mhurhangee/ep-ind-claims huggingface dataset:
A metabolically engineered cell producing a mixture of at least four different neutral non-fucosylated oligosaccharides, wherein said cell - expresses at least three glycosyltransferases, and - is capable to synthesize one or more nucleotide-sugar(s), wherein said nucleotide-sugar(s) is/are donor(s) for said glycosyltransferases. - expresses at least three glycosyltransferases, and - is capable to synthesize one or more nucleotide-sugar(s), wherein said nucleotide-sugar(s) is/are donor(s) for said glycosyltransferases.
A method for producing a secondary battery, comprising: a step for reducing an internal pressure of a battery case; a step for pouring an electrolyte solution into the battery case whose internal pressure is reduced; a step for sealing the battery case into which the electrolyte solution is poured; and a step for waiting to reduce a difference between a pressure of an external space of a wound body, which is a space between the sealed battery case and the wound body, and a pressure of an internal space of the wound body, and for impregnating the electrolyte solution into the wound body from both axial end portions of the wound body to reduce a volume of the internal space of the wound body; a step for performing initial charging of the secondary battery in which the wound body is impregnated with the electrolyte solution; and a step for performing heating of the initially charged secondary battery while maintaining the seal of the battery case, characterised in that an additive is added to the electrolyte solution which is poured into the battery case in the step for pouring and in that the additive is added into the electrolyte solution in an amount such that, by a gas produced through decomposition reaction of the additive, the internal pressure of the battery case in the step for performing heating becomes equal to or higher than a saturation vapor pressure of the electrolyte solution in the step for performing heating. a step for reducing an internal pressure of a battery case; a step for pouring an electrolyte solution into the battery case whose internal pressure is reduced; a step for sealing the battery case into which the electrolyte solution is poured; and a step for waiting to reduce a difference between a pressure of an external space of a wound body, which is a space between the sealed battery case and the wound body, and a pressure of an internal space of the wound body, and for impregnating the electrolyte solution into the wound body from both axial end portions of the wound body to reduce a volume of the internal space of the wound body; a step for performing initial charging of the secondary battery in which the wound body is impregnated with the electrolyte solution; and a step for performing heating of the initially charged secondary battery while maintaining the seal of the battery case, characterised in that an additive is added to the electrolyte solution which is poured into the battery case in the step for pouring and in that the additive is added into the electrolyte solution in an amount such that, by a gas produced through decomposition reaction of the additive, the internal pressure of the battery case in the step for performing heating becomes equal to or higher than a saturation vapor pressure of the electrolyte solution in the step for performing heating.
Wedge locking washer(1a, 1b) comprising a central axis, a central through hole concentric with the central axis and defining an inner peripheral axial surface, an outer peripheral axial surface, a first side surface adapted to face and engage another wedge locking washer (1a, 1b), said first side comprising a pattern of radially extending cams, each cam comprising a first surface inclined in relation to a central plane of a wedge cam locking surface and a second surface and wherein the first and the second surface of each cam meet in a radially extending cam edge and wherein the second surface of a first cam meet the first surface of an adjacent cam in a radially extending inner corner, each cam having a height h defined between a bottom plane in which the bottom of the inner corner is arranged and a top plane in which the top of the cam edge is arranged, wherein a zone of smooth transition of the inner corner has a horizontal length a, the inner corner has a height H of at least h/4 and at most h/2 defined as the height H in vertical direction from the inner corner bottom to the end of the smooth transition zone, the cam edge having a smooth transition zone, which has a height H' that is equal to or larger than height H of the inner corner, and characterized in that at least the first surface is surface hardened and electro-polished or at least the first surface is surface hardened and pickled.
Isolation transformer (100is1, 100is2, 100is3, 100is4) comprising: - a Faraday cage comprising a magnetic core (110a, 110b, 110c) and at least one primary coil (120, 120-1..120-3) and at least one secondary coil (130, 130-1..130-3); - input terminals (Ti1, Ti2, Ti3) connected to the at least one primary coil (120, 120-1..120-3) via input wires (i1, i2, i3); - output terminals (To1, To2, To3) connected to the at least one secondary coil (130, 130-1..130-3) via output wires (o1, o2, o3), and - an input ground terminal for connecting to the Faraday cage and an output ground terminal connected to the Faraday cage for further connection to a further circuit (200, 500) to be connected to the isolation transformer (100is1, 100is2, 100is3, 100is4), characterised in that the isolation transformer (100is1, 100is2, 100is3, 100is4) further comprises: - a clean ground input terminal for receiving an external clean ground (ISPE); - a clean ground output terminal for connecting to a further clean ground input terminal of the further circuit (200, 500), and - a physical electrical node (160, 175) placed at a location within the Faraday cage where the magnetic flux and electric field are the lowest, wherein the clean ground input terminal is electrically fed into the isolation transformer (100is1, 100is2, 100is3, 100is4) and connected to the physical electrical node (160, 175) through a first electric connection, wherein the physical electrical node (160, 175) is further electrically connected to a clean ground output terminal through a second electric connection. - a Faraday cage comprising a magnetic core (110a, 110b, 110c) and at least one primary coil (120, 120-1..120-3) and at least one secondary coil (130, 130-1..130-3); - input terminals (Ti1, Ti2, Ti3) connected to the at least one primary coil (120, 120-1..120-3) via input wires (i1, i2, i3); - output terminals (To1, To2, To3) connected to the at least one secondary coil (130, 130-1..130-3) via output wires (o1, o2, o3), and - an input ground terminal for connecting to the Faraday cage and an output ground terminal connected to the Faraday cage for further connection to a further circuit (200, 500) to be connected to the isolation transformer (100is1, 100is2, 100is3, 100is4), - a clean ground input terminal for receiving an external clean ground (ISPE); - a clean ground output terminal for connecting to a further clean ground input terminal of the further circuit (200, 500), and - a physical electrical node (160, 175) placed at a location within the Faraday cage where the magnetic flux and electric field are the lowest,
An optical node for receiving simultaneously a first optical signal conveying a first set of data and a second optical signal conveying a second set of data, the first set of data and the second set of data being respectively informative data, the optical node comprising: - a first optical frontend for receiving the first optical signal and for converting from optical domain to electrical domain said first optical signal into a first raw electrical signal, - a second optical frontend for receiving the second optical signal and for converting from optical domain to electrical domain said second optical signal into a second raw electrical signal, - a storage device connected to the first optical frontend and to the second optical frontend, and being adapted to store simultaneously the first raw electrical signal and the second raw electrical signal, - a processing device connected to the storage device, and being provided sequentially with the stored first raw electrical signal for extracting the first set of data, and with the stored second raw electrical signal for extracting the second set of data. - a first optical frontend for receiving the first optical signal and for converting from optical domain to electrical domain said first optical signal into a first raw electrical signal, - a second optical frontend for receiving the second optical signal and for converting from optical domain to electrical domain said second optical signal into a second raw electrical signal, - a storage device connected to the first optical frontend and to the second optical frontend, and being adapted to store simultaneously the first raw electrical signal and the second raw electrical signal, - a processing device connected to the storage device, and being provided sequentially with the stored first raw electrical signal for extracting the first set of data, and with the stored second raw electrical signal for extracting the second set of data.
A cooling circuit for a vehicle, particularly a commercial vehicle, wherein the cooling circuit comprises a combustion engine, a retarder cooler for cooling a retarder, an EGR cooler for cooling an exhaust gas of the combustion engine, and a coolant cooler which is coupled to the combustion engine for cooling the combustion engine by means of a coolant, wherein the EGR cooler is configured to cool exhaust gas from the combustion engine via the coolant from the combustion engine, the retarder cooler is arranged permanently in series with the EGR cooler in a fluid path of the coolant forming a return line for the coolant from the combustion engine to the coolant cooler, characterized in that - the EGR cooler is configured for conveying the complete coolant flow evacuated from the combustion engine; - the combustion engine comprises a coolant input port positioned at a first end of the combustion engine and a coolant output port being positioned at a second end of the combustion engine opposite the first end; and - the coolant output port being positioned at a distance from the coolant cooler and the coolant output port being connected to an inlet of the retarder cooler. - the EGR cooler is configured for conveying the complete coolant flow evacuated from the combustion engine; - the combustion engine comprises a coolant input port positioned at a first end of the combustion engine and a coolant output port being positioned at a second end of the combustion engine opposite the first end; and - the coolant output port being positioned at a distance from the coolant cooler and the coolant output port being connected to an inlet of the retarder cooler.
A toner which comprises i) toner base particles having at least a binder resin and a colorant and ii) a fatty acid metal salt composition as an external additive; the fatty acid metal salt composition containing a nonionic surface-active agent and a fatty acid metal salt.
A method for securing two substrates (2, 4) comprising the following steps: - providing a first substrate provided with a monoblock receiving area made from a first metallic material and a second substrate provided with an insertion area comprising a base surface and at least two bumps made from a second metallic material, the at least two bumps being salient from the base surface, the receiving area et the insertion area forming an electrical connection, - applying a pressure between the first substrate and the second substrate so as to make the at least two bumps penetrate into the receiving area of the first substrate, - making the first metallic material react with the second metallic material so as to form a continuous layer of an intermetallic compound based on the first and second metallic materials along the interface between each bump and the receiving area, the at least two layers of intermetallic compound being separated by an area made from the first metallic material, the base surface being formed by a third metallic material, the at least two bumps penetrating into the base surface when applying the pressure, the third metallic material reacting with the second metallic material to form a second intermetallic compound. - providing a first substrate provided with a monoblock receiving area made from a first metallic material and a second substrate provided with an insertion area comprising a base surface and at least two bumps made from a second metallic material, the at least two bumps being salient from the base surface, the receiving area et the insertion area forming an electrical connection, - applying a pressure between the first substrate and the second substrate so as to make the at least two bumps penetrate into the receiving area of the first substrate, - making the first metallic material react with the second metallic material so as to form a continuous layer of an intermetallic compound based on the first and second metallic materials along the interface between each bump and the receiving area, the at least two layers of intermetallic compound being separated by an area made from the first metallic material, the base surface being formed by a third metallic material, the at least two bumps penetrating into the base surface when applying the pressure, the third metallic material reacting with the second metallic material to form a second intermetallic compound.
An advanced metering infrastructure, AMI, enabled device (22, 40), comprising: a power failure detection system (24, 42) that constructs a power loss message in response to a detected loss of power; and a communication system (26, 44) for transmitting messages over a network, wherein the communication system (26, 44) includes: a prioritization system (28, 48) for prioritizing the power loss message as a high priority message, and a queuing system (31, 50) that ensures that the power loss message is transmitted ahead of a low priority message; wherein the power loss message includes an encrypted portion and an unencrypted portion, and the prioritization system (28, 48) inspects an indicator stored in an unencrypted portion of a received message to determine if the received message is a power loss message. a power failure detection system (24, 42) that constructs a power loss message in response to a detected loss of power; and a communication system (26, 44) for transmitting messages over a network, wherein the communication system (26, 44) includes: a prioritization system (28, 48) for prioritizing the power loss message as a high priority message, and a queuing system (31, 50) that ensures that the power loss message is transmitted ahead of a low priority message; wherein the power loss message includes an encrypted portion and an unencrypted portion, and the prioritization system (28, 48) inspects an indicator stored in an unencrypted portion of a received message to determine if the received message is a power loss message. a prioritization system (28, 48) for prioritizing the power loss message as a high priority message, and a queuing system (31, 50) that ensures that the power loss message is transmitted ahead of a low priority message; wherein the power loss message includes an encrypted portion and an unencrypted portion, and the prioritization system (28, 48) inspects an indicator stored in an unencrypted portion of a received message to determine if the received message is a power loss message.
A method implemented by a user equipment, UE, for interference cancellation, IC, capability reporting, the method comprising: reporting, to a network, IC capability information of the UE; receiving, from the network, instructions in accordance with the IC capability information of the UE, the instructions determining a handover behavior by the UE; and performing a handover procedure in accordance with the instructions. reporting, to a network, IC capability information of the UE; receiving, from the network, instructions in accordance with the IC capability information of the UE, the instructions determining a handover behavior by the UE; and performing a handover procedure in accordance with the instructions.
Surge arrester, comprising a first and a second connection terminals (1, 2) for connection to the active leads of an electric plant, between which a protection element is inserted, provided with a pair of electrodes electrically connected to said connection terminals, a disconnector arranged between said first terminal and an electrode of the protection element comprising a metal plate or lamina having a base end electrically connected to said first terminal and a distal end maintained electrically connected to said electrode, said lamina being made of a material and section suited to cause it to sublimate in the presence of short-circuit currents above a preset threshold, an intercepting slider, mounted longitudinally slidable along a longitudinal direction which lies between said base end of the plate and said electrode of the protection element to intersect development of an electric arc, a sliding guide for said intercepting slider, the slider being biased in said longitudinal direction, through preloaded elastic means, towards an intercepting position abutting a portion of said plate, characterised in that said slider is in the shape of a hollow, elongated body, open at a back end and closed at a front end, and partly houses said preloaded elastic means, and in that said slider is provided with at least one opening, on the side wall of said hollow body, which runs through the thickness thereof and puts in communication the outside with the inside of said hollow, elongated body of the slider.
An article of footwear, comprising: a sole; and a collapsible upper which includes a first portion; a second portion which is below the first portion and extends from the sole to the first portion; and a seam which is positioned above the sole and not in contact with the sole and further joins at least a portion of the perimeter of the first portion with at least a portion of the perimeter of the second portion; wherein when the upper is in a collapsed state, the seam becomes the widest point of the article of footwear and defines at least a portion of the perimeter of the article of footwear, and further wherein the sole is attached to the collapsible upper, the seam joins the entire perimeter of the first portion with the perimeter of the second portion and defines the perimeter of the article of footwear when the upper is in a collapsed state, and a plurality of slits formed in the upper include one or more slits formed in and positioned about a periphery of the first portion of the upper and one or more slits formed in and positioned about a periphery of the second portion of the upper. a sole; and a collapsible upper which includes a first portion; a second portion which is below the first portion and extends from the sole to the first portion; and a seam which is positioned above the sole and not in contact with the sole and further joins at least a portion of the perimeter of the first portion with at least a portion of the perimeter of the second portion; a first portion; a second portion which is below the first portion and extends from the sole to the first portion; and a seam which is positioned above the sole and not in contact with the sole and further joins at least a portion of the perimeter of the first portion with at least a portion of the perimeter of the second portion; wherein when the upper is in a collapsed state, the seam becomes the widest point of the article of footwear and defines at least a portion of the perimeter of the article of footwear, and further wherein the sole is attached to the collapsible upper, the seam joins the entire perimeter of the first portion with the perimeter of the second portion and defines the perimeter of the article of footwear when the upper is in a collapsed state, and a plurality of slits formed in the upper include one or more slits formed in and positioned about a periphery of the first portion of the upper and one or more slits formed in and positioned about a periphery of the second portion of the upper.
A vehicle speed limit control device for an automotive vehicle, comprising: a vehicle speed limit setting portion that sets and changes a vehicle speed limit (LmtVSP) of the vehicle according to a vehicle speed limit command value (tLmtVSP) that can be changed depending on the number of operations of a vehicle speed limit command means in compliance with a given time condition; a vehicle speed detecting portion that detects an actual vehicle speed of the vehicle; a driving force control portion that controls a driving force of the vehicle based on the vehicle speed limit (LmtVSP) and the actual vehicle speed; characterized by a vehicle speed limit command difference calculating portion that calculates a vehicle speed limit command difference (ΔtLmtVSP) between an initial value (tLmtVSP) of the vehicle speed limit command value immediately before an initial operation of the vehicle speed limit command means and a changed value (tLmtVSP) of the vehicle speed limit command value at a current operation of the vehicle speed limit command means; and a vehicle speed limit change rate regulating portion (S18, S19 and S20) that regulates a rate of change of the vehicle speed limit (LmtVSP) by the vehicle speed limit setting portion in such a manner that the rate of change of the vehicle speed limit (LmtVSP) decreases with the vehicle speed limit command difference (ΔtLmtVSP). a vehicle speed limit setting portion that sets and changes a vehicle speed limit (LmtVSP) of the vehicle according to a vehicle speed limit command value (tLmtVSP) that can be changed depending on the number of operations of a vehicle speed limit command means in compliance with a given time condition; a vehicle speed detecting portion that detects an actual vehicle speed of the vehicle; a driving force control portion that controls a driving force of the vehicle based on the vehicle speed limit (LmtVSP) and the actual vehicle speed; characterized by a vehicle speed limit command difference calculating portion that calculates a vehicle speed limit command difference (ΔtLmtVSP) between an initial value (tLmtVSP) of the vehicle speed limit command value immediately before an initial operation of the vehicle speed limit command means and a changed value (tLmtVSP) of the vehicle speed limit command value at a current operation of the vehicle speed limit command means; and a vehicle speed limit change rate regulating portion (S18, S19 and S20) that regulates a rate of change of the vehicle speed limit (LmtVSP) by the vehicle speed limit setting portion in such a manner that the rate of change of the vehicle speed limit (LmtVSP) decreases with the vehicle speed limit command difference (ΔtLmtVSP).