mhurhangee/patent-ind-claim-en huggingface dataset:
A carbonation device having a microprocessor , the carbonation device adapted to carbonate the contents of a bottle containing a liquid, the bottle having a maximum fill level, comprising: a pull solenoid and valve arrangement or a direct acting solenoid valve or actuator adapted to be attached to a carbon dioxide cylinder ; the pull solenoid and valve arrangement or the direct acting solenoid valve or actuator adapted to supply carbon dioxide to a fill head , the fill head being connected to a fill line from the delivery valve and to a vent , an exhaust solenoid valve being adapted to control the vent; the fill head having a pressure sensor that is arranged to provide a pressure signal to the microprocessor , the pressure sensor located such that, when the bottle is in a sealed engagement with the fill head , it is above the maximum fill level of the bottle; characterised in that the carbonation device is to determine or approximate an amount of carbon dioxide gas remaining in a carbon dioxide cylinder by utilising the pressure sensor and the microprocessor to measure both the pressure rise in the bottle and a time over which the pressure increase occurs, and the microprocessor is configured to compare rise times between any two carbonation cycles and to use the differences in detected pressure and time to provide information about the fill level of the carbon dioxide cylinder . a pull solenoid and valve arrangement or a direct acting solenoid valve or actuator adapted to be attached to a carbon dioxide cylinder ; the pull solenoid and valve arrangement or the direct acting solenoid valve or actuator adapted to supply carbon dioxide to a fill head , the fill head being connected to a fill line from the delivery valve and to a vent , an exhaust solenoid valve being adapted to control the vent; the fill head having a pressure sensor that is arranged to provide a pressure signal to the microprocessor , the pressure sensor located such that, when the bottle is in a sealed engagement with the fill head , it is above the maximum fill level of the bottle; characterised in that the carbonation device is to determine or approximate an amount of carbon dioxide gas remaining in a carbon dioxide cylinder by utilising the pressure sensor and the microprocessor to measure both the pressure rise in the bottle and a time over which the pressure increase occurs, and the microprocessor is configured to compare rise times between any two carbonation cycles and to use the differences in detected pressure and time to provide information about the fill level of the carbon dioxide cylinder .
A method of building vehicle data in a tire pressure diagnosis tool , comprising: providing a tire pressure diagnosis tool comprising a micro-control unit (MCU) , said MCU connecting with an operating interface , a wireless signal transmitting receiving module , and a memory , with the tire pressure diagnosis tool being in communication with a tire pressure sensor through the wireless signal transmitting and receiving module ; the method comprises the steps of: step A: building owner information in the tire pressure diagnosis tool , the owner information being for identifying an owner's identity; step B: entering a vehicle identification number, the vehicle identification number being a 17-character string of mixed numerals and alphabets; step C: entering a tire identification number descriptive of dimensions and a manufacturing date of a tire, the tire identification number being entered by manual input, barcode scanning, or QR scanning or image recognition; step D: obtaining a tire pressure sensor identification number; and step E: obtaining a tire environment parameter value, with the tire environment parameter being temperature and pressure detected by the tire pressure sensor; wherein, upon completion of the steps, information obtained in each step is stored in the memory of the tire pressure diagnosis tool , and wherein in step D, when triggered once, all the tire pressure sensors respond. step A: building owner information in the tire pressure diagnosis tool , the owner information being for identifying an owner's identity; step B: entering a vehicle identification number, the vehicle identification number being a 17-character string of mixed numerals and alphabets; step C: entering a tire identification number descriptive of dimensions and a manufacturing date of a tire, the tire identification number being entered by manual input, barcode scanning, or QR scanning or image recognition; step D: obtaining a tire pressure sensor identification number; and step E: obtaining a tire environment parameter value, with the tire environment parameter being temperature and pressure detected by the tire pressure sensor; wherein, upon completion of the steps, information obtained in each step is stored in the memory of the tire pressure diagnosis tool , and wherein in step D, when triggered once, all the tire pressure sensors respond.
A method, comprising: receiving, at a first set of latches and as part of a wear-leveling operation, a first set of data from a first section of a memory array, the first set of data associated with a logical address, wherein: the first set of latches is associated with the first section of the memory array; and the memory array comprises a plurality of sections of ferroelectric memory cells ; sending the first set of data to a second set of latches through an error correction circuit on a chip with a memory array, the error correction circuit located in a periphery outside of the memory array, wherein the second set of latches is associated with a second section of the memory array; and storing the first set of data in the second section of the memory array without changing the logical address associated with the first set of data, wherein the first section of the memory array becomes a spare section of the memory array to be used as a destination section for copying data from another section of the memory array. the first set of latches is associated with the first section of the memory array; and the memory array comprises a plurality of sections of ferroelectric memory cells ; sending the first set of data to a second set of latches through an error correction circuit on a chip with a memory array, the error correction circuit located in a periphery outside of the memory array, wherein the second set of latches is associated with a second section of the memory array; and storing the first set of data in the second section of the memory array without changing the logical address associated with the first set of data, wherein the first section of the memory array becomes a spare section of the memory array to be used as a destination section for copying data from another section of the memory array.
An ultrasound probe comprising: a) a housing ; b) a transducer assembly operable to transmit ultrasonic energy towards a zone of the probe adapted to be acoustically coupled to an object or area of interest; c) a cooling system comprising a heat transfer device arranged to transfer heat generated by the transducer assembly to one or more regions or areas located outside such transducer assembly , and a heat storing device in thermal communication with the heat transfer device , characterized in that the heat storing device comprises a composite material including a Phase Change Material (PCM) and a filler charged with graphene, such heat storing device being arranged to fill available spaces inside the probe housing to temporarily store heat drained away from the transducer assembly . a) a housing ; b) a transducer assembly operable to transmit ultrasonic energy towards a zone of the probe adapted to be acoustically coupled to an object or area of interest; c) a cooling system comprising a heat transfer device arranged to transfer heat generated by the transducer assembly to one or more regions or areas located outside such transducer assembly , and a heat storing device in thermal communication with the heat transfer device ,
A guidance system for guiding insertion of a needle into a body of a patient, comprising: an ultrasound imaging device including an ultrasound probe ; a magnetic sensor configured to sense a magnetic field associated with the needle ; a processor that receives magnetic field data sensed by the magnetic sensor to determine a position of the needle in three spatial dimensions; and a magnetizer configured to magnetize the needle , the magnetizer including an orientation key system configured to position the needle in a desired orientation with respect to the magnetizer . an ultrasound imaging device including an ultrasound probe ; a magnetic sensor configured to sense a magnetic field associated with the needle ; a processor that receives magnetic field data sensed by the magnetic sensor to determine a position of the needle in three spatial dimensions; and a magnetizer configured to magnetize the needle , the magnetizer including an orientation key system configured to position the needle in a desired orientation with respect to the magnetizer .
A Torus-Quorum based directional channel rendezvous method for a receiver and a sender, each having directional antennas, comprising the following steps: a directional antenna of the sender and a directional antenna of the receiver each initially pointing in an arbitrary direction are rotated to positions to face the directional antenna of the other of the sender and the receiver mutually in one Torus-Quorum system cycle through a rotation closure attribute of a Torus-Quorum system to realize directional rendezvous of the directional antennas; and the receiver and the sender switch to a same available channel among the channels locally available to each of the receiver and the sender according to selected frequency hopping sequences to realize channel rendezvous in a process comprising the following steps: the receiver and the sender respectively select the smallest prime numbers P A and P B not smaller than the channel numbers |C A | and |C B | locally available to the receiver and sender respectively as a frequency hopping period of the receiver and the sender; if P A =|C A | or/and P B =|C B |, the receiver and/or sender accesses all locally available channels in increasing order; if P A >|C A | or/and P B >|C B |, the receiver or/and the sender accesses all locally available channels in increasing order in each cycle and then randomly supplements P A -|C A | and/or P B -|C B | channels respectively, wherein C A is an available channel set of the receiver and C B is an available channel set of the sender. the receiver and the sender respectively select the smallest prime numbers P A and P B not smaller than the channel numbers |C A | and |C B | locally available to the receiver and sender respectively as a frequency hopping period of the receiver and the sender; if P A =|C A | or/and P B =|C B |, the receiver and/or sender accesses all locally available channels in increasing order; if P A >|C A | or/and P B >|C B |, the receiver or/and the sender accesses all locally available channels in increasing order in each cycle and then randomly supplements P A -|C A | and/or P B -|C B | channels respectively, wherein C A is an available channel set of the receiver and C B is an available channel set of the sender.
A user equipment, UE , comprising: a processor ; and memory storing computer-executable instructions that, when executed by the processor , cause the UE to: transmit a registration request to an Internet Protocol Multimedia Subsystem, IMS, node ; receive a registration response to the registration request; transmit a subscription request to the IMS node; receive a subscription response that (i) rejects the subscription request by specifying a type of error in a first error category, or (ii) notifies the UE of a terminated registration status; determine , at a time after transmitting the registration request, that a number of registration requests transmitted from the UE to the IMS node is equal to a predetermined number of registration requests; and refrain from transmitting any additional registration requests until an occurrence of a trigger event, wherein the trigger event comprises powering down the UE and subsequently powering up the UE. a processor ; and memory storing computer-executable instructions that, when executed by the processor , cause the UE to: transmit a registration request to an Internet Protocol Multimedia Subsystem, IMS, node ; receive a registration response to the registration request; transmit a subscription request to the IMS node; receive a subscription response that (i) rejects the subscription request by specifying a type of error in a first error category, or (ii) notifies the UE of a terminated registration status; determine , at a time after transmitting the registration request, that a number of registration requests transmitted from the UE to the IMS node is equal to a predetermined number of registration requests; and refrain from transmitting any additional registration requests until an occurrence of a trigger event, wherein the trigger event comprises powering down the UE and subsequently powering up the UE. transmit a registration request to an Internet Protocol Multimedia Subsystem, IMS, node ; receive a registration response to the registration request; transmit a subscription request to the IMS node; receive a subscription response that (i) rejects the subscription request by specifying a type of error in a first error category, or (ii) notifies the UE of a terminated registration status; determine , at a time after transmitting the registration request, that a number of registration requests transmitted from the UE to the IMS node is equal to a predetermined number of registration requests; and refrain from transmitting any additional registration requests until an occurrence of a trigger event, wherein the trigger event comprises powering down the UE and subsequently powering up the UE.
A method of operating a terminal device in a wireless telecommunications system , wherein the terminal device is configured to selectively switch between an active operating mode and a reduced-power operating mode, wherein the method comprises: communicating with a network entity to exchange a block of data between the terminal device and the network entity while the terminal device is in the active operating mode; determining when communications associated with the exchange of the block of data are complete; and in response to determining communications associated with the exchange of the block of data are complete, switching from the active operating mode to the reduced-power operating mode; the terminal device supports a protocol stack comprising a physical, PHY, layer, a medium access control, MAC, layer, and a radio link control, RLC, layer, and characterised in that determining when communications associated with the exchange of the block of data are complete is performed at the radio link control, RLC, layer. communicating with a network entity to exchange a block of data between the terminal device and the network entity while the terminal device is in the active operating mode; determining when communications associated with the exchange of the block of data are complete; and in response to determining communications associated with the exchange of the block of data are complete, switching from the active operating mode to the reduced-power operating mode; the terminal device supports a protocol stack comprising a physical, PHY, layer, a medium access control, MAC, layer, and a radio link control, RLC, layer, and characterised in that determining when communications associated with the exchange of the block of data are complete is performed at the radio link control, RLC, layer.
A method for scheduling sensing signals for two or more wireless devices, comprising: determining requirements of sensing performance from the two or more wireless devices; determining one or more groups of wireless devices having similar requirements of sensing performance, each group comprising one or more wireless devices of the two or more wireless devices; characterized by determining (S810) existing sensing signals being transmitted; for each group, comparing (S820) features of existing sensing signals with respective requirements of sensing performance; providing information about the existing sensing signals to a group out of the one or more groups of wireless devices, if the predetermined requirements for the group are fulfilled. determining requirements of sensing performance from the two or more wireless devices; determining one or more groups of wireless devices having similar requirements of sensing performance, each group comprising one or more wireless devices of the two or more wireless devices; characterized by determining (S810) existing sensing signals being transmitted; for each group, comparing (S820) features of existing sensing signals with respective requirements of sensing performance; providing information about the existing sensing signals to a group out of the one or more groups of wireless devices, if the predetermined requirements for the group are fulfilled.
A wearable gaming device comprising a piece of garment, at least one electrode connected by a cable to a control unit , said electrode being arranged at the piece of garment in such a way that at least one muscle of a user wearing the piece of garment is stimulated when the electrode generates an electrical pulse commanded by the control unit, the wearable device being characterised by : a. the electrode comprising: • an electrically conductive layer made of conductive material, and • an electrically conductive gel layer arranged on top of the electrically conductive layer , and b. the cable being embroidered to the garment comprising: • an outer electrically insulating structure , and • conductive elastic fibres comprising in turn an elastic structure covered with a conductor layer in electrical contact with the electrically conductive layer of the electrode . a. the electrode comprising: • an electrically conductive layer made of conductive material, and • an electrically conductive gel layer arranged on top of the electrically conductive layer , and • an electrically conductive layer made of conductive material, and • an electrically conductive gel layer arranged on top of the electrically conductive layer , and b. the cable being embroidered to the garment comprising: • an outer electrically insulating structure , and • conductive elastic fibres comprising in turn an elastic structure covered with a conductor layer in electrical contact with the electrically conductive layer of the electrode . • an outer electrically insulating structure , and • conductive elastic fibres comprising in turn an elastic structure covered with a conductor layer in electrical contact with the electrically conductive layer of the electrode .
A fastening tab for an article comprising a substrate having a first end region with a first outermost end and opposite thereto a second end region with a second outermost end , and a middle region between the first and second end regions , wherein the first end region comprises at least one fastening region comprising a fastening material attached to the substrate wherein the fastening material comprises a plurality of mechanical fastening elements for releasable fastening, the tab further comprising a cover tape covering at least a portion of the middle region , and wherein at least a first portion of the cover tape is connected to the middle region by at least one releasable connection , wherein the at least one releasable connection comprises a releasable, non-adhesive bond , wherein the cover tape is connected by a second portion to the substrate by at least one non-releasable connection , wherein the at least one non-releasable connection is situated between the at least one releasable connection and the second end region and wherein the cover tape comprises a surface that can be attached to the article to create a bond between the article and that surface of the cover tape , characterized in that the releasable, non-adhesive bond is created by ultrasonic welding and wherein the tape and the substrate comprise, at least at their releasable connection , a thermoplastic material that does not differ in melting point or differs in melting point by less than (315,15 °K) 42°C.
Plug connector , the plug connector comprising: a connector housing having a plug-in portion ; at least one female contact terminal arranged at least partially in the plug-in portion , and a grounding contact , comprising an intermediate section and a contact section formed from sheet metal, wherein the sections have respective main surfaces and circumferential edges, wherein the contact section is adapted to electrically contact a corresponding grounding contact of a counter connector , and the intermediate section branches off from the contact section , and wherein the main surfaces of the intermediate section and the contact section are oriented parallel to the mating direction (A), characterized in that the connector housing comprises a blocking means in proximity to the mating face of the plug-in portion , and wherein the contact section comprises a corresponding blocking portion that is adapted to be in blocking contact with the blocking means , so that the distal end of the contact section is prevented from protruding over the mating face of the plug-in portion in the mating direction (A), wherein the distal end of the contact section of the grounding contact has a reduced width to form the corresponding blocking portion , and/or wherein protrusions are provided in proximity to the distal end of the contact section , to form the corresponding blocking portion . a connector housing having a plug-in portion ; at least one female contact terminal arranged at least partially in the plug-in portion , and a grounding contact , comprising an intermediate section and a contact section formed from sheet metal, wherein the sections have respective main surfaces and circumferential edges, wherein the contact section is adapted to electrically contact a corresponding grounding contact of a counter connector , and