mhurhangee/patent-ind-claim-en huggingface dataset:
A method for mixing phosgene with an organic polyamine comprising; establishing an axially directed phosgene flow through a conduit having an outer sidewall; injecting the organic polyamine into the conduit through multiple circumferentially aligned jets , each such jet having a hydrodynamic diameter D j and each having a location on a wall of the conduit , to establish multiple organic polyamine streams into the axially directed phosgene flow; wherein the conduit has a cross-sectional area A at the location of the one or more jets ; then passing the phosgene and the organic polyamine through a constricted region of the conduit that has a cross-sectional area less than A, wherein the constricted region has a smallest cross-sectional area that is 50 to 95% of cross-sectional area A and wherein the constricted region begins downstream of the multiple jets at a distance equal to 0.01 to 3 times the hydrodynamic diameter D j and extends downstream of the multiple jets to a distance that is no greater than 50 times the diameter hydrodynamic D j ; and thereafter passing the phosgene and the organic polyamine into a region having a cross-sectional area at least as large as cross-sectional area A, wherein the constricted region is produced by a circumferential projection located on an internal surface of the outer sidewall of the conduit perpendicular to the axially directed phosgene flow , and wherein the circumferential projection has a curved leading edge . injecting the organic polyamine into the conduit through multiple circumferentially aligned jets , each such jet having a hydrodynamic diameter D j and each having a location on a wall of the conduit , to establish multiple organic polyamine streams into the axially directed phosgene flow; wherein the conduit has a cross-sectional area A at the location of the one or more jets ; then passing the phosgene and the organic polyamine through a constricted region of the conduit that has a cross-sectional area less than A, wherein the constricted region has a smallest cross-sectional area that is 50 to 95% of cross-sectional area A and wherein the constricted region begins downstream of the multiple jets at a distance equal to 0.01 to 3 times the hydrodynamic diameter D j and extends downstream of the multiple jets to a distance that is no greater than 50 times the diameter hydrodynamic D j ; and thereafter passing the phosgene and the organic polyamine into a region having a cross-sectional area at least as large as cross-sectional area A, wherein the constricted region is produced by a circumferential projection located on an internal surface of the outer sidewall of the conduit perpendicular to the axially directed phosgene flow , and wherein the circumferential projection has a curved leading edge .
A glacial acrylic acid composition comprising at least 98 wt% acrylic acid, and wherein a portion of the remaining impurities in said glacial acrylic acid composition is propanoic acid; wherein said glacial acrylic acid composition has a bio-based content greater than 3%; and wherein the bio-based content is the amount of carbon from a renewable resource in a material as a percent of the weight (mass) of the total organic carbon in the material, as determined by ASTM D6866-10, Method B.
A method comprising, at a server device: maintaining a terminal session between the server device and a client device in which the client device emulates at least a portion of a display generated at the server device; receiving an indication of one or more input mechanisms of the client device and a functional category of each input mechanism, wherein the one or more input mechanisms are non-touch mechanical input mechanisms; generating a mapping by mapping touch events on the server device to actuation of respective input mechanisms based upon the functional category of each input mechanism; accessing the mapping between touch events on the server device and actuation of respective non-touch mechanical input mechanisms of the client device; interpreting one or more control signals provided responsive to actuation of a non-touch mechanical input mechanism based upon the mapping; and causing a user interface state of the server device to be updated based on the actuation of the input mechanism of the client device and the mapping. maintaining a terminal session between the server device and a client device in which the client device emulates at least a portion of a display generated at the server device; receiving an indication of one or more input mechanisms of the client device and a functional category of each input mechanism, wherein the one or more input mechanisms are non-touch mechanical input mechanisms; generating a mapping by mapping touch events on the server device to actuation of respective input mechanisms based upon the functional category of each input mechanism; accessing the mapping between touch events on the server device and actuation of respective non-touch mechanical input mechanisms of the client device; interpreting one or more control signals provided responsive to actuation of a non-touch mechanical input mechanism based upon the mapping; and causing a user interface state of the server device to be updated based on the actuation of the input mechanism of the client device and the mapping.
A method, performed by a communication device , for supporting identification of one or more neighboring network nodes (110a-b) comprised in a wireless communication network , the communication device being associated with a communicative connection to a first network node , wherein the method comprises: - obtaining (206; 301), from the first network node , a first identifier identifying the first network node , wherein the first identifier is obtained along with an associative information about a time period during which the first identifier validly identifies the first network node , and - transmitting (208; 302) the obtained first identifier in an uplink so that the first identifier is receivable by one or more other, second network nodes , whereby receipt of the first identifier by a second network node enables identification of the first radio network node as neighboring said second radio network node . - obtaining (206; 301), from the first network node , a first identifier identifying the first network node , wherein the first identifier is obtained along with an associative information about a time period during which the first identifier validly identifies the first network node , and - transmitting (208; 302) the obtained first identifier in an uplink so that the first identifier is receivable by one or more other, second network nodes , whereby receipt of the first identifier by a second network node enables identification of the first radio network node as neighboring said second radio network node .
A process for producing dry, water-dispersible, non-surface modified nanocellulose particles or a powderous composition comprising said particles comprising the steps of: i. providing a first suspension of non-surface modified cellulose particles in an first aqueous liquid, which aqueous liquid is non-solubilising for the non-surface modified nanocellulose particles, ii. exchanging substantially all of the first aqueous liquid of the first suspension for a second solvent, which is miscible with the first aqueous liquid and non-solubilising for the non-surface modified nanocellulose particles, to form a second suspension of non-surface modified nanocellulose particles in said second solvent, iii. contacting a flow of the second suspension of non-surface modified nanocellulose particles with a flow of a fluid in a supercritical or critical state, which fluid in a supercritical or critical state is miscible with the second solvent and non-solvating for the non-surface modified nanocellulose particles under conditions suitable for the transfer of substantially all of the second solvent into the supercritical fluid, iv. removing the second solvent and the fluid in a supercritical or critical state, preferably by controlling pressure and/or temperature, to form the dry, water-dispersible nanocellulose particles, v. collecting the dry, water-dispersible, non-surface modified nanocellulose particles and/or forming a powderous composition comprising said particles, wherein the dry, water-dispersible, non-surface modified nanocellulose particles comprise less than 5 wt% of liquid. i. providing a first suspension of non-surface modified cellulose particles in an first aqueous liquid, which aqueous liquid is non-solubilising for the non-surface modified nanocellulose particles, ii. exchanging substantially all of the first aqueous liquid of the first suspension for a second solvent, which is miscible with the first aqueous liquid and non-solubilising for the non-surface modified nanocellulose particles, to form a second suspension of non-surface modified nanocellulose particles in said second solvent, iii. contacting a flow of the second suspension of non-surface modified nanocellulose particles with a flow of a fluid in a supercritical or critical state, which fluid in a supercritical or critical state is miscible with the second solvent and non-solvating for the non-surface modified nanocellulose particles under conditions suitable for the transfer of substantially all of the second solvent into the supercritical fluid, iv. removing the second solvent and the fluid in a supercritical or critical state, preferably by controlling pressure and/or temperature, to form the dry, water-dispersible nanocellulose particles, v. collecting the dry, water-dispersible, non-surface modified nanocellulose particles and/or forming a powderous composition comprising said particles, wherein the dry, water-dispersible, non-surface modified nanocellulose particles comprise less than 5 wt% of liquid.
A method for monitoring the progression or regression of cancer in a subject comprising: a) preparing a first nucleic acid and/or protein profile of one or more markers of cancer by detecting the one or more markers from a population of the subject's >2n phagocytic cells at a first time point; preparing a second nucleic acid and/or protein profile of at least one of the one or more markers by detecting at least one of the one or more markers from a population of the subject's =2n phagocytic cells at the first time point; identifying a first difference between the first and second profiles of at least one or more of said markers; b) preparing a third nucleic acid and/or protein profile of the one or more markers by detecting the one or more markers from a population of the subject's >2n phagocytic cells at a second time point; preparing a fourth nucleic acid and/or protein profile of at least one of the one or more markers by detecting at least one of the one or more markers from a population of the subject's =2n phagocytic cells at the second time point; identifying a second difference between the third and fourth profiles of at least one or more of said markers; and c) identifying a difference between the first difference and the second difference, wherein the identified difference is indicative of the progression or regression of said cancer in the subject. a) preparing a first nucleic acid and/or protein profile of one or more markers of cancer by detecting the one or more markers from a population of the subject's >2n phagocytic cells at a first time point; preparing a second nucleic acid and/or protein profile of at least one of the one or more markers by detecting at least one of the one or more markers from a population of the subject's =2n phagocytic cells at the first time point; identifying a first difference between the first and second profiles of at least one or more of said markers; b) preparing a third nucleic acid and/or protein profile of the one or more markers by detecting the one or more markers from a population of the subject's >2n phagocytic cells at a second time point; preparing a fourth nucleic acid and/or protein profile of at least one of the one or more markers by detecting at least one of the one or more markers from a population of the subject's =2n phagocytic cells at the second time point; identifying a second difference between the third and fourth profiles of at least one or more of said markers; and c) identifying a difference between the first difference and the second difference, wherein the identified difference is indicative of the progression or regression of said cancer in the subject.
Use of a mix of biomass and Deinococcus bacteria, said biomass being at least partially digested by said Deinococcus bacteria, as protein supply for feedstuff.
A moving ball-in-a-maze puzzle game (100; 200; 250), characterised by including at least two concentric moving maze rings (116,118, 120; 201, 202; 252, 254, 256), each maze ring including a respective maze, said maze rings being coupled with a power source, said power source moving said maze rings relative to one another over a platform (122, 124, 126, 128; 216; 266), defining dynamic paths therebetween enabling to maneuver a ball on said platform from a start position to an end position through said mazes, while passing between the respective moving maze rings.
A method of processing a metal strip in a plurality of sequentially arranged processing lines the method comprising: applying a first position specification mark (K) to the metal strip in a first processing line selected from said plurality of processing lines; applying a plurality of reference marks (S) arranged with a predetermined regularity along a longitudinal direction to the metal strip in the first processing line or in a processing line upstream of the first processing line; cutting a portion of the metal strip, to which the first position specification mark (K) has been applied, in a second processing line downstream of the first processing line; after the cutting, applying a second position specification mark (K2) to the metal strip at the same longitudinal position as a longitudinal position of the first position specification mark (K) in the second processing line; and before applying the second position specification mark (K2), detecting at least one of the plurality of reference marks (S) and calibrating tracking information for applying the second position specification mark (K2) based on position information of the detected reference mark (S) in the second processing line. applying a first position specification mark (K) to the metal strip in a first processing line selected from said plurality of processing lines; applying a plurality of reference marks (S) arranged with a predetermined regularity along a longitudinal direction to the metal strip in the first processing line or in a processing line upstream of the first processing line; cutting a portion of the metal strip, to which the first position specification mark (K) has been applied, in a second processing line downstream of the first processing line; after the cutting, applying a second position specification mark (K2) to the metal strip at the same longitudinal position as a longitudinal position of the first position specification mark (K) in the second processing line; and before applying the second position specification mark (K2), detecting at least one of the plurality of reference marks (S) and calibrating tracking information for applying the second position specification mark (K2) based on position information of the detected reference mark (S) in the second processing line.
A pulmonary medication dosing device configured to divide a prescribed full medication dose into a plurality of sub-doses, the device comprising: a dosing chamber configured to retain the full dose of medication released by a metering valve of a medication canister coupled to the device upon the medication canister being depressed a single time; a valve coupled to the dosing chamber and configured to control release of at least a portion of the full dose ; a sensor configured to generate a signal indicative of an air flow within a portion of the device, the air flow caused by an inhalation; and a processor configured to: receive a command based on the signal indicative of the air flow and associated with the valve; and control, based on the received command, the valve to open when a parameter value indicative of the air flow is above a threshold and control the valve to close when the parameter value is below the threshold, wherein when the valve is closed due to low air flow prior to completion of the prescribed full medication dose, the pulmonary medication dosing device controls the valve to open again, deliver remaining medication, and continue with this process until the full dose has been delivered to patient. a dosing chamber configured to retain the full dose of medication released by a metering valve of a medication canister coupled to the device upon the medication canister being depressed a single time; a valve coupled to the dosing chamber and configured to control release of at least a portion of the full dose ; a sensor configured to generate a signal indicative of an air flow within a portion of the device, the air flow caused by an inhalation; and a processor configured to: receive a command based on the signal indicative of the air flow and associated with the valve; and control, based on the received command, the valve to open when a parameter value indicative of the air flow is above a threshold and control the valve to close when the parameter value is below the threshold, wherein when the valve is closed due to low air flow prior to completion of the prescribed full medication dose, the pulmonary medication dosing device controls the valve to open again, deliver remaining medication, and continue with this process until the full dose has been delivered to patient. receive a command based on the signal indicative of the air flow and associated with the valve; and control, based on the received command, the valve to open when a parameter value indicative of the air flow is above a threshold and control the valve to close when the parameter value is below the threshold, wherein when the valve is closed due to low air flow prior to completion of the prescribed full medication dose, the pulmonary medication dosing device controls the valve to open again, deliver remaining medication, and continue with this process until the full dose has been delivered to patient.
A lithium ion secondary battery comprising a positive electrode, a negative electrode, an electrolyte solution, and a separator disposed between the positive electrode and the negative electrode, wherein the positive electrode has a charge capacity per unit area of 3 mAh/cm 2 or more, the negative electrode comprises a metal and/or a metal oxide and a carbon as negative electrode active materials, the acceptable amount of lithium in the carbon in the negative electrode is less than the releasable amount of lithium from the positive electrode, and the separator is a microporous membrane having a pore size of 0.5 μm or less, and formed of one or more materials selected from polyimide resins, polyamide resins and polyphenylene sulfide resins. the positive electrode has a charge capacity per unit area of 3 mAh/cm 2 or more, the negative electrode comprises a metal and/or a metal oxide and a carbon as negative electrode active materials, the acceptable amount of lithium in the carbon in the negative electrode is less than the releasable amount of lithium from the positive electrode, and the separator is a microporous membrane having a pore size of 0.5 μm or less, and formed of one or more materials selected from polyimide resins, polyamide resins and polyphenylene sulfide resins.
A base station comprising: processor circuitry configured to: precode, in the frequency domain, a plurality of physical channel signals according to predetermined codes using a code length; multiplex the precoded plurality of physical channel signals; map the multiplexed precoded plurality of physical channel signals to subcarriers in the frequency band; and generate a time domain waveform based on the mapped signals; and a transmitter to transmit the time domain waveform to a user equipment, UE, wherein the code length is selected based on a length of the multiplexed precoded plurality of physical channel signals. processor circuitry configured to: precode, in the frequency domain, a plurality of physical channel signals according to predetermined codes using a code length; multiplex the precoded plurality of physical channel signals; map the multiplexed precoded plurality of physical channel signals to subcarriers in the frequency band; and generate a time domain waveform based on the mapped signals; and precode, in the frequency domain, a plurality of physical channel signals according to predetermined codes using a code length; multiplex the precoded plurality of physical channel signals; map the multiplexed precoded plurality of physical channel signals to subcarriers in the frequency band; and generate a time domain waveform based on the mapped signals; and a transmitter to transmit the time domain waveform to a user equipment, UE, wherein the code length is selected based on a length of the multiplexed precoded plurality of physical channel signals.
An outdoor laminate floor, comprising a substrate , prepared via PVC foaming, and a covering film ; wherein the covering film is wear-resistant and anti-aging, and is adhered to a surface of the substrate , the covering film overlays the surface of the substrate after being adhered by hot glue; and wherein the covering film is a modified weather-resistant polymeric film, the substrate is rectangular, a protrusion extends from a first end of the substrate, the protrusion is configured to be engaged with a groove , wherein the groove is arranged at a second end of the substrate; characterized in that the covering film comprises a full-covering film and a half-covering film, wherein the full-covering film overlays the substrate , and the half-covering film overlays two end surfaces of the substrate , and in that texture patterns are printed inside the covering film wherein the texture pattern is wood-texture pattern. a substrate , prepared via PVC foaming, and a covering film ; wherein the covering film is wear-resistant and anti-aging, and is adhered to a surface of the substrate , the covering film overlays the surface of the substrate after being adhered by hot glue; and wherein the covering film is a modified weather-resistant polymeric film, the substrate is rectangular, a protrusion extends from a first end of the substrate, the protrusion is configured to be engaged with a groove , wherein the groove is arranged at a second end of the substrate; characterized in that the covering film comprises a full-covering film and a half-covering film, wherein the full-covering film overlays the substrate , and the half-covering film overlays two end surfaces of the substrate , and in that texture patterns are printed inside the covering film wherein the texture pattern is wood-texture pattern.