mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication performed by a source node, the method comprising: determining a first time interval and a second time interval for a cooperated data frame transfer based on a packet transmission time at each transmission from a source node to a destination node; transmitting a frame to a relay node at a start point of the first time interval; and transmitting the frame to the destination node after a predetermined period of time (Ptime) from a start point of the second time interval, and wherein the frame is transmitted from the relay node to the destination node after the predetermined period of time (Ptime) from the start point of the second time interval, when the cooperated data frame transfer is completed, a relay link setup teardown frame is transmitted from the source node to the relay node and to the destination node, and is transmitted from the relay node to the source node and to the destination node, wherein the relay link setup teardown frame includes a source association ID field to be set an AID of the source node, a destination AID field to be set an AID of the destination node, and a relay AID field to be set an AID of the relay node. determining a first time interval and a second time interval for a cooperated data frame transfer based on a packet transmission time at each transmission from a source node to a destination node; transmitting a frame to a relay node at a start point of the first time interval; and transmitting the frame to the destination node after a predetermined period of time (Ptime) from a start point of the second time interval, and wherein the frame is transmitted from the relay node to the destination node after the predetermined period of time (Ptime) from the start point of the second time interval, when the cooperated data frame transfer is completed, a relay link setup teardown frame is transmitted from the source node to the relay node and to the destination node, and is transmitted from the relay node to the source node and to the destination node, wherein the relay link setup teardown frame includes a source association ID field to be set an AID of the source node, a destination AID field to be set an AID of the destination node, and a relay AID field to be set an AID of the relay node.
A storage device for objects in the manufacture of substrates, in particular of substrates for electronic components, wherein the storage device is provided with a housing, which comprises at least one enclosed space for storing the objects, has a clean-air device, with which a clean-air atmosphere can be generated at least within a section of the housing, is provided with at least one input/output device (3, 3a, 3b), by means of which objects can be introduced into the interior of the housing or removed from the interior, has at least one handling unit, with which objects inside of the housing can be handled, and has an object storage unit inside of the housing, in which objects can be temporarily stored outside of transport containers, two areas arranged at least partially one above the other are formed in the same housing of the storage device, wherein a first area is provided for the object storage unit and a second area for a transport container storage unit, characterized in that the area for the object storage unit and the second area for the transport container storage unit are at least essentially arranged vertically one above the another.
An internal combustion engine (50, 150, 450) for use with a hydrocarbon fuel with at least one cylinder and a reciprocating piston therein, at least one air intake valve, at least one exhaust valve, and a fuel handling system with at least one fuel injector (56, 59), said engine (50, 150, 450) comprising: a water injector coupled to a water source for injecting, at each engine cycle, liquid water into the cylinder at a time from 180° to 30° before TDC of said piston during a compression stroke, wherein the amount of liquid water injected is greater than the amount of water that is present at the saturation point of water vapor in the ambient air in the cylinder, and the amount of liquid water injected in an engine cycle is about 60% w/w to about 200% w/w of the amount of fuel being injected in the engine cycle; wherein a ratio of air to fuel provided to said at least one cylinder is greater than stoichiometric, and the engine (50, 150, 450) has an effective volume compression ratio greater than 13:1. a water injector coupled to a water source for injecting, at each engine cycle, liquid water into the cylinder at a time from 180° to 30° before TDC of said piston during a compression stroke, wherein the amount of liquid water injected is greater than the amount of water that is present at the saturation point of water vapor in the ambient air in the cylinder, and the amount of liquid water injected in an engine cycle is about 60% w/w to about 200% w/w of the amount of fuel being injected in the engine cycle; wherein a ratio of air to fuel provided to said at least one cylinder is greater than stoichiometric, and the engine (50, 150, 450) has an effective volume compression ratio greater than 13:1.
A booklet making method comprising the steps of: cutting a web of paper having a plurality of booklet page sections, which in its transport direction are spaced apart from one another, on each of its widthwise one and other sides, into a first and a second continuous sheet of paper (20a and 20b) on said widthwise one and other sides; charaterized by the step of: laying the first and second continuous sheets of paper (20a and 20b) one on the other, and forming a double set continuous sheet of paper by bonding widthwise one side edges of a pair of overlapping such booklet page sections together with a throwaway paste and bonding widthwise other side edges of a next adjacent pair of such overlapping booklet page sections together with a setting paste; cutting said double set continuous sheet of paper into split double sheets comprising pairs of sheets having such pairs of overlapping booklet page sections; laying said split double sheets one on another and bonding widthwise other side edges of adjacent sheets of adjacent two of said split double sheets together with an integrating paste, thereby forming a booklet-like product comprising an odd number of sheets which are individually bound at the said widthwise other side edges; and cutting off a widthwise one side edge of said booklet-like product, thereby separating portions of said split double sheets which are bonded with said throwaway paste to form a plurality of booklets which comprise sheets of said page sections. cutting a web of paper having a plurality of booklet page sections, which in its transport direction are spaced apart from one another, on each of its widthwise one and other sides, into a first and a second continuous sheet of paper (20a and 20b) on said widthwise one and other sides; laying the first and second continuous sheets of paper (20a and 20b) one on the other, and forming a double set continuous sheet of paper by bonding widthwise one side edges of a pair of overlapping such booklet page sections together with a throwaway paste and bonding widthwise other side edges of a next adjacent pair of such overlapping booklet page sections together with a setting paste; cutting said double set continuous sheet of paper into split double sheets comprising pairs of sheets having such pairs of overlapping booklet page sections; laying said split double sheets one on another and bonding widthwise other side edges of adjacent sheets of adjacent two of said split double sheets together with an integrating paste, thereby forming a booklet-like product comprising an odd number of sheets which are individually bound at the said widthwise other side edges; and cutting off a widthwise one side edge of said booklet-like product, thereby separating portions of said split double sheets which are bonded with said throwaway paste to form a plurality of booklets which comprise sheets of said page sections.
A wound dressing (1;1 ';1") including a wound pad (2;2';2") of absorbent material having a first side and a second side opposite thereto, a backing layer (3;7';3") covering the wound pad on the first side thereof and an adhesive layer (4;4';4") for attaching the dressing to skin and wherein the backing layer (3; 7';3") has at least one conductive region (7;7';7") and comprises plastic film, characterized in that the backing layer extends beyond the circumference of the round part to form a part suitable for facing skin and in that the adhesive layer is provided at least on the region of the backing layer extending beyond the circumference of the wound pad such that said region forms a skin attachment region.
Method of measuring and controlling the chlorine oxyanion concentration of an electrolysis solution for use in an automated recirculating or single-pass cleaning system according to claim 7 using solutions of electrolytically generated chlorine oxyanions, comprising: (a) in situ producing an electrolysis solution from an electrolyzed solution concentrate and dilution water; (b) measuring the pH of a portion of the electrolysis solution in a sensing cell with a pH probe connected in fluid communication with said portion of the electrolysis solution; (c) controlling the pH of the portion of the electrolysis solution to pH 5.5 to 7.5 with a pH modifier; (d) measuring the chlorine oxyanion concentration of the portion of the electrolysis solution from 10 ppm to 1000 ppm by using a chlorine sensor in said sensing cell; (e) adjusting the chlorine oxyanion concentration in the electrolysis solution by a feedback loop mechanism adjusting the amount of electrolyzed solution concentrate and/or dilution water. (a) in situ producing an electrolysis solution from an electrolyzed solution concentrate and dilution water; (b) measuring the pH of a portion of the electrolysis solution in a sensing cell with a pH probe connected in fluid communication with said portion of the electrolysis solution; (c) controlling the pH of the portion of the electrolysis solution to pH 5.5 to 7.5 with a pH modifier; (d) measuring the chlorine oxyanion concentration of the portion of the electrolysis solution from 10 ppm to 1000 ppm by using a chlorine sensor in said sensing cell; (e) adjusting the chlorine oxyanion concentration in the electrolysis solution by a feedback loop mechanism adjusting the amount of electrolyzed solution concentrate and/or dilution water.
Electrical connection device comprising: - a box-shaped body forming a containment compartment and having a first electrical connector positioned inside the containment compartment and integral with the box-shaped body; said first electrical connector being designed to be coupled with first electrical cables; - a hollow element, partly inserted in the containment compartment having a second electrical connector rotatably coupled to the first electrical connector; said hollow element having a tubular shape and being configured for allowing the passage inside of respective second electrical cables; said hollow element having an end inserted in the containment compartment and equipped with the second electrical connector; said second electrical connector being configured to be coupled to said second electrical cables passing inside the hollow element; said first electrical connector and second electrical connector being in contact with each other, for guaranteeing the electrical connection; said electrical connection occurring through sliding contacts anchored to the box-shaped body; - connection means are interposed between an opening made in the box-shaped body and the hollow element for rotatably coupling the hollow element to the box-shaped body; and at least a first transit channel allowing the escape of fluids from the containment compartment to the outside; characterised in that the first transit channel has an undulating profile for forming a path for cooling a fluid flowing out of the containment compartment. - a box-shaped body forming a containment compartment and having a first electrical connector positioned inside the containment compartment and integral with the box-shaped body; said first electrical connector being designed to be coupled with first electrical cables; - a hollow element, partly inserted in the containment compartment having a second electrical connector rotatably coupled to the first electrical connector; said hollow element having a tubular shape and being configured for allowing the passage inside of respective second electrical cables; said hollow element having an end inserted in the containment compartment and equipped with the second electrical connector; said second electrical connector being configured to be coupled to said second electrical cables passing inside the hollow element; said first electrical connector and second electrical connector being in contact with each other, for guaranteeing the electrical connection; said electrical connection occurring through sliding contacts anchored to the box-shaped body; - connection means are interposed between an opening made in the box-shaped body and the hollow element for rotatably coupling the hollow element to the box-shaped body; and at least a first transit channel allowing the escape of fluids from the containment compartment to the outside;
A method for transmitting broadcast signals, the method comprising: mapping input streams onto Physical Layer Pipes, PLPs, wherein each PLP carries at least one service component; Forward Error Correction, FEC, encoding data in each PLP; Quadrature Amplitude Modulation, QAM, mapping the encoded data with 16-QAM constellations to output first QAM symbols and second QAM symbols; Multi-input Multi-Output, MIMO, processing the first and second QAM symbols to output first and second broadcast signals, wherein the MIMO processing is performed by applying a MIMO processing matrix, the MIMO processing matrix being represented as: 1 1 + a 2 1 a a − 1 = 1 1 + a 2 a 1 + a 2 a 1 + a 2 − 1 1 + a 2 = cos ⁢ θ sin ⁢ θ sin ⁢ θ − cos ⁢ θ where a = 2 + 4 2 + 2; time interleaving the first and second broadcast signals; building first and second signal frames including the time interleaved first and second broadcast signals; frequency interleaving data in the built first and second signal frames; modulating the frequency interleaved data in the built first and second signal frames by an Orthogonal Frequency Division Multiplexing, OFDM, method; and transmitting the modulated data. mapping input streams onto Physical Layer Pipes, PLPs, wherein each PLP carries at least one service component; Forward Error Correction, FEC, encoding data in each PLP; Quadrature Amplitude Modulation, QAM, mapping the encoded data with 16-QAM constellations to output first QAM symbols and second QAM symbols; Multi-input Multi-Output, MIMO, processing the first and second QAM symbols to output first and second broadcast signals, wherein the MIMO processing is performed by applying a MIMO processing matrix, the MIMO processing matrix being represented as: 1 1 + a 2 1 a a − 1 = 1 1 + a 2 a 1 + a 2 a 1 + a 2 − 1 1 + a 2 = cos ⁢ θ sin ⁢ θ sin ⁢ θ − cos ⁢ θ where a = 2 + 4 2 + 2; time interleaving the first and second broadcast signals; building first and second signal frames including the time interleaved first and second broadcast signals; frequency interleaving data in the built first and second signal frames; modulating the frequency interleaved data in the built first and second signal frames by an Orthogonal Frequency Division Multiplexing, OFDM, method; and transmitting the modulated data.
A method for manufacturing a carbon fiber bundle, the method comprising filtering a spinning dope solution in which a polyacrylonitrile copolymer is dissolved in a solvent, using a filter medium having a particle retention B (um), wherein the particle retention B of the filter medium is determined according to a method of JIS standard JIS-B8356-8:2002, and a filter basis weight D (g/m 2), under conditions where a filtration speed A (cm/hour) satisfies following equations to, then spinning the filtered spinning dope solution to obtain a precursor fiber bundle for carbon fiber, D − 600 / α × β ≥ 0 α = 1 − 1 / 1 + exp 7 − A β = 1 − 1 / 1 + exp − 0.23 × B heat-treating the obtained precursor fiber bundle for carbon fiber at 210°C or more and less than 245°C in an oxidizing atmosphere until a density reaches 1.22 to 1.24 g/cm3, and then subjecting to a heat treatment process at 245°C or more and less than 275°C in an oxidizing atmosphere until a density reaches 1.32 to 1.35 g/cm 3, and then heat-treating at 275°C or more and 295°C or less in an oxidizing atmosphere until a density reaches 1.46 to 1.50 g/cm 3 to obtain an oxidized fiber bundle, and then heat-treating the oxidized fiber bundle at 1200°C to 1800°C in an inert atmosphere.
A process for producing an ion-exchange membrane comprising steps of: providing a nonwoven fabric sheet having a fiber layer structure that includes long filament layers of a fiber diameter of 8 to 30 μm on both surfaces thereof and an extra-fine filament layer of a fiber diameter of not more than 5 μm as an intermediate layer formed by melt-adhesion of fibers between said long filament layers, a strippable film, and an organic solvent solution of an ion-exchange resin or an ion-exchange resin precursor that is capable of introducing ion-exchange groups, wherein said organic solvent solution has a viscosity at 25 °C in a range of 1.0 to 60 dPa·s; applying said organic solvent solution onto one surface of said strippable film to form an applied layer of the ion-exchange resin or the ion-exchange resin precursor; overlapping said nonwoven fabric sheet on said applied layer; forming a coating of the ion-exchange resin or the ion-exchange resin precursor by drying said applied layer in a state where said nonwoven fabric sheet has been overlapped thereon; and stripping said strippable film; wherein when an organic solvent solution of said ion-exchange resin precursor is used as said organic solvent solution, provision is, further, made of a step of introducing ion-exchange groups into said ion-exchange resin precursor after the coating of the ion-exchange resin precursor has been formed but before stripping said strippable film. providing a nonwoven fabric sheet having a fiber layer structure that includes long filament layers of a fiber diameter of 8 to 30 μm on both surfaces thereof and an extra-fine filament layer of a fiber diameter of not more than 5 μm as an intermediate layer formed by melt-adhesion of fibers between said long filament layers, a strippable film, and an organic solvent solution of an ion-exchange resin or an ion-exchange resin precursor that is capable of introducing ion-exchange groups, wherein said organic solvent solution has a viscosity at 25 °C in a range of 1.0 to 60 dPa·s; applying said organic solvent solution onto one surface of said strippable film to form an applied layer of the ion-exchange resin or the ion-exchange resin precursor; overlapping said nonwoven fabric sheet on said applied layer; forming a coating of the ion-exchange resin or the ion-exchange resin precursor by drying said applied layer in a state where said nonwoven fabric sheet has been overlapped thereon; and stripping said strippable film; wherein when an organic solvent solution of said ion-exchange resin precursor is used as said organic solvent solution, provision is, further, made of a step of introducing ion-exchange groups into said ion-exchange resin precursor after the coating of the ion-exchange resin precursor has been formed but before stripping said strippable film.
A bracelet lengthening device, comprising at least one adjustment assembly (1, 2) that is mobile relative to a clasp cover, the adjustment assembly (1, 2) and the cover being respectively provided with a first and a second fastening elements (23, 35') for their respective fastening according to several positions capable of inducing different bracelet lengths, characterized in that the adjustment assembly (1, 2) and the cover are also provided respectively with a first and a second indexing elements (15, 35) of pre-positioning of the adjustment assembly being not sufficient for its fastening, these indexing elements being distinct from the fastening elements, and in that the first indexing element and the second indexing element respectively take the form of at least one protuberance and of hollowed out notching or, conversely, of at least one hollowed out notch and of protuberances.
A processor configured to: map at least two synchronisation signal sequences (310-1, 310-2, 310-3, 310-4) to a respective set of resource elements (210-0, 210-1,..., 210-61) of an Orthogonal Frequency-Division Multiplexing, OFDM, symbol, and there is at least one resource element between each pair of adjacent sets of resource elements (210-0, 210-1,..., 210-61); and the at least two synchronization signal sequences are multiple Primary Synchronisation Signal, PSS, sequences, multiple Secondary Synchronisation Signal, SSS, sequences, or a combination of at least one PSS sequence and at least one SSS sequence. there is at least one resource element between each pair of adjacent sets of resource elements (210-0, 210-1,..., 210-61); and the at least two synchronization signal sequences are multiple Primary Synchronisation Signal, PSS, sequences, multiple Secondary Synchronisation Signal, SSS, sequences, or a combination of at least one PSS sequence and at least one SSS sequence.
A light matrix building block for a modular toy or educational construction set, the light matrix building block comprising a plurality of separate light emitting elements, the light matrix building block being configured to: - control the colour and intensity of each of the light emitting elements individually, and - receive and decode digital information to regulate the colour and intensity of each of the light emitting elements, characterised in that the digital information to regulate the colour and intensity of a light emitting element in the plurality of light emitting elements is encoded in a single byte of information. - control the colour and intensity of each of the light emitting elements individually, and - receive and decode digital information to regulate the colour and intensity of each of the light emitting elements,
A method by an evolved NodeB, eNB, for transmitting a device-to-device, D2D, scheduling assignment, SA, grant and a D2D data grant, the method comprising: generating the D2D SA grant; transmitting the generated D2D SA grant to a transmission UE, Tx UE, the D2D SA grant enabling the Tx UE to transmit an SA to a reception UE, Rx UE, through a D2D communication; generating the D2D data grant; transmitting the generated D2D data grant to the Tx UE, the D2D data grant enabling the Tx UE to transmit a Transport Block #0, TB#0, to the Rx UE in multiple transmission opportunities, MTOs; generating a separate grant for indicating data overriding, wherein the data overriding overrides the transmission of TB#0 with a transmission of Transport Block #1, TB#1, from a time point in the MTOs; and transmitting the generated separate grant to the Tx UE. generating the D2D SA grant; transmitting the generated D2D SA grant to a transmission UE, Tx UE, the D2D SA grant enabling the Tx UE to transmit an SA to a reception UE, Rx UE, through a D2D communication; generating the D2D data grant; transmitting the generated D2D data grant to the Tx UE, the D2D data grant enabling the Tx UE to transmit a Transport Block #0, TB#0, to the Rx UE in multiple transmission opportunities, MTOs; generating a separate grant for indicating data overriding, wherein the data overriding overrides the transmission of TB#0 with a transmission of Transport Block #1, TB#1, from a time point in the MTOs; and transmitting the generated separate grant to the Tx UE.