mhurhangee/ep-ind-claims huggingface dataset:
A system comprising a power source (150; 120; 140) including a power storage device mounted in an externally chargeable vehicle, an electrical device external to said vehicle, an adapter (800, 800#), a charging cable, and an external power supply external to said vehicle; said system being configured to supply electric power from said power source (150; 120, 140) including said power storage device mounted in said externally chargeable vehicle to said electrical device external to said vehicle by connection of said adapter (800, 800#) to said charging cable, said power storage device storing electric power supplied from said external power supply external to said vehicle through said charging cable during external charging to charge said power storage device, said charging cable being connected between said vehicle and said external power supply during the external charging, said adapter comprising: a first connection unit (801, 811) capable of connecting a power plug of said charging cable to be connected to said external power supply during the external charging; a second connection unit (805, 821) electrically connected to said first connection unit (801, 811) and capable of connecting a power plug of said electrical device; and a signal generation unit (850, 850A, 850B, 850C, 860, 870, 870A) configured to generate a signal instructing power feeding, by connection between said adapter (800, 800#) and said charging cable, such that the vehicle, in response to said signal instructing power feeding when said adapter (800, 800#) is connected between said power plug of said charging cable and said power plug of said electrical device, supplies the electric power from said power source (150; 120, 140) to said electrical device through said charging cable connected to said vehicle. a first connection unit (801, 811) capable of connecting a power plug of said charging cable to be connected to said external power supply during the external charging; a second connection unit (805, 821) electrically connected to said first connection unit (801, 811) and capable of connecting a power plug of said electrical device; and a signal generation unit (850, 850A, 850B, 850C, 860, 870, 870A) configured to generate a signal instructing power feeding, by connection between said adapter (800, 800#) and said charging cable, such that the vehicle, in response to said signal instructing power feeding when said adapter (800, 800#) is connected between said power plug of said charging cable and said power plug of said electrical device, supplies the electric power from said power source (150; 120, 140) to said electrical device through said charging cable connected to said vehicle.
A hot melt processable composition mixture comprising: an acid-functional (meth)acrylate-based adhesive composition with a hot melt processing temperature; and a zinc di-(meth)acrylate salt with a melting point wherein the melting point is higher than the hot melt processing temperature of the acid-functional (meth)acrylate-based adhesive composition, wherein the mixture is hot melt processable, and upon application to a substrate the mixture forms an ionically crosslinked layer comprising thermally reversible ionic crosslinks. an acid-functional (meth)acrylate-based adhesive composition with a hot melt processing temperature; and a zinc di-(meth)acrylate salt with a melting point wherein the melting point is higher than the hot melt processing temperature of the acid-functional (meth)acrylate-based adhesive composition, wherein the mixture is hot melt processable, and upon application to a substrate the mixture forms an ionically crosslinked layer comprising thermally reversible ionic crosslinks.
A method for handling a timer operation in a wireless communication system, characterized by: determining, by a base station, whether a Channel Occupancy Time, COT, is started or ongoing; and performing, by the base station, one of: sending a COT active indication to a User Equipment, UE, indicating that the base station has acquired the COT for transmission in response to determining that the COT is started or ongoing, and sending a COT inactive indication to the UE, 100, indicating that the base station has missed a transmission opportunity due to a listen-before-talk, LBT, failure in response to determining that the COT is not started or ongoing. determining, by a base station, whether a Channel Occupancy Time, COT, is started or ongoing; and performing, by the base station, one of: sending a COT active indication to a User Equipment, UE, indicating that the base station has acquired the COT for transmission in response to determining that the COT is started or ongoing, and sending a COT inactive indication to the UE, 100, indicating that the base station has missed a transmission opportunity due to a listen-before-talk, LBT, failure in response to determining that the COT is not started or ongoing. sending a COT active indication to a User Equipment, UE, indicating that the base station has acquired the COT for transmission in response to determining that the COT is started or ongoing, and sending a COT inactive indication to the UE, 100, indicating that the base station has missed a transmission opportunity due to a listen-before-talk, LBT, failure in response to determining that the COT is not started or ongoing.
A method for determining difference in distance from a reference point to at least two sensor modules (10, 20), all of which are located under water, wherein the sensor modules (10,20) are in signal connection with each other in that they comprise means for sending and receiving acoustic signals, and wherein the reference point comprises a hydrophone for receiving acoustic signals from the sensor modules (10, 20), the method being characterised in comprising the following steps: a) sending a first acoustic signal from the first sensor module to the second sensor module; b) sending acoustic signals from the second sensor module to the first sensor module and the hydrophone either immediately, or following set time delays after the second sensor module receives the said first acoustic signal sent from the first sensor module; c) measuring in the first sensor module the time T 1 it takes from when the acoustic signal is sent from the first sensor module until the first sensor module receives the said acoustic signal sent from the second sensor module; d) sending an acoustic signal, comprising the said time T 1, from the first sensor module to the hydrophone either immediately, or following a set time delay after the first sensor module receives the said acoustic signal sent from the second sensor module; e) measuring arrival times of received acoustic signals on the hydrophone at the reference point; and f) determining the difference in distance from the reference point to each of the sensor modules (10, 20) by calculating this difference in a calculating unit connected to the hydrophone at the reference point based on measured arrival times of acoustic signals on the hydrophone, and on the time T 1 and optional set time delays. a) sending a first acoustic signal from the first sensor module to the second sensor module; b) sending acoustic signals from the second sensor module to the first sensor module and the hydrophone either immediately, or following set time delays after the second sensor module receives the said first acoustic signal sent from the first sensor module; c) measuring in the first sensor module the time T 1 it takes from when the acoustic signal is sent from the first sensor module until the first sensor module receives the said acoustic signal sent from the second sensor module; d) sending an acoustic signal, comprising the said time T 1, from the first sensor module to the hydrophone either immediately, or following a set time delay after the first sensor module receives the said acoustic signal sent from the second sensor module; e) measuring arrival times of received acoustic signals on the hydrophone at the reference point; and f) determining the difference in distance from the reference point to each of the sensor modules (10, 20) by calculating this difference in a calculating unit connected to the hydrophone at the reference point based on measured arrival times of acoustic signals on the hydrophone, and on the time T 1 and optional set time delays.
A bimodal polyethylene composition comprising a low molecular weight polyethylene homopolymer fraction having a weight average molecular weight (Mw) from 25,000 to 60,000 g/mol and a high molecular weight polyethylene copolymer fraction having a weight average molecular weight from 200,000 to 1,200,000 g/mol, wherein the high molecular weight polyethylene copolymer fraction has a C 4 to C 10 α-olefin comonomer content from 0.25 to 3 mol%, wherein the content of the low molecular weight polyethylene with respect to the total amount of the bimodal polyethylene composition is from 40-65 wt%; and the bimodal polyethylene composition has a ratio of molecular weight distribution MWD 2/1 of more than 0.7, wherein MWD 2 / 1 = MWD copo / MWD homo with MWD copo being the molecular weight distribution of the high molecular weight polyethylene copolymer fraction and MWD homo being the molecular weight distribution of the low molecular weight polyethylene homopolymer fraction and a Mw 2/1 of more than 15, wherein Mw 2 / 1 = Mw copo / Mw homo wherein Mw copo is the weight average molecular weight of the high molecular weight polyethylene copolymer fraction and Mw homo is the weight average molecular weight of the low molecular weight polyethylene homopolymer fraction.
A vapor grown carbon fiber, each fiber filament of the carbon fiber having a branching degree of at least 0.15 occurrences/μm, wherein the vapor grown carbon fiber has a bulk density of 0.025 g/cm 3 or less.
A system (100, 200, 300) comprising: an open water lubricator (102, 202, 302) having a piston assembly (106, 206, 306) disposed therein; and a well control package (104, 304) connected to a distal end of the open water lubricator (102, 202, 302), wherein the piston assembly (106, 206, 306) is configured to extend through the well control package (104, 304); and a wellbore element comprising at least one of an internal tree cap (150, 250, 350, 450) and a crown plug (356, 472), wherein an interior of the system comprises a verifiable pressure barrier, characterized in that the open water lubricator (102, 202, 302) comprises: an upper assembly (107, 203) comprising: a tell-tale assembly; and a linear actuator assembly (108, 201) connected to the tell-tale assembly; and a lower spool assembly (113, 204) connected to the linear actuator assembly (108, 201). an open water lubricator (102, 202, 302) having a piston assembly (106, 206, 306) disposed therein; and a well control package (104, 304) connected to a distal end of the open water lubricator (102, 202, 302), wherein the piston assembly (106, 206, 306) is configured to extend through the well control package (104, 304); and a wellbore element comprising at least one of an internal tree cap (150, 250, 350, 450) and a crown plug (356, 472), wherein an interior of the system comprises a verifiable pressure barrier, characterized in that the open water lubricator (102, 202, 302) comprises: an upper assembly (107, 203) comprising: a tell-tale assembly; and a linear actuator assembly (108, 201) connected to the tell-tale assembly; and a lower spool assembly (113, 204) connected to the linear actuator assembly (108, 201). an upper assembly (107, 203) comprising: a tell-tale assembly; and a linear actuator assembly (108, 201) connected to the tell-tale assembly; and a lower spool assembly (113, 204) connected to the linear actuator assembly (108, 201).
Passenger seat device (2, 23, 29) for a vehicle cabin, the device comprising: - a front end and a rear end, - a backrest arranged at the rear end, - a plurality of horizontally arranged seat surface segments extending from the rear end to the front end, and - a seat frame for carrying the seat surface segments and the backrest, wherein the seat surface segments are arranged in a side-by-side relationship and constitute a seat surface, and wherein each of the seat surface segments is individually and independently adjustable between at least two different vertical positions relative to the seat frame in the form of a use position and an armrest position, thus creating different arrangements of higher or lower seat surface segments, leading to the creation of a plurality of different seating areas (18, 20, 22) with an individual number of seat surface segments in use position and separated through an armrest. - a front end and a rear end, - a backrest arranged at the rear end, - a plurality of horizontally arranged seat surface segments extending from the rear end to the front end, and - a seat frame for carrying the seat surface segments and the backrest,
Core drilling machine, having a stand, on which a carriage is guided, said carriage being movable by means of a drive in a working direction along a guide, wherein there is accommodated on the carriage a drilling unit with a spindle, driven by a motor, to drive a drilling tool, wherein the drive can be coupled with an intermediate shaft, by way of which the carriage is drivable, and wherein there is accommodated on the intermediate shaft a plunger, which is axially displaceable between a first position, within which a driving motion of the drive is transferred onto the intermediate shaft by way of the plunger, and a second position, in which there is no transfer of rotary motion from the drive to the intermediate shaft, characterised in that the drive has a stepper motor and that the drive has means for the periodic return of the carriage oppositely to the working direction.
An electrical connection device, the device comprising: a pin, socket or lug, and a means arranged for electrically connecting the pin, socket or lug from a second end of the means to groups of strands of a multi-bunch core of a machine, reeling or trailing cable from a first end of the means, the means having a common axis with respect to the first and second ends, characterised in that the first end is divided into a plurality of portions each having a single aperture (32, 34 and 36) positioned concentrically around the common axis arranged to receive and connect at least one group of strands, and in that the aperture of one portion is spaced at a differing distance from the second end than the aperture of another portion. a pin, socket or lug, and a means arranged for electrically connecting the pin, socket or lug from a second end of the means to groups of strands of a multi-bunch core of a machine, reeling or trailing cable from a first end of the means, the means having a common axis with respect to the first and second ends, characterised in that the first end is divided into a plurality of portions each having a single aperture (32, 34 and 36) positioned concentrically around the common axis arranged to receive and connect at least one group of strands, and in that the aperture of one portion is spaced at a differing distance from the second end than the aperture of another portion.
A premix gas burner for operation in blue flame mode, comprising a burner deck, said burner deck is comprising a fiber based substrate and a perforated plate or a screen supporting said fiber based burner substrate; characterized in that said burner deck is further comprising at least two contact wires forming a thermocouple, said contact wires being directly or indirectly fixed to the burner deck to measure a temperature of the burner deck when said premix gas burner is in operation, wherein the fiber based substrate is locally at least partly connected directly or indirectly to said perforated plate or said screen in the region where the contact wires of the thermocouple are directly or indirectly fixed to the burner deck; wherein the at least partly connection of the fiber based substrate in the region where the contact wires of the thermocouple are directly or indirectly fixed to the burner deck, is within an area defined by a circle with diameter of 50 mm around the projection of the centerpoint of the contact wire connections to the burner deck.
Actuating device for an internal combustion engine comprising: - a first housing part, - a drive motor supported in the first housing member in an axial direction and a radial direction - an intermediate housing member and - a second housing part in which a space is configured with an open side, wherein the first housing part, the second housing part and the intermediate housing member comprise corresponding openings (50, 54, 58) having a uniform hole pattern, and the first housing part is screwed to the second housing part with the intermediate housing element interposed therebetween, characterized in that the drive motor is electrically contacted via the intermediate housing element, and in that the intermediate housing element delimits the space of the second housing part, in which a gear unit of the actuating device is arranged, to the open side. - a first housing part, - a drive motor supported in the first housing member in an axial direction and a radial direction - an intermediate housing member and - a second housing part in which a space is configured with an open side, the first housing part, the second housing part and the intermediate housing member comprise corresponding openings (50, 54, 58) having a uniform hole pattern, and the first housing part is screwed to the second housing part with the intermediate housing element interposed therebetween, characterized in that the drive motor is electrically contacted via the intermediate housing element, and in that the intermediate housing element delimits the space of the second housing part, in which a gear unit of the actuating device is arranged, to the open side.
A system comprising a rack and at least one line-replaceable module, the rack comprising a slot for accommodating the line-replaceable module, characterized in that the rack further comprises a primary transmission circuit comprising a primary antenna, primary emission components (7, 8) arranged to generate an emitted power containing uplink data, and primary reception components (26, 27, 28) arranged to receive downlink data, the line-replaceable module comprising a secondary transmission circuit comprising a secondary antenna, secondary reception components (45, 51, 54, 52) arranged to receive the emitted power and the uplink data, and secondary emission components (61, 62, 63) arranged to generate the downlink data, the emitted power, the uplink data and the downlink data being transmitted via one and the same coupling between the primary antenna and the secondary antenna.
A method of purifying a product comprising the following steps (i) providing a crude product comprising at least one low molecular weight fluoroorganic compounds wherein the low molecular weight fluoroorganic compound is fluorinated and comprises a polar group and/or a reactive group; (ii) extracting the low molecular weight fluoroorganic compound from the product using water to form an extract, (iii) contacting the extract with a radical-forming process to degrade the low molecular weight fluoroorganic compounds into carbon dioxide, water, fluorine ions, and optionally cations; (iv) optionally, removing the fluorine ions and cations; and (v) optionally using the water from step (iii) in step (ii), wherein the crude product is a fluoropolymer latex or a coagulated fluoropolymer and wherein the low molecular weight fluoroorganic compound is a fluorinated emulsifier selected from: [R f -O-L-COO -] i X i+ wherein L represents a linear or branched, non-fluorinated, partially fluorinated, or fully fluorinated alkylene group, R f represents a linear or branched partially or fully fluorinated aliphatic group or a linear or branched partially or fully fluorinated aliphatic group interrupted with at least one oxygen atom, X i+ represents a cation having the valence i and i is 1, 2 or 3. (i) providing a crude product comprising at least one low molecular weight fluoroorganic compounds wherein the low molecular weight fluoroorganic compound is fluorinated and comprises a polar group and/or a reactive group; (ii) extracting the low molecular weight fluoroorganic compound from the product using water to form an extract, (iii) contacting the extract with a radical-forming process to degrade the low molecular weight fluoroorganic compounds into carbon dioxide, water, fluorine ions, and optionally cations; (iv) optionally, removing the fluorine ions and cations; and (v) optionally using the water from step (iii) in step (ii), wherein the crude product is a fluoropolymer latex or a coagulated fluoropolymer and wherein the low molecular weight fluoroorganic compound is a fluorinated emulsifier selected from: [R f -O-L-COO -] i X i+ wherein L represents a linear or branched, non-fluorinated, partially fluorinated, or fully fluorinated alkylene group, R f represents a linear or branched partially or fully fluorinated aliphatic group or a linear or branched partially or fully fluorinated aliphatic group interrupted with at least one oxygen atom, X i+ represents a cation having the valence i and i is 1, 2 or 3.
A method of preparing a porous protein scaffold for supporting the growth of biological tissue, said method comprising: providing an oil-in water emulsion comprising oil droplets dispersed in a continuous phase comprising a pH-buffered aqueous protein solution, wherein the oil-in-water emulsion comprises a non-ionic surfactant or a mixture of non-ionic surfactants, wherein the non-ionic surfactant is in an amount of 0.01 to 10 volume % of the total volume of the oil phase in the oil-in-water emulsion, wherein a HLB of the non-ionic surfactant or the surfactant mixture is 10 to 16; gelling the protein around the oil droplets; removing the oil droplets from the continuous phase after formation of a scaffold; and incubating the scaffold with an excipient solution. providing an oil-in water emulsion comprising oil droplets dispersed in a continuous phase comprising a pH-buffered aqueous protein solution, wherein the oil-in-water emulsion comprises a non-ionic surfactant or a mixture of non-ionic surfactants, wherein the non-ionic surfactant is in an amount of 0.01 to 10 volume % of the total volume of the oil phase in the oil-in-water emulsion, wherein a HLB of the non-ionic surfactant or the surfactant mixture is 10 to 16; gelling the protein around the oil droplets; removing the oil droplets from the continuous phase after formation of a scaffold; and incubating the scaffold with an excipient solution.
A pharmaceutical composition for use in treating an infectious disease, the composition comprising: (a) up to four peptides selected from the group consisting of: (i) a peptide consisting of the amino acid sequence SEQ ID NO:1; (ii) a peptide consisting of the amino acid sequence SEQ ID NO:2; (iii) a peptide consisting of the amino acid sequence SEQ ID NO:3; and (iv) a peptide consisting of the amino acid sequence SEQ ID NO:4; and (b) a pharmaceutically acceptable vehicle, wherein the pharmaceutical composition is for administration to enhance, stimulate, and/or increase an individual's immune response to an infectious agent. (a) up to four peptides selected from the group consisting of: (i) a peptide consisting of the amino acid sequence SEQ ID NO:1; (ii) a peptide consisting of the amino acid sequence SEQ ID NO:2; (iii) a peptide consisting of the amino acid sequence SEQ ID NO:3; and (iv) a peptide consisting of the amino acid sequence SEQ ID NO:4; and (i) a peptide consisting of the amino acid sequence SEQ ID NO:1; (ii) a peptide consisting of the amino acid sequence SEQ ID NO:2; (iii) a peptide consisting of the amino acid sequence SEQ ID NO:3; and (iv) a peptide consisting of the amino acid sequence SEQ ID NO:4; and (b) a pharmaceutically acceptable vehicle,