mhurhangee/patent-ind-claim-en huggingface dataset:
A shaped charge (10A/10B/10C/10D) comprising a case comprising a wall , the wall defining a hollow interior within the case and comprising an external surface and an internal surface ; an explosive load is disposed within the hollow interior and positioned adjacent at least a portion of the internal surface ; an initiation point chamber extends at least partially between the external surface and the internal surface of the wall ; characterized by at least one self-contained, compressed explosive initiation pellet is contained within the initiation point chamber , the at least one self-contained, compressed explosive initiation pellet comprising a mixture of an explosive material and at least one hydrophobic substance. a case comprising a wall , the wall defining a hollow interior within the case and comprising an external surface and an internal surface ; an explosive load is disposed within the hollow interior and positioned adjacent at least a portion of the internal surface ; an initiation point chamber extends at least partially between the external surface and the internal surface of the wall ; characterized by at least one self-contained, compressed explosive initiation pellet is contained within the initiation point chamber , the at least one self-contained, compressed explosive initiation pellet comprising a mixture of an explosive material and at least one hydrophobic substance.
A top cover structure for a power battery, characterized in that , comprising a first electrode assembly , a second electrode assembly , a first resistance , a second resistance , a third resistance , a top cover plate , a first short circuit component and a second short circuit component , wherein the first electrode assembly is electrically connected with the top cover plate through the first resistance for all time, the second electrode assembly is insulated from the top cover plate in a normal state, the first short circuit component and the second short circuit component are both attached to the top cover plate , when an internal pressure of the power battery exceeds a reference pressure, the first short circuit component and the second short circuit component deform by effect of pressure, so as to form a first electrical connecting path passing through the first electrode assembly , the first short circuit component , the top cover plate , the second short circuit component and the second electrode assembly , and to form a second electrical connecting path passing through the first electrode assembly , the first resistance , the top cover plate , the second short circuit component and the second electrode assembly , the second resistance and the third resistance are connected into the first electrical connecting path in series; a resistance value of the first resistance is larger than either a resistance value of the second resistance or a resistance value of the third resistance ; a resistance value of the first resistance is at least 1000 times larger than a sum of a resistance value of the second resistance and a resistance value of the third resistance ; the resistance value of the first resistance is between 1Ω∼100000Ω.
A method for performing a channel state information, CSI, report by a user equipment, UE, in a wireless communication system, the method comprising: receiving a configuration message on a plurality of serving cells including a primary cell, PCell, and one or more secondary cells, SCells; and transmitting, through a physical uplink control channel, PUCCH, a CSI report of one serving cell in a subframe based on a priority rule, wherein the priority rule is used for dropping a CSI report having lower priority, based on that CSI reports of different serving cells collide with each other in the subframe, wherein the priority rule includes: a CSI report including a rank indicator, RI, of the PCell is determined to have a higher priority than each of CSI reports including RI of each of the one or more SCells, each of the CSI reports including RI of each of the one or more SCells is determined to have a priority based on an index configured for each of the one or more SCells, and a CSI report including a RI of a lower indexed SCell is determined to have a higher priority than a CSI report including a RI of another higher indexed SCell. receiving a configuration message on a plurality of serving cells including a primary cell, PCell, and one or more secondary cells, SCells; and transmitting, through a physical uplink control channel, PUCCH, a CSI report of one serving cell in a subframe based on a priority rule, wherein the priority rule is used for dropping a CSI report having lower priority, based on that CSI reports of different serving cells collide with each other in the subframe, wherein the priority rule includes: a CSI report including a rank indicator, RI, of the PCell is determined to have a higher priority than each of CSI reports including RI of each of the one or more SCells, each of the CSI reports including RI of each of the one or more SCells is determined to have a priority based on an index configured for each of the one or more SCells, and a CSI report including a RI of a lower indexed SCell is determined to have a higher priority than a CSI report including a RI of another higher indexed SCell. a CSI report including a rank indicator, RI, of the PCell is determined to have a higher priority than each of CSI reports including RI of each of the one or more SCells, each of the CSI reports including RI of each of the one or more SCells is determined to have a priority based on an index configured for each of the one or more SCells, and a CSI report including a RI of a lower indexed SCell is determined to have a higher priority than a CSI report including a RI of another higher indexed SCell.
A hand support element for a hand orthosis, wherein the hand support element can be fixed to the carrier element , characterized by the fact that the hand support element features a contour that is designed to be symmetrical to a longitudinal axis (L) and comprises a thumb support area on both sides of the longitudinal axis (L).
A machine arrangement having several processing stations for the processing of sheets, wherein in the transport direction (T) of the sheets several processing stations (01; 02; 03; 04; 06; 07; 08; 09; 11; 12) are arranged consecutively for the inline-processing of these sheets, wherein at least one of these processing stations is configured as a non-impact printing device , wherein a transfer device arranged directly upstream of the operating region of the non-impact printing device for transferring the sheets from a first processing station (01; 02; 03; 04; 06; 07; 08; 09; 11; 12) arranged upstream of the non-impact printing device to the non-impact printing device is provided, wherein the transfer device aligns in each case the sheets in their axial register in register relative to the printing position of the non-impact printing device , wherein, in addition to the axial register, the transfer device aligns in each case the sheets in their circumferential register and/or in their diagonal register in register relative to the printing position of the non-impact printing device , characterized in that a first processing station arranged upstream in the transport direction (T) of the non-impact printing device is configured as a sheet feeder or as a magazine feeder , wherein a processing station (02; 03; 08) arranged between the first processing station and the non-impact printing device is configured as a first coating device (02; 03; 08), wherein the coating device (02; 03; 08) is configured as a primer application device or a cold foil application device or a lacquer application device , wherein in the transport direction (T) of the sheets an alignment device is arranged between the non-impact printing device and a processing station (02; 03; 04; 07; 08; 09; 11; 12) arranged downstream from the non-impact printing device , wherein this alignment device aligns in each case the sheets at least in their axial register and/or in their circumferential register in register relative to a processing position of the processing station (02; 03; 04; 07; 08; 09; 11; 12) arranged downstream from the non-impact printing device .
An apparatus for cutting pipes (T) made of thermoplastic material in automatic cutter machines, comprising: - a tool for cutting pipes (T) made of thermoplastic material, - an arm , which carries said cutting tool , and movable in a rotational direction about a pin between a non-operating configuration (P1), at which said cutting tool is disengaged from said pipe (T), and an operating configuration (P2), at which said tool is engaged with said pipe (T) to exert its cutting action, - a lever , movable in a rotational direction about said pin between a rest configuration (P3) and an active configuration (P4); - a supporting device , operatively connected to said lever for moving it between said rest configuration (P3) and active configuration (P4), said supporting device comprising a first electric actuator and a supporting body of said first actuator ; said apparatus being characterised in that it comprises a locking unit operatively connected to the arm and to the lever and movable between an engaged configuration (P5), at which said arm and said lever are made integral with each other by means of a constraint defined by said locking unit , and a free configuration (P6), at which said arm and said lever are movable relative to each other and in that it comprises disengagement means configured to move said arm from the operating configuration (P2) to the non-operating configuration (P1), when the locking unit is in the free configuration (P6). - a tool for cutting pipes (T) made of thermoplastic material, - an arm , which carries said cutting tool , and movable in a rotational direction about a pin between a non-operating configuration (P1), at which said cutting tool is disengaged from said pipe (T), and an operating configuration (P2), at which said tool is engaged with said pipe (T) to exert its cutting action, - a lever , movable in a rotational direction about said pin between a rest configuration (P3) and an active configuration (P4); - a supporting device , operatively connected to said lever for moving it between said rest configuration (P3) and active configuration (P4), said supporting device comprising a first electric actuator and a supporting body of said first actuator ;
A method for providing interference characterization data by a network node for interference mitigation, the network node belonging to a long term evolution, LTE, telecommunications network, the method comprising: providing, by the network node , telecommunications services for a first wireless device associated with the network node ; identifying, by the network node , characteristic data associated with at least one characteristic of an interfering signal associated with a second wireless device associated with a neighboring cell ; and transmitting, to the first wireless device , the characteristic data associated with the interfering signal associated with the second wireless device , and wherein the at least one characteristic identifies at least one transmission mode value associated with the interfering signal, and whether the interfering signal is cell-specific reference signal, CRS, based or demodulation reference signal, DMRS, based. providing, by the network node , telecommunications services for a first wireless device associated with the network node ; identifying, by the network node , characteristic data associated with at least one characteristic of an interfering signal associated with a second wireless device associated with a neighboring cell ; and transmitting, to the first wireless device , the characteristic data associated with the interfering signal associated with the second wireless device , and wherein the at least one characteristic identifies at least one transmission mode value associated with the interfering signal, and whether the interfering signal is cell-specific reference signal, CRS, based or demodulation reference signal, DMRS, based.
A heat storage material composition, comprising: sodium sulfate 10-hydrate; sodium bromide; and sodium chloride, the heat storage material composition having a melting point and a solidifying point within a range of 0°C to 10°C. sodium sulfate 10-hydrate; sodium bromide; and sodium chloride, the heat storage material composition having a melting point and a solidifying point within a range of 0°C to 10°C.
A key for a cylinder lock, comprising at least one encoded lateral surface , which extends along the longitudinal direction of the key , a. wherein at least one code to be read in the cylinder lock is provided on the lateral surface , b. wherein the code comprises a first reading surface , which extends in the longitudinal direction of the key , and a second reading surface , which extends in the longitudinal direction of the key , c. wherein the reading surfaces are arranged offset from one another in a transverse direction of the key , wherein d. the reading surfaces are arranged offset from one another in the longitudinal direction , and e. their respective cross-sections have the shape of a steady and preferably periodical curve, characterised in that the curves are designed as sine curves or cosine curves, preferably over at least an entire period length. a. wherein at least one code to be read in the cylinder lock is provided on the lateral surface , b. wherein the code comprises a first reading surface , which extends in the longitudinal direction of the key , and a second reading surface , which extends in the longitudinal direction of the key , c. wherein the reading surfaces are arranged offset from one another in a transverse direction of the key , wherein d. the reading surfaces are arranged offset from one another in the longitudinal direction , and e. their respective cross-sections have the shape of a steady and preferably periodical curve,
A method characterised by comprising, in response to a first command sent to an address of logic circuitry associated with a replaceable print apparatus component via an I2C compatible serial data bus , wherein the first command specifies a first time period, generating, by the logic circuitry, a low voltage condition on the serial data bus for a first duration based on the first time period; and in response to another first command sent to the same address of the same logic circuitry via the serial data bus at a different point in time, wherein the other first command specifies a second time period different than the first time period, generating, by the logic circuitry, a low voltage condition on the serial data bus for a correspondingly different duration based on the second time period wherein generating the low voltage condition coincides with a state in which there is no clock signal on the serial data bus . in response to a first command sent to an address of logic circuitry associated with a replaceable print apparatus component via an I2C compatible serial data bus , wherein the first command specifies a first time period, generating, by the logic circuitry, a low voltage condition on the serial data bus for a first duration based on the first time period; and in response to another first command sent to the same address of the same logic circuitry via the serial data bus at a different point in time, wherein the other first command specifies a second time period different than the first time period, generating, by the logic circuitry, a low voltage condition on the serial data bus for a correspondingly different duration based on the second time period wherein generating the low voltage condition coincides with a state in which there is no clock signal on the serial data bus .
A current collector, comprising an insulation layer; and a conductive layer at least located on at least one surface of the insulation layer, wherein the conductive layer has a thickness of D2, where 30nm≤D2≤3μm, and the current collector is provided with a plurality of holes penetrating through the insulation layer and the conductive layer, wherein the conductive layer is further arranged on wall surfaces of the plurality of holes, and for each of the plurality of holes having the conductive layer disposed on its wall surface, the conductive layer is located on a part or an entirety of the wall surface. an insulation layer; and a conductive layer at least located on at least one surface of the insulation layer, wherein the conductive layer has a thickness of D2, where 30nm≤D2≤3μm, and the current collector is provided with a plurality of holes penetrating through the insulation layer and the conductive layer, wherein the conductive layer is further arranged on wall surfaces of the plurality of holes, and for each of the plurality of holes having the conductive layer disposed on its wall surface, the conductive layer is located on a part or an entirety of the wall surface.
An ultrasonic diagnostic device comprising: an ultrasonic probe comprising a wave transceiver unit including an oscillator that transmits and receives ultrasonic waves, a wave transmission/reception surface of the oscillator configured to be disposed on a living subject side, a relay board which is formed as a rigid substrate , and an electronic circuit electrically connected to the oscillator and a temperature sensing unit disposed in the wave transceiver unit; wherein the rigid substrate is sandwiched between the electronic circuit and the oscillator , and the temperature sensing unit is disposed on the rigid substrate and wherein the ultrasonic diagnostic device further comprises a temperature estimation unit configured to estimate, for each of at least two wave transmission/reception conditions of the ultrasonic waves, a surface temperature of the wave transmission/reception surface based on: • the wave transmission/reception condition of the ultrasonic waves, and • a sensed value sensed by the temperature sensing unit wherein the temperature estimation unit is further configured to add a primary delay factor in consideration of a time difference required for the heat to reach the wave transmission/reception surface from the heat source when estimating the surface temperature of the wave transmission/reception surface. an ultrasonic probe comprising a wave transceiver unit including an oscillator that transmits and receives ultrasonic waves, a wave transmission/reception surface of the oscillator configured to be disposed on a living subject side, a relay board which is formed as a rigid substrate , and an electronic circuit electrically connected to the oscillator and a temperature sensing unit disposed in the wave transceiver unit; wherein the rigid substrate is sandwiched between the electronic circuit and the oscillator , and the temperature sensing unit is disposed on the rigid substrate and wherein the ultrasonic diagnostic device further comprises a temperature estimation unit configured to estimate, for each of at least two wave transmission/reception conditions of the ultrasonic waves, a surface temperature of the wave transmission/reception surface based on: • the wave transmission/reception condition of the ultrasonic waves, and • a sensed value sensed by the temperature sensing unit • the wave transmission/reception condition of the ultrasonic waves, and • a sensed value sensed by the temperature sensing unit wherein the temperature estimation unit is further configured to add a primary delay factor in consideration of a time difference required for the heat to reach the wave transmission/reception surface from the heat source when estimating the surface temperature of the wave transmission/reception surface.
A surgical system , comprising: a wireless communication module ; a robot , comprising: a tool mount ; and an energy tool releasably mounted to said tool mount; and a flex circuit positioned intermediate said tool mount and said energy tool, wherein said flex circuit is positioned to intercept a communication path between said tool mount and said energy tool, and wherein said flex circuit is coupled to a wireless transmitter configured to communicate with said wireless communication module; wherein said energy tool further comprises a first electrical contact , wherein said tool mount further comprises a second electrical contact that interfaces with said first electrical contact, wherein said flex circuit is configured to intercept signals passing between said first electrical contact and said second electrical contact. a wireless communication module ; a robot , comprising: a tool mount ; and an energy tool releasably mounted to said tool mount; and a tool mount ; and an energy tool releasably mounted to said tool mount; and a flex circuit positioned intermediate said tool mount and said energy tool, wherein said flex circuit is positioned to intercept a communication path between said tool mount and said energy tool, and wherein said flex circuit is coupled to a wireless transmitter configured to communicate with said wireless communication module; wherein said energy tool further comprises a first electrical contact , wherein said tool mount further comprises a second electrical contact that interfaces with said first electrical contact, wherein said flex circuit is configured to intercept signals passing between said first electrical contact and said second electrical contact.
A communication apparatus operating as an access controller comprising: a communication control unit configured to transmit a first trigger frame containing a transmission parameter used for data transmission to a plurality of apparatuses belonging to a wireless LAN, and to receive data multiplexed and transmitted from the plurality of apparatuses having received the first trigger frame in accordance with the transmission parameter, and to receive a second trigger frame transmitted from a predetermined apparatus of the plurality of apparatuses, and to transmit the multiplexed data to the predetermined apparatus in accordance with a transmission parameter contained in the received second trigger frame. a first trigger frame containing a transmission parameter used for data transmission to a plurality of apparatuses belonging to a wireless LAN, and to receive data multiplexed and transmitted from the plurality of apparatuses having received the first trigger frame in accordance with the transmission parameter, and to receive a second trigger frame transmitted from a predetermined apparatus of the plurality of apparatuses, and to transmit the multiplexed data to the predetermined apparatus in accordance with a transmission parameter contained in the received second trigger frame.
A clay graphite billet slider configured to be disposed within an at least one induction coil for moving a billet through the at least one induction coil supplied with an alternating current with the billet seated on the clay graphite billet slider when moving through the at least one induction coil; the clay graphite biller slider having an interior billet through opening with an interior slider surface for sliding a billet seated on the interior slider surface through the at least one induction coil .