mhurhangee/patent-ind-claim-en huggingface dataset:
A water delivery device comprising: a body including a base and a spout ; a user interface provided on or coupled to an upper surface of the spout, the user interface configured to provide a visual indication of at least one function of the water delivery device; a first capacitive sensor provided below the user interface ; a second capacitive sensor provided below the user interface spaced apart from the first capacitive sensor ; a controller comprising a timer having a first programmable period corresponding to an incremental adjustment of water temperature, and a second programmable period corresponding to a continuous adjustment of water temperature; and a micro-mixing valve contained within the body and in fluid communication with a hot water source and a cold water source , wherein the controller is operatively connected to the first capacitive sensor , the second capacitive sensor , and the micro-mixing valve ; and wherein each of the first and second capacitive sensors (141; 142) is configured to be independently activated by a user to transmit a signal to the controller to increase or decrease a temperature of a flow of water flowing from the micro-mixing valve , such that, if the first or second capacitive sensor (141; 142) is being continuously adjusted by the user the second period is applied by the timer instead of the first period as the second period is shorter than the first period so as to provide for a more rapid adjustment of the temperature of the flow of water flowing from the micro-mixing valve . a body including a base and a spout ; a user interface provided on or coupled to an upper surface of the spout, the user interface configured to provide a visual indication of at least one function of the water delivery device; a first capacitive sensor provided below the user interface ; a second capacitive sensor provided below the user interface spaced apart from the first capacitive sensor ; a controller comprising a timer having a first programmable period corresponding to an incremental adjustment of water temperature, and a second programmable period corresponding to a continuous adjustment of water temperature; and a micro-mixing valve contained within the body and in fluid communication with a hot water source and a cold water source , wherein the controller is operatively connected to the first capacitive sensor , the second capacitive sensor , and the micro-mixing valve ; and wherein each of the first and second capacitive sensors (141; 142) is configured to be independently activated by a user to transmit a signal to the controller to increase or decrease a temperature of a flow of water flowing from the micro-mixing valve , such that, if the first or second capacitive sensor (141; 142) is being continuously adjusted by the user the second period is applied by the timer instead of the first period as the second period is shorter than the first period so as to provide for a more rapid adjustment of the temperature of the flow of water flowing from the micro-mixing valve .
A method for extending the frequency band of an audio frequency signal during a decoding or improvement process comprising a step of obtaining the decoded signal in a first frequency band called low band, the method comprising the steps following carried out in the frequency domain: - Extension (E401a) on at least a second frequency band greater than the first frequency band of the low-band decoded signal to form an extended decoded low-band signal, - Extraction (E402) of tonal components and an ambient signal from the signal from the extended decoded low band signal; - Combination (E403) of the tonal components and the ambience signal by adaptive mixing using energy level control factors to obtain a combined signal; the method being characterized in that it comprises the following steps carried out in the frequency domain: - Applying de-emphasis filtering and applying bandpass filter frequency response to the combined signal to obtain a de-emphasized combined signal; and - synthesis (E404b) of an audio signal to bring back into the time domain a signal from the de-emphasized combined signal. - Extension (E401a) on at least a second frequency band greater than the first frequency band of the low-band decoded signal to form an extended decoded low-band signal, - Extraction (E402) of tonal components and an ambient signal from the signal from the extended decoded low band signal; - Combination (E403) of the tonal components and the ambience signal by adaptive mixing using energy level control factors to obtain a combined signal; - Applying de-emphasis filtering and applying bandpass filter frequency response to the combined signal to obtain a de-emphasized combined signal; and - synthesis (E404b) of an audio signal to bring back into the time domain a signal from the de-emphasized combined signal.
A place-based information processing method, comprising: receiving (S501) a request from a querying user for viewing surrounding annotation information; activating an image capturing apparatus of the querying user; obtaining (S502) geographical location information of the querying user; sending (S503) the geographical location information to a server to enable the server to determine a target place where the querying user is located based on the geographical location information, and to determine and return each piece of annotation information corresponding to the target place according to a pre-stored correspondence relationship between the respective piece of annotation information and place information; and if the server does not return annotation information, providing first prompt information, the first prompt information being used for prompting the user to adjust a capturing angle and/or change a range of capture of the image capturing apparatus; if the server returns annotation information, receiving (S504) each piece of annotation information returned by the server for the querying user to view. receiving (S501) a request from a querying user for viewing surrounding annotation information; activating an image capturing apparatus of the querying user; obtaining (S502) geographical location information of the querying user; sending (S503) the geographical location information to a server to enable the server to determine a target place where the querying user is located based on the geographical location information, and to determine and return each piece of annotation information corresponding to the target place according to a pre-stored correspondence relationship between the respective piece of annotation information and place information; and if the server does not return annotation information, providing first prompt information, the first prompt information being used for prompting the user to adjust a capturing angle and/or change a range of capture of the image capturing apparatus; if the server returns annotation information, receiving (S504) each piece of annotation information returned by the server for the querying user to view.
An enamel composition comprising: a glass frit comprising P 2 O 5 , SiO 2 , B 2 O 3 , Al 2 O 3 , Li 2 O, Na 2 O, K 2 O, a chemical property enhancement component, and an adhesion enhancement component, wherein the chemical property enhancement component comprises at least one of ZrO 2 and TiO 2 , and the adhesion enhancement component comprises at least one of CoO, NiO, MnO 2 , and Fe 2 O 3 wherein the glass frit contains 11.0 wt% to 17 wt% of P 2 O 5 , 29.6 wt% to 38.8 wt% of SiO 2 , 13.6 wt% to 19.6 wt% of B 2 O 3 , and 0.4 wt% to 1.6 wt% of Li 2 O. a glass frit comprising P 2 O 5 , SiO 2 , B 2 O 3 , Al 2 O 3 , Li 2 O, Na 2 O, K 2 O, a chemical property enhancement component, and an adhesion enhancement component, wherein the chemical property enhancement component comprises at least one of ZrO 2 and TiO 2 , and the adhesion enhancement component comprises at least one of CoO, NiO, MnO 2 , and Fe 2 O 3 wherein the glass frit contains 11.0 wt% to 17 wt% of P 2 O 5 , 29.6 wt% to 38.8 wt% of SiO 2 , 13.6 wt% to 19.6 wt% of B 2 O 3 , and 0.4 wt% to 1.6 wt% of Li 2 O.
A computer implemented method for selecting a digital assistant, comprising: first receiving, by at least one processor, a voice input at a first voice adapter; calculating, by the at least one processor using the first voice adapter, a first confidence score that the voice input contains a first trigger word, wherein the first trigger word is mapped to a first software digital assistant among a plurality of software digital assistants stored in a voice platform; second receiving, by the at least one processor, the voice input at a second voice adapter; calculating, by the at least one processor using the second voice adapter, a second confidence score that the voice input contains a second trigger word, wherein the second trigger word is mapped to a second software digital assistant, and the second trigger word is different from the first trigger word; determining, by the at least one processor, the first confidence score is higher than the second confidence score; and in response to the determining, transmitting, by the at least one processor, a request to the voice platform to select the first software digital assistant from among the plurality of software digital assistants stored in the voice platform. first receiving, by at least one processor, a voice input at a first voice adapter; calculating, by the at least one processor using the first voice adapter, a first confidence score that the voice input contains a first trigger word, wherein the first trigger word is mapped to a first software digital assistant among a plurality of software digital assistants stored in a voice platform; second receiving, by the at least one processor, the voice input at a second voice adapter; calculating, by the at least one processor using the second voice adapter, a second confidence score that the voice input contains a second trigger word, wherein the second trigger word is mapped to a second software digital assistant, and the second trigger word is different from the first trigger word; determining, by the at least one processor, the first confidence score is higher than the second confidence score; and in response to the determining, transmitting, by the at least one processor, a request to the voice platform to select the first software digital assistant from among the plurality of software digital assistants stored in the voice platform.
A method of encoding video data with compression comprising: a) receiving an original picture block containing samples; b) generating a prediction block, comprising: b1) generating, in a spatial domain, a prediction block containing samples according to an intra-prediction or inter-prediction coding scheme; and transforming the original picture block and the prediction block into a second domain; b2) preserving coefficients at a first set of predetermined locations in the prediction block; and b3) replacing coefficients at a second set of predetermined locations in the prediction block, according to a coefficient substitution process, with values calculated according to a predetermined algorithm; and c) calculating a residual signal for transmission, by subtracting the original picture block and the prediction block from each other; wherein the coefficient substitution process and the calculating of the residual signal are performed in the second domain. a) receiving an original picture block containing samples; b) generating a prediction block, comprising: b1) generating, in a spatial domain, a prediction block containing samples according to an intra-prediction or inter-prediction coding scheme; and transforming the original picture block and the prediction block into a second domain; b2) preserving coefficients at a first set of predetermined locations in the prediction block; and b3) replacing coefficients at a second set of predetermined locations in the prediction block, according to a coefficient substitution process, with values calculated according to a predetermined algorithm; and b1) generating, in a spatial domain, a prediction block containing samples according to an intra-prediction or inter-prediction coding scheme; and transforming the original picture block and the prediction block into a second domain; b2) preserving coefficients at a first set of predetermined locations in the prediction block; and b3) replacing coefficients at a second set of predetermined locations in the prediction block, according to a coefficient substitution process, with values calculated according to a predetermined algorithm; and c) calculating a residual signal for transmission, by subtracting the original picture block and the prediction block from each other;
Image capturing and processing device for hot surface of revolution profiles , comprising linear illumination sources which are lasers capable of emitting light in a wavelength different from that emitted by the surface, wherein it comprises three systems, each formed by such at least two linear light sources and a corresponding linear CCD camera , wherein each system maintains an angular relationship of 15° with the surface and the three systems are distributed in a circumference at 120° with respect to one another, and the three systems are located in a plane perpendicular to the surface, and wherein the lasers and the camera maintain an angular relationship of approximately 15° between one another.
An isolated peptide consisting of SEQ ID NO 6, wherein the N-terminal glutamic acid residue is γ-carboxy glutamine (Gla), wherein the N-terminal glutamic acid is tosylated, and having a C-terminal amide modification.
A gas-insulated electrical device comprising, - a conductor to which a high voltage is applied, - an airtight container made of metal to enclose the conductor and filled with an insulation gas, - a dielectric covering film covering the inner surface of the airtight container , and - an insulation gas layer made of the insulation gas and disposed between the conductor and the covering film ; and in that the covering film is made of a material that becomes more positively charged than metals in a triboelectric series, and characterized in that : the covering film becomes positively charged upon contact with metal foreign matter in the airtight container whereas the metal foreign matter becomes negatively charged upon contact with the covering film . - a conductor to which a high voltage is applied, - an airtight container made of metal to enclose the conductor and filled with an insulation gas, - a dielectric covering film covering the inner surface of the airtight container , and - an insulation gas layer made of the insulation gas and disposed between the conductor and the covering film ; and in that the covering film is made of a material that becomes more positively charged than metals in a triboelectric series, and characterized in that : the covering film becomes positively charged upon contact with metal foreign matter in the airtight container whereas the metal foreign matter becomes negatively charged upon contact with the covering film .
Method for determining when to correct supply of additive to an exhaust gas stream resulting from combustion in at least one combustion chamber , wherein the additive is arranged for reduction of at least one substance (NO x ) resulting from said combustion by supplying the additive to an exhaust gas stream resulting from said combustion, wherein the quantity of additive being supplied is subjectable to correction, and wherein a sensor is subjected to the exhaust gas stream and arranged to measure occurrence of said at least one substance (NO x ), the method further including: - by means of sensor signals from said sensor, determining a level of occurrence of said first substance (NO x ) in said exhaust gas stream, and - determining when to correct said supply of additive on the basis of said occurrence of said first substance (NO x ) in said exhaust gas stream, the method being characterised by , when determining when to perform correction: - determining an interval between consecutive corrections, and - reducing the time between consecutive corrections on the basis of said occurrence of said first substance (NO x ) in said exhaust gas stream. - by means of sensor signals from said sensor, determining a level of occurrence of said first substance (NO x ) in said exhaust gas stream, and - determining when to correct said supply of additive on the basis of said occurrence of said first substance (NO x ) in said exhaust gas stream, the method being characterised by , when determining when to perform correction: - determining an interval between consecutive corrections, and - reducing the time between consecutive corrections on the basis of said occurrence of said first substance (NO x ) in said exhaust gas stream. - determining an interval between consecutive corrections, and - reducing the time between consecutive corrections on the basis of said occurrence of said first substance (NO x ) in said exhaust gas stream.
A control system for a wind turbine system comprising a plurality of wind turbine modules mounted to a common support structure, the control system comprises: a local controller operable to control the operation of a respective one of the plurality of wind turbine modules, and to issue local control commands thereto to achieve a set of local control objectives; a central controller implementing a model predictive control (MPC) routine configured to monitor the operation of the wind turbine system and based on the operation of the wind turbine system calculate the set of local control objectives. a local controller operable to control the operation of a respective one of the plurality of wind turbine modules, and to issue local control commands thereto to achieve a set of local control objectives; a central controller implementing a model predictive control (MPC) routine configured to monitor the operation of the wind turbine system and based on the operation of the wind turbine system calculate the set of local control objectives.
A method for producing a porous body, comprising: incorporating, into an aqueous urethane resin composition containing an aqueous urethane resin (A) having an acid value of 0.01 mg KOH/g or more, a thickening agent (B) having a carboxyl group and having an oxyethylene group content of 2 × 10 -2 mol/g or less in an amount in the range of from 0.01 to 30 parts by mass, relative to 100 parts by mass of the aqueous urethane resin (A), to thicken the composition so as to have a viscosity of 400 mPa·s or more; and then coagulating the thickened composition using a coagulant (C) containing a metal salt (c-1); wherein the viscosity of the aqueous urethane resin composition containing the thickening agent after being thickened is measured at 25°C using a Brookfield viscometer with an M3 rotor at 30 revolutions. incorporating, into an aqueous urethane resin composition containing an aqueous urethane resin (A) having an acid value of 0.01 mg KOH/g or more, a thickening agent (B) having a carboxyl group and having an oxyethylene group content of 2 × 10 -2 mol/g or less in an amount in the range of from 0.01 to 30 parts by mass, relative to 100 parts by mass of the aqueous urethane resin (A), to thicken the composition so as to have a viscosity of 400 mPa·s or more; and then coagulating the thickened composition using a coagulant (C) containing a metal salt (c-1); wherein the viscosity of the aqueous urethane resin composition containing the thickening agent after being thickened is measured at 25°C using a Brookfield viscometer with an M3 rotor at 30 revolutions.
A method performed by a wireless device for communicating with a first network node and a second network node by means of a respective cell thereof, the wireless device being in soft handover with at least two cells in its active set where downlink is best from one cell and uplink is best towards another cell, wherein the cell providing the best downlink belongs to the first network node , and the cell providing the best uplink belongs to the second network node , the method comprising: - transmitting at least one channel out of a first set of channels using a first beamforming towards the first network node to enhance the reception in the first network node ; and - transmitting the at least one channel out of the first set of channels or at least one channel out of a second set of channels using a second beamforming towards the second network node to enhance the reception in the second network node , wherein when the at least one channel out of the first set of channels is transmitted using the second beamforming, the method comprises repeatedly transmitting the at least one channel to the first network node using the first beamforming in a time slot and transmitting the at least one channel to the second network node using the second beamforming in a subsequent time slot, wherein the first beamforming and the second beamforming are different, and wherein the method is triggered when the wireless device moves into an uplink/downlink imbalance region at which the wireless device experiences that downlink is best from one cell and uplink is best towards another cell. - transmitting at least one channel out of a first set of channels using a first beamforming towards the first network node to enhance the reception in the first network node ; and - transmitting the at least one channel out of the first set of channels or at least one channel out of a second set of channels using a second beamforming towards the second network node to enhance the reception in the second network node , wherein when the at least one channel out of the first set of channels is transmitted using the second beamforming, the method comprises repeatedly transmitting the at least one channel to the first network node using the first beamforming in a time slot and transmitting the at least one channel to the second network node using the second beamforming in a subsequent time slot, wherein the first beamforming and the second beamforming are different, and wherein the method is triggered when the wireless device moves into an uplink/downlink imbalance region at which the wireless device experiences that downlink is best from one cell and uplink is best towards another cell.