mhurhangee/patent-ind-claim-en huggingface dataset:
A cardiac assist system comprising a pneumatic effector configured to be implanted beneath a patient's pericardial sac and over a myocardial surface overlying the patient's left ventricle; an implantable port configured to receive a percutaneously introduced cannula, wherein said port is connected to supply a driving gas received from the cannula to the pneumatic effector; an external drive unit including: (a) a pump assembly ; and (b) control circuitry configured to operate the pump to actuate the pneumatic effector in response to the patient's sensed heart rhythm; and a connecting tube having a pump end attachable to the pump assembly and a cannula end attached to the cannula. a pneumatic effector configured to be implanted beneath a patient's pericardial sac and over a myocardial surface overlying the patient's left ventricle; an implantable port configured to receive a percutaneously introduced cannula, wherein said port is connected to supply a driving gas received from the cannula to the pneumatic effector; an external drive unit including: (a) a pump assembly ; and (b) control circuitry configured to operate the pump to actuate the pneumatic effector in response to the patient's sensed heart rhythm; and (a) a pump assembly ; and (b) control circuitry configured to operate the pump to actuate the pneumatic effector in response to the patient's sensed heart rhythm; and a connecting tube having a pump end attachable to the pump assembly and a cannula end attached to the cannula.
A mobile station for communicating with a base station in a communication system, the communication being re-configured from a source uplink/downlink configuration to a target uplink/downlink configuration, the mobile station comprising: a receiver, which, in operation receives a command for reconfiguration from a source uplink/downlink configuration to a target uplink/downlink configuration, wherein the source uplink/downlink configuration is one out of a plurality of uplink/downlink configurations and the target uplink/downlink configuration is one of the plurality of uplink/downlink configurations, the plurality of uplink/downlink configurations being configured for Time Division Duplex, TDD, communication; circuitry, which is coupled to the receiver and which, in an event that the communication is to be reconfigured for a subframe N at the beginning of a radio frame, performs physical uplink shared channel, PUSCH, power control based on a transmit power control, TPC, command for PUSCH transmission, wherein the source uplink/downlink configuration is applied in the PUSCH power control based on the TPC command for PUSCH transmission which is received up to and including subframe N, and the target uplink/downlink configuration is applied in the PUSCH power control based on the TPC command for PUSCH transmission which is received from subframe N+1 onward; and a transmitter, which is coupled to the circuitry and which, in operation, performs transmission of the PUSCH based on the performed PUSCH power control. a receiver, which, in operation receives a command for reconfiguration from a source uplink/downlink configuration to a target uplink/downlink configuration, wherein the source uplink/downlink configuration is one out of a plurality of uplink/downlink configurations and the target uplink/downlink configuration is one of the plurality of uplink/downlink configurations, the plurality of uplink/downlink configurations being configured for Time Division Duplex, TDD, communication; circuitry, which is coupled to the receiver and which, in an event that the communication is to be reconfigured for a subframe N at the beginning of a radio frame, performs physical uplink shared channel, PUSCH, power control based on a transmit power control, TPC, command for PUSCH transmission, wherein the source uplink/downlink configuration is applied in the PUSCH power control based on the TPC command for PUSCH transmission which is received up to and including subframe N, and the target uplink/downlink configuration is applied in the PUSCH power control based on the TPC command for PUSCH transmission which is received from subframe N+1 onward; and the source uplink/downlink configuration is applied in the PUSCH power control based on the TPC command for PUSCH transmission which is received up to and including subframe N, and the target uplink/downlink configuration is applied in the PUSCH power control based on the TPC command for PUSCH transmission which is received from subframe N+1 onward; and a transmitter, which is coupled to the circuitry and which, in operation, performs transmission of the PUSCH based on the performed PUSCH power control.
Gesture-sensitive screen comprising a screen display, wherein the gesture-sensitive screen is configured in such a manner that, during operation with two fingers on a screen surface or in the sensitive vicinity of the gesture-sensitive screen, a magnification area is adjusted by moving the two fingers apart or together, wherein at least one part of the screen display is displayed in a magnified manner in the magnification area , wherein a reticle, in particular crosshair , with an intersection point or intersection area is displayed in the magnification area , characterized in that the gesture-sensitive screen is configured in such a manner that, with the magnification area displayed and with a constant distance between the two fingers , the magnification area is controlled according to a movement of the two fingers.
A process for dearomatization of a petroleum cut into a dearomatized hydrocarbon-containing fluid having a sulfur content of less than or equal to 5 ppm and having an aromatic compounds content of less than or equal to 300 ppm, said hydrocarbon-containing fluid having a boiling point comprised between 100 and 400°C according to standard ASTM D86 and a distillation range defined by the difference between the initial boiling point (IBP) and the final boiling point (FBP) determined according to standard ASTM D86 not exceeding 80°C, said process comprising : at least one dearomatization cycle by catalytic hydrogenation at a temperature comprised between 80 and 300°C and a pressure comprised between 20 and 200 bar using a mixture of the petroleum cut with one or more inert and light diluents: - having a boiling point comprised between 100 and 250°C, - having a distillation range not exceeding 80°C, and - consisting of a majority of isoparaffins and a minority of normal paraffins, said at least one dearomatization cycle producing a hydrogenated effluent; the process comprising: a) mixing the petroleum cut with the fresh inert and light diluent and/or b) distillating the hydrogenated effluent, the distillation leading to a separation of said one or more inert and light diluents from the hydrogenated effluent, followed by recycling and mixing of said one or more inert and light diluents with the petroleum cut. at least one dearomatization cycle by catalytic hydrogenation at a temperature comprised between 80 and 300°C and a pressure comprised between 20 and 200 bar using a mixture of the petroleum cut with one or more inert and light diluents: - having a boiling point comprised between 100 and 250°C, - having a distillation range not exceeding 80°C, and - consisting of a majority of isoparaffins and a minority of normal paraffins, said at least one dearomatization cycle producing a hydrogenated effluent; - having a boiling point comprised between 100 and 250°C, - having a distillation range not exceeding 80°C, and - consisting of a majority of isoparaffins and a minority of normal paraffins, said at least one dearomatization cycle producing a hydrogenated effluent; the process comprising: a) mixing the petroleum cut with the fresh inert and light diluent and/or b) distillating the hydrogenated effluent, the distillation leading to a separation of said one or more inert and light diluents from the hydrogenated effluent, followed by recycling and mixing of said one or more inert and light diluents with the petroleum cut. a) mixing the petroleum cut with the fresh inert and light diluent and/or b) distillating the hydrogenated effluent, the distillation leading to a separation of said one or more inert and light diluents from the hydrogenated effluent, followed by recycling and mixing of said one or more inert and light diluents with the petroleum cut.
Method for welding a first tube end at a joint with a second tube end in a welding seam that extends around a circumference of the first tube end , wherein a protective layer first is applied at the joint on the first tube end , then the second tube end is slipped over the first tube end beyond the joint, and finally the tube ends are pressed together flat at the joint between two clamping jaws which are brought together, and welded in this position, wherein the protective layer is applied on an interior side of the first tube end and prevents a welding of the interior side of the first tube end , characterized in that the tube ends are first straightened after being welded in two first partial welding seams and then are pressed together flat again transversely to the first partial welding seams and welded in two further partial welding seams, wherein the first partial welding seams and the further partial welding seams form the welding seam.
A high strength galvanized steel sheet having a tensile strength of 340 MPa or more measured according to JIS Z2241 and having a composition consisting of, on a mass percent basis, 0.01% to 0.05% or less of C, 0.2% or less of Si, more than 1.0% to 1.8% of Mn, 0.10% or less of P, 0.03% or less of S, 0.1% or less of Al, less than 0.005% of N, more than 0.5% of Cr, 0.0005% or more to 0.01% or less of B, optionally further at least one of, 0.15% or less of Mo, 0.5% or less of V, 0.1% or less of Ti, and 0.1% or less of Nb, and the balance being iron and inevitable impurities, in which 1.9≤Mn +1.3Cr ≤2.8 in mass% holds, wherein the microstructure consists of a ferrite phase and 2% to 15% of martensite on an area ratio basis, and the total area ratio of pearlite and/or bainite is 1.0% or less and optionally retained γ and/or inevitable carbides having an area ratio of approximately 1.0%.
Centrifugal pump comprising a pump housing , wherein an impeller and a suction port which can be inserted into a base plate of the pump housing and which forms a suction opening are arranged in the pump housing , wherein the base plate comprises a cylindrical recess, into which the suction port is inserted in the assembled state, and wherein the base plate due to the cylindrical recess has a cylinder surface whose surface normal extends orthogonally to the center axis of the recess, the suction port is mounted axially displaceably on the base plate of the pump housing in that the suction port and the base plate each comprise at least one surface which are pivoted relative to the base plate and bear against each other so that a distance between the impeller and the suction port can be varied by rotating the suction port , characterized in that the suction port comprises a sealing collar which is provided at the radial circumferential surface of the suction port and, in the inserted state, bears against the cylinder surface of the base plate , wherein the sealing collar is configured as a circumferential, thin-walled collar, which in the non-inserted state has an oversize with respect to the cylinder surface and the sealing collar is made in one piece with the suction port as a result of a single manufacturing step. wherein an impeller and a suction port which can be inserted into a base plate of the pump housing and which forms a suction opening are arranged in the pump housing , wherein the base plate comprises a cylindrical recess, into which the suction port is inserted in the assembled state, and wherein the base plate due to the cylindrical recess has a cylinder surface whose surface normal extends orthogonally to the center axis of the recess, the suction port is mounted axially displaceably on the base plate of the pump housing in that the suction port and the base plate each comprise at least one surface which are pivoted relative to the base plate and bear against each other so that a distance between the impeller and the suction port can be varied by rotating the suction port , characterized in that the suction port comprises a sealing collar which is provided at the radial circumferential surface of the suction port and, in the inserted state, bears against the cylinder surface of the base plate , wherein the sealing collar is configured as a circumferential, thin-walled collar, which in the non-inserted state has an oversize with respect to the cylinder surface and the sealing collar is made in one piece with the suction port as a result of a single manufacturing step.
A high thermal conductivity composite baseplate ("HTCCB ") for use with an electronics package (404. 406, 408) on a vehicle, the HTCCB comprising: a first boron and carbon fiber layer ; a second boron and carbon fiber layer ; an carbon nanotube ("CNT") material attached between the first boron and carbon fiber layer to the second boron and carbon fiber layer, wherein the CNT material includes a plurality of CNTs , the plurality of CNTs being oriented in an axial direction between the first boron and carbon fiber layer and the second boron and carbon fiber layer . a first boron and carbon fiber layer ; a second boron and carbon fiber layer ; an carbon nanotube ("CNT") material attached between the first boron and carbon fiber layer to the second boron and carbon fiber layer, wherein the CNT material includes a plurality of CNTs , the plurality of CNTs being oriented in an axial direction between the first boron and carbon fiber layer and the second boron and carbon fiber layer .
A specimen slide, comprising: a specimen area on a front surface, wherein the specimen area includes a control specimen subarea comprising a control tissue specimen and a patient specimen subarea comprising a patient tissue specimen, wherein the specimen slide includes a printing area on the front surface of the slide, wherein the printing area includes a first barcode printed directly on the front surface of the specimen slide, the first barcode having a first configuration that is at least one of a bar code type and an orientation on the slide, and a second barcode printed directly on the front surface of the specimen slide, the second barcode having a second configuration that is at least one of a bar code type and an orientation on the slide and the second configuration is different than the first configuration, wherein the first barcode encodes information corresponding to the control specimen subarea , wherein the second barcode encodes information corresponding to the patient specimen subarea . a specimen area on a front surface, wherein the specimen area includes a control specimen subarea comprising a control tissue specimen and a patient specimen subarea comprising a patient tissue specimen, wherein the specimen slide includes a printing area on the front surface of the slide, wherein the printing area includes a first barcode printed directly on the front surface of the specimen slide, the first barcode having a first configuration that is at least one of a bar code type and an orientation on the slide, and a second barcode printed directly on the front surface of the specimen slide, the second barcode having a second configuration that is at least one of a bar code type and an orientation on the slide and the second configuration is different than the first configuration,
A current sensor, comprising: a sense resistor (Rs - Fig. 13) coupled to receive an input current (I_Rs) from a power source ; an amplification circuit having: an amplifier having inputs across which the sense resistor (Rs) is coupled and an output at which a voltage (VOUT) representative of the input is produced; a first resistor (R1) coupled to at least one of the inputs of the amplifier ; and a second resistor (R2) coupled to at least one of the inputs of the amplifier ; wherein a gain of the amplification circuit is based upon a resistance of the second resistor (R2) and a ratio of a resistance of the sense resistor (Rs) to a resistance of the first resistor (R1); and wherein the first resistor (R1) and the sense resistor (Rs) are formed from same materials in a same substrate and arranged in a ratiometric relationship such that the first resistor (R1) and sense resistor (Rs) change temperature substantially equally during operation and such that the first resistor (R1) and sense resistor (Rs) vary substantially equally in resistance over temperature. a sense resistor (Rs - Fig. 13) coupled to receive an input current (I_Rs) from a power source ; an amplification circuit having: an amplifier having inputs across which the sense resistor (Rs) is coupled and an output at which a voltage (VOUT) representative of the input is produced; a first resistor (R1) coupled to at least one of the inputs of the amplifier ; and a second resistor (R2) coupled to at least one of the inputs of the amplifier ; an amplifier having inputs across which the sense resistor (Rs) is coupled and an output at which a voltage (VOUT) representative of the input is produced; a first resistor (R1) coupled to at least one of the inputs of the amplifier ; and a second resistor (R2) coupled to at least one of the inputs of the amplifier ; wherein a gain of the amplification circuit is based upon a resistance of the second resistor (R2) and a ratio of a resistance of the sense resistor (Rs) to a resistance of the first resistor (R1); and wherein the first resistor (R1) and the sense resistor (Rs) are formed from same materials in a same substrate and arranged in a ratiometric relationship such that the first resistor (R1) and sense resistor (Rs) change temperature substantially equally during operation and such that the first resistor (R1) and sense resistor (Rs) vary substantially equally in resistance over temperature.
A smoking article component including a curved sheet wrapper characterised in that the curved sheet wrapper is of weight 40 gsm or more and includes a plurality of lines of strength discontinuity whereat the wrapper presents a visually discernable non-uniformity in its curvature.
A computer-implemented method of configuring a vehicle, the method comprising: Receiving , by a computing device , a vehicle configuration; determining, by the computing device , at least one progressive shift limit based on the vehicle configuration; and storing, by the computing device in an order data store , the determined at least one progressive shift limit characterized by calculating , by the computing device , a valid progressive shift limit range based on the vehicle configuration; presenting, by the computing device , the valid progressive shift limit range to a customer ; receiving , by the computing device , a selected at least one progressive shift limit selected by the customer within the valid progressive shift limit range; and replacing, by the computing device , the determined at least one progressive shift limit with the selected at least one progressive shift limit. Receiving , by a computing device , a vehicle configuration; determining, by the computing device , at least one progressive shift limit based on the vehicle configuration; and storing, by the computing device in an order data store , the determined at least one progressive shift limit characterized by calculating , by the computing device , a valid progressive shift limit range based on the vehicle configuration; presenting, by the computing device , the valid progressive shift limit range to a customer ; receiving , by the computing device , a selected at least one progressive shift limit selected by the customer within the valid progressive shift limit range; and replacing, by the computing device , the determined at least one progressive shift limit with the selected at least one progressive shift limit.
A terminal device configured to communicate with a base station , the communication device comprising: a communication unit configured to perform wireless communication; and a control unit configured to selectively switch between a first physical uplink control channel, PUCCH, and a second PUCCH in accordance with the number of bits of the information carried with the PUCCH, each of the first and second PUCCH being used to transmit uplink control information from the communication device to the base station, wherein a number of symbols of the first PUCCH is different from a number of symbols of the second PUCCH, and wherein the first and second PUCCHs are allocated during a predetermined time period in a time direction to transmit uplink control information to the base station. a communication unit configured to perform wireless communication; and a control unit configured to selectively switch between a first physical uplink control channel, PUCCH, and a second PUCCH in accordance with the number of bits of the information carried with the PUCCH, each of the first and second PUCCH being used to transmit uplink control information from the communication device to the base station, wherein a number of symbols of the first PUCCH is different from a number of symbols of the second PUCCH, and wherein the first and second PUCCHs are allocated during a predetermined time period in a time direction to transmit uplink control information to the base station.
A method for phase calibration of a current sensor , the method comprising: converting a first signal representing a measured current from a test source to a first digital signal using a first analog-to-digital converter ; converting a second signal representing a measured voltage from the test source to a second digital signal using a second analog-to-digital converter ; calculating a calculated phase angle between the first digital signal and the second digital signal; calculating a phase difference by subtracting a test source phase angle from the calculated phase angle; calculating a total sample delay between the first digital signal and the second digital signal by dividing the phase difference by a fractional sample resolution representing an angle that a phase of the first digital signal will shift based on changing a preload parameter of the first analog-to-digital converter by one unit, wherein the preload parameter represents a delay before the first analog-to-digital converter begins sampling; and calculating an updated preload parameter as the total sample delay mod an oversampling rate of the first analog-to-digital converter. converting a first signal representing a measured current from a test source to a first digital signal using a first analog-to-digital converter ; converting a second signal representing a measured voltage from the test source to a second digital signal using a second analog-to-digital converter ; calculating a calculated phase angle between the first digital signal and the second digital signal; calculating a phase difference by subtracting a test source phase angle from the calculated phase angle; calculating a total sample delay between the first digital signal and the second digital signal by dividing the phase difference by a fractional sample resolution representing an angle that a phase of the first digital signal will shift based on changing a preload parameter of the first analog-to-digital converter by one unit, wherein the preload parameter represents a delay before the first analog-to-digital converter begins sampling; and calculating an updated preload parameter as the total sample delay mod an oversampling rate of the first analog-to-digital converter.