mhurhangee/ep-ind-claims huggingface dataset:
A system comprising a portable power supply and a gas-engine generator, the portable power supply comprising: a housing; at least one battery cell disposed in the housing; an inverter connected to the at least one battery cell; and a heat source adjacent to the at least one battery cell for warming the at least one battery cell, wherein the heat source is an exhaust of the gas engine generator; wherein there is further provided a hose to duct the exhaust gases from the gas-engine generator to the power supply; and wherein the gas-engine generator further comprises at least one protrusion for receiving the power supply and for engaging a feature in the housing so that the power supply can not be moved horizontally relative to the gas-engine generator. a housing; at least one battery cell disposed in the housing; an inverter connected to the at least one battery cell; and a heat source adjacent to the at least one battery cell for warming the at least one battery cell, wherein the heat source is an exhaust of the gas engine generator; wherein there is further provided a hose to duct the exhaust gases from the gas-engine generator to the power supply; and wherein the gas-engine generator further comprises at least one protrusion for receiving the power supply and for engaging a feature in the housing so that the power supply can not be moved horizontally relative to the gas-engine generator.
A system comprising: a first device comprising a processor and a Wi-Fi module; and a remote processing system coupled to the first device via a wireless connection across a network, wherein the first device is configured to switch, during operation, between: a first operating mode in which the processor performs packet processing for the wireless connection on behalf of the first device, and a second operating mode in which the processor is in a reduced power state and the Wi-Fi module performs packet processing for the wireless connection on behalf of the first device, characterised in that the system is configured such that: when the first device switches from the first operating mode to the second operating mode, a then-current sequence number associated with packets transmitted over the wireless connection is transferred from a computer-based memory in the first device to the Wi-Fi module, or when the first device switches from the second operating mode to the first operating mode, a then-current sequence number associated with packets transmitted over the wireless connection is transferred from the Wi-Fi module to an operating system for the processor. a first device comprising a processor and a Wi-Fi module; and a remote processing system coupled to the first device via a wireless connection across a network, wherein the first device is configured to switch, during operation, between: a first operating mode in which the processor performs packet processing for the wireless connection on behalf of the first device, and a second operating mode in which the processor is in a reduced power state and the Wi-Fi module performs packet processing for the wireless connection on behalf of the first device, a first operating mode in which the processor performs packet processing for the wireless connection on behalf of the first device, and a second operating mode in which the processor is in a reduced power state and the Wi-Fi module performs packet processing for the wireless connection on behalf of the first device, characterised in that the system is configured such that: when the first device switches from the first operating mode to the second operating mode, a then-current sequence number associated with packets transmitted over the wireless connection is transferred from a computer-based memory in the first device to the Wi-Fi module, or when the first device switches from the second operating mode to the first operating mode, a then-current sequence number associated with packets transmitted over the wireless connection is transferred from the Wi-Fi module to an operating system for the processor. when the first device switches from the first operating mode to the second operating mode, a then-current sequence number associated with packets transmitted over the wireless connection is transferred from a computer-based memory in the first device to the Wi-Fi module, or when the first device switches from the second operating mode to the first operating mode, a then-current sequence number associated with packets transmitted over the wireless connection is transferred from the Wi-Fi module to an operating system for the processor.
A fiber optic connector comprising: a connector housing; and an integral assembly insertable in the connector housing, the integral assembly comprising: a ferrule assembly having a ferrule and a ferrule seat; a spring seat provided behind the ferrule assembly; and a spring provided between the ferrule assembly and the spring seat, wherein the spring seat has a receiving chamber having an insertion port through which a portion of the ferrule assembly is insertable into the receiving chamber; wherein the ferrule assembly is held to be movably engaged with the spring seat, and the spring is fitted and compressed in the receiving chamber, wherein the ferrule seat comprises keys adjacent to the ferrule, a first cylindrical portion at a rear side of the keys, a second cylindrical portion connected to the first cylindrical portion, and at least one protrusion formed on the first cylindrical portion opposite to the keys, and wherein the at least one protrusion is configured to abut the spring seat so as to prevent the ferrule seat from being disengaged from the spring seat. a connector housing; and an integral assembly insertable in the connector housing, the integral assembly comprising: a ferrule assembly having a ferrule and a ferrule seat; a spring seat provided behind the ferrule assembly; and a spring provided between the ferrule assembly and the spring seat, wherein the spring seat has a receiving chamber having an insertion port through which a portion of the ferrule assembly is insertable into the receiving chamber; wherein the ferrule assembly is held to be movably engaged with the spring seat, and the spring is fitted and compressed in the receiving chamber, wherein the ferrule seat comprises keys adjacent to the ferrule, a first cylindrical portion at a rear side of the keys, a second cylindrical portion connected to the first cylindrical portion, and at least one protrusion formed on the first cylindrical portion opposite to the keys, and wherein the at least one protrusion is configured to abut the spring seat so as to prevent the ferrule seat from being disengaged from the spring seat. a ferrule assembly having a ferrule and a ferrule seat; a spring seat provided behind the ferrule assembly; and a spring provided between the ferrule assembly and the spring seat, wherein the spring seat has a receiving chamber having an insertion port through which a portion of the ferrule assembly is insertable into the receiving chamber; wherein the ferrule assembly is held to be movably engaged with the spring seat, and the spring is fitted and compressed in the receiving chamber, wherein the ferrule seat comprises keys adjacent to the ferrule, a first cylindrical portion at a rear side of the keys, a second cylindrical portion connected to the first cylindrical portion, and at least one protrusion formed on the first cylindrical portion opposite to the keys, and wherein the at least one protrusion is configured to abut the spring seat so as to prevent the ferrule seat from being disengaged from the spring seat.
Vacuum cleaner at least comprising a dust compartment and a blower space connected to the dust compartment by means of a flow channel, wherein the flow channel is embodied as an air conductor at least in regions, and the air conductor tapers cross-sectionally in the flow direction from its inlet aperture, which is directed toward the dust compartment, as far as its outlet aperture, which is directed toward the blower space, wherein a hand protection grid is arranged in the flow channel, characterised in that in the flow direction the hand protection grid begins at the earliest in the last eighth of the tapering cross-section of the air conductor.
A top-tensioned riser system for an offshore platform comprising: a subsea riser having a tension joint on a upper portion thereof, at least a portion of the tension joint having a tapered outer diameter; a riser tensioner connected at a first end to an upper portion of the tension joint and to the platform structure at a second, opposing end; at least two rollers proximate the outer surface of a lower portion of the tension joint such that lateral motion of the lower portion of the tension joint causes the portion of the tension joint having a tapered outer diameter to bear against at least one roller, wherein the rollers comprise an elastomer or polyurethane. a subsea riser having a tension joint on a upper portion thereof, at least a portion of the tension joint having a tapered outer diameter; a riser tensioner connected at a first end to an upper portion of the tension joint and to the platform structure at a second, opposing end; at least two rollers proximate the outer surface of a lower portion of the tension joint such that lateral motion of the lower portion of the tension joint causes the portion of the tension joint having a tapered outer diameter to bear against at least one roller, wherein the rollers comprise an elastomer or polyurethane.
A method of handling kinematic singularities in a multi-axis materials processing installation, comprising: receiving positional information describing a materials process path for a tip portion of the multi-axis installation; determining if the tip portion is proximate to a singular point in the process path by identifying a singular axis; if the tip portion is proximate, generating a virtual axis that is approximately perpendicular to the singular axis wherein generating a virtual axis further comprises generating a Jacobian matrix that is relatively well-conditioned; calculating a vector that includes initial link positions using an inverse kinematics calculation; calculating an actual tip position vector using a forward kinematics calculation and the vector that includes initial link positions; generating a positional difference vector based a desired tip position and the actual tip position vector, and generating a vector that includes link position differences; and calculating a vector that includes new link positions using the vector that includes link position differences and the vector that includes initial link positions. receiving positional information describing a materials process path for a tip portion of the multi-axis installation; determining if the tip portion is proximate to a singular point in the process path by identifying a singular axis; if the tip portion is proximate, generating a virtual axis that is approximately perpendicular to the singular axis wherein generating a virtual axis further comprises generating a Jacobian matrix that is relatively well-conditioned; calculating a vector that includes initial link positions using an inverse kinematics calculation; calculating an actual tip position vector using a forward kinematics calculation and the vector that includes initial link positions; generating a positional difference vector based a desired tip position and the actual tip position vector, and generating a vector that includes link position differences; and calculating a vector that includes new link positions using the vector that includes link position differences and the vector that includes initial link positions.
A method for transferring packet-based digital data between a first device in a first communications network and a second device in a second communications network, said second communications network providing for isochronous channel communications between devices interconnected via the second communications network, said method comprising the steps of: - receiving a stream of packet based digital data from the first device in the first communications network, the first communications network having a prioritized communications protocol; - determining a priority code associated with a data packet of said stream; - determining whether said prioritized data packet requires transmission to a second device associated with said second communications network over an isochronous channel based on said priority code, - in the affirmative, establishing an isochronous channel of a reserved bandwidth for communicating said data stream to the second device in the second communications network, - modifying header information associated with at least said data packet in said stream into a format suitable for communication through said established isochronous channel for transfer to said second communications network, wherein said modifying comprises including an IP layer in an isochronous channel by defining a new format, FMT, code to be placed in a common isochronous packet header associated with data packets of a IEC-61883 layer. - receiving a stream of packet based digital data from the first device in the first communications network, the first communications network having a prioritized communications protocol; - determining a priority code associated with a data packet of said stream; - determining whether said prioritized data packet requires transmission to a second device associated with said second communications network over an isochronous channel based on said priority code, - in the affirmative, establishing an isochronous channel of a reserved bandwidth for communicating said data stream to the second device in the second communications network, - modifying header information associated with at least said data packet in said stream into a format suitable for communication through said established isochronous channel for transfer to said second communications network, wherein said modifying comprises including an IP layer in an isochronous channel by defining a new format, FMT, code to be placed in a common isochronous packet header associated with data packets of a IEC-61883 layer.
A CO 2 recovery unit (10A; 10B) including a CO 2 absorber that brings flue gas containing CO 2 into contact with a CO 2 absorbent and removes CO 2 in the flue gas, and a regenerator that diffuses CO 2 in a rich solution having absorbed CO 2 in the CO 2 absorber, to reuse in the CO 2 absorber a lean solution which is obtained by removing CO 2 from the rich solution in the regenerator, comprising: at least two compressors (29-1, 29-2, 29-3, 29-4) arranged in series that compress CO 2 gas discharged from the regenerator; a dehydrating column that is provided between any two of the compressors (29-1, 29-2, 29-3, 29-4) and reduce moisture in the CO 2 gas by bringing the CO 2 gas into contact with a dehydrating agent supplied into the dehydrating column; a combustion removal unit that removes the dehydrating agent accompanied by CO 2 gas in the dehydrating column due to combustion reaction; and a heat exchanger that is provided between the dehydrating column and the combustion removal unit and performs indirect heat exchange between CO 2 gas discharged from any one of the compressors (29-1, 29-2, 29-3, 29-4) and CO 2 gas discharged from the dehydrating column. at least two compressors (29-1, 29-2, 29-3, 29-4) arranged in series that compress CO 2 gas discharged from the regenerator; a dehydrating column that is provided between any two of the compressors (29-1, 29-2, 29-3, 29-4) and reduce moisture in the CO 2 gas by bringing the CO 2 gas into contact with a dehydrating agent supplied into the dehydrating column; a combustion removal unit that removes the dehydrating agent accompanied by CO 2 gas in the dehydrating column due to combustion reaction; and a heat exchanger that is provided between the dehydrating column and the combustion removal unit and performs indirect heat exchange between CO 2 gas discharged from any one of the compressors (29-1, 29-2, 29-3, 29-4) and CO 2 gas discharged from the dehydrating column.
A polymorph of -3-(3-(1-methyl-2-oxo-5-(pyrazolo[1,5-a]pyridine-3-yl)-1H-imidazo[4,5-b]pyridine-3 -yl)piperidin-1-yl)-3-oxopropanenitrile with the following diffraction angles (2Theta) based on cupric Kα1: at 8.25° at 13.25° at 15.40° at 17.65° at 25.39° at 8.25° at 13.25° at 15.40° at 17.65° at 25.39°
A metal fitting for a toeboard of a scaffolding, comprising a metal fitting body extending in a longitudinal direction of the metal fitting body (L K) from a first end region of the metal fitting body designed for connection to a toeboard and/or connected to a toeboard to a second end region of the metal fitting body designed for securing on a scaffolding, wherein at least one securing protrusion (42, 46) is provided in the second end region of the metal fitting body extending substantially in the longitudinal direction of the metal fitting body (L K), wherein at least one support protrusion is provided extending in a first transverse direction (Q 1) transverse to the longitudinal direction (L K) of the metal fitting body, wherein the at least one securing protrusion (42, 46) is offset in the first transverse direction (Q 1) relative to a metal fitting body base plane of the metal fitting body and the metal fitting body has an offset region projecting substantially in the first transverse direction (Q 1) out of the base plane of the metal fitting body and supporting the at least one securing protrusion (42, 46), characterized in that the support projection extends in the first transverse direction (Q 1) past the at least one securing protrusion (42, 46).
A method implemented by a transmitting radio node for transmitting packets in a wireless communication system, the method comprising: receiving, at the transmitting node from a receiving node, a scheduling grant indicating the receiving radio node's scheduling decision, scheduling the packets to be transmitted over one or more of multiple different types of radio links; transmitting packets to the receiving radio node as scheduled by the receiving radio node over the one or more of multiple different types of radio links (18, 20) between which transmission of the packets is configured to be split or switched, said different types of radio links using different radio access technologies; receiving from the receiving radio node a retransmission link indication that indicates over which of the multiple different types of radio links (18, 20) packet retransmission is to be performed; performing packet retransmission based on the retransmission link indication; and wherein the method also comprises receiving from the receiving radio node a retransmission packet indication that indicates a particular packet to retransmit to the receiving radio node, and wherein the retransmission link indication indicates over which of the multiple different types of radio links (18, 20) to retransmit that particular packet, wherein the retransmission link indication and the retransmission packet indication are included in a request message transmitted from the receiving radio node to the transmitting radio node requesting retransmission of the particular packet. receiving, at the transmitting node from a receiving node, a scheduling grant indicating the receiving radio node's scheduling decision, scheduling the packets to be transmitted over one or more of multiple different types of radio links; transmitting packets to the receiving radio node as scheduled by the receiving radio node over the one or more of multiple different types of radio links (18, 20) between which transmission of the packets is configured to be split or switched, said different types of radio links using different radio access technologies; receiving from the receiving radio node a retransmission link indication that indicates over which of the multiple different types of radio links (18, 20) packet retransmission is to be performed; performing packet retransmission based on the retransmission link indication; and wherein the method also comprises receiving from the receiving radio node a retransmission packet indication that indicates a particular packet to retransmit to the receiving radio node, and wherein the retransmission link indication indicates over which of the multiple different types of radio links (18, 20) to retransmit that particular packet, wherein the retransmission link indication and the retransmission packet indication are included in a request message transmitted from the receiving radio node to the transmitting radio node requesting retransmission of the particular packet.
An implant for the replacement and regeneration of biological tissue in the shape of a plug, comprising a base section configured for anchoring in bone tissue, a middle section configured for replacing cartilage tissue, and a top section configured for growing cartilage tissue onto and into, wherein the middle and top section comprise the same thermoplastic elastomeric material, which is porous in the top section, and non-porous in the middle section, characterized in that the base section comprises a substantially non-porous polyaryletherketone polymer with a porosity of less than 20 %, relative to the total volume of the polyaryletherketone polymer.
A method for purifying a fluid comprising a first drying stage which comprises contacting a first fluid stream comprising one or more hydro(chloro)fluoroolefins and water with a source of sulphuric acid at a concentration between 75wt% and 95wt% to produce a first treated fluid stream comprising the hydro(chloro)fluoroolefin(s) and a first spent sulphuric acid stream, wherein the first treated fluid stream comprises a lower concentration of water than the first fluid stream, and wherein at least 50wt% of the first fluid stream comprises a hydro(chloro)fluoroolefin selected from the group hydrofluoropropenes, hydrochlorofluoropropenes, hydrofluoroethylenes and hydrochlorofluorobutenes.
A process for making a dispersion of silicate particles in a polyol phase comprising the steps of a) forming a mixture by combining i) 0.5 to 50 parts by weight of at least one alkoxysilane in which the alkoxy groups each independently contain 1 to 4 carbon atoms, ii) 100 parts by weight of one or more polyols each having a hydroxyl equivalent weight of 125 to 5000, the one or more polyols having an average at least 1.8 hydroxyl groups per molecule, iii) at least one mole of water per mole of the at least one alkoxysilane and iv) a catalyst for the reaction of the alkoxysilane and water and then; b) at a temperature of 10 to 70°C and under agitation, reacting the at least one alkoxysilane and water in the presence of the one or more polyols to form a dispersion of silicate particles in a continuous phase of the one or more polyols; and then c) stripping the dispersion to remove residual water and other volatiles. a) forming a mixture by combining i) 0.5 to 50 parts by weight of at least one alkoxysilane in which the alkoxy groups each independently contain 1 to 4 carbon atoms, ii) 100 parts by weight of one or more polyols each having a hydroxyl equivalent weight of 125 to 5000, the one or more polyols having an average at least 1.8 hydroxyl groups per molecule, iii) at least one mole of water per mole of the at least one alkoxysilane and iv) a catalyst for the reaction of the alkoxysilane and water and then; b) at a temperature of 10 to 70°C and under agitation, reacting the at least one alkoxysilane and water in the presence of the one or more polyols to form a dispersion of silicate particles in a continuous phase of the one or more polyols; and then c) stripping the dispersion to remove residual water and other volatiles.