mhurhangee/patent-ind-claim-en huggingface dataset:
A 3D printer comprising an ink tank for storing an ink (I) comprising magnetic particles; an injection nozzle connected to the ink tank and for injecting the ink (I); a substrate on which the injected ink (I) is deposited; a heating unit provided so as to heat the ink (I) coated onto the substrate by means of induction heating and to be positioned behind the injection nozzle based on the direction of carriage of the injection nozzle ; a carriage unit for carrying the injection nozzle and the heating unit ; and a control unit for controlling the heating unit and the carriage unit , wherein the heating unit comprises two coil structures disposed on both sides of the rear with respect to the injection nozzle , and wherein the heating unit is provided to apply an external alternating electromagnetic field to the ink (I) positioned in the space between the two coil structures .
A method for diagnosing at least one pressure relief valve of a liquefied gas fuel system for a vehicle , said fuel system (A) having a liquefied gas fuel tank for providing fuel to the engine of the vehicle , and at least one pressure relief valve set to open at a predetermined pressure for evacuating evaporated gas, characterized by the steps of: connecting (S1) a temporary pressure relief valve to said at least one pressure relief valve , said temporary pressure relief valve being set to open at a pressure above said predetermined pressure for which said at least one pressure relief valve is set to open; increasing (S2) the pressure in the tank to a pressure above said set pressure; determining (S3) if said at least one pressure relief valve opens ; if said at least one pressure relief valve opens, determine (S4) at what pressure said at least one pressure relief valve opens; and based on the determinations of if said at least one pressure relief valve opens, and if said at least one pressure relief valve opens, at what pressure said at least one pressure relief valve opens, performing (S5) a diagnosing of the functionality of said at least one pressure relief valve.
A process of manufacturing a cemented carbide, said process comprises the steps of: a) forming a slurry comprising a milling liquid, binder metal in such amount that the total binder metal content in the final product ranges from 2 to 15 wt%, and hard constituents, wherein said hard constituents comprise hex doped WC described as hex(Me,W)(C) where Me is atoms of transition metal(s) selected from Cr, group 4 and/or group 5 and/or group 7 excluding Tc; and wherein the amount of Me do not exceed 3 wt% of the total weight of the hex doped WC, b) subjecting said slurry to milling and drying; c) subjecting the powder mixture obtained from b) to pressing and sintering; wherein the hex doped WC is subjected to nitrogen before and/or during sintering. a) forming a slurry comprising a milling liquid, binder metal in such amount that the total binder metal content in the final product ranges from 2 to 15 wt%, and hard constituents, wherein said hard constituents comprise hex doped WC described as hex(Me,W)(C) where Me is atoms of transition metal(s) selected from Cr, group 4 and/or group 5 and/or group 7 excluding Tc; and wherein the amount of Me do not exceed 3 wt% of the total weight of the hex doped WC, b) subjecting said slurry to milling and drying; c) subjecting the powder mixture obtained from b) to pressing and sintering;
A system for tire management in a vehicle comprising: an activator configured to generate an activation signal, the activator located over a center of a tire of the vehicle; a sensor (114-1) installed on or in the tire and configured to: receive the activation signal from the activator ; and generate tire information relating to the tire based on the activation signal; and a processor configured to: receive the tire information from the sensor (114-1), and generate an event based on the tire information, wherein the activator is configured to activate the sensor (114-1) on or in the tire without activating a sensor (114-2) on or in another tire of the vehicle. an activator configured to generate an activation signal, the activator located over a center of a tire of the vehicle; a sensor (114-1) installed on or in the tire and configured to: receive the activation signal from the activator ; and generate tire information relating to the tire based on the activation signal; and receive the activation signal from the activator ; and generate tire information relating to the tire based on the activation signal; and a processor configured to: receive the tire information from the sensor (114-1), and generate an event based on the tire information, wherein the activator is configured to activate the sensor (114-1) on or in the tire without activating a sensor (114-2) on or in another tire of the vehicle. receive the tire information from the sensor (114-1), and generate an event based on the tire information, wherein the activator is configured to activate the sensor (114-1) on or in the tire without activating a sensor (114-2) on or in another tire of the vehicle.
A method for concealing information that may be present within nucleic acids, the method comprising: (a) securely generating barcodes; (b) affixing the barcodes to nucleic acids to create barcoded nucleic acids; (c) pooling the barcoded nucleic acids with other nucleic acids; wherein the secure generation of barcodes is done in a facility that generates a number of sets of barcodes along with a table of the barcodes present in each set; wherein the barcodes and the table of barcodes are sealed in a container that indicate when the seal is broken; wherein the barcodes are affixed to nucleic acid molecules such that barcodes are not entirely identical between different nucleic acids with the same individual sample of nucleic acids; wherein the pooling of the barcoded nucleic acids with other barcoded nucleic acids conceals information present in the nucleic acids. (a) securely generating barcodes; (b) affixing the barcodes to nucleic acids to create barcoded nucleic acids; (c) pooling the barcoded nucleic acids with other nucleic acids;
A method for detecting contamination in a set of oligonucleotides for nucleic acid samples, the method comprising: providing a set of oligonucleotide samples comprising oligonucleotides, each oligonucleotide having a 5' constant region, a sample identifier, and a 3' constant region, wherein each of the oligonucleotide samples is provided in a separate vessel; wherein each of the oligonucleotides within a sample has the same sample identifier and each of the samples within the set has a different sample identifier, unless one or more of the samples is contaminated; amplifying the oligonucleotides or complements of the oligonucleotides with an assay primer and a second primer in each vessel, wherein the assay primer is different for each sample, wherein each assay primer comprises a priming portion and an assay identifier, thereby generating a set of oligonucleotide amplicons, each oligonucleotide amplicon comprising one of the assay identifiers, the 5' constant region, one of the sample identifiers, and the 3' constant region; pooling the oligonucleotide amplicons in one or more pools; sequencing the one or more pools to determine sequences for at least the sample identifier and the assay identifier of the oligonucleotide amplicons; and determining whether the sample identifiers in the one or more pools include a contaminating sample identifier. providing a set of oligonucleotide samples comprising oligonucleotides, each oligonucleotide having a 5' constant region, a sample identifier, and a 3' constant region, wherein each of the oligonucleotide samples is provided in a separate vessel; wherein each of the oligonucleotides within a sample has the same sample identifier and each of the samples within the set has a different sample identifier, unless one or more of the samples is contaminated; amplifying the oligonucleotides or complements of the oligonucleotides with an assay primer and a second primer in each vessel, wherein the assay primer is different for each sample, wherein each assay primer comprises a priming portion and an assay identifier, thereby generating a set of oligonucleotide amplicons, each oligonucleotide amplicon comprising one of the assay identifiers, the 5' constant region, one of the sample identifiers, and the 3' constant region; pooling the oligonucleotide amplicons in one or more pools; sequencing the one or more pools to determine sequences for at least the sample identifier and the assay identifier of the oligonucleotide amplicons; and determining whether the sample identifiers in the one or more pools include a contaminating sample identifier.
A method for user equipment capable of performing carrier aggregation by using multiple component carriers, the method comprising: receiving, from a base station: a first timer value of Discontinuous Reception (DRX) Inactivity Timer (drx-InactivityTimer), a second timer value of DRX Retransmission Timer (drx-RetransmissionTimer), and a third timer value of DRX Short Cycle Timer (drxShortCycleTimer), the drxShortCycleTimer being used for all of the multiple component carriers; and starting or restarting the drx-InactivityTimer if Physical Downlink Control Channel (PDCCH) in a component carrier among the multiple component carriers indicates a downlink transmission; starting a Hybrid Automatic Repeat reQuest (HARQ) Round Trip Time (RTT) timer corresponding to a HARQ process for the component carrier if PDCCH in the component carrier indicates the downlink transmission; starting the drx-RetransmissionTimer corresponding to the HARQ process for the component carrier if the HARQ RTT Timer expires and if data of the HARQ process was not successfully decoded; starting or restarting the drxShortCycleTimer linked to all of the multiple component carriers and using a short DRX cycle if the drx-InactivityTimer expires; and using a long DRX cycle on all of the multiple component carriers if the drxShortCycleTimer expires. receiving, from a base station: a first timer value of Discontinuous Reception (DRX) Inactivity Timer (drx-InactivityTimer), a second timer value of DRX Retransmission Timer (drx-RetransmissionTimer), and a third timer value of DRX Short Cycle Timer (drxShortCycleTimer), the drxShortCycleTimer being used for all of the multiple component carriers; and a first timer value of Discontinuous Reception (DRX) Inactivity Timer (drx-InactivityTimer), a second timer value of DRX Retransmission Timer (drx-RetransmissionTimer), and a third timer value of DRX Short Cycle Timer (drxShortCycleTimer), the drxShortCycleTimer being used for all of the multiple component carriers; and starting or restarting the drx-InactivityTimer if Physical Downlink Control Channel (PDCCH) in a component carrier among the multiple component carriers indicates a downlink transmission; starting a Hybrid Automatic Repeat reQuest (HARQ) Round Trip Time (RTT) timer corresponding to a HARQ process for the component carrier if PDCCH in the component carrier indicates the downlink transmission; starting the drx-RetransmissionTimer corresponding to the HARQ process for the component carrier if the HARQ RTT Timer expires and if data of the HARQ process was not successfully decoded; starting or restarting the drxShortCycleTimer linked to all of the multiple component carriers and using a short DRX cycle if the drx-InactivityTimer expires; and using a long DRX cycle on all of the multiple component carriers if the drxShortCycleTimer expires.
A computer-assisted surgical system comprising a surgical instrument , the surgical instrument comprising: a chassis at a proximal end of the surgical instrument ; a distal end component at a distal end of the surgical instrument ; a plurality of first drive components mounted in the chassis ; a second drive component mounted in the chassis ; a plurality of flexible tensioning elements each coupled between a corresponding one of the plurality of first drive components and the distal end component and each extending along a corresponding path; and a dynamic preload tensioner mounted in the chassis and coupled to be driven by the second drive component to move relative to the chassis and as a result change the corresponding path of and apply a preload tension in each of the plurality of flexible tensioning elements as the dynamic preload tensioner moves relative to the chassis . a chassis at a proximal end of the surgical instrument ; a distal end component at a distal end of the surgical instrument ; a plurality of first drive components mounted in the chassis ; a second drive component mounted in the chassis ; a plurality of flexible tensioning elements each coupled between a corresponding one of the plurality of first drive components and the distal end component and each extending along a corresponding path; and a dynamic preload tensioner mounted in the chassis and coupled to be driven by the second drive component to move relative to the chassis and as a result change the corresponding path of and apply a preload tension in each of the plurality of flexible tensioning elements as the dynamic preload tensioner moves relative to the chassis .
Axle play testing device for testing the axle play of a vehicle, preferably a truck, comprising a support for a tyre of the vehicle, a bearing for the support , and at least one hydraulic cylinder connected or connectable to a hydraulic unit for the purpose of moving the support , at least one pressure accumulator for directly actuating the hydraulic cylinder , and a valve , which is arranged between the pressure accumulator and the hydraulic cylinder , characterised in that the valve is arranged directly in front of the hydraulic cylinder . preferably a truck, comprising a support for a tyre of the vehicle, a bearing for the support , and at least one hydraulic cylinder connected or connectable to a hydraulic unit for the purpose of moving the support , at least one pressure accumulator for directly actuating the hydraulic cylinder , and a valve , which is arranged between the pressure accumulator and the hydraulic cylinder , characterised in that the valve is arranged directly in front of the hydraulic cylinder .
Telescopic rod , in particular for a handheld device or device system, which has the following: - an outer tube , - an inner tube or a bar which can be shifted along a common longitudinal axis in the outer tube , - a holding backet , which comprises a sleeve for receiving an end region of the outer tube and a clamping ring for surrounding the inner tube or bar, and - a screwcap , which is screwed or can be screwed on the clamping ring of the holding bracket , such that the clamping ring exerts a force on the surrounding region of the inner tube or bar, and the inner tube or the bar is thus fixed or can be fixed on the holding bracket , wherein the end region of the outer tube and the sleeve are connected or can be connected by means of elements complementary to one another, characterised in that the holding bracket with the sleeve and the clamping ring is formed in two parts, wherein the holding bracket is divided into two cylindrical half-shells along the longitudinal axis. - an outer tube , - an inner tube or a bar which can be shifted along a common longitudinal axis in the outer tube , - a holding backet , which comprises a sleeve for receiving an end region of the outer tube and a clamping ring for surrounding the inner tube or bar, and - a screwcap , which is screwed or can be screwed on the clamping ring of the holding bracket , such that the clamping ring exerts a force on the surrounding region of the inner tube or bar, and the inner tube or the bar is thus fixed or can be fixed on the holding bracket , wherein the end region of the outer tube and the sleeve are connected or can be connected by means of elements complementary to one another,
A flat lightweight member comprising: skin layers disposed on both surfaces of the flat lightweight member ; an end reinforcing layer disposed to have contact with both inner surfaces of the skin layers on the both surfaces at an end of the flat lightweight member ; and a core layer disposed in a space surrounded by the skin layers and the end reinforcing layer to have direct contact with the inner surfaces of the skin layers , wherein the skin layer comprises one or more layers comprising reinforcing fibers aligned in one direction and a first matrix resin, the end reinforcing layer comprises a fiber reinforced resin sheet, and the core layer comprises thermally expandable particles and a second matrix resin, characterized in that the reinforcing fibers raised from the skin layers are in the core layer .
A method for generating an anti-inflammatory composition for administration to a human or other animal subject, the method comprising: (a) determining the input concentration of a first anti-inflammatory cytokine ([first anti-inflammatory cytokine] input), and the input concentration of a first inflammatory cytokine ([first inflammatory cytokine] input), in a biological material comprising the first inflammatory cytokine and the first anti-inflammatory cytokine which has been obtained from a human or other animal subject; (b) processing the biological material to produce an anti-inflammatory composition having an increased concentration of the first anti-inflammatory cytokine; (c) determining output concentration of the first anti-inflammatory cytokine ([first anti-inflammatory cytokine] output) and the output concentration of the first inflammatory cytokine ([first inflammatory cytokine] output), in the anti-inflammatory composition; (d) calculating a first Efficacy Ratio pursuant to the formula: first Efficacy Ratio = first anti-inflammatory cytokine first inflammatory cytokine Output first anti-inflammatory cytokine first inflammatory cytokine Input and; (e) preparing the anti-inflammatory composition for administration to the subject if the first Efficacy Ratio is 1 or greater. (a) determining the input concentration of a first anti-inflammatory cytokine ([first anti-inflammatory cytokine] input), and the input concentration of a first inflammatory cytokine ([first inflammatory cytokine] input), in a biological material comprising the first inflammatory cytokine and the first anti-inflammatory cytokine which has been obtained from a human or other animal subject; (b) processing the biological material to produce an anti-inflammatory composition having an increased concentration of the first anti-inflammatory cytokine; (c) determining output concentration of the first anti-inflammatory cytokine ([first anti-inflammatory cytokine] output) and the output concentration of the first inflammatory cytokine ([first inflammatory cytokine] output), in the anti-inflammatory composition; (d) calculating a first Efficacy Ratio pursuant to the formula: first Efficacy Ratio = first anti-inflammatory cytokine first inflammatory cytokine Output first anti-inflammatory cytokine first inflammatory cytokine Input and; (e) preparing the anti-inflammatory composition for administration to the subject if the first Efficacy Ratio is 1 or greater.
- A gripping device for shells , including at least one pair of jaws intended to clamp a shell , each jaw being able to pivot between an open position and a closed position about a pivot pin parallel to the longitudinal axis of the shell , the pivot pin of each jaw being secured to a frame and located between a lower end and an upper end of the jaw , the application of the upper end of each jaw on the shell causing the closing of the jaws , the device being characterised in that it includes a locking means linking the upper ends of the jaws and comprising two connecting rods and a central segment linking these connecting rods , the connecting rods being articulated relative to the jaws by a first articulation and articulated by a second articulation to the central segment , an elastic return means linking each first articulation at a so-called central point positioned in the middle of the central segment , the device including at least one movable stop secured to a maneuvering lever , the stop being located above the locking means and able to push the locking means downward until it is below an unstable equilibrium position of the locking means .
An apparatus for surgical procedures, the apparatus comprising: an evacuation tube comprising a filter , a long axis and a hollow conduit extending through the long axis, the hollow conduit fluidly connecting a tube inlet and a tube outlet , the filter located within the hollow conduit operable to remove particles from a flow passing through the hollow conduit from the tube inlet to the tube outlet ; characterised in that the filter comprises a carbon media extending through an entire length of the long axis of the evacuation tube along an interior wall of the evacuation tube ; wherein a cross-sectional diameter of the carbon media is less than an interior cross-sectional diameter of the hollow conduit , and wherein the carbon media is configured to not completely obstruct a flow through the hollow conduit. an evacuation tube comprising a filter , a long axis and a hollow conduit extending through the long axis, the hollow conduit fluidly connecting a tube inlet and a tube outlet , the filter located within the hollow conduit operable to remove particles from a flow passing through the hollow conduit from the tube inlet to the tube outlet ; characterised in that the filter comprises a carbon media extending through an entire length of the long axis of the evacuation tube along an interior wall of the evacuation tube ; wherein a cross-sectional diameter of the carbon media is less than an interior cross-sectional diameter of the hollow conduit , and wherein the carbon media is configured to not completely obstruct a flow through the hollow conduit.
An aerosol-generating device for generation of inhalable aerosol, the device comprising: a resistive heater , a battery , wherein the battery is configured to generate a battery voltage (Vbat), and a control unit , wherein said control unit comprises: a DC/DC converter arranged to receive as an input the battery voltage (Vbat) from the battery and to output an output voltage (Vheater) to the resistive heater ; and a microcontroller configured to control said DC/DC converter to adjust the output voltage based on a predetermined temperature profile for the resistive heater that varies with time. a resistive heater , a battery , wherein the battery is configured to generate a battery voltage (Vbat), and a control unit , wherein said control unit comprises: a DC/DC converter arranged to receive as an input the battery voltage (Vbat) from the battery and to output an output voltage (Vheater) to the resistive heater ; and a microcontroller configured to control said DC/DC converter to adjust the output voltage based on a predetermined temperature profile for the resistive heater that varies with time. a DC/DC converter arranged to receive as an input the battery voltage (Vbat) from the battery and to output an output voltage (Vheater) to the resistive heater ; and a microcontroller configured to control said DC/DC converter to adjust the output voltage based on a predetermined temperature profile for the resistive heater that varies with time.