mhurhangee/patent-ind-claim-en huggingface dataset:
A method for performing scan, the method comprising: entering scan mode ; receiving a test pattern (1204; 1402); applying the test pattern through a first scan chain by asserting and deasserting a scan enable signal to respectively perform shift and capture operations to the first scan chain ; the method is characterised in that while applying the test pattern through the first scan chain, controlling a further scan flip-flop with the first scan chain without transitioning a further scan enable input (SE) of the further scan flip-flop ; and evaluating an output of the first scan chain to detect faults. entering scan mode ; receiving a test pattern (1204; 1402); applying the test pattern through a first scan chain by asserting and deasserting a scan enable signal to respectively perform shift and capture operations to the first scan chain ; the method is characterised in that while applying the test pattern through the first scan chain, controlling a further scan flip-flop with the first scan chain without transitioning a further scan enable input (SE) of the further scan flip-flop ; and evaluating an output of the first scan chain to detect faults.
An aerosol generation device , comprising: - a bracket extending along a device axis (X) and configured to receive and support a plurality of internal components of the device ; - an outside casing delimiting an interior part of the device configured to receive the bracket and defining an atomizer compartment and a power block compartment ; - a pressure capture assembly comprising a pressure sensor and a flexible housing configured to receive and support the pressure sensor ; wherein the pressure capture assembly is designed to be arranged on the bracket between the power block compartment and the atomizer compartment to prevent air passage between these compartments ; the aerosol generation device being characterized in that the pressure capture assembly further comprises a holder configured to fix the flexible housing with the pressure sensor on the bracket so as the flexible housing is in contact with the bracket . - a bracket extending along a device axis (X) and configured to receive and support a plurality of internal components of the device ; - an outside casing delimiting an interior part of the device configured to receive the bracket and defining an atomizer compartment and a power block compartment ; - a pressure capture assembly comprising a pressure sensor and a flexible housing configured to receive and support the pressure sensor ; wherein the pressure capture assembly is designed to be arranged on the bracket between the power block compartment and the atomizer compartment to prevent air passage between these compartments ; the aerosol generation device being characterized in that the pressure capture assembly further comprises a holder configured to fix the flexible housing with the pressure sensor on the bracket so as the flexible housing is in contact with the bracket .
An apparatus comprising: a switch (200/300); and a fan disposed towards a back side of the apparatus; wherein the switch (200/300) comprises a faceplate having a plurality of openings for corresponding I/O connectors and comprising: a top panel (225/325) including a portion (203/303) angled towards a front side (F) of the faceplate (224/324), the angled portion (203/303) comprising an obtuse angle; and a front panel disposed on the front side (F) of the faceplate (224/324), the front panel comprising a first face (202A/302A) angled towards the front side (F) of the faceplate (224/324) and a second face (202B/302B) angled towards the front side of the faceplate (224/324), the first face (202A/302A) and the second face (202B/302B) having a plurality of holes , wherein the angled portion (203/303) of the top panel (225/325), the angled first face (202A/302A), and the angled second face (202B/302B) facilitate an intake/outlet area for air flow across the front side of the faceplate, characterised in that the apparatus further comprises a chassis, wherein each of the openings are equal distance to a chipset located at the chassis. a switch (200/300); and a fan disposed towards a back side of the apparatus; wherein the switch (200/300) comprises a faceplate having a plurality of openings for corresponding I/O connectors and comprising: a top panel (225/325) including a portion (203/303) angled towards a front side (F) of the faceplate (224/324), the angled portion (203/303) comprising an obtuse angle; and a front panel disposed on the front side (F) of the faceplate (224/324), the front panel comprising a first face (202A/302A) angled towards the front side (F) of the faceplate (224/324) and a second face (202B/302B) angled towards the front side of the faceplate (224/324), the first face (202A/302A) and the second face (202B/302B) having a plurality of holes , wherein the angled portion (203/303) of the top panel (225/325), the angled first face (202A/302A), and the angled second face (202B/302B) facilitate an intake/outlet area for air flow across the front side of the faceplate, characterised in that the apparatus further comprises a chassis, wherein each of the openings are equal distance to a chipset located at the chassis. a top panel (225/325) including a portion (203/303) angled towards a front side (F) of the faceplate (224/324), the angled portion (203/303) comprising an obtuse angle; and a front panel disposed on the front side (F) of the faceplate (224/324), the front panel comprising a first face (202A/302A) angled towards the front side (F) of the faceplate (224/324) and a second face (202B/302B) angled towards the front side of the faceplate (224/324), the first face (202A/302A) and the second face (202B/302B) having a plurality of holes , wherein the angled portion (203/303) of the top panel (225/325), the angled first face (202A/302A), and the angled second face (202B/302B) facilitate an intake/outlet area for air flow across the front side of the faceplate, characterised in that the apparatus further comprises a chassis, wherein each of the openings are equal distance to a chipset located at the chassis.
A freezing compensating filter element for use in a freezing resistant liquid filter, said freezing compensating filter element including a folded filter medium having a plurality of interstices and compressible elements , said compressible elements being compressible upon freezing of liquid within said filter, characterized in that : said plurality of interstices are locations within said folded filter medium where adjacent surfaces of said folded filter medium are widely mutually spaced; said compressible elements are located in said plurality of interstices ; and said compressible elements are configured and mounted within said freezing compensating filter element such that the functionality and integrity of said freezing compensating filter element are not compromised by compression thereof since generally such compression does not displace or distort the folded filter medium and the presence of said compressible elements does not adversely affect liquid flow through said filter. said plurality of interstices are locations within said folded filter medium where adjacent surfaces of said folded filter medium are widely mutually spaced; said compressible elements are located in said plurality of interstices ; and said compressible elements are configured and mounted within said freezing compensating filter element such that the functionality and integrity of said freezing compensating filter element are not compromised by compression thereof since generally such compression does not displace or distort the folded filter medium and the presence of said compressible elements does not adversely affect liquid flow through said filter.
Multi-layered soft-touch upholstery structure which has a substantially gas-impermeable upper material layer and, disposed therebelow, at least one voluminous pressure-elastic lower material layer , the lower material layer being composed of a gas-permeable material, wherein the lower side of the lower material layer is closed off by way of a gas-impermeable wall film , and wherein entry and exit openings for a gaseous cooling medium or heating medium, respectively, that is to be directed through the lower material layer are provided in the inflow-side end side region as well as in the outflow-side end side region of the lower material layer , characterized in that the upholstery structure has a tubular geometry wherein, when viewed from radially outside to radially inside, the upper material layer is disposed first, then the lower material layer , and finally the gas-impermeable wall film .
A window assembly comprising: an insulated glass unit ; a mounting bracket secured to the insulated glass unit ; a mounting assembly moveably coupled to the mounting bracket using a fastener ; and an electrical component secured to the mounting assembly ; wherein the fastener comprises a bolt, a screw, a cam lever, or a bayonet connector. an insulated glass unit ; a mounting bracket secured to the insulated glass unit ; a mounting assembly moveably coupled to the mounting bracket using a fastener ; and an electrical component secured to the mounting assembly ; wherein the fastener comprises a bolt, a screw, a cam lever, or a bayonet connector.
A temperature sensor comprising: a pair of lead frames ; a sensor portion connected to the pair of lead frames; and an insulating holding portion which is fixed to the pair of lead frames and holds the lead frames, wherein the sensor portion further comprises: an insulating film ; a thin film thermistor portion formed as a pattern on the surface of the insulating film with a thermistor material; a pair of interdigitated electrodes formed as patterns having multiple comb portions and facing each other on at least one of the top or the bottom of the thin film thermistor portion; and a pair of pattern electrodes connected to the pair of interdigitated electrodes and formed as patterns on the surface of the insulating film, and wherein the pair of lead frames is extended and adhered to the surface of the insulating film disposing the thin film thermistor portion therebetween and is connected to the pair of pattern electrodes. a pair of lead frames ; a sensor portion connected to the pair of lead frames; and an insulating holding portion which is fixed to the pair of lead frames and holds the lead frames, wherein the sensor portion further comprises: an insulating film ; a thin film thermistor portion formed as a pattern on the surface of the insulating film with a thermistor material; a pair of interdigitated electrodes formed as patterns having multiple comb portions and facing each other on at least one of the top or the bottom of the thin film thermistor portion; and a pair of pattern electrodes connected to the pair of interdigitated electrodes and formed as patterns on the surface of the insulating film, and wherein the pair of lead frames is extended and adhered to the surface of the insulating film disposing the thin film thermistor portion therebetween and is connected to the pair of pattern electrodes. an insulating film ; a thin film thermistor portion formed as a pattern on the surface of the insulating film with a thermistor material; a pair of interdigitated electrodes formed as patterns having multiple comb portions and facing each other on at least one of the top or the bottom of the thin film thermistor portion; and a pair of pattern electrodes connected to the pair of interdigitated electrodes and formed as patterns on the surface of the insulating film, and wherein the pair of lead frames is extended and adhered to the surface of the insulating film disposing the thin film thermistor portion therebetween and is connected to the pair of pattern electrodes.
A method performed by a network data analytics function, NWDAF, entity for a network configuration in a wireless communication system, the method comprising: receiving , from a network function, NF, an analytics information request including an analytics identity, ID, set to NF load information and analytics filter information; setting the analytics filter information to specific tracking areas, TAs, or access and mobility management function, AMF, regions; collecting from a user equipment, UE, input data including at least one of route, speed, orientation, or destination of the UE; processing the collected UE input data; and transmitting , to the NF, an analytics information response including predicted pattern of load changes based on the processed UE input data. receiving , from a network function, NF, an analytics information request including an analytics identity, ID, set to NF load information and analytics filter information; setting the analytics filter information to specific tracking areas, TAs, or access and mobility management function, AMF, regions; collecting from a user equipment, UE, input data including at least one of route, speed, orientation, or destination of the UE; processing the collected UE input data; and transmitting , to the NF, an analytics information response including predicted pattern of load changes based on the processed UE input data.
A method for a network device comprising a plurality of microphones (702, 702a-g, 802, 802a-g) including at least a first microphone and a second microphone, or for a first network device comprising a plurality of microphones including at least a first microphone and a second network device comprising at least a second microphone, the method comprising: capturing , via at least a portion of the plurality of microphones , a plurality of respective audio signals including a first audio signal obtained by the first microphone and a second audio signal obtained by the second microphone; identifying , for at least the first audio signal, a first noise content; determining , based on the identified noise content, an estimated noise content captured by the plurality of microphones (702, 702a-g, 802, 802a-g); generating at least a first noise-suppressed audio signal and a second noise-suppressed audio signal by suppressing the estimated noise contents in the first audio signal and the second audio signal respectively; combining the first and second noise-suppressed audio signals into a third audio signal; determining whether the third audio signal includes a voice input comprising a wake word; and when it is determined that the third audio signal comprises the voice input comprising the wake word, transmitting at least a portion of the voice input to a remote computing device for voice processing to identify a voice utterance different from the wake word. capturing , via at least a portion of the plurality of microphones , a plurality of respective audio signals including a first audio signal obtained by the first microphone and a second audio signal obtained by the second microphone; identifying , for at least the first audio signal, a first noise content; determining , based on the identified noise content, an estimated noise content captured by the plurality of microphones (702, 702a-g, 802, 802a-g); generating at least a first noise-suppressed audio signal and a second noise-suppressed audio signal by suppressing the estimated noise contents in the first audio signal and the second audio signal respectively; combining the first and second noise-suppressed audio signals into a third audio signal; determining whether the third audio signal includes a voice input comprising a wake word; and when it is determined that the third audio signal comprises the voice input comprising the wake word, transmitting at least a portion of the voice input to a remote computing device for voice processing to identify a voice utterance different from the wake word.
An electronic equipment , comprising: circuitry configured to: receive information designating a functionality selected amongst a plurality of controllable functionalities , receive a plurality of recordings of a same group of at least one user input for said selected functionality , apply a trained neural network model on said received plurality of recordings to recognize an input pattern , associate said recognized input pattern with said selected functionality, and store said association in a memory , and control said selected functionality based on said stored association , wherein said circuitry is further configured to: generate a distribution of at least one user input of said input pattern based on said plurality of recordings, and determine a variability of each user input of said recordings based on said generated distribution, the electronic equipment being characterized in that said circuitry is further configured to recognize an input pattern when each determined variability of the corresponding user input is smaller than a threshold value. receive information designating a functionality selected amongst a plurality of controllable functionalities , receive a plurality of recordings of a same group of at least one user input for said selected functionality , apply a trained neural network model on said received plurality of recordings to recognize an input pattern , associate said recognized input pattern with said selected functionality, and store said association in a memory , and control said selected functionality based on said stored association , wherein said circuitry is further configured to: generate a distribution of at least one user input of said input pattern based on said plurality of recordings, and determine a variability of each user input of said recordings based on said generated distribution, the electronic equipment being characterized in that said circuitry is further configured to recognize an input pattern when each determined variability of the corresponding user input is smaller than a threshold value. control said selected functionality based on said stored association , wherein said circuitry is further configured to: generate a distribution of at least one user input of said input pattern based on said plurality of recordings, and determine a variability of each user input of said recordings based on said generated distribution, generate a distribution of at least one user input of said input pattern based on said plurality of recordings, and determine a variability of each user input of said recordings based on said generated distribution, the electronic equipment being characterized in that said circuitry is further configured to recognize an input pattern when each determined variability of the corresponding user input is smaller than a threshold value.
A process for the continuous production of halogenated butyl rubber, the process comprising at least the steps of: a. continuously providing a butyl rubber slurry comprising butyl rubber and water; wherein the butyl rubber slurry concentration comprises from greater than 5% up to 20% by weight of butyl rubber in water b. dissolving the butyl rubber of the butyl rubber slurry in a non-halogenated organic solvent to form a butyl rubber cement in water; c. phase separating the water from the rubber cement in a closed separator, thereby forming an interface layer in the separator; and, d. halogenating the rubber cement to thereby produce the halogenated butyl rubber. a. continuously providing a butyl rubber slurry comprising butyl rubber and water; wherein the butyl rubber slurry concentration comprises from greater than 5% up to 20% by weight of butyl rubber in water b. dissolving the butyl rubber of the butyl rubber slurry in a non-halogenated organic solvent to form a butyl rubber cement in water; c. phase separating the water from the rubber cement in a closed separator, thereby forming an interface layer in the separator; and, d. halogenating the rubber cement to thereby produce the halogenated butyl rubber.
A system for supplying power to a medical device worn by a user or implanted in the user, the system comprising: a base module configured to be operatively coupled with the medical device to supply electrical power to the medical device , the base module including a base module input connector ; and a plurality of external battery modules , each of the external battery modules including: one or more battery cells configured to store electrical power; an output connector configured to output electrical power from the external battery module ; an input connector configured to receive electrical power from another of the plurality of external battery modules ; and a controller configured to control distribution of electrical power received via the input connector to charge the one or more battery cells and/or to be output via the output connector . a base module configured to be operatively coupled with the medical device to supply electrical power to the medical device , the base module including a base module input connector ; and a plurality of external battery modules , each of the external battery modules including: one or more battery cells configured to store electrical power; an output connector configured to output electrical power from the external battery module ; an input connector configured to receive electrical power from another of the plurality of external battery modules ; and a controller configured to control distribution of electrical power received via the input connector to charge the one or more battery cells and/or to be output via the output connector . one or more battery cells configured to store electrical power; an output connector configured to output electrical power from the external battery module ; an input connector configured to receive electrical power from another of the plurality of external battery modules ; and a controller configured to control distribution of electrical power received via the input connector to charge the one or more battery cells and/or to be output via the output connector .
Clutch assembly for a machine, comprising a clutch friction disc attachable to a rotating part of the machine and comprising at least one friction sector (1.0) on one of its two side faces (1.1, 1.2), and a main body coupleable to a shaft of the machine and which, in a clutching position (P1) of the clutch assembly , cooperates with the clutch friction disc by means of friction, transmitting the rotation of said clutch friction disc to said shaft, the clutch assembly further comprising at least one detection device which is configured for detecting the wear of the friction sector (1.0) of the clutch friction disc and which comprises at least one wear sensor (6.0), characterised in that the detection device is arranged in the main body and the wear sensor (6.0) faces a side face (1.1, 1.2) of the clutch friction disc to measure the wear of the friction sector (1.0) arranged on said side face, the clutch assembly further comprising at least one control device (6.2) communicated with the wear sensor (6.0), and at least one electric power unit (6.4) configured for powering the wear sensor (6.0), which is preferably a supercapacitor, the wear sensor (6.0) being configured for detecting the distance between its position and the side face (1.1, 1.2) of the clutch friction disc that it is facing, without coming into contact with said side face (1.1, 1.2), and the control device (6.2) being configured for determining the wear of the friction sector (1.0) arranged on said side face (1.1, 1.2) as a function of said detected distance.