mhurhangee/patent-ind-claim-en huggingface dataset:
A building comprising several interior spaces and being provided with at least one ventilation facility and with a system for controlling this at least one ventilation facility, said system comprising: - a main casing which comprises: • a memory adapted to store at least one value of at least one environmental climate parameter, and a value relating to a type of ventilation facility, • a calculator adapted to determine, from at least the stored values of at least one environmental climate parameter and relating to a type of ventilation facility, and from a plurality of predetermined rules associated with different types of ventilation facility respectively, at least one value of at least one setpoint parameter for operation of at least one fan of said at least one ventilation facility , - an output adapted to transmit the value determined for an associated operating setpoint parameter to said at least one fan , - an individual casing specific to each interior space and adapted to control opening/closing of one or more vents of the interior space , each individual casing being associated with said main casing . - a main casing which comprises: • a memory adapted to store at least one value of at least one environmental climate parameter, and a value relating to a type of ventilation facility, • a calculator adapted to determine, from at least the stored values of at least one environmental climate parameter and relating to a type of ventilation facility, and from a plurality of predetermined rules associated with different types of ventilation facility respectively, at least one value of at least one setpoint parameter for operation of at least one fan of said at least one ventilation facility , • a memory adapted to store at least one value of at least one environmental climate parameter, and a value relating to a type of ventilation facility, • a calculator adapted to determine, from at least the stored values of at least one environmental climate parameter and relating to a type of ventilation facility, and from a plurality of predetermined rules associated with different types of ventilation facility respectively, at least one value of at least one setpoint parameter for operation of at least one fan of said at least one ventilation facility , - an output adapted to transmit the value determined for an associated operating setpoint parameter to said at least one fan , - an individual casing specific to each interior space and adapted to control opening/closing of one or more vents of the interior space , each individual casing being associated with said main casing .
Sole for footwear comprising: - at least one outer sole in elastomeric thermoplastic rubber material comprising a tread and a perimeter edge rising from said tread , said tread comprising an outer face ; and - at least one layer of textile fibre material resistant to perforation having a lower face facing said outer face of said tread , and an upper face facing said perimeter edge ; and characterized in that said sole comprises a plurality of said layers in textile fibre material resistant to perforation (5', 5", ...), said plurality of layers overlapping one another in said tread with interposition of said elastomeric thermoplastic rubber material of said at least one outer sole , said at least one outer sole and said plurality of layers (5, 5', 5", ...) of said textile fibre material resistant to perforation are engaged by moulding said at least one outer sole around said plurality of layers (5, 5', 5", ...) of said textile fibre material resistant to perforation. - at least one outer sole in elastomeric thermoplastic rubber material comprising a tread and a perimeter edge rising from said tread , said tread comprising an outer face ; and - at least one layer of textile fibre material resistant to perforation having a lower face facing said outer face of said tread , and an upper face facing said perimeter edge ; and characterized in that said sole comprises a plurality of said layers in textile fibre material resistant to perforation (5', 5", ...), said plurality of layers overlapping one another in said tread with interposition of said elastomeric thermoplastic rubber material of said at least one outer sole ,
A method for monitoring a blow-moulding unit (BE) of a plurality of blow-moulding stations (BS1-BS9) for producing a hollow body, wherein each blow-moulding station (BS1-BS9) has at least one process valve unit for feeding a process fluid into a preform of the hollow body under process pressure, and wherein the process valve unit has at least one valve , and wherein each blow-moulding station (BS1-BS9) is associated with at least one sensor , wherein the method has at least the following steps: - detecting at least one first sensor value in each blow-moulding station (BS1-BS9), - transmitting a first data value, which is associated with the at least one detected first sensor value of each blow-moulding station (BS1-BS9), to a data processing unit , and - determining a first statistical average of the transmitted first data values in the data processing unit . wherein each blow-moulding station (BS1-BS9) has at least one process valve unit for feeding a process fluid into a preform of the hollow body under process pressure, and wherein the process valve unit has at least one valve , and wherein each blow-moulding station (BS1-BS9) is associated with at least one sensor , wherein the method has at least the following steps: - detecting at least one first sensor value in each blow-moulding station (BS1-BS9), - transmitting a first data value, which is associated with the at least one detected first sensor value of each blow-moulding station (BS1-BS9), to a data processing unit , and - determining a first statistical average of the transmitted first data values in the data processing unit . - detecting at least one first sensor value in each blow-moulding station (BS1-BS9), - transmitting a first data value, which is associated with the at least one detected first sensor value of each blow-moulding station (BS1-BS9), to a data processing unit , and - determining a first statistical average of the transmitted first data values in the data processing unit .
An oxa-spirodiphosphine ligand, having a structure of general Formula (I) below: wherein in general Formula (I): R 1 , R 2 , R 3 , R 4 , R 5 , and R 6 are all hydrogen, and R 7 , R 8 are alkyl, benzyl, or aryl.
A guide wire(1a- 1e, 1h) comprising: a core shaft ; a coil body formed by winding a wire around the core shaft ; and a resin layer covering at least an outer peripheral surface of the coil body , wherein the coil body includes a sparsely wound part in which a gap is formed between adjacent wires, a void is formed between the coil body and the core shaft , and the resin layer includes a protruding portion(32a,32b,32e,32h1,32h2) protruding toward the core shaft through the gap between the adjacent wires in the sparsely wound part, and the protruding portion(32a,32b,32e,32h1,32h2) extends toward the core shaft relative to an inner peripheral surface of the coil body , characterized in that the protruding portion(32a,32b,32e,32h1,32h2) contacts the core shaft . a core shaft ; a coil body formed by winding a wire around the core shaft ; and a resin layer covering at least an outer peripheral surface of the coil body , wherein the coil body includes a sparsely wound part in which a gap is formed between adjacent wires, a void is formed between the coil body and the core shaft , and the resin layer includes a protruding portion(32a,32b,32e,32h1,32h2) protruding toward the core shaft through the gap between the adjacent wires in the sparsely wound part, and the protruding portion(32a,32b,32e,32h1,32h2) extends toward the core shaft relative to an inner peripheral surface of the coil body , characterized in that the protruding portion(32a,32b,32e,32h1,32h2) contacts the core shaft .
A lubricating composition comprising: an oil of lubricating viscosity; and at least 0.05 wt. % of an oil-soluble dispersant viscosity modifier comprising an olefin-based polymer backbone and at least one pendent functional group selected from alkyl and aryl sulfonate salts, alkyl and aryl sulfonic acids, and combinations thereof, the olefin-based polymer backbone comprising an ethylene-olefin-based copolymer, each of the at least one pendent functional group being independently attached to the olefin-based polymer backbone by a linking group, the at least one pendent functional group comprising a sulfonate moiety, wherein the at least one pendent functional group is derived from a sulfonated hydrocarbyl compound selected from the group consisting of: where c is from 1-10, d is from 1-10, e is at least 1, B is NH 2 or OH, R 11 , Ft 12 , R 13 and R 14 are independently H or a C 1 to C 30 alkyl group, and R 15 , R 16 , R 17 , and R 18 are independently selected from H, OH, NH 2 , alkyl groups, and alkoxy groups an oil of lubricating viscosity; and at least 0.05 wt. % of an oil-soluble dispersant viscosity modifier comprising an olefin-based polymer backbone and at least one pendent functional group selected from alkyl and aryl sulfonate salts, alkyl and aryl sulfonic acids, and combinations thereof, the olefin-based polymer backbone comprising an ethylene-olefin-based copolymer, each of the at least one pendent functional group being independently attached to the olefin-based polymer backbone by a linking group, the at least one pendent functional group comprising a sulfonate moiety, wherein the at least one pendent functional group is derived from a sulfonated hydrocarbyl compound selected from the group consisting of: where c is from 1-10, d is from 1-10, e is at least 1, B is NH 2 or OH, R 11 , Ft 12 , R 13 and R 14 are independently H or a C 1 to C 30 alkyl group, and R 15 , R 16 , R 17 , and R 18 are independently selected from H, OH, NH 2 , alkyl groups, and alkoxy groups
Method of calculating estimated navigation performance prediction for a trajectory of an aircraft, the method being operated by an aircraft computing platform and comprising the steps of: - receiving a list of segments comprising all of the segments of a flight plan with a prediction of a transit time associated with each segment; - for each segment of the list: - identifying the positioning systems that are available in the geographical zone of the said segment; - determining the performance values of the positioning systems identified and selecting the positioning system exhibiting the lowest navigation performance calculation error for the position of the said segment and the said predicted transit time; and - calculating an estimated navigation performance prediction, on the basis of data arising from the positioning system selected; and - updating the list of segments with the estimated navigation performance prediction associated with each segment. - receiving a list of segments comprising all of the segments of a flight plan with a prediction of a transit time associated with each segment; - for each segment of the list: - identifying the positioning systems that are available in the geographical zone of the said segment; - determining the performance values of the positioning systems identified and selecting the positioning system exhibiting the lowest navigation performance calculation error for the position of the said segment and the said predicted transit time; and - calculating an estimated navigation performance prediction, on the basis of data arising from the positioning system selected; and - updating the list of segments with the estimated navigation performance prediction associated with each segment. - identifying the positioning systems that are available in the geographical zone of the said segment; - determining the performance values of the positioning systems identified and selecting the positioning system exhibiting the lowest navigation performance calculation error for the position of the said segment and the said predicted transit time; and - calculating an estimated navigation performance prediction, on the basis of data arising from the positioning system selected; and - updating the list of segments with the estimated navigation performance prediction associated with each segment.
A method for generating and transmitting a positioning signal from a terrestrial transmitter of a terrestrial positioning system for use by GNSS receiver hardware, the method comprising: identifying a chipping rate, wherein the identified chipping rate is equal to or is a multiple of a GNSS chipping rate; identifying a pseudorandom noise, PN, code length, wherein the identified PN code length is equal to or is a multiple of a GNSS PN code length; generating a PN code, wherein the generated PN code has a length equal to the identified PN code length; identifying a transmission bandwidth that exceeds an integer multiple of a chipping bandwidth of the identified chipping rate; generating a transmit pulse shape having a bandwidth that is equal to the transmission bandwidth; using the identified chipping rate, the generated transmit pulse and the generated PN code to generate a positioning signal at the terrestrial transmitter ; and transmitting the positioning signal from the terrestrial transmitter . identifying a chipping rate, wherein the identified chipping rate is equal to or is a multiple of a GNSS chipping rate; identifying a pseudorandom noise, PN, code length, wherein the identified PN code length is equal to or is a multiple of a GNSS PN code length; generating a PN code, wherein the generated PN code has a length equal to the identified PN code length; identifying a transmission bandwidth that exceeds an integer multiple of a chipping bandwidth of the identified chipping rate; generating a transmit pulse shape having a bandwidth that is equal to the transmission bandwidth; using the identified chipping rate, the generated transmit pulse and the generated PN code to generate a positioning signal at the terrestrial transmitter ; and transmitting the positioning signal from the terrestrial transmitter .
A medical device (400; 500; 700), comprising: an elongate member (402; 502; 702) having a proximal end and a distal end; a lumen (410; 510) disposed through the elongate member; an opening disposed at the distal end of the elongate member in communication with the lumen; a pushing element (408; 508; 708) disposed within the lumen; a plurality of fiducials (412; 512; 712) disposed within the lumen and distal to the pushing element, wherein the fiducials are shaped to be retained in the lumen absent a compressing force applied to them, characterized in that the fiducials include protrusions that are compressible to facilitate deployment of the fiducials. an elongate member (402; 502; 702) having a proximal end and a distal end; a lumen (410; 510) disposed through the elongate member; an opening disposed at the distal end of the elongate member in communication with the lumen; a pushing element (408; 508; 708) disposed within the lumen; a plurality of fiducials (412; 512; 712) disposed within the lumen and distal to the pushing element, wherein the fiducials are shaped to be retained in the lumen absent a compressing force applied to them, characterized in that the fiducials include protrusions that are compressible to facilitate deployment of the fiducials.
Halogen free flame retardant impact modified styrenic thermoplastic composition consisting of: a) at least a thermoplastic impact modified styrenic polymer selected from: acrylonitryle butadiene styrene copolymer ABS, high impact polystyrene HIPS b) at least an Hypophosphorus acid metal salt, also called inorganic Phosphinate or Hypophosphite, where phosphorus valence state is equal to +1, being a first flame retardant (FR) component c) at least an aromatic phosphorus ester, being a second flame retardant (FR) component d) at least an antidripping agent e) fillers and /or reinforcing fibers f) conventional additives selected among: processing aids, heat and process stabilizers, UV stabilizers, dispersing agents, mold release additives, nucleating agents and their mixtures. a) at least a thermoplastic impact modified styrenic polymer selected from: acrylonitryle butadiene styrene copolymer ABS, high impact polystyrene HIPS b) at least an Hypophosphorus acid metal salt, also called inorganic Phosphinate or Hypophosphite, where phosphorus valence state is equal to +1, being a first flame retardant (FR) component c) at least an aromatic phosphorus ester, being a second flame retardant (FR) component d) at least an antidripping agent e) fillers and /or reinforcing fibers f) conventional additives selected among: processing aids, heat and process stabilizers, UV stabilizers, dispersing agents, mold release additives, nucleating agents and their mixtures.
Silicon carbide substrate for epitaxially deposited layers which is essentially monocrystalline, the silicon carbide substrate comprising: a main surface , wherein an orientation of said main surface is such that a normal vector ( Ó ) of the main surface includes a tilt angle in a range between 0.5° and 8° with a normal vector ( Ń ) of the basal lattice plane of the substrate, a chamfered peripheral region , wherein a surface of the chamfered peripheral region includes a bevel angle with said main surface, characterized in that said bevel angle is chosen so that, in more than 75 % of the peripheral region, the bevel angle, which is included by a normal vector ( F _i ) of the chamfered peripheral region and the normal vector ( O ) of the main surface , is smaller than the tilt angle, which is included by the normal vector ( O ) of the main surface and the normal vector ( N ) of the basal lattice plane of the substrate. a main surface , wherein an orientation of said main surface is such that a normal vector ( Ó ) of the main surface includes a tilt angle in a range between 0.5° and 8° with a normal vector ( Ń ) of the basal lattice plane of the substrate, a chamfered peripheral region , wherein a surface of the chamfered peripheral region includes a bevel angle with said main surface, characterized in that said bevel angle is chosen so that, in more than 75 % of the peripheral region, the bevel angle, which is included by a normal vector ( F _i ) of the chamfered peripheral region and the normal vector ( O ) of the main surface , is smaller than the tilt angle, which is included by the normal vector ( O ) of the main surface and the normal vector ( N ) of the basal lattice plane of the substrate.
Network subscriber device for an electrical power supply network, comprising: - a control unit for controlling the power exchange of the network subscriber device with the power supply network, - a device for determining a voltage zero crossing at a connection point of the Network subscriber device to the power supply network, - a receiving unit for receiving a signal of a reference time, the control unit being adapted to determine a time offset between a time of voltage zero crossing determined by the device and the reference time, characterised in that the control unit is adapted to control the power exchange as a function of the time offset, so that a regional balance is sought between power fed into the power supply network and power taken from it. - a control unit for controlling the power exchange of the network subscriber device with the power supply network, - a device for determining a voltage zero crossing at a connection point of the Network subscriber device to the power supply network, - a receiving unit for receiving a signal of a reference time,
An aerosol generating device , comprising: a chamber configured to at least partially receive an aerosol generating substrate ; an air flow path extending through the chamber; a convection heater positioned upstream of the chamber in a flow direction through the flow path and comprising a heating element comprising a porous structure, configured such that air that is to flow through the flow path is caused to pass the heating element to reach the chamber, wherein the heating element consists of or comprises a sintered metallic material. a chamber configured to at least partially receive an aerosol generating substrate ; an air flow path extending through the chamber; a convection heater positioned upstream of the chamber in a flow direction through the flow path and comprising a heating element comprising a porous structure, configured such that air that is to flow through the flow path is caused to pass the heating element to reach the chamber, wherein the heating element consists of or comprises a sintered metallic material.
A low yield ratio and superhigh-strength hot-rolled Q&P steel, having the following chemical composition in weight percentage: C: 0.2-0.3%, Si: 1.0-2.0%, Mn: 1.5-2.5%, P: ≤ 0.015%, S: ≤ 0.005%, Al: 0.5-1.0%, N: ≤ 0.006%, Nb: 0.02-0.06%, Ti: ≤ 0.03%, O: ≤ 0.003%, and the balance being Fe and inevitable impurities, and Ti/N ≤ 3.42; wherein the microstructure of said Q&P steel is a three-phase structure of 10-25% of proeutectoid ferrite + 65-85% of martensite + 5-10% of residual austenite; and wherein said Q&P steel has a yield strength of ≥ 600 MPa, a tensile strength of ≥ 1300 MPa, and a yield ratio of ≤ 0.5 and an elongation of ≥10%. C: 0.2-0.3%, Si: 1.0-2.0%, Mn: 1.5-2.5%, P: ≤ 0.015%, S: ≤ 0.005%, Al: 0.5-1.0%, N: ≤ 0.006%, Nb: 0.02-0.06%, Ti: ≤ 0.03%, O: ≤ 0.003%, and the balance being Fe and inevitable impurities, and Ti/N ≤ 3.42; wherein the microstructure of said Q&P steel is a three-phase structure of 10-25% of proeutectoid ferrite + 65-85% of martensite + 5-10% of residual austenite; and wherein said Q&P steel has a yield strength of ≥ 600 MPa, a tensile strength of ≥ 1300 MPa, and a yield ratio of ≤ 0.5 and an elongation of ≥10%.
A cutting element , comprising: a substrate comprising a plurality of hard particles and a matrix material; a thermally stable polycrystalline table comprising a superhard material having a Knoop hardness of about 29,420 MPa (3,000 kg f /mm 2 ) or more disposed at an end of the substrate ; a layer of metal interposed between the substrate and the thermally stable polycrystalline table and attaching the substrate to the thermally stable polycrystalline table ; and a substrate portion interposed between the thermally stable polycrystalline table and the layer of metal , the substrate portion comprising a plurality of hard particles and a matrix material; wherein the layer of metal comprises Ag, Cu, Mn, an alloy of any of these, nickel aluminide or nickel silicide, and material of the layer of metal is infiltrated through the substrate portion and at least partially into the thermally stable polycrystalline table . a substrate comprising a plurality of hard particles and a matrix material; a thermally stable polycrystalline table comprising a superhard material having a Knoop hardness of about 29,420 MPa (3,000 kg f /mm 2 ) or more disposed at an end of the substrate ; a layer of metal interposed between the substrate and the thermally stable polycrystalline table and attaching the substrate to the thermally stable polycrystalline table ; and a substrate portion interposed between the thermally stable polycrystalline table and the layer of metal , the substrate portion comprising a plurality of hard particles and a matrix material; wherein the layer of metal comprises Ag, Cu, Mn, an alloy of any of these, nickel aluminide or nickel silicide, and material of the layer of metal is infiltrated through the substrate portion and at least partially into the thermally stable polycrystalline table .