mhurhangee/patent-ind-claim-en huggingface dataset:
A therapeutic chorionic product comprising: chorionic cells and a chorionic dispersion comprising chorionic factors; wherein the chorionic cells are present in an amount of at least about 10,000 cells per ml of chorionic product; and wherein the chorionic factors comprise one or more extracellular matrix proteins, one or more protease inhibitors, one or more growth factors, one or more angiogenic factors, and one or more MMPs. chorionic cells and a chorionic dispersion comprising chorionic factors; wherein the chorionic cells are present in an amount of at least about 10,000 cells per ml of chorionic product; and wherein the chorionic factors comprise one or more extracellular matrix proteins, one or more protease inhibitors, one or more growth factors, one or more angiogenic factors, and one or more MMPs.
A lubricating oil composition comprising: a) a major amount of oil of lubricating viscosity, wherein the amount of the oil of lubricating viscosity is at least 40 wt. % of the lubricating oil composition, b) at least one or more non-post treated succinimide dispersant, c) 0.01-0.5 wt. % phosphoric acid, d) a metal detergent providing no more than 350 ppm of metal to the composition, e) at least one or more organic phosphorus compound, wherein the weight ratio of nitrogen from the non-post treated succinimide to the phosphorous from phosphoric acid is 1 to 3. a) a major amount of oil of lubricating viscosity, wherein the amount of the oil of lubricating viscosity is at least 40 wt. % of the lubricating oil composition, b) at least one or more non-post treated succinimide dispersant, c) 0.01-0.5 wt. % phosphoric acid, d) a metal detergent providing no more than 350 ppm of metal to the composition, e) at least one or more organic phosphorus compound, wherein
A sanitary article such as a sanitary napkin, a panty liner, a diaper or an incontinence pad, comprising a liquid permeable topsheet, a backsheet and a fibrous acquisition layer enclosed between said topsheet and said backsheet wherein said fibrous acquisition layer consists essentially of non-absorbent fibers, wherein the non-absorbent fibers are thermoplastic polymeric fibers and said topsheet comprises a dry coating comprising a) an organic acid, having a pKa value not exceeding 5.5, and/or a salt thereof and b) a surface active agent.
A blended fluoropolymer composition, characterized by : a polytetrafluoroethylene (PTFE) having a first melt temperature (T m ) of 332° C or less, in the form of a liquid dispersion of particles having a mean particle size of 1.0 microns (μm) or less, said dispersion obtained via emulsion polymerization and without being subjected to agglomeration, thermal degradation, or irradiation, said polytetrafluoroethylene (PTFE) dispersion including less than 1.0 wt.% surfactant, based on the weight of said polytetrafluoroethylene (PTFE) dispersion; and methylfluoroalkoxy (MFA) in the form of a liquid dispersion of particles having a mean particle size of 1.0 microns (μm) or less, said composition having, based on the total solids of said PTFE and MFA, a MFA content of 63 wt.% to 70 wt.% and a PTFE content of 30 wt.% to 37 wt.%. a polytetrafluoroethylene (PTFE) having a first melt temperature (T m ) of 332° C or less, in the form of a liquid dispersion of particles having a mean particle size of 1.0 microns (μm) or less, said dispersion obtained via emulsion polymerization and without being subjected to agglomeration, thermal degradation, or irradiation, said polytetrafluoroethylene (PTFE) dispersion including less than 1.0 wt.% surfactant, based on the weight of said polytetrafluoroethylene (PTFE) dispersion; and methylfluoroalkoxy (MFA) in the form of a liquid dispersion of particles having a mean particle size of 1.0 microns (μm) or less, said composition having, based on the total solids of said PTFE and MFA, a MFA content of 63 wt.% to 70 wt.% and a PTFE content of 30 wt.% to 37 wt.%.
A liquid router that comprises an inlet microconduit that branches into a first exit microconduit and a second exit microconduit and is present in a microchannel structure of a microfluidic device which is using centrifugal force created by spinning the microfluidic device around a spin axis for transporting liquid from said inlet microconduit to said first or second exit microconduit , wherein said liquid router further comprises a microcavity in which there are: a) a lower part comprising a first exit opening and a second exit opening , and b) an upper part comprising an inlet opening to which the inlet microconduit is connected, wherein the upper part is closer to the spin axis than the lower part , and wherein the first and second exit microconduits are connected to said first and second exits openings, respectively, and stretch from a position at a shorter radial distance from the spin axis to a position at a larger radial distance from the spin axis , characterized in that a first inner surface of the microcavity connects the inlet opening with the second exit opening , and a second inner surface connects the inlet opening with the first exit opening , wherein a wettable part of the first inner surface that is next to the inlet opening has a direction that is closer to the radial direction from the spin axis than the part of the second inner surface that is next to the inlet opening , and that said second exit microconduit has a reduced hydrophilicity compared to said first exit microconduit due to hydrophobic patterning in the surface of the inner wall of the microcavity in the proximity of said second exit opening , wherein the difference in radial position between the inlet opening and a) said second exit opening or b) the upper end of the hydrophobic patterning associated with the reduced hydrophilicity of said second exit opening and said second microconduit is ≥ 25μm and ≤ 1000 μm. a) a lower part comprising a first exit opening and a second exit opening , and b) an upper part comprising an inlet opening to which the inlet microconduit is connected, wherein the upper part is closer to the spin axis than the lower part , a) said second exit opening or b) the upper end of the hydrophobic patterning associated with the reduced hydrophilicity of said second exit opening and said second microconduit is ≥ 25μm and ≤ 1000 μm.
A method of operation of a thermal power plant having an air separation system with a plurality of air storage unit "ASU" compressors and a liquid oxygen and/ or liquid air "LOX/LA" storage facility for oxyfuel firing of fuel, the method comprises by the step of controlling the net power output of the plant in response to a varying grid demanded net plant output by dynamically adjusting the works power of the ASU compressors characterized by performing the steps of: setting a design works power level W i des for each compressor; modifying the same to give the setpoint value for the compressor power controller according to the relationship: W s e t p o int t = W i des + Δ WP i t where Δ WP i ( t ) is the change in compressor works power; adjusting the power correction for each compressor Δ WP i ( t ) so as to tend to minimize the total change in compressor works power required to balance grid demand as determined by the relationship: ∑ i = 1 ⌢ , N Δ WP i t = W so t − W dem t where W so ( t ) is the net power output of the plant at any instant time t; W dem ( t ) is the grid demanded net plant output at any instant time t; N is the number of ASU compressors; and i is an integer between 1 and N. setting a design works power level W i des for each compressor; modifying the same to give the setpoint value for the compressor power controller according to the relationship: W s e t p o int t = W i des + Δ WP i t where Δ WP i ( t ) is the change in compressor works power; adjusting the power correction for each compressor Δ WP i ( t ) so as to tend to minimize the total change in compressor works power required to balance grid demand as determined by the relationship: ∑ i = 1 ⌢ , N Δ WP i t = W so t − W dem t where W so ( t ) is the net power output of the plant at any instant time t; W dem ( t ) is the grid demanded net plant output at any instant time t; N is the number of ASU compressors; and i is an integer between 1 and N. where W so ( t ) is the net power output of the plant at any instant time t; W dem ( t ) is the grid demanded net plant output at any instant time t; N is the number of ASU compressors; and i is an integer between 1 and N.
A data collection apparatus , comprising a processor configured to: receive a collection request for vehicle acquisition data obtained by each of a plurality of vehicles; generate collection condition data indicating a plurality of collection conditions of the vehicle acquisition data based on the received collection request; transmit the generated collection condition data to each of the plurality of vehicles; set the collection condition data to each of the plurality of vehicles; and receive and collect vehicle acquisition data satisfying the plurality of collection conditions transmitted from each of the plurality of vehicles, wherein the processor is further configured to generate and transmit to each of the plurality of vehicles tag data generation data for generating tag data, collect, from each of the plurality of vehicles, tag data of vehicle acquisition data satisfying the collection condition data, the tag data generated based on the tag data generation data, generate transmission instruction data for vehicle acquisition data based on the tag data, transmit the transmission instruction data to each of the plurality of vehicles, and receive and collect vehicle acquisition data transmitted from each of the plurality of vehicles based on the transmission instruction data. receive a collection request for vehicle acquisition data obtained by each of a plurality of vehicles; generate collection condition data indicating a plurality of collection conditions of the vehicle acquisition data based on the received collection request; transmit the generated collection condition data to each of the plurality of vehicles; set the collection condition data to each of the plurality of vehicles; and receive and collect vehicle acquisition data satisfying the plurality of collection conditions transmitted from each of the plurality of vehicles, wherein the processor is further configured to generate and transmit to each of the plurality of vehicles tag data generation data for generating tag data, collect, from each of the plurality of vehicles, tag data of vehicle acquisition data satisfying the collection condition data, the tag data generated based on the tag data generation data, generate transmission instruction data for vehicle acquisition data based on the tag data, transmit the transmission instruction data to each of the plurality of vehicles, and receive and collect vehicle acquisition data transmitted from each of the plurality of vehicles based on the transmission instruction data. generate and transmit to each of the plurality of vehicles tag data generation data for generating tag data, collect, from each of the plurality of vehicles, tag data of vehicle acquisition data satisfying the collection condition data, the tag data generated based on the tag data generation data, generate transmission instruction data for vehicle acquisition data based on the tag data, transmit the transmission instruction data to each of the plurality of vehicles, and receive and collect vehicle acquisition data transmitted from each of the plurality of vehicles based on the transmission instruction data.
A device for non-invasive monitoring of intracranial pressure of the patient including a measuring mat and a device for measurement of heart activity, wherein the measuring mat includes at least one sensor for measurement of mechanical manifestations when the mat is placed under the head of the patient, and the device further comprises a processor unit configured for determining the time delay between a first signal originating from the device for measurement of the heart activity and a second signal related to the time, when the pulse wave is reflected in the bloodstream in the brain, the second signal originating from the measuring mat , the processor unit being further configured for converting this time delay T into the intracranial pressure of the patient. including a measuring mat and a device for measurement of heart activity, wherein the measuring mat includes at least one sensor for measurement of mechanical manifestations when the mat is placed under the head of the patient, and the device further comprises a processor unit configured for determining the time delay between a first signal originating from the device for measurement of the heart activity and a second signal related to the time, when the pulse wave is reflected in the bloodstream in the brain, the second signal originating from the measuring mat , the processor unit being further configured for converting this time delay T into the intracranial pressure of the patient.
Method for regulating the speed of an autonomous vehicle, called an ego-vehicle, comprising an adaptive cruise control, said method comprising the steps of: • Activation of said adaptive cruise control, said adaptive cruise control being based on a set acceleration calculated from a predetermined set inter-vehicular time, said inter-vehicular time defining a distance between said ego-vehicle and a target vehicle in front of said autonomous vehicle; • Receipt of information relating to said target vehicle, called target information, said target information characterizing a distance of said target vehicle relative to said ego-vehicle, called target distance, and an acceleration of said target vehicle, called target acceleration; • Receipt of information relating to said ego-vehicle, called ego-vehicle information, said ego-vehicle information characterizing a speed of said ego-vehicle, called ego-speed; • Determination of an inter-vehicular time calculated from said target information and said ego-vehicle information; • Determination of an alert signal from said target information and said ego-vehicle information, said alert signal being in an active state when said calculated inter-vehicular time is less than a predetermined percentage of said inter-vehicular time -predetermined vehicle instruction; said method being characterized in that • If said alert signal is in the active state and if said target acceleration is less than said calculated setpoint acceleration, then said method further comprises a step of substituting said calculated setpoint acceleration of said speed regulator. speed by said target acceleration. • Activation of said adaptive cruise control, said adaptive cruise control being based on a set acceleration calculated from a predetermined set inter-vehicular time, said inter-vehicular time defining a distance between said ego-vehicle and a target vehicle in front of said autonomous vehicle; • Receipt of information relating to said target vehicle, called target information, said target information characterizing a distance of said target vehicle relative to said ego-vehicle, called target distance, and an acceleration of said target vehicle, called target acceleration; • Receipt of information relating to said ego-vehicle, called ego-vehicle information, said ego-vehicle information characterizing a speed of said ego-vehicle, called ego-speed; • Determination of an inter-vehicular time calculated from said target information and said ego-vehicle information; • Determination of an alert signal from said target information and said ego-vehicle information, said alert signal being in an active state when said calculated inter-vehicular time is less than a predetermined percentage of said inter-vehicular time -predetermined vehicle instruction; said method being characterized in that • If said alert signal is in the active state and if said target acceleration is less than said calculated setpoint acceleration, then said method further comprises a step of substituting said calculated setpoint acceleration of said speed regulator. speed by said target acceleration.
A system for providing secure communications on an aircraft through an Internet Protocol, IP, communication link, the system comprising: a first communication unit , the first communication unit further comprising at least one processing unit that is configured to execute code that causes the first communication unit to: verify avionics messages with a firewall to filter received avionics messages as they are received by the first communication unit from a second communication unit ; remove IP information with an IP network stack; remove encapsulation data that encapsulates the avionics messages; check a digital signature appended to the avionics messages; perform an integrity check on the avionics messages; and when the avionics messages are verified through the digital signature and the integrity check, process the avionics messages; wherein removal of the encapsulation data and implementation of the firewall and IP network stack is in a first partition on the at least one processing unit and performance of the integrity check and verification of the digital signature is processed in a second partition on the at least one processing unit. a first communication unit , the first communication unit further comprising at least one processing unit that is configured to execute code that causes the first communication unit to: verify avionics messages with a firewall to filter received avionics messages as they are received by the first communication unit from a second communication unit ; remove IP information with an IP network stack; remove encapsulation data that encapsulates the avionics messages; check a digital signature appended to the avionics messages; perform an integrity check on the avionics messages; and when the avionics messages are verified through the digital signature and the integrity check, process the avionics messages; verify avionics messages with a firewall to filter received avionics messages as they are received by the first communication unit from a second communication unit ; remove IP information with an IP network stack; remove encapsulation data that encapsulates the avionics messages; check a digital signature appended to the avionics messages; perform an integrity check on the avionics messages; and when the avionics messages are verified through the digital signature and the integrity check, process the avionics messages; wherein removal of the encapsulation data and implementation of the firewall and IP network stack is in a first partition on the at least one processing unit and performance of the integrity check and verification of the digital signature is processed in a second partition on the at least one processing unit.
Mobile handheld device for measuring water parameters of water flowing from a water intake point, which mobile handheld device can be connected to a water outlet of the water intake point, having an inflow, through which the water from the water intake point can flow into the mobile handheld device after connection to the water outlet , having an outflow, through which the water can flow out of the mobile handheld device after flowing through the mobile handheld device , having a plurality of measuring devices for measuring the water parameters, wherein one of the measuring devices is a water meter which can be used to measure the amount of water which has flowed through the mobile handheld device since the beginning of a corresponding measurement, having a valve which can be used to block the flow of water through the outflow of the mobile handheld device and therefore also the flow through the mobile handheld device , having an electronic control unit which can be used to actuate the valve, wherein the control unit is designed in such a manner that it automatically closes the valve, with the result that no further water can flow out of the outflow of the mobile handheld device if measurements by the water meter reveal that an amount of water which has flowed through the handheld device since the beginning of the measurements corresponds to a predetermined condition, in particular has reached a predetermined limit value, wherein the mobile handheld device has a preferably sterile water guiding part, in particular a one-way water guiding part, through which water can flow from the water intake point into the mobile handheld device , wherein the water guiding part is releasably introduced, in particular plugged or screwed, into the inflow of the mobile handheld device .
An upper for an article of footwear , the upper comprising a first knitted component , wherein the first knitted component has a first edge extending from a first side of a throat area of the upper, through a heel area of the upper , and to a second side of the throat area , wherein at least a portion of the first edge includes a lattice structure , the lattice structure having a first lattice band and a second lattice band , the first lattice band and the second lattice band having loops that are intermeshed in at least one location wherein a plurality of first openings are located between the first lattice band and the second lattice band , characterised in that at least one of the lattice bands includes a yarn having a tenacity of at least 4.45 mN/dtex (5 g/D), and wherein the lattice structure extends from the throat area on a lateral side of the upper around the heel area and to the throat area on a medial side of the upper . a first knitted component , wherein the first knitted component has a first edge extending from a first side of a throat area of the upper, through a heel area of the upper , and to a second side of the throat area , wherein at least a portion of the first edge includes a lattice structure , the lattice structure having a first lattice band and a second lattice band , the first lattice band and the second lattice band having loops that are intermeshed in at least one location wherein a plurality of first openings are located between the first lattice band and the second lattice band , characterised in that at least one of the lattice bands includes a yarn having a tenacity of at least 4.45 mN/dtex (5 g/D), and wherein the lattice structure extends from the throat area on a lateral side of the upper around the heel area and to the throat area on a medial side of the upper .