mhurhangee/patent-ind-claim-en huggingface dataset:
Method for managing regulation of a regulating device , the regulating device having a first mode (AUTO) and a second mode (MANUAL), said first and second modes being selectable alternatives, the regulating device further comprising a stipulated setpoint and an internal temporal program, the regulating device being able to be associated, in a communication network , with a master device comprising an external temporal program, the method being executed by the regulating device and being characterized in that it comprises steps of: - - executing the internal temporal program when the first mode (AUTO) is selected and when a variable v of the regulating device is equal to a first predefined value , - - executing the external temporal program when the first mode (AUTO) is selected and when said variable v is equal to a second predefined value , - - executing the stipulated setpoint when the second mode (MANUAL) is selected , and in that that the method further comprises: - initializing the variable v to the first predefined value, - assigning to the variable v the second predefined value when an association with a master device is detected , - assigning to the variable v the first predefined value if a disassociation from the master device is detected . - - executing the internal temporal program when the first mode (AUTO) is selected and when a variable v of the regulating device is equal to a first predefined value , - - executing the external temporal program when the first mode (AUTO) is selected and when said variable v is equal to a second predefined value , - - executing the stipulated setpoint when the second mode (MANUAL) is selected , - initializing the variable v to the first predefined value, - assigning to the variable v the second predefined value when an association with a master device is detected , - assigning to the variable v the first predefined value if a disassociation from the master device is detected .
A method for detecting particles in a fluid flow, said method comprising the steps of: providing said fluid flow having said particles; exposing said fluid flow to a beam of electromagnetic radiation from a laser, thereby generating scattered or emitted electromagnetic radiation; collecting and directing said scattered or emitted electromagnetic radiation from a viewing region onto a plurality of detector elements; wherein each detector element is positioned to receive said scattered or emitted electromagnetic radiation from a different portion of said viewing region; detecting said electromagnetic radiation directed onto said plurality of detector elements, wherein each of said detector elements generates independent output signals; and comparing output signals from at least two different detector elements to discriminate output signals corresponding to a particle detection event from output signals corresponding to a laser noise event; characterised in that the method comprises the steps of: analyzing output signals corresponding to said detection event, and identifying said laser noise event, wherein said laser noise event is identified when the output signals of each of at least two non-adjacent detector elements is independently equal to or greater than a threshold value; thereby detecting said particles in said fluid flow. providing said fluid flow having said particles; exposing said fluid flow to a beam of electromagnetic radiation from a laser, thereby generating scattered or emitted electromagnetic radiation; collecting and directing said scattered or emitted electromagnetic radiation from a viewing region onto a plurality of detector elements; wherein each detector element is positioned to receive said scattered or emitted electromagnetic radiation from a different portion of said viewing region; detecting said electromagnetic radiation directed onto said plurality of detector elements, wherein each of said detector elements generates independent output signals; and comparing output signals from at least two different detector elements to discriminate output signals corresponding to a particle detection event from output signals corresponding to a laser noise event; characterised in that the method comprises the steps of: analyzing output signals corresponding to said detection event, and identifying said laser noise event, wherein said laser noise event is identified when the output signals of each of at least two non-adjacent detector elements is independently equal to or greater than a threshold value; thereby detecting said particles in said fluid flow. analyzing output signals corresponding to said detection event, and identifying said laser noise event, wherein said laser noise event is identified when the output signals of each of at least two non-adjacent detector elements is independently equal to or greater than a threshold value; thereby detecting said particles in said fluid flow.
A kit for delivering two modified mRNA constructs in vivo so as to cause intracellular translation of the mRNA constructs into heavy and light chains of an immunoglobulin protein, the kit comprising a first isolated nucleic acid which is translatable mRNA which i) encodes either an immunoglobulin heavy chain or an immunoglobulin light chain and ii) comprises a modified nucleoside, wherein the first nucleic acid is capable of evading an innate immune response of a cell into which the first isolated nucleic acid is introduced, wherein the translatable mRNA is devoid of either cytidine or uracil nucleotides.
A gas turbine engine with an inlet frame , the gas turbine engine defining an axial direction (A), a radial direction (R), and a circumferential direction (C), the gas turbine engine comprising a compressor defining a compressor inlet and being rotatable about the axial direction (A) for pressurizing an airflow , the inlet frame comprising: a forward annular body ; a rear annular body spaced apart from the forward annular body to define a radial inlet and an inlet passageway in fluid communication with the compressor inlet ; an annular inlet heating plenum defined at a radially outer portion of the forward annular body ; and a fluid supply conduit defining a hot fluid passageway, the hot fluid passageway providing fluid communication between the inlet heating plenum , and a hot air source for providing a flow of heated fluid to the inlet heating plenum , wherein the inlet heating plenum is defined proximate an inlet screen of the gas turbine engine , wherein the inlet screen comprises: a forward inlet screen that extends from the inlet heating plenum outward along the radial direction (R), the forward inlet screen comprising a plurality of tubes in fluid communication with the inlet heating plenum for receiving the flow of heated fluid. a forward annular body ; a rear annular body spaced apart from the forward annular body to define a radial inlet and an inlet passageway in fluid communication with the compressor inlet ; an annular inlet heating plenum defined at a radially outer portion of the forward annular body ; and a fluid supply conduit defining a hot fluid passageway, the hot fluid passageway providing fluid communication between the inlet heating plenum , and a hot air source for providing a flow of heated fluid to the inlet heating plenum , wherein the inlet heating plenum is defined proximate an inlet screen of the gas turbine engine , wherein the inlet screen comprises: a forward inlet screen that extends from the inlet heating plenum outward along the radial direction (R), the forward inlet screen comprising a plurality of tubes in fluid communication with the inlet heating plenum for receiving the flow of heated fluid.
An object detection apparatus , comprising: a housing connectable to a surface, said housing comprising: one or more laser scanning sensors configured to simultaneously detect a combined predetermined scanning space of 360 degrees to detect an object located within said predetermined scanning space; a sensor extraction mechanism , which exposes the one or more laser scanning sensors to an environment surrounding outside of the housing to a pre-determined distance to enable scanning of said environment by the one or more laser scanning sensors ; a detection processor configured to: receive a command to activate the one or more laser scanning sensors to scan the predetermined scanning space; activate the sensor extraction mechanism to expose the one or more laser scanning sensors for performing the scan; activate the one or more laser scanning sensors to scan the predetermined scanning space; receive scan data from the one or more laser scanning sensors ; analyze the scan data to determine a hazardous object has been detected; and generate a notification that a hazardous object was detected within scanned area. one or more laser scanning sensors configured to simultaneously detect a combined predetermined scanning space of 360 degrees to detect an object located within said predetermined scanning space; a sensor extraction mechanism , which exposes the one or more laser scanning sensors to an environment surrounding outside of the housing to a pre-determined distance to enable scanning of said environment by the one or more laser scanning sensors ; a detection processor configured to: receive a command to activate the one or more laser scanning sensors to scan the predetermined scanning space; activate the sensor extraction mechanism to expose the one or more laser scanning sensors for performing the scan; activate the one or more laser scanning sensors to scan the predetermined scanning space; receive scan data from the one or more laser scanning sensors ; analyze the scan data to determine a hazardous object has been detected; and generate a notification that a hazardous object was detected within scanned area. receive a command to activate the one or more laser scanning sensors to scan the predetermined scanning space; activate the sensor extraction mechanism to expose the one or more laser scanning sensors for performing the scan; activate the one or more laser scanning sensors to scan the predetermined scanning space; receive scan data from the one or more laser scanning sensors ; analyze the scan data to determine a hazardous object has been detected; and generate a notification that a hazardous object was detected within scanned area.
Method for determining a traffic gap between two vehicles for a lane change for a vehicle , comprising identification of the traffic gap on the basis of a first detection which is based on at least one vehicle-to-vehicle status message from at least one further vehicle , wherein, using the first detection, an area is determined in the oncoming traffic in which the traffic gap will be found with a sufficiently high probability; longitudinal control of the vehicle in parallel with the traffic gap identified with a sufficiently high probability using the first detection; and identification of the traffic gap on the basis of a second detection which is based on an on-board sensor system of the vehicle , when the traffic gap identified with a sufficiently high probability has entered a detection range of the on-board sensor system due to the longitudinal control . longitudinal control of the vehicle in parallel with the traffic gap identified with a sufficiently high probability using the first detection; and identification of the traffic gap on the basis of a second detection which is based on an on-board sensor system of the vehicle , when the traffic gap identified with a sufficiently high probability has entered a detection range of the on-board sensor system due to the longitudinal control .
A base station in a communication system in which a terminal to be installed in a machine having rotor blades and the base station transmit and receive data to and from each other via a relay station , the base station comprising: a transceiver to receive, from the terminal , a rotor blade state that is a result of measurement by the terminal of timing at which the rotor blades block a communication path in midair between the relay station and the terminal ; and a transmission control unit to determine radio resources to be allocated to the terminal , using the rotor blade state; characterized in that the transmission control unit determines, based on said rotor blade state, a number of successive transmissions for which data to be transmitted on a forward link is duplicated and successively transmitted, and the transceiver successively transmits the data to the terminal for the number of successive transmissions. a transceiver to receive, from the terminal , a rotor blade state that is a result of measurement by the terminal of timing at which the rotor blades block a communication path in midair between the relay station and the terminal ; and a transmission control unit to determine radio resources to be allocated to the terminal , using the rotor blade state; characterized in that the transmission control unit determines, based on said rotor blade state, a number of successive transmissions for which data to be transmitted on a forward link is duplicated and successively transmitted, and the transceiver successively transmits the data to the terminal for the number of successive transmissions.
A stabilizer steel consisting of, in mass%: C: 0.21% to 0.35%; Si: 0.60% or less but not including 0%; Mn: 0.30% to 1.50%; P: 0.035% or less; S: 0.035% or less; Cu: 0.05% to 0.35%; Ni: 0.03% to 0.15%; Cr: 0.05% to 0.80%; Mo: 0.003% to 0.050%; sol. Al: 0.005% to 0.080%; and B: 0.0005% to 0.0100%, and optionally, in mass%, one or more selected from Ca: 0.010% or less; Pb: 0.5% or less; Ti: 0.005% to 0.050%; V: 0.005% to 0.050%; and Nb: 0.005% to 0.050%, with a balance being Fe and incidental impurities, wherein a sum of the Cu content and the Ni content is 0.15% or more, and a crystal grain size after water quenching is in a range of 7.5 to 10.5 in prior austenite crystal grain size number according to JIS G 0551, and the stabilizer steel has a tensile strength of 1200 MPa or more. C: 0.21% to 0.35%; Si: 0.60% or less but not including 0%; Mn: 0.30% to 1.50%; P: 0.035% or less; S: 0.035% or less; Cu: 0.05% to 0.35%; Ni: 0.03% to 0.15%; Cr: 0.05% to 0.80%; Mo: 0.003% to 0.050%; sol. Al: 0.005% to 0.080%; and B: 0.0005% to 0.0100%, and optionally, in mass%, one or more selected from Ca: 0.010% or less; Pb: 0.5% or less; Ti: 0.005% to 0.050%; V: 0.005% to 0.050%; and Nb: 0.005% to 0.050%, with a balance being Fe and incidental impurities, wherein a sum of the Cu content and the Ni content is 0.15% or more, and a crystal grain size after water quenching is in a range of 7.5 to 10.5 in prior austenite crystal grain size number according to JIS G 0551, and the stabilizer steel has a tensile strength of 1200 MPa or more.
A computer program comprising a sequence of instructions for execution on a processing unit having instruction storage for holding the computer program, an execution unit for executing the computer program and data storage for holding data, the computer program comprising one or more computer executable instructions which, when executed, implements: a send function which causes an outgoing data packet destined for a recipient processing unit to be transmitted on a set of connection wires connected to the processing unit , the computer program characterised by the outgoing data packet having no destination identifier but being transmitted at a predetermined transmit time; and a switch control function which causes the processing unit to control switching circuitry to connect a set of connection wires of the processing unit to a switching fabric to receive an incoming data packet at a predetermined receive time with respect to a predetermined transmit time. a send function which causes an outgoing data packet destined for a recipient processing unit to be transmitted on a set of connection wires connected to the processing unit , the computer program characterised by the outgoing data packet having no destination identifier but being transmitted at a predetermined transmit time; and a switch control function which causes the processing unit to control switching circuitry to connect a set of connection wires of the processing unit to a switching fabric to receive an incoming data packet at a predetermined receive time with respect to a predetermined transmit time.
Method for rolling a rolled material , wherein - the rolled material is guided in a rolling direction through a rolling gap between two worker rollers of a roll stand , - a cooling lubricant for lubricating the contact zone is introduced into a contact zone in which a contact surface of the rolled material contacts a working roller , - a lubrication requirement of the contact zone is determined depending on at least one process parameter of the rolling process, - and, with respect to the rolling direction , an additive lubricant is applied to the contact surface of the rolled material ahead of the rolling gap at a predefined application spacing (D) from the rolling gap when a cooling lubricant quantity (C) currently introduced into the contact zone does not cover the lubrication requirement, wherein the application spacing (D) is dimensioned such that an adhesion of the additive lubricant to the contact surface is increased, and the lubricating effect of the additive lubricant in the contact zone is improved as compared to an application of the additive lubricant to the contact surface directly ahead of the rolling gap , characterized in that the cooling lubricant quantity (C) introduced into the contact zone is reduced when additive lubricant is applied to the contact surface . - the rolled material is guided in a rolling direction through a rolling gap between two worker rollers of a roll stand , - a cooling lubricant for lubricating the contact zone is introduced into a contact zone in which a contact surface of the rolled material contacts a working roller , - a lubrication requirement of the contact zone is determined depending on at least one process parameter of the rolling process, - and, with respect to the rolling direction , an additive lubricant is applied to the contact surface of the rolled material ahead of the rolling gap at a predefined application spacing (D) from the rolling gap when a cooling lubricant quantity (C) currently introduced into the contact zone does not cover the lubrication requirement, wherein the application spacing (D) is dimensioned such that an adhesion of the additive lubricant to the contact surface is increased, and the lubricating effect of the additive lubricant in the contact zone is improved as compared to an application of the additive lubricant to the contact surface directly ahead of the rolling gap , characterized in that
An ophthalmic composition, devoid of chelating agents, comprising a mixture comprising, or alternatively, consisting of: (a) at least two viscosity adjusting agents; a first viscosity adjusting agent (a.1) selected from among the group comprising or, alternatively, consisting of hyaluronic acid, a salt thereof and mixtures thereof; a second viscosity adjusting agent (a.2) comprising or, alternatively, consisting of an ethylene oxide/propylene oxide block copolymer, (b) a buffer agent which is a mixture of boric acid and tris(hydroxymethyl)aminomethane for adjusting the pH of the composition to a pH value comprised from 6,5 to 8 ± 0,1, (c) preferably one or more pharmaceutical grade additives and excipients, and (d) water; said composition being for use in a method for the preventive or curative treatment of a disorder or a disease associated with a corneal epithelial defect and/or a conjunctival defect in a subject. (a) at least two viscosity adjusting agents; a first viscosity adjusting agent (a.1) selected from among the group comprising or, alternatively, consisting of hyaluronic acid, a salt thereof and mixtures thereof; a second viscosity adjusting agent (a.2) comprising or, alternatively, consisting of an ethylene oxide/propylene oxide block copolymer, (b) a buffer agent which is a mixture of boric acid and tris(hydroxymethyl)aminomethane for adjusting the pH of the composition to a pH value comprised from 6,5 to 8 ± 0,1, (c) preferably one or more pharmaceutical grade additives and excipients, and (d) water;
Ground-drilling device with a drilling carriage and a sledge that can be moved backwards and forwards on the drilling carriage , wherein at least one pinion exists for driving the sledge , the rotational movement of said pinion being converted into a linear movement by means of a rack , characterised by a force release path for relieving the pinion of a force introduced radially, wherein a section of the force release path is formed using a supporting element linked to the pinion and a supporting element extends along the rack , and is positioned offset to it, in order to support the supporting element in moving the sledge .
N. eutropha bacterium: a) as deposited under ATCC accession number PTA-121157; or b) comprising a circular genome having SEQ ID NO: 1 or its complement. a) as deposited under ATCC accession number PTA-121157; or b) comprising a circular genome having SEQ ID NO: 1 or its complement.
A method for controlling a plurality of robot cleaners comprising a first robot cleaner and a second robot cleaner , the method comprising: starting cleaning of a first area (R1) by the first robot cleaner , and starting cleaning of the first area (R1) by the second robot cleaner after the first robot cleaner has completed cleaning of the first area (R1), wherein the first area (R1) and a second area (R2) are included in a plurality of areas (R1 - R5) which are divided from a cleaning or traveling area for cleaning, wherein the first robot cleaner and the second robot cleaner perform cleaning of the first area (R1) and the second area (R2) sequentially, respectively, the method being characterized in that while the first robot cleaner performs the cleaning operations in the first area (R1), the second robot cleaner remains on a docking station of the second robot cleaner . starting cleaning of a first area (R1) by the first robot cleaner , and starting cleaning of the first area (R1) by the second robot cleaner after the first robot cleaner has completed cleaning of the first area (R1), wherein the first area (R1) and a second area (R2) are included in a plurality of areas (R1 - R5) which are divided from a cleaning or traveling area for cleaning, wherein the first robot cleaner and the second robot cleaner perform cleaning of the first area (R1) and the second area (R2) sequentially, respectively, the method being characterized in that while the first robot cleaner performs the cleaning operations in the first area (R1), the second robot cleaner remains on a docking station of the second robot cleaner .