mhurhangee/patent-ind-claim-en huggingface dataset:
A communication device adapted for reducing an interruption in an ongoing reception of a first download caused by a start of an incoming transmission of a second download, the communication device comprising: a first radio frequency RF unit and a second RF unit ; and a baseband modem unit configured to: identify a next due timing of a frame of a control channel of the first download in the first RF unit ; at a specified time before the identified control channel frame is received, trigger a sequence of procedures comprising: sending a request for an RF path switch to the first RF unit and the second RF unit ; deactivating the control channel and the first download in the first RF unit ; controlling the RF path switch from the first RF unit to the second RF unit ; and reconfiguring and reactivating the control channel on the second RF unit ; and reconfigure and reactivate the first download in the second RF unit , wherein the specified time is selected, such that each of the triggered procedures can be completed before the identified control channel frame is received. a first radio frequency RF unit and a second RF unit ; and a baseband modem unit configured to: identify a next due timing of a frame of a control channel of the first download in the first RF unit ; at a specified time before the identified control channel frame is received, trigger a sequence of procedures comprising: sending a request for an RF path switch to the first RF unit and the second RF unit ; deactivating the control channel and the first download in the first RF unit ; controlling the RF path switch from the first RF unit to the second RF unit ; and reconfiguring and reactivating the control channel on the second RF unit ; and reconfigure and reactivate the first download in the second RF unit , identify a next due timing of a frame of a control channel of the first download in the first RF unit ; at a specified time before the identified control channel frame is received, trigger a sequence of procedures comprising: sending a request for an RF path switch to the first RF unit and the second RF unit ; deactivating the control channel and the first download in the first RF unit ; controlling the RF path switch from the first RF unit to the second RF unit ; and reconfiguring and reactivating the control channel on the second RF unit ; and sending a request for an RF path switch to the first RF unit and the second RF unit ; deactivating the control channel and the first download in the first RF unit ; controlling the RF path switch from the first RF unit to the second RF unit ; and reconfiguring and reactivating the control channel on the second RF unit ; and reconfigure and reactivate the first download in the second RF unit , wherein the specified time is selected, such that each of the triggered procedures can be completed before the identified control channel frame is received.
Method for encoding at least one image (I N ) divided into partitions (PA1, PA2, ..., PAn), characterized in that it implements, for a current partition (PA c ) to be encoded, steps of: - selecting (C2) at least one causal partition (PAi r , Pati r ) already coded then decoded in a first encoding and decoding operation, - computing (C4) at least one optimal encoding parameter of said at least one selected causal partition, in order to optimise a predetermined encoding-performance criterion of a second operation of encoding said at least one selected causal partition, via competition between a plurality of encoding parameters for said second operation of encoding said at least one selected causal partition; - encoding (C8) the current partition using said at least one computed optimal encoding parameter of said at least one selected causal partition. - selecting (C2) at least one causal partition (PAi r , Pati r ) already coded then decoded in a first encoding and decoding operation, - computing (C4) at least one optimal encoding parameter of said at least one selected causal partition, in order to optimise a predetermined encoding-performance criterion of a second operation of encoding said at least one selected causal partition, via competition between a plurality of encoding parameters for said second operation of encoding said at least one selected causal partition; - encoding (C8) the current partition using said at least one computed optimal encoding parameter of said at least one selected causal partition.
A control architecture for a power switching controller, said control architecture comprising a power line input ; a plurality of power channels , configured to receive line power from the power line input , and operable to control power flow from said power line input to at least one load , wherein each of said power channels has a shared reference voltage ; an isolated power supply , wherein said isolated power supply is connected to said power line input such that said isolated power supply shares said reference voltage with said plurality of power channels; and a microcontroller module , configured to receive power from the isolated power supply , and operable to control said plurality of power channels.
An electrically conductive adhesive film comprising: a metal particle (P); and a resin (M), wherein the resin (M) comprises a thermosetting resin (M1), the metal particle (P) has an average particle size (d50) of 20 μm or less, the metal particle (P) comprises 10 % by mass or more of a first metal particle (P1) having a fractal dimension of 1.1 or more when viewed in a projection drawing in a primary particle state, the metal particle (P) further comprises a second metal particle (P2) made of a spherical metal powder, the second metal particle (P2) comprises a metal particle made of tin or a tin-containing alloy, the average particle size (d50) is a value calculated based on a measurement by the laser diffraction scattering particle size distribution measurement method, and the analyzing method of the fractal dimension is the box-counting method. as described in the description a metal particle (P); and a resin (M), wherein the resin (M) comprises a thermosetting resin (M1), the metal particle (P) has an average particle size (d50) of 20 μm or less, the metal particle (P) comprises 10 % by mass or more of a first metal particle (P1) having a fractal dimension of 1.1 or more when viewed in a projection drawing in a primary particle state, the metal particle (P) further comprises a second metal particle (P2) made of a spherical metal powder, the second metal particle (P2) comprises a metal particle made of tin or a tin-containing alloy, the average particle size (d50) is a value calculated based on a measurement by the laser diffraction scattering particle size distribution measurement method, and the analyzing method of the fractal dimension is the box-counting method. as described in the description
Quick-coupling system for detachable fastening of accessory equipment to a hydraulic excavator , wherein the quick-coupling system comprises an arm coupling part which can be arranged on an arm of the hydraulic excavator and can be hydraulically connected to a hydraulic system of the excavator , and at least one accessory device coupling part which can be arranged on an accessory equipment , wherein the arm coupling part comprises a hydraulically-actuatable locking element , which can be brought into engagement in a form-fitting manner with a form-fitting element of the accessory equipment coupling part , and wherein the arm coupling part comprises a first engagement element which is arranged so as to be spaced apart from the locking element , which engagement element can be brought into engagement, in a form-fitting manner, with a second engagement element of the accessory equipment coupling part arranged so as to be spaced apart from the form-fitting element , characterised in that the locking element is designed as a gripper , and in that the form-fitting element protrudes into a gripping region of the gripper when the first and the second engagement element are engaged with one another as intended, wherein the gripper is provided and can be used as a gripping tool, for example for accommodating tree trunks or rail tracks, if no accessory coupling part is connected to the arm coupling part.
A portable container, such as a suitcase, trunk, case, trolley, and the like, comprising an outer shell for delimiting at least one compartment for accommodating personal items, instruments, tools, objects in general, and at least one electronic tag configured to store data of various kinds and/or transmit them via a contactless information transmission technology, such as RFID, NFC and similar technologies, the portable container comprising a supporting plate which is anchored permanently to an external surface region of said shell , an at least partially transparent plaque being arranged on a first face of said plate , on the opposite side with respect to said surface region , by interlocking in a parallel and detachable manner, for the definition of a pocket configured to receive identification elements such as tags, cards or the like, characterized in that said at least one electronic tag is fixed stably on a second face of said plate , which is opposite with respect to said first face and is applied stably to said surface region of said shell .
An inkjet printer comprising: - a first conveyor belt (300, CB 1 ) which is wrapped around a vacuum table and supported by an upstream pulley (P upstream ) and a downstream pulley (P downstream ); and - a vacuum area (A vacuum ) on the first conveyor belt (300, CB 1 ); and - a second conveyor belt (400, CB2) which is wrapped around the first conveyor belt (300, CB 1 ); and which is supported by an upstream sliding support (450, S upstream ) and a downstream sliding support (450, S downstream ); and - wherein the second conveyor belt (400, CB 2 ) is replaceable and adhered in the vacuum area (A vacuum ) by vacuum power to the first conveyor belt (300, CB 1 ) and wherein the second conveyor belt is transported by the first conveyor belt; and - wherein a print receiver is attachable to the second conveyor belt (400, CB 2 ) for conveying and printing. - a first conveyor belt (300, CB 1 ) which is wrapped around a vacuum table and supported by an upstream pulley (P upstream ) and a downstream pulley (P downstream ); and - a vacuum area (A vacuum ) on the first conveyor belt (300, CB 1 ); and - a second conveyor belt (400, CB2) which is wrapped around the first conveyor belt (300, CB 1 ); and which is supported by an upstream sliding support (450, S upstream ) and a downstream sliding support (450, S downstream ); and - wherein the second conveyor belt (400, CB 2 ) is replaceable and adhered in the vacuum area (A vacuum ) by vacuum power to the first conveyor belt (300, CB 1 ) and wherein the second conveyor belt is transported by the first conveyor belt; and - wherein a print receiver is attachable to the second conveyor belt (400, CB 2 ) for conveying and printing.
A method of operating an inverter of a wireless power transmitter in which a voltage of the inverter varies in response to a resonant network , the method comprising: A) measuring (S2) a characteristic indicative of a load seen by the wireless power transmitter ; B) determining (S3) a duty cycle of the inverter based upon the characteristic; and C) switching (S4) the inverter with the determined duty cycle, wherein the characteristic indicative of the load is an impedance, wherein B) comprises increasing the duty cycle when an imaginary component of the impedance decreases, characterized in that the imaginary component of the impedance is approximated as the difference of i) a measured magnitude of a transmit coil voltage divided by a measured magnitude of the transmit coil current; and ii) a magnitude of the impedance of the transmit coil under no load. A) measuring (S2) a characteristic indicative of a load seen by the wireless power transmitter ; B) determining (S3) a duty cycle of the inverter based upon the characteristic; and C) switching (S4) the inverter with the determined duty cycle, wherein the characteristic indicative of the load is an impedance, wherein B) comprises increasing the duty cycle when an imaginary component of the impedance decreases, characterized in that the imaginary component of the impedance is approximated as the difference of i) a measured magnitude of a transmit coil voltage divided by a measured magnitude of the transmit coil current; and ii) a magnitude of the impedance of the transmit coil under no load.
A catheter for ultrasound treatment with solid state cooling, comprising: - a distal end configured to be disposed within a body channel during operation of the catheter ; - a proximal end configured to remain outside the body channel during said operation; - a capacitive micromachined ultrasonic transducer (CMUT) array disposed at the distal end of the catheter and configured to emit ultrasound to target tissue ; - a thermoelectric cooler disposed at the distal end and having opposed first and second sides, wherein during operation of the catheter the first side of the thermoelectric cooler is in thermal contact, through the CMUT array, with non-target tissue to cool non-target tissue heated by the ultrasound; and - a solid thermal conductor coupled to the to the second side of the thermoelectric cooler and extending along the catheter away from the distal end toward the proximal end of the catheter , to conduct heat away from the second side of the thermoelectric cooler during operation of the catheter . - a distal end configured to be disposed within a body channel during operation of the catheter ; - a proximal end configured to remain outside the body channel during said operation; - a capacitive micromachined ultrasonic transducer (CMUT) array disposed at the distal end of the catheter and configured to emit ultrasound to target tissue ; - a thermoelectric cooler disposed at the distal end and having opposed first and second sides, wherein during operation of the catheter the first side of the thermoelectric cooler is in thermal contact, through the CMUT array, with non-target tissue to cool non-target tissue heated by the ultrasound; and - a solid thermal conductor coupled to the to the second side of the thermoelectric cooler and extending along the catheter away from the distal end toward the proximal end of the catheter , to conduct heat away from the second side of the thermoelectric cooler during operation of the catheter .
A vehicle seat structure comprising: a vehicle seat including a seat cushion and a seatback ; and a pushing apparatus provided inside the seatback at a predetermined height, the pushing apparatus including a pushing portion that, at a time of a vehicle collision in which an occupant sitting on the vehicle seat moves to a seat forward side, is configured to push a portion of a seat front face of the seatback to the seat forward side, wherein the pushing apparatus includes an airbag as the pushing portion, and the airbag is configured to inflate and expand in the seatback when gas is supplied thereto from an inflator that is activated at the time of the vehicle collision, characterized in that the airbag includes a first airbag and a second airbag , the first airbag and second airbag being disposed to oppose one another substantially in a seat front-and-rear direction prior to the inflation and expansion, the first airbag being provided at a seat rear side of a seat spring that is provided in the seatback and extends in a seat width direction, and the second airbag being provided at the seat forward side of the seat spring . a vehicle seat including a seat cushion and a seatback ; and a pushing apparatus provided inside the seatback at a predetermined height, the pushing apparatus including a pushing portion that, at a time of a vehicle collision in which an occupant sitting on the vehicle seat moves to a seat forward side, is configured to push a portion of a seat front face of the seatback to the seat forward side, wherein the pushing apparatus includes an airbag as the pushing portion, and the airbag is configured to inflate and expand in the seatback when gas is supplied thereto from an inflator that is activated at the time of the vehicle collision, characterized in that the airbag includes a first airbag and a second airbag , the first airbag and second airbag being disposed to oppose one another substantially in a seat front-and-rear direction prior to the inflation and expansion, the first airbag being provided at a seat rear side of a seat spring that is provided in the seatback and extends in a seat width direction, and the second airbag being provided at the seat forward side of the seat spring .
Shoe, in particular sports shoe, comprising: an upper , wherein a majority by weight of the upper is made from a thermoplastic base material; a sole , wherein a majority by weight of the sole is made from the same thermoplastic base material; wherein the sole and the upper are individually fabricated and joined to each other; wherein the thermoplastic base material is selected from one of the following materials: thermoplastic polyurethane TPU, polyamide PA, polyethylene terephthalate PET, or polybutylene terephthalate PBT; characterized in that the sole comprises foamed pellets comprising the thermoplastic base material; and wherein the foamed pellets comprise expanded TPU pellets. an upper , wherein a majority by weight of the upper is made from a thermoplastic base material; a sole , wherein a majority by weight of the sole is made from the same thermoplastic base material; wherein the sole and the upper are individually fabricated and joined to each other; wherein the thermoplastic base material is selected from one of the following materials: thermoplastic polyurethane TPU, polyamide PA, polyethylene terephthalate PET, or polybutylene terephthalate PBT; characterized in that the sole comprises foamed pellets comprising the thermoplastic base material; and wherein the foamed pellets comprise expanded TPU pellets.
An electroporation system comprising at least one electrode , comprising a programmable voltage pulse generator coupled to the at least one electrode and configured to: apply a plurality of bipolar square wave electrical pulses to a target region with a delay between successive pulses, and at a frequency and electric field strength according to the following pulse parameters: the length of each pulse is in the range of between 250 nanoseconds and 50 microseconds; the delay between successive pulses is in the range of between 100 nanoseconds and 5 microseconds; the frequency is in the range of about 10 kHz to 100 MHz; and the electric field strength is in the range of about 100 V/cm to 4,000 V/cm; wherein the pulse parameters are capable of producing a first electroporation zone with cells non-selectively electroporated by the plurality of electrical pulses and a second electroporation zone wherein only selected cells are electroporated by the plurality of electrical pulses; characterised in that each burst delivers electrical voltage for a total of 100 microseconds. a programmable voltage pulse generator coupled to the at least one electrode and configured to: apply a plurality of bipolar square wave electrical pulses to a target region with a delay between successive pulses, and at a frequency and electric field strength according to the following pulse parameters: the length of each pulse is in the range of between 250 nanoseconds and 50 microseconds; the delay between successive pulses is in the range of between 100 nanoseconds and 5 microseconds; the frequency is in the range of about 10 kHz to 100 MHz; and the electric field strength is in the range of about 100 V/cm to 4,000 V/cm; wherein the pulse parameters are capable of producing a first electroporation zone with cells non-selectively electroporated by the plurality of electrical pulses and a second electroporation zone wherein only selected cells are electroporated by the the length of each pulse is in the range of between 250 nanoseconds and 50 microseconds; the delay between successive pulses is in the range of between 100 nanoseconds and 5 microseconds; the frequency is in the range of about 10 kHz to 100 MHz; and the electric field strength is in the range of about 100 V/cm to 4,000 V/cm; wherein the pulse parameters are capable of producing a first electroporation zone with cells non-selectively electroporated by the plurality of electrical pulses and a second electroporation zone wherein only selected cells are electroporated by the plurality of electrical pulses; characterised in that each burst delivers electrical voltage for a total of 100 microseconds.
A neuromodulation system for treating a patient, comprising: first and second telescopic catheters, wherein the first catheter has a parasympathetic therapy element configured to be positioned within a first blood vessel and the second catheter has a sympathetic therapy element configured to be positioned within a second blood vessel different than the first blood vessel; and wherein the first catheter is configured to be slidably received over the second catheter ; a Swan-Ganz catheter configured to be percutaneously introduced into the vasculature, wherein the second catheter is configured to be slidably advanced over the Swan-Ganz catheter ; and a stimulator configured to (a) energize the parasympathetic therapy element within the first blood vessel to deliver parasympathetic therapy to a parasympathetic nerve fiber disposed external to the first blood vessel and (b) energize the sympathetic therapy element within the second blood vessel to deliver sympathetic therapy to a sympathetic nerve fiber disposed external to the second blood vessel. first and second telescopic catheters, wherein the first catheter has a parasympathetic therapy element configured to be positioned within a first blood vessel and the second catheter has a sympathetic therapy element configured to be positioned within a second blood vessel different than the first blood vessel; and wherein the first catheter is configured to be slidably received over the second catheter ; a Swan-Ganz catheter configured to be percutaneously introduced into the vasculature, wherein the second catheter is configured to be slidably advanced over the Swan-Ganz catheter ; and a stimulator configured to (a) energize the parasympathetic therapy element within the first blood vessel to deliver parasympathetic therapy to a parasympathetic nerve fiber disposed external to the first blood vessel and (b) energize the sympathetic therapy element within the second blood vessel to deliver sympathetic therapy to a sympathetic nerve fiber disposed external to the second blood vessel.
Anti-roll device (DA) for a train of a motor vehicle, said device (DA) comprising a bar (BA) coupled to the right and left wheels of said train via two links (B1, B2), characterized in that that it comprises coupling means (MC) partially forming part of said bar (BA) and comprising i) a casing (CR) defining a chamber (CH) subdivided into first (P1) and second (P2) parts of volumes variable by a piston (PI), and comprising first (ES1) and second (ES2) inputs-outputs communicating respectively with said first (P1) and second (P2) parts and an intermediate input-output (ESI) communicating with said first part (P1) and / or said second part (P2) depending on the position of said piston (PI), ii) a fluid reservoir (RF) placed at one end of a conduit (CD) having another end coupled to said inlet -intermediate output (ESI), iii) of the first (MA1) and second (MA2) non-return means each coupled to one of said first (ES1) and second (ES2) inputs-outputs and said conduit (CD), and iv) a solenoid valve (EV) coupled to said first (ES1) and second (ES2) inputs-outputs and placed either in an open state ensuring a connection between said first (P1) and second (P2) parts and said fluid reservoir (RF) via said intermediate input-output (ESI), either in a closed state not allowing an evacuation of fluid out of said chamber (CH) than by said intermediate input-output (ESI), depending on a command received.