body , the wheel well (100, 100A-100D) including: body attachment bores (2A-2E) for coupling the wheel well (100, 100A-100D) to the model vehicle body ; and support member bores (4A-4D); and body attachment bores (2A-2E) for coupling the wheel well (100, 100A-100D) to the model vehicle body ; and support member bores (4A-4D); and a support member for removably securing the wheel well to the support member , the support member configured to couple to the wheel well via the support member bores (4A-4D).
A cosmetic composition for keratin fibers, preferably human keratin fibers, more preferably human hair, comprising two or more optical brighteners characterized in that at least one optical brightener is selected from compounds having a light absorption maximum below 400 nm and a light emission maximum in the range of 400 nm to 500 nm, and at least one optical brightener is selected from naturally- derived compounds having a light absorption maximum in the range of 400 nm and 450 nm and a light emission maximum in the range of 450 nm and 700 nm, characterized in that the optical brightener selected from compounds having a light absorption maximum in the range of 400 nm and 450 nm and a light emission maximum in the range of 450 nm and 700 nm is hydrolyzed Verbascum thapsus flower and/or Varbascum Thapsus extract.