mhurhangee/patent-ind-claim-en huggingface dataset:
A system implemented by a computer for enabling tracking of software, the system comprising: one or more hardware processors configured by machine-readable instructions to: receive marking input code corresponding to a computer program; identify locations of the marking input code that can be modified in ways that preserve functionality of the computer program; select at least one code transformation to apply to the marking input code, each of the at least one code transformation having a specific intrinsic constant; derive derived constants from the specific intrinsic constants; inject the at least one code transformation, including the corresponding derived constant into the marking input code; save the results of the above steps on computer readable media as marked code; and save metadata including a list of the derived constants on computer readable media in a file that is separate from the marked code, wherein the list of derived constants can be used for scanning other computer program code to determine if the other computer program code was derived from the marked code. receive marking input code corresponding to a computer program; identify locations of the marking input code that can be modified in ways that preserve functionality of the computer program; select at least one code transformation to apply to the marking input code, each of the at least one code transformation having a specific intrinsic constant; derive derived constants from the specific intrinsic constants; inject the at least one code transformation, including the corresponding derived constant into the marking input code; save the results of the above steps on computer readable media as marked code; and save metadata including a list of the derived constants on computer readable media in a file that is separate from the marked code, wherein the list of derived constants can be used for scanning other computer program code to determine if the other computer program code was derived from the marked code.
A distributed data store system, comprising a client and a plurality of computational devices arranged in a hierarchy, the hierarchy including a parent computational device and a plurality of child computational devices, wherein read processes from and write processes to said computational devices are non-blocking, wherein a reference version for the data for said read processes and said write processes is determined upon a request from the client , such that said reference version is read in a read process or written in a write process at a time of said request, characterized in that - the parent computational device has a parent's clock determining a parent-clock value, - said plurality of child computational devices form a plurality of groups , each group having a group clock realized by rounds of clock token-messages sent between the child computational devices of the group in a circle, wherein the group clock advances independently from the parent's clock, and wherein a group clock value is determined on the basis of the clock token message last received in the group , and - the system comprises associations of clock values, wherein in each association a group clock value is associated with one parent-clock value, wherein each of said associations is established by means of a value query message sent from the respective group of the child computational devices to the parent computational device, and wherein - said reference version is determined based on an ordering established from said associations. - the parent computational device has a parent's clock determining a parent-clock value, - said plurality of child computational devices form a plurality of groups , each group having a group clock realized by rounds of clock token-messages sent between the child computational devices of the group in a circle, wherein the group clock advances independently from the parent's clock, and wherein a group clock value is determined on the basis of the clock token message last received in the group , and - the system comprises associations of clock values, wherein in each association a group clock value is associated with one parent-clock value, wherein each of said associations is established by means of a value query message sent from the respective group of the child computational devices to the parent computational device, and wherein - said reference version is determined based on an ordering established from said associations.
An electrode comprising a mixed niobium oxide as an active electrode material, wherein the electrode is of the form of an electrode composition in electrical contact with a current collector, where the electrode composition comprises the mixed niobium oxide, wherein the mixed niobium oxide has the formula M I x-u M y (x/(5-y)) M V z Nb 100-(x/(5-y))-z O 250-u/2 , wherein: M I is a cation having an oxidation state of 1, wherein M I is selected from Li, Na, K, and mixtures thereof; M y is a cation having an average oxidation state of y, wherein M y is selected from Li, Na, K, Cu, Zn, Mg, Ca, Ni, Fe, Mn, Co, Cr, V, Al, B, Ga, Sc, Y, In, La, Yb, Ce, Zr, Ti, Sn, Ge, Si, P, Ta, W, Mo, and mixtures thereof; M V is a cation having an average oxidation state of 5, wherein M V is selected from Mn, Fe, Al, Ga, Y, In, La, Yb, Cu, Zn, Mg, Ni, Co, Ca, Ce, Zr, Ti, Sn, Ge, Si, V, P, Ta, W, Mo, Cr, and mixtures thereof; 1 ≤ y ≤ 4 ; 0.5 ≤ x ≤ 6 ; 0 ≤ z ≤ 10 ; 0 ≤ u ≤ 5 ; x > u . M I is a cation having an oxidation state of 1, wherein M I is selected from Li, Na, K, and mixtures thereof; M y is a cation having an average oxidation state of y, wherein M y is selected from Li, Na, K, Cu, Zn, Mg, Ca, Ni, Fe, Mn, Co, Cr, V, Al, B, Ga, Sc, Y, In, La, Yb, Ce, Zr, Ti, Sn, Ge, Si, P, Ta, W, Mo, and mixtures thereof; M V is a cation having an average oxidation state of 5, wherein M V is selected from Mn, Fe, Al, Ga, Y, In, La, Yb, Cu, Zn, Mg, Ni, Co, Ca, Ce, Zr, Ti, Sn, Ge, Si, V, P, Ta, W, Mo, Cr, and mixtures thereof; 1 ≤ y ≤ 4 ; 0.5 ≤ x ≤ 6 ; 0 ≤ z ≤ 10 ; 0 ≤ u ≤ 5 ; x > u .
Angular sensor, comprising a number of transmitting antennae , a plurality of receiving antennae , an evaluation device , a reflector element , - wherein the angular sensor has a base body and a rotating element , - wherein the rotating element is mounted in the base body such that the rotating element can be rotated about an axis of rotation , - wherein the number of transmitting antennae that each emit a first transmission signal (S1) is arranged on the base body , - wherein the plurality of receiving antennae is arranged on the base body that each receive a first receiving signal (E1) and each supply their first receiving signal (E1) to the evaluation device , and - wherein the evaluation device determines the position of rotation ( α ) of the rotating element by evaluating only the first receiving signals (E1) supplied thereto or by evaluating the first receiving signals supplied thereto and first base signals (B1) determined on the basis of the first transmission signals (S1), wherein - the reflector element that extends only over part of the periphery, as observed tangentially in relation to the axis of rotation , and which reflects each respective first transmission signal (S1) emitted by each respective transmitting antenna is arranged on the rotating element at a radial reflector distance (r0) from the axis of rotation , and - the receiving antennae are configured so as to receive the signal reflected by the reflector element as a respective first receiving signal (E1). - wherein the angular sensor has a base body and a rotating element , - wherein the rotating element is mounted in the base body such that the rotating element can be rotated about an axis of rotation , - wherein the number of transmitting antennae that each emit a first transmission signal (S1) is arranged on the base body , - wherein the plurality of receiving antennae is arranged on the base body that each receive a first receiving signal (E1) and each supply their first receiving signal (E1) to the evaluation device , and - wherein the evaluation device determines the position of rotation ( α ) of the rotating element by evaluating only the first receiving signals (E1) supplied thereto or by evaluating the first receiving signals supplied thereto and first base signals (B1) determined on the basis of the first transmission signals (S1), wherein - the reflector element that extends only over part of the periphery, as observed tangentially in relation to the axis of rotation , and which reflects each respective first transmission signal (S1) emitted by each respective transmitting antenna is arranged on the rotating element at a radial reflector distance (r0) from the axis of rotation , and - the receiving antennae are configured so as to receive the signal reflected by the reflector element as a respective first receiving signal (E1).
A method for starting a gaseous fuel internal combustion engine having a plurality of gas admission valves respectively associated with a plurality of cylinders (26A-26D), the method comprising: rotating the engine until a first speed threshold is reached; starting a supply of pilot fuel to the plurality of cylinders (26A-26D) after reaching the first threshold to initiate combustion of the pilot fuel and intake air; receiving pressure signals indicating a cylinder pressure in the plurality of cylinders (26A-26B); determining whether an ignition device associated with each cylinder is functional based on the received cylinder pressure signals; determining whether the gas admission valves associated with the respective cylinders are functional based on the received cylinder pressure signals; operating the engine by supplying gaseous fuel to a first number of cylinders (26A-26B) via the associated gas admission valves until a second speed threshold above the first speed threshold is reached; and operating the engine by supplying gaseous fuel to a second number of cylinders (26A-26B) via the associated gas admission valves after reaching the second speed threshold, the second number of cylinders (26A-26B) being less than the first number of cylinders (26A-26B). rotating the engine until a first speed threshold is reached; starting a supply of pilot fuel to the plurality of cylinders (26A-26D) after reaching the first threshold to initiate combustion of the pilot fuel and intake air; receiving pressure signals indicating a cylinder pressure in the plurality of cylinders (26A-26B); determining whether an ignition device associated with each cylinder is functional based on the received cylinder pressure signals; determining whether the gas admission valves associated with the respective cylinders are functional based on the received cylinder pressure signals; operating the engine by supplying gaseous fuel to a first number of cylinders (26A-26B) via the associated gas admission valves until a second speed threshold above the first speed threshold is reached; and operating the engine by supplying gaseous fuel to a second number of cylinders (26A-26B) via the associated gas admission valves after reaching the second speed threshold, the second number of cylinders (26A-26B) being less than the first number of cylinders (26A-26B).
A method for manufacturing a composite electrode intended for use in a metal-air electrochemical cell with a liquid electrolyte of basic pH, the method comprising: - obtaining an air electrode porous structure comprising an outer surface , the porous structure being configured to facilitate an oxygen reduction reaction into hydroxyl ions in the presence of an electric current; - synthesizing a first liquid solution comprising a fluoropolymer suspended in a solvent , the fluoropolymer being capable of forming a membrane impermeable to at least the liquid electrolyte of basic pH, the fluoropolymer comprising SO 2 N groups capable of conducting hydroxyl ions; - applying the first liquid solution at least once onto the outer surface of the porous structure, the solvent flowing through the porous structure and the fluoropolymer being deposited by aggregating into a layer on the outer surface of the porous structure, thereby forming said membrane impermeable to at least the liquid electrolyte of basic pH and conductive to hydroxyl ions. - obtaining an air electrode porous structure comprising an outer surface , the porous structure being configured to facilitate an oxygen reduction reaction into hydroxyl ions in the presence of an electric current; - synthesizing a first liquid solution comprising a fluoropolymer suspended in a solvent , the fluoropolymer being capable of forming a membrane impermeable to at least the liquid electrolyte of basic pH, the fluoropolymer comprising SO 2 N groups capable of conducting hydroxyl ions; - applying the first liquid solution at least once onto the outer surface of the porous structure, the solvent flowing through the porous structure and the fluoropolymer being deposited by aggregating into a layer on the outer surface of the porous structure, thereby forming said membrane impermeable to at least the liquid electrolyte of basic pH and conductive to hydroxyl ions.
A process for manufacturing a film or coating , the process comprising generating a plume or aerosol by providing a fluid stock to a first inlet of a first conduit of an electrospray nozzle, the fluid stock comprising a liquid and an inclusion comprising graphene, graphene oxide, or reduced graphene oxide; the plume or aerosol being generated by providing a voltage to the nozzle and electrospraying the fluid stock in the presence of a high velocity gas , wherein the high velocity gas is provided by providing a pressurized gas to a second inlet of a second conduit of the electrospray nozzle thereby providing the high velocity gas with a velocity of 1 m/s or more at a second outlet of the second conduit; the high velocity gas and the plume or aerosol having a directional mean within 15 degrees of one another; and the film or coating having a thickness of 50 nm to 1 mm. the fluid stock comprising a liquid and an inclusion comprising graphene, graphene oxide, or reduced graphene oxide; the plume or aerosol being generated by providing a voltage to the nozzle and electrospraying the fluid stock in the presence of a high velocity gas , wherein the high velocity gas is provided by providing a pressurized gas to a second inlet of a second conduit of the electrospray nozzle thereby providing the high velocity gas with a velocity of 1 m/s or more at a second outlet of the second conduit; the high velocity gas and the plume or aerosol having a directional mean within 15 degrees of one another; and the film or coating having a thickness of 50 nm to 1 mm.
A dialysis machine comprising: a dialyzer ; a fluid source ; a first line connected to the fluid source; a container containing bicarbonate, the container connected to the first line, wherein the fluid flows from the fluid source, through the first line, to the container; a second line connected to the container; a flow rate sensor connected to at least one of the lines; a pressure sensor configured for detecting fluid pressure of the container; a display ; and a data processing apparatus configured to receive signals from the flow rate sensor and the pressure sensor, the data processing apparatus configured for: based on the received signals, calculating a size of the container; based on the received signals and the calculated size of the container, calculating a concentration of a solution of bicarbonate and fluid flowing through the second line to the dialyzer; based on the calculated concentration, calculating an estimated time at which the bicarbonate will be depleted; and causing the display to present a visual representation of the estimated time at which the bicarbonate will be depleted. a dialyzer ; a fluid source ; a first line connected to the fluid source; a container containing bicarbonate, the container connected to the first line, wherein the fluid flows from the fluid source, through the first line, to the container; a second line connected to the container; a flow rate sensor connected to at least one of the lines; a pressure sensor configured for detecting fluid pressure of the container; a display ; and a data processing apparatus configured to receive signals from the flow rate sensor and the pressure sensor, the data processing apparatus configured for: based on the received signals, calculating a size of the container; based on the received signals and the calculated size of the container, calculating a concentration of a solution of bicarbonate and fluid flowing through the second line to the dialyzer; based on the calculated concentration, calculating an estimated time at which the bicarbonate will be depleted; and causing the display to present a visual representation of the estimated time at which the bicarbonate will be depleted. based on the received signals, calculating a size of the container; based on the received signals and the calculated size of the container, calculating a concentration of a solution of bicarbonate and fluid flowing through the second line to the dialyzer; based on the calculated concentration, calculating an estimated time at which the bicarbonate will be depleted; and causing the display to present a visual representation of the estimated time at which the bicarbonate will be depleted.
A system comprising, a pyrene luminescent chromophore that emits energy having a first wavelength when excited with electromagnetic radiation having a second wavelength, and a silicon nanocrystal that absorbs energy of said first wavelength, and wherein the luminescent chromophore and the silicon nanocrystal are covalently linked.
A blister packaging comprising - a thermoformed web with cavities for a product formed therein, comprising at least two co-extruded layers: a main layer comprising HDPE and a first additive, the first additive being present in an amount of up to 2%, and a sealing layer comprising HDPE and - a flat lid , wherein the thermoformed web and the flat lid are heat-sealed together, characterised in that - the sealing layer of the web also comprises LLDPE, with LLDPE being present in an amount of at most 50%, and in that - the lid comprises at least three co-extruded layers: an outer HOPE layer containing a second additive, the second additive being present in an amount of up to 5%, an intermediate HDPE layer comprising a third additive suitable to decrease elongation at break, and an inner sealing layer . - a thermoformed web with cavities for a product formed therein, comprising at least two co-extruded layers: a main layer comprising HDPE and a first additive, the first additive being present in an amount of up to 2%, and a sealing layer comprising HDPE and - a flat lid , - the sealing layer of the web also comprises LLDPE, with LLDPE being present in an amount of at most 50%, and in that - the lid comprises at least three co-extruded layers: an outer HOPE layer containing a second additive, the second additive being present in an amount of up to 5%, an intermediate HDPE layer comprising a third additive suitable to decrease elongation at break, and an inner sealing layer .
A method for a system comprising at least one receiving computing system and a transmitting computing system , for using an audio signal emitted from a speaker of the transmitting computing system to grant at least one user (R1, R2, R3) of the at least one receiving computing system access to a resource, the method comprising: determining, by the transmitting computing system, that access to a resource is to be granted to others; formulating, by the transmitting computing system, a representation of an audio signal that corresponds to access to the resource; and emitting, by the transmitting computing system, the audio signal from the speaker of the transmitting computing system, the audio signal being structured so as to be interpretable by an executable component at the at least one receiving computing system as input to generate access data for accessing the resource; characterized in that : the executable component uses a matching function to match the received digitized audio signal against digital audio signals stored in an access data store , identifies which audio signal was transmitted, determines the access data corresponding to that audio signal and populates a message with the access data, said message being transmitted to a resource server by the at least one receiving computing system for the at least one computing system to access the resource. determining, by the transmitting computing system, that access to a resource is to be granted to others; formulating, by the transmitting computing system, a representation of an audio signal that corresponds to access to the resource; and emitting, by the transmitting computing system, the audio signal from the speaker of the transmitting computing system, the audio signal being structured so as to be interpretable by an executable component at the at least one receiving computing system as input to generate access data for accessing the resource; characterized in that : the executable component uses a matching function to match the received digitized audio signal against digital audio signals stored in an access data store , identifies which audio signal was transmitted, determines the access data corresponding to that audio signal and populates a message with the access data, said message being transmitted to a resource server by the at least one receiving computing system for the at least one computing system to access the resource.
Pentyl 6-(furan-2-yl)-3-methyl-4-oxo-1, 5, 6, 7-tetrahydroindole-2-carboxylate for use in the treatment of multiple myeloma or myelofibrosis in a subject in need thereof.