mhurhangee/patent-ind-claim-en huggingface dataset:
A method for picture decoding, comprising: receiving bitstream data, and parsing the bitstream data to obtain a Coding Tree Unit (CTU) corresponding to the bitstream data ; parsing a node of a layer corresponding to the CTU to determine a state parameter and a flag parameter corresponding to the node, the state parameter being configured to determine whether the node supports refreshing, and the flag parameter being configured to determine whether the node enables refreshing ; determining a leaf parameter corresponding to the node, the leaf parameter being configured to determine whether to continue to partition the node; performing detection processing on the node according to the leaf parameter, the state parameter and the flag parameter to obtain a detection result ; continuing to acquire a node of a next layer corresponding to the CTU according to the detection result ; continuing to perform detection processing on the node of the next layer, and obtaining data of all Coding Units (CUs) corresponding to the CTU ; and generating a decoded picture corresponding to the bitstream data according to the node and the data of all CUs . receiving bitstream data, and parsing the bitstream data to obtain a Coding Tree Unit (CTU) corresponding to the bitstream data ; parsing a node of a layer corresponding to the CTU to determine a state parameter and a flag parameter corresponding to the node, the state parameter being configured to determine whether the node supports refreshing, and the flag parameter being configured to determine whether the node enables refreshing ; determining a leaf parameter corresponding to the node, the leaf parameter being configured to determine whether to continue to partition the node; performing detection processing on the node according to the leaf parameter, the state parameter and the flag parameter to obtain a detection result ; continuing to acquire a node of a next layer corresponding to the CTU according to the detection result ; continuing to perform detection processing on the node of the next layer, and obtaining data of all Coding Units (CUs) corresponding to the CTU ; and generating a decoded picture corresponding to the bitstream data according to the node and the data of all CUs .
Profile for a trailing edge of an airfoil , the trailing edge comprising two flanges , wherein the profile is U or V shaped and is made of composite material the profile comprising: - two sections joined at a first profile end (1.1) and defining an inner space , and - a plurality of recesses arranged along the two sections towards the inner space and being complementary to each other between the two sections ; wherein the profile is configured to follow the theoretical aerodynamic contour of the airfoil so that when the profile is mounted on the trailing edge the two sections partially cover the trailing edge and the flanges are housed inside the inner space ; each recess of the plurality of recesses defines at least two joining points through which the two flanges of the trailing edge and the two sections are configured to be joined to each other; and each section comprises a support section configured to rest on the trailing edge ; wherein the support section comprises at least one projection (8.1) that projects towards the inner space and is configured to couple and optionally seal the profile to the trailing edge ; and the projection (8.1) has a triangular and/or circular shape according to a cross sectional view of the profile . the profile is U or V shaped and is made of composite material the profile comprising: - two sections joined at a first profile end (1.1) and defining an inner space , and - a plurality of recesses arranged along the two sections towards the inner space and being complementary to each other between the two sections ; - two sections joined at a first profile end (1.1) and defining an inner space , and - a plurality of recesses arranged along the two sections towards the inner space and being complementary to each other between the two sections ; wherein the profile is configured to follow the theoretical aerodynamic contour of the airfoil so that when the profile is mounted on the trailing edge the two sections partially cover the trailing edge and the flanges are housed inside the inner space ; each recess of the plurality of recesses defines at least two joining points through which the two flanges of the trailing edge and the two sections are configured to be joined to each other; and each section comprises a support section configured to rest on the trailing edge ; wherein the support section comprises at least one projection (8.1) that projects towards the inner space and is configured to couple and optionally seal the profile to the trailing edge ; and the projection (8.1) has a triangular and/or circular shape according to a cross sectional view of the profile .
A vaporizer comprising: an inlet configured to receive a refrigerant/oil mixture; an oil outlet ; a vent ; a hot gas inlet ; a cooled gas outlet ; a gas flowpath extending from the hot gas inlet to the cooled gas outlet ; a vaporizer chamber downstream of the inlet along a primary flowpath ; a gas conduit along the gas flowpath in heat exchange relation with the primary flowpath passing through the vaporizer chamber and being configured to boil off refrigerant; a sump below the vaporizer chamber ; a housing enclosing the sump and the vaporizer chamber ; a passageway from the vaporizer chamber to the sump ; and an oil reservoir mounted to the main body below the sump , wherein: the housing is formed as a generally elongate circular cylinder; the oil outlet is coupled to an oil inlet port of the oil reservoir ; and the vent is configured to vent the vaporizer chamber . an inlet configured to receive a refrigerant/oil mixture; an oil outlet ; a vent ; a hot gas inlet ; a cooled gas outlet ; a gas flowpath extending from the hot gas inlet to the cooled gas outlet ; a vaporizer chamber downstream of the inlet along a primary flowpath ; a gas conduit along the gas flowpath in heat exchange relation with the primary flowpath passing through the vaporizer chamber and being configured to boil off refrigerant; a sump below the vaporizer chamber ; a housing enclosing the sump and the vaporizer chamber ; a passageway from the vaporizer chamber to the sump ; and an oil reservoir mounted to the main body below the sump , the housing is formed as a generally elongate circular cylinder; the oil outlet is coupled to an oil inlet port of the oil reservoir ; and the vent is configured to vent the vaporizer chamber .
A personal portable respiratory apparatus to provide cleaned air to a user, the apparatus comprising: a flow generator , the flow generator configured to generate a filtered or conditioned flow of air; a personal spatial respiratory interface coupled to the flow generator , the personal spatial respiratory interface comprising an outlet for the flow generator, the personal spatial respiratory interface configured to direct the flow of air within an ambient breathing proximity of a user; one or more sensors configured to detect orientation of the personal spatial respiratory interface ; and a controller configured to adjust operation of the apparatus based on a signal from the said one or more sensors, wherein the adjustment of operation of the apparatus comprises any one of a change in flow direction and a change in flow velocity. a flow generator , the flow generator configured to generate a filtered or conditioned flow of air; a personal spatial respiratory interface coupled to the flow generator , the personal spatial respiratory interface comprising an outlet for the flow generator, the personal spatial respiratory interface configured to direct the flow of air within an ambient breathing proximity of a user; one or more sensors configured to detect orientation of the personal spatial respiratory interface ; and a controller configured to adjust operation of the apparatus based on a signal from the said one or more sensors, wherein the adjustment of operation of the apparatus comprises any one of a change in flow direction and a change in flow velocity.
A method, comprising: receiving a microphone signal; determining whether the microphone signal contains noise above a noise threshold; determining whether the microphone signal contains speech when the noise threshold is exceeded; determining a noise estimate for the microphone signal when speech is found not to be present; performing noise filtering using the noise estimate on the microphone signal when speech is found to be present; and performing feature extraction on the microphone signal when speech is found to be present, wherein the feature extraction and the noise estimate use an output of the same Fourier Transform, such that the noise filtering of the speech is embedded with the feature extraction of the speech. receiving a microphone signal; determining whether the microphone signal contains noise above a noise threshold; determining whether the microphone signal contains speech when the noise threshold is exceeded; determining a noise estimate for the microphone signal when speech is found not to be present; performing noise filtering using the noise estimate on the microphone signal when speech is found to be present; and performing feature extraction on the microphone signal when speech is found to be present, wherein the feature extraction and the noise estimate use an output of the same Fourier Transform, such that the noise filtering of the speech is embedded with the feature extraction of the speech.
Storage container for a removable intraoral aid that is worn in the mouth for therapeutic and/or preventive purposes, which comprises a housing with housing pot and housing cover and at least one ventilation opening , wherein - at least one drying substance is arranged in the interior of the housing and receives and adsorbs and/or binds moisture in the interior of the housing , - the housing pot and/or the housing cover has the at least one ventilation opening , - at least one moulded body is provided in the interior of the housing and has a receiving region for receiving the intraoral aid , - the moulded body is formed as a pot-shaped insert with a bottom , a wall and an outward-pointing rim , - the rim has at least one ventilation opening which, in the state when inserted into the housing , overlaps, at least in regions, the at least one ventilation opening arranged in the housing pot and/or housing cover , and wherein in the wall at least one aperture is provided so as to be arranged in the wall region on the at least one ventilation opening in the rim . - at least one drying substance is arranged in the interior of the housing and receives and adsorbs and/or binds moisture in the interior of the housing , - the housing pot and/or the housing cover has the at least one ventilation opening , - at least one moulded body is provided in the interior of the housing and has a receiving region for receiving the intraoral aid , - the moulded body is formed as a pot-shaped insert with a bottom , a wall and an outward-pointing rim , - the rim has at least one ventilation opening which, in the state when inserted into the housing , overlaps, at least in regions, the at least one ventilation opening arranged in the housing pot and/or housing cover , and
A temperature controller comprising a temperature regulator and temperature sensing means , the temperature regulator being an adjustable regulator for setting a predetermined temperature value, the temperature regulator being adapted to regulate the temperature at a location towards a target temperature value taking into account the value of the temperature sensed by the temperature sensing means , the temperature controller comprising further sensing means for detecting gas comprising at least one of a carbon dioxide sensor, and/or a VOC sensor, characterized in that the temperature regulator is further adapted to tune the predetermined temperature value to the target temperature value in accordance with the output of the further sensing means for detecting gas.
A valve for a system for the application of a coating product, this valve comprising a body comprising an inner central orifice and a chamber , the valve also comprising a piston formed by a rod mounted in the inner central orifice and by a piston head mounted in the chamber , the rod extending outside the body and being intended to move in a bore of the application system in which the valve is intended to be mounted and in which the pressurized coating product or another fluid circulates, the valve comprising a first sealing device formed by a dynamic seal housed in the body around the piston rod on one side of the valve where the piston rod extends outside the body , a part of the chamber being intended to be filled with a pressurized control fluid (F2) so as to obtain the movement (F3) of the piston against the force of a spring housed in the body , the valve including a second sealing device formed by a dynamic seal housed in the body around the piston rod between the first sealing device and the chamber , characterized in that the valve comprises a vent duct provided in the rod of the piston and communicating with the inner central orifice between the first sealing device and the second sealing device and emerging in the open air or in part of the chamber communicating with the open air.
An apparatus adapted for treatment of sleep disordered breathing comprising: a blower for providing to a patient a supply of air at a treatment pressure in phase with the patient's respiratory breathing cycle, the respiratory breathing cycle including an expiratory phase and an inspiratory phase; a patient interface , an air delivery conduit for delivering air from the blower to the patient interface, and means for detecting the pressure in the patient interface, the flow of air provided to the patient through the patient interface, and transitions between inspiration and expiration of the patient's breathing cycle; a controller for determining a first index and a second index from pressure or flow detected by said means, the first index being indicative of one or more of apnea, hypopnea and snoring, and the second index being indicative of flow limitation; and calculating a first pressure from the first index and calculating a second pressure from the second index the first pressure being provided during the expiratory phase of the patient's breathing cycle and the second pressure being provided during the inspiratory phase of the patient's breathing cycle. a blower for providing to a patient a supply of air at a treatment pressure in phase with the patient's respiratory breathing cycle, the respiratory breathing cycle including an expiratory phase and an inspiratory phase; a patient interface , an air delivery conduit for delivering air from the blower to the patient interface, and means for detecting the pressure in the patient interface, the flow of air provided to the patient through the patient interface, and transitions between inspiration and expiration of the patient's breathing cycle; a controller for determining a first index and a second index from pressure or flow detected by said means, the first index being indicative of one or more of apnea, hypopnea and snoring, and the second index being indicative of flow limitation; and calculating a first pressure from the first index and calculating a second pressure from the second index the first pressure being provided during the expiratory phase of the patient's breathing cycle and the second pressure being provided during the inspiratory phase of the patient's breathing cycle.
An internet protocol multimedia subsystem, IMS, data channel based communication method, comprising: receiving, by a certificate management server , an encrypted ticket and identification information of a first application from an application server , wherein the identification information of the first application is used to identify the first application of a first terminal; sending, by the certificate management server , the encrypted ticket and the identification information of the first application to a key management server ; receiving, by the certificate management server , a first key; and sending, by the certificate management server , a data channel application certificate corresponding to the first key to the application server , wherein the data channel application certificate is used by the first application to perform an IMS data channel service with a second application of a second terminal. receiving, by a certificate management server , an encrypted ticket and identification information of a first application from an application server , wherein the identification information of the first application is used to identify the first application of a first terminal; sending, by the certificate management server , the encrypted ticket and the identification information of the first application to a key management server ; receiving, by the certificate management server , a first key; and sending, by the certificate management server , a data channel application certificate corresponding to the first key to the application server , wherein the data channel application certificate is used by the first application to perform an IMS data channel service with a second application of a second terminal.
Method for controlling the selectivity of electrical protection devices (10-14) of an installation comprising at least one upstream electrical device and at least one downstream electrical device and an information and selectivity processing means , said devices being equipped with a communication means, characterised in that the method comprises the following steps: - inputting , into the information processing means , of data representing a wiring diagram of the installation, - communication of electrical device settings between at least one of said electrical devices (10-14) and the information processing means , - calculation of the selectivity, by the information processing means , of the electrical devices as a function of said electrical device settings and of said data of the wiring diagram, - adjustment of at least one of the electrical devices as a function of new settings determined by the selectivity calculation, - storage and communication of data representing the new settings and of said selectivity data, - monitoring , by the information processing means , of a change of settings and/or of a change of device, and - checking , by the information processing means , of compatibility between said new settings after a change and the selectivity calculation. - inputting , into the information processing means , of data representing a wiring diagram of the installation, - communication of electrical device settings between at least one of said electrical devices (10-14) and the information processing means , - calculation of the selectivity, by the information processing means , of the electrical devices as a function of said electrical device settings and of said data of the wiring diagram, - adjustment of at least one of the electrical devices as a function of new settings determined by the selectivity calculation, - storage and communication of data representing the new settings and of said selectivity data, - monitoring , by the information processing means , of a change of settings and/or of a change of device, and - checking , by the information processing means , of compatibility between said new settings after a change and the selectivity calculation.
A rotor assembly for a gas turbine engine comprising: a rotor disc (50; 94); a plurality of rotor blades (52; 92) secured to the rotor disc defining a rim cavity between the rotor disc and a rim portion of the plurality of rotor blades; and a rim seal disposed in the rim cavity, the rim seal comprising: a seal portion extending circumferentially across the rim cavity of the rotor, the seal portion configured to seal the rim cavity; and a first foot portion extending radially inwardly from a first end of the seal portion; wherein the seal portion of the rim seal has an increasing radial thickness with increasing distance from the first end and from a second end opposite the first end, to a seal peak located midway between the seal ends; and wherein the rim seal further comprises a second foot portion extending radially inwardly from the second end of the seal portion opposite the first end; characterised in that the first foot portion and the second foot portion provide a standoff defining a dead rim cavity between the rim seal and a low pressure rotor disc to allow cooling airflow to circulate in the dead rim cavity. a rotor disc (50; 94); a plurality of rotor blades (52; 92) secured to the rotor disc defining a rim cavity between the rotor disc and a rim portion of the plurality of rotor blades; and a rim seal disposed in the rim cavity, the rim seal comprising: a seal portion extending circumferentially across the rim cavity of the rotor, the seal portion configured to seal the rim cavity; and a first foot portion extending radially inwardly from a first end of the seal portion; wherein the seal portion of the rim seal has an increasing radial thickness with increasing distance from the first end and from a second end opposite the first end, to a seal peak located midway between the seal ends; and wherein the rim seal further comprises a second foot portion extending radially inwardly from the second end of the seal portion opposite the first end; a seal portion extending circumferentially across the rim cavity of the rotor, the seal portion configured to seal the rim cavity; and a first foot portion extending radially inwardly from a first end of the seal portion; wherein the seal portion of the rim seal has an increasing radial thickness with increasing distance from the first end and from a second end opposite the first end, to a seal peak located midway between the seal ends; and wherein the rim seal further comprises a second foot portion extending radially inwardly from the second end of the seal portion opposite the first end; characterised in that the first foot portion and the second foot portion provide a standoff defining a dead rim cavity between the rim seal and a low pressure rotor disc to allow cooling airflow to circulate in the dead rim cavity.
A genetically engineered T-cell that expresses a bispecific chimeric antigen receptor (CAR) linked to truncated epidermal growth factor receptor (EGFRt), wherein the expression product has the amino acid sequence of SEQ ID No. 3 or 12.