mhurhangee/patent-ind-claim-en huggingface dataset:
A big telematics data communication fault determination method for a system comprising a mobile device connected to a vehicular telemetry hardware system. and a remote device , the method comprising asynchronously establishing, in said mobile device , at least one expected communication period based upon a vehicle status, communicating from said mobile device to said remote device at least one of a signal, data or message at intervals of said at least one expected communication period, asynchronously establishing, in said remote device , at least one expected communication period based upon said vehicle status, wherein said vehicle status is an ignition status contained within said at least one signal, data or message, comparing, via said remote device , in a selected time frame a number of actual communications received from said mobile device based upon said at least one expected communication period with a number of at least one expected communication, and indicating, via said remote device , a fault when said number of actual communications is not equal to said number of at least one expected communication within said selected time frame.
A gas turbine system , comprising: a gas turbine comprising an inlet configured to receive inlet air and being configured to combust a fuel to generate power, wherein the gas turbine comprises: a chilling assembly configured to reduce the temperature of the inlet air to produce chilled air; a low pressure compressor configured to compress the chilled air to produce a first compressed air supply; an intercooler configured to cool the first compressed air supply to produce a cooled air supply; a high pressure compressor configured to compress the cooled air supply to produce a second compressed air supply, wherein the intercooler is disposed in-line between the low pressure compressor and the high pressure compressor ; and a combustor configured to combust the fuel in the presence of the second compressed air supply to generate the power; and a control system configured to determine a first expected condensation level at the intercooler and to control operation of the chilling assembly to produce the chilled air at a temperature corresponding to a second expected condensation level reduced from the first expected condensation level. a gas turbine comprising an inlet configured to receive inlet air and being configured to combust a fuel to generate power, wherein the gas turbine comprises: a chilling assembly configured to reduce the temperature of the inlet air to produce chilled air; a low pressure compressor configured to compress the chilled air to produce a first compressed air supply; an intercooler configured to cool the first compressed air supply to produce a cooled air supply; a high pressure compressor configured to compress the cooled air supply to produce a second compressed air supply, wherein the intercooler is disposed in-line between the low pressure compressor and the high pressure compressor ; and a combustor configured to combust the fuel in the presence of the second compressed air supply to generate the power; and a chilling assembly configured to reduce the temperature of the inlet air to produce chilled air; a low pressure compressor configured to compress the chilled air to produce a first compressed air supply; an intercooler configured to cool the first compressed air supply to produce a cooled air supply; a high pressure compressor configured to compress the cooled air supply to produce a second compressed air supply, wherein the intercooler is disposed in-line between the low pressure compressor and the high pressure compressor ; and a combustor configured to combust the fuel in the presence of the second compressed air supply to generate the power; and a control system configured to determine a first expected condensation level at the intercooler and to control operation of the chilling assembly to produce the chilled air at a temperature corresponding to a second expected condensation level reduced from the first expected condensation level.
Spring-damper system for controlled power supply to an annulus side and/or a piston side of a differential cylinder , consisting of at least - the differential cylinder , - a hydraulic accumulator and - a control valve apparatus , wherein the annulus side or both the annulus side and the piston side of the differential cylinder can be supplied with pressurised fluid by means of at least one motor pump unit in a closed circuit using the control valve apparatus , characterised in that the control valve apparatus comprises two control valves , one of which is connected in a fluid-conveying manner at its inlet to the annulus side and at its outlet to both the piston side and to the inlet of the second control valve , which is connected with its outlet to the inlet of the pump in the motor pump unit , and in that both control valves are proportional throttle valves which are opened in their non-throttling original position. - the differential cylinder , - a hydraulic accumulator and - a control valve apparatus , wherein the annulus side or both the annulus side and the piston side of the differential cylinder can be supplied with pressurised fluid by means of at least one motor pump unit in a closed circuit using the control valve apparatus , characterised in that the control valve apparatus comprises two control valves , one of which is connected in a fluid-conveying manner at its inlet to the annulus side and at its outlet to both the piston side and to the inlet of the second control valve , which is connected with its outlet to the inlet of the pump in the motor pump unit , and in that both control valves are proportional throttle valves which are opened in their non-throttling original position.
An aerosol delivery system , the aerosol delivery system comprising: an aerosol delivery unit , the aerosol delivery unit comprising: a cartridge receiver , which is configured to receive a cartridge assembly ; and an inductor configured to receive the cartridge assembly and heat a liquid formulation within a capillary tube to produce an aerosol by induction heating; and a pump , the pump comprising: a container holder configured to receive a container containing the liquid formulation, and wherein the container holder is configured to pivot about an axis to expose an opening on a bottom of the container holder ; a plunger for applying a force to push the liquid formulation out of a distal end of the container into a proximal end of the capillary tube ; and a pressure jacket configured to support the container within the container holder . an aerosol delivery unit , the aerosol delivery unit comprising: a cartridge receiver , which is configured to receive a cartridge assembly ; and an inductor configured to receive the cartridge assembly and heat a liquid formulation within a capillary tube to produce an aerosol by induction heating; and a cartridge receiver , which is configured to receive a cartridge assembly ; and an inductor configured to receive the cartridge assembly and heat a liquid formulation within a capillary tube to produce an aerosol by induction heating; and a pump , the pump comprising: a container holder configured to receive a container containing the liquid formulation, and wherein the container holder is configured to pivot about an axis to expose an opening on a bottom of the container holder ; a plunger for applying a force to push the liquid formulation out of a distal end of the container into a proximal end of the capillary tube ; and a pressure jacket configured to support the container within the container holder . a container holder configured to receive a container containing the liquid formulation, and wherein the container holder is configured to pivot about an axis to expose an opening on a bottom of the container holder ; a plunger for applying a force to push the liquid formulation out of a distal end of the container into a proximal end of the capillary tube ; and a pressure jacket configured to support the container within the container holder .
A glass composition consisting essentially of, in atomic percent: 0-40 Ge; 0-40 As, Sb, or As+Sb; 0-15 Ga, In, or Ga+In; 0-15 P; 0-40 Te; greater than 0 B, in an amount up to 25; 50-75 S, Se, or S+Se; 0-15 Tl, Pb, Bi, Sn, or combinations thereof; and 0-20 of an alkali metal, alkaline earth metal, rare earth metal, transition metals, or combinations thereof. 0-40 Ge; 0-40 As, Sb, or As+Sb; 0-15 Ga, In, or Ga+In; 0-15 P; 0-40 Te; greater than 0 B, in an amount up to 25; 50-75 S, Se, or S+Se; 0-15 Tl, Pb, Bi, Sn, or combinations thereof; and 0-20 of an alkali metal, alkaline earth metal, rare earth metal, transition metals, or combinations thereof.
A pneumatic tool comprising: a drive part configured to be driven by compressed air; a control valve configured to switch the presence or absence of operation of the drive part ; an on-off valve part configured to switch the presence or absence of operation of the control valve ; and a timer part configured to control the operation of the on-off valve part and switch the presence or absence of operation of the control valve after a lapse of a predetermined time, wherein the timer part comprises a timer piston configured to move in one direction and perform timekeeping, and a timer piston housing configured to support a shaft of the timer piston, and wherein the timer piston housing is provided with a groove (82C2) on a guide surface (82C1) of the shaft of the timer piston , the groove (82C2) being configured to expand a flow path formed between the shaft and the guide surface characterized in that the groove extends along an axial direction of the timer piston . a drive part configured to be driven by compressed air; a control valve configured to switch the presence or absence of operation of the drive part ; an on-off valve part configured to switch the presence or absence of operation of the control valve ; and a timer part configured to control the operation of the on-off valve part and switch the presence or absence of operation of the control valve after a lapse of a predetermined time, wherein the timer part comprises a timer piston configured to move in one direction and perform timekeeping, and a timer piston housing configured to support a shaft of the timer piston, and wherein the timer piston housing is provided with a groove (82C2) on a guide surface (82C1) of the shaft of the timer piston , the groove (82C2) being configured to expand a flow path formed between the shaft and the guide surface characterized in that the groove extends along an axial direction of the timer piston .
A user device comprising a transceiver, a processor, and a memory, wherein the memory holds: a device management application arranged to control functionality of the user device in accordance with an operative device policy state of the user device; and a device policy schedule comprising a queue of device policy states each comprising a respective set of policy data, wherein responsive to receiving, from a remote system via the transceiver, first synchronisation data indicating a first device policy state in the queue of device policy states, the device management application is arranged to update the operative device policy state of the user device to the first device policy state in the event that the operative device policy state is not the first device policy state; wherein upon determining that a predetermined interval of time has elapsed since a most recent receipt of synchronisation data from the remote system , the device management application is arranged to update the operative device policy state of the user device to a terminal device policy state in the queue of device policy states in the event that the operative device policy state is not the terminal device policy state; and wherein the terminal device policy state is more restrictive of the functionality of the user device than any other device policy state in the queue of device policy states. a device management application arranged to control functionality of the user device in accordance with an operative device policy state of the user device; and a device policy schedule comprising a queue of device policy states each comprising a respective set of policy data, wherein responsive to receiving, from a remote system via the transceiver, first synchronisation data indicating a first device policy state in the queue of device policy states, the device management application is arranged to update the operative device policy state of the user device to the first device policy state in the event that the operative device policy state is not the first device policy state; wherein upon determining that a predetermined interval of time has elapsed since a most recent receipt of synchronisation data from the remote system , the device management application is arranged to update the operative device policy state of the user device to a terminal device policy state in the queue of device policy states in the event that the operative device policy state is not the terminal device policy state; and wherein the terminal device policy state is more restrictive of the functionality of the user device than any other device policy state in the queue of device policy states.
A single-mode fiber with an ultralow attenuation, comprising: a core layer and cladding layers, wherein the cladding layers comprises an inner cladding layer surrounding the core layer, a trench cladding layer surrounding the inner cladding layer, an auxiliary outer cladding layer surrounding the trench cladding layer, and an outer cladding layer surrounding the auxiliary cladding layer; wherein the core layer has a radius r 1 in a range of 3.9 to 4.8 μm, and a relative refractive index difference Δ n 1 in a range of -0.08% to 0.10%; wherein the inner cladding layer has a radius r 2 in a range of 9 to 14 μm, and a relative refractive index difference Δ n 2 in a range of -0.35% to -0.15%; wherein the trench cladding layer has a radius r 3 in a range of 13 to 25 μm, and a relative refractive index difference Δ n 3 in a range of -0.7% to -0.3%; wherein the auxiliary outer cladding layer has a radius r 4 in a range of 30 to 50 μm, and a relative refractive index difference Δ n 4 in a range of -0.4% to - 0.15%; wherein the outer cladding layer is a pure silicon dioxide glass layer; wherein the core layer is a germanium and fluorine co-doped silicon-dioxide glass layer, or a germanium-doped silicon-dioxide glass layer, wherein a doping contribution of germanium is in a range of 0.02% to 0.10%; wherein the fiber has an attenuation at a wavelength of 1310 nm of less than or equal to 0.324 dB/km; and wherein the fiber has an attenuation at a wavelength of 1550 nm of less than or equal to 0.184 dB/km. a core layer and cladding layers, wherein the cladding layers comprises an inner cladding layer surrounding the core layer, a trench cladding layer surrounding the inner cladding layer, an auxiliary outer cladding layer surrounding the trench cladding layer, and an outer cladding layer surrounding the auxiliary cladding layer; wherein the core layer has a radius r 1 in a range of 3.9 to 4.8 μm, and a relative refractive index difference Δ n 1 in a range of -0.08% to 0.10%; wherein the inner cladding layer has a radius r 2 in a range of 9 to 14 μm, and a relative refractive index difference Δ n 2 in a range of -0.35% to -0.15%; wherein the trench cladding layer has a radius r 3 in a range of 13 to 25 μm, and a relative refractive index difference Δ n 3 in a range of -0.7% to -0.3%; wherein the auxiliary outer cladding layer has a radius r 4 in a range of 30 to 50 μm, and a relative refractive index difference Δ n 4 in a range of -0.4% to - 0.15%; wherein the outer cladding layer is a pure silicon dioxide glass layer; wherein the core layer is a germanium and fluorine co-doped silicon-dioxide glass layer, or a germanium-doped silicon-dioxide glass layer, wherein a doping contribution of germanium is in a range of 0.02% to 0.10%; wherein the fiber has an attenuation at a wavelength of 1310 nm of less than or equal to 0.324 dB/km; and wherein the fiber has an attenuation at a wavelength of 1550 nm of less than or equal to 0.184 dB/km.
A liquid discharge device (100 ; 200) comprising: a nozzle (150 ; 301 ; 311) for discharging a liquid droplet; a base (101 ; 201) to which the nozzle (150 ; 301 ; 311) is attached; a fixing part for fixing the nozzle (150 ; 301 ; 311) to the base (101 ; 201); and a drive part (110 ; 210) that creates displacement, characterized in that : the nozzle (150 ; 301 ; 311) has a first holding part (151 ; 312) and a second holding part (151 ; 312), and the drive part (110 ; 210) holds at least one of the first holding part (151 ; 312) and the second holding part (151 ; 312), so that the displacement created by the drive part is transmitted to the nozzle (150 ; 301 ; 311), so as to act in both compression and expansion directions of the nozzle. a nozzle (150 ; 301 ; 311) for discharging a liquid droplet; a base (101 ; 201) to which the nozzle (150 ; 301 ; 311) is attached; a fixing part for fixing the nozzle (150 ; 301 ; 311) to the base (101 ; 201); and a drive part (110 ; 210) that creates displacement, the nozzle (150 ; 301 ; 311) has a first holding part (151 ; 312) and a second holding part (151 ; 312), and the drive part (110 ; 210) holds at least one of the first holding part (151 ; 312) and the second holding part (151 ; 312), so that the displacement created by the drive part is transmitted to the nozzle (150 ; 301 ; 311), so as to act in both compression and expansion directions of the nozzle.
A method comprising: providing double-stranded nucleic acid material comprising one or more double-stranded nucleic acid molecules, wherein each double-stranded nucleic acid molecule comprises a single molecule identifier sequence on each strand and an adapter on at least one of the 5' and/or 3' ends of the nucleic acid molecule, and wherein, for each nucleic acid molecule, a first adapter sequence is associated with a first strand and a second adapter sequence is associated with a second strand of the nucleic acid molecule; amplifying the nucleic acid material; separating the amplified nucleic acid material into a first sample and a second sample; amplifying the first strand in the first sample through use of a primer specific to the first adapter sequence and at least one single-stranded oligonucleotide at least partially complementary to a target sequence of interest such that the single molecule identifier sequence is at least partially maintained to provide a first nucleic acid product; amplifying the second strand in the second sample through use of a primer specific to the second adapter sequence and at least one single-stranded oligonucleotide at least partially complementary to the target sequence of interest such that the single molecule identifier sequence is at least partially maintained to provide a second nucleic acid product; sequencing each of the first nucleic acid product and second nucleic acid product; and comparing the sequence of the first nucleic acid product to the sequence of the second nucleic acid product. providing double-stranded nucleic acid material comprising one or more double-stranded nucleic acid molecules, wherein each double-stranded nucleic acid molecule comprises a single molecule identifier sequence on each strand and an adapter on at least one of the 5' and/or 3' ends of the nucleic acid molecule, and wherein, for each nucleic acid molecule, a first adapter sequence is associated with a first strand and a second adapter sequence is associated with a second strand of the nucleic acid molecule; amplifying the nucleic acid material; separating the amplified nucleic acid material into a first sample and a second sample; amplifying the first strand in the first sample through use of a primer specific to the first adapter sequence and at least one single-stranded oligonucleotide at least partially complementary to a target sequence of interest such that the single molecule identifier sequence is at least partially maintained to provide a first nucleic acid product; amplifying the second strand in the second sample through use of a primer specific to the second adapter sequence and at least one single-stranded oligonucleotide at least partially complementary to the target sequence of interest such that the single molecule identifier sequence is at least partially maintained to provide a second nucleic acid product; sequencing each of the first nucleic acid product and second nucleic acid product; and comparing the sequence of the first nucleic acid product to the sequence of the second nucleic acid product.
A display medium comprising: a diffraction structure section on which optical image information is recorded; a chromic device that controls reflection and transmission of light by using a voltage; and characterised by a power supply that is connected to the chromic device and that is an antenna section that is able to generate alternating current from external electromagnetic waves. a diffraction structure section on which optical image information is recorded; a chromic device that controls reflection and transmission of light by using a voltage; and characterised by a power supply that is connected to the chromic device and that is an antenna section that is able to generate alternating current from external electromagnetic waves.
A mesenchymal stem cell overexpressing PRL-1 compared to a non-genetically engineered parent cell.
An endovascular management and tracking system , comprising: a track (70, 70', 70"); and at least one shuttle to which at least one elongate medical device can be respectively affixed, each of the at least one shuttle configured for being mechanically coupled to the track (70, 70', 70"), and comprising a sled configured for riding on the track (70, 70', 70"), an axial drive mechanism carried by the sled and configured for being actuated to axially translate the respective shuttle along the track (70, 70', 70"), and an actuator carried by the sled and configured for actuating the axial drive mechanism , characterized in that : each of the at least one shuttle further comprises a locking mechanism carried by the sled and configured for being manually operated to alternately engage and disengage the axial drive mechanism to the track (70, 70', 70"). a track (70, 70', 70"); and at least one shuttle to which at least one elongate medical device can be respectively affixed, each of the at least one shuttle configured for being mechanically coupled to the track (70, 70', 70"), and comprising a sled configured for riding on the track (70, 70', 70"), an axial drive mechanism carried by the sled and configured for being actuated to axially translate the respective shuttle along the track (70, 70', 70"), and an actuator carried by the sled and configured for actuating the axial drive mechanism , characterized in that : each of the at least one shuttle further comprises a locking mechanism carried by the sled and configured for being manually operated to alternately engage and disengage the axial drive mechanism to the track (70, 70', 70").