mhurhangee/ep-ind-claims huggingface dataset:
A method of making a thermoplastic composite preform, comprising: assembling a stack of high melt temperature thermoplastic composite plies; introducing a low melt temperature thermoplastic between the composite plies; and tacking the high melt temperature thermoplastic composite plies together by melting the low melt temperature thermoplastic, wherein introducing the low melt temperature thermoplastic includes applying particles of the low melt temperature thermoplastic on a surface of each of the plies. assembling a stack of high melt temperature thermoplastic composite plies; introducing a low melt temperature thermoplastic between the composite plies; and tacking the high melt temperature thermoplastic composite plies together by melting the low melt temperature thermoplastic, wherein introducing the low melt temperature thermoplastic includes applying particles of the low melt temperature thermoplastic on a surface of each of the plies.
A battery pack comprising: a plurality of secondary batteries; a battery protection circuit; and an inspection circuit, wherein each of the secondary batteries is previously given an identification mark, the plurality of secondary batteries are previously classified into a first secondary battery group and a second secondary battery group, the first secondary battery group being configured of secondary batteries selected from the plurality of secondary batteries, and the second secondary battery group being configured of remaining secondary batteries not belonging to the first secondary battery group, and wherein the inspection circuit is adapted to detect the identification marks of each the secondary batteries configuring the first secondary battery group, and to create a first data string of the secondary batteries configuring the second secondary battery group, based on a predetermined arithmetic rule stored in the inspection circuit, from the identification marks of the secondary batteries configuring the first secondary battery group, to detect the identification marks of the secondary batteries configuring the second secondary battery group, and to obtain a second data string from the identification marks of the secondary batteries configuring the second secondary battery group, and to subsequently compare the first data string with the second data string, and to activate the battery protection circuit in order to stop functioning of the battery pack when the first data string and the second data string do not match. a plurality of secondary batteries; a battery protection circuit; and an inspection circuit, wherein each of the secondary batteries is previously given an identification mark, the plurality of secondary batteries are previously classified into a first secondary battery group and a second secondary battery group, the first secondary battery group being configured of secondary batteries selected from the plurality of secondary batteries, and the second secondary battery group being configured of remaining secondary batteries not belonging to the first secondary battery group, and wherein the inspection circuit is adapted to detect the identification marks of each the secondary batteries configuring the first secondary battery group, and to create a first data string of the secondary batteries configuring the second secondary battery group, based on a predetermined arithmetic rule stored in the inspection circuit, from the identification marks of the secondary batteries configuring the first secondary battery group, to detect the identification marks of the secondary batteries configuring the second secondary battery group, and to obtain a second data string from the identification marks of the secondary batteries configuring the second secondary battery group, and to subsequently compare the first data string with the second data string, and to activate the battery protection circuit in order to stop functioning of the battery pack when the first data string and the second data string do not match.
In combination, a flowline comprised of at least two pipe sections (14, 16) and an anchoring collar disposed between the two pipe sections; each pipe section having an interior space for permitting passage of a fluids therealong; each pipe section having an exterior; each pipe section having respective opposite attachable ends (44, 46); a jacket over the exterior of each pipe section, the jacket having an inner diameter equal to the diameter of the exterior of each pipe section and an outer diameter outward of the pipe section; an anchoring collar affixed between opposing ends (44, 46) of the two pipe sections (14, 16); characterized in that the anchoring collar having an exterior with an outer diameter less than that of the outer diameter of the jacket; a fixture on the exterior of the anchoring collar and protruding radially outwardly therefrom to an outer diameter less than the outer diameter of the jacket, the fixture being adaptable and operable to be acted upon by another object.
A spin forming machine for forming circumferential shoulder groove and bead in a pipe element, said machine includes: • a die formed in sections; • a spin forming tool mounted in a housing; • an actuator effecting the motion of the carriage and hence effecting the motion of the spin forming tool toward and away from the die; • a housing driven in rotation about axis relatively to carriage on bearings by an electric motor mounted on the carriage; characterized in that: • the die sections are four (140, 142, 144 and 146), are mounted in bearings and are slidably moveable toward and away from one another using respective actuators (148,150, 152 and 154); • the housing has a fixed axis of rotation and is mounted on a carriage which moves along guide rods toward and away from the die; • the axis of rotation of housing is substantially parallel to the longitudinal axis of the opening defined when the die sections (140, 142, 144 and 146) are brought together. • a die formed in sections; • a spin forming tool mounted in a housing; • an actuator effecting the motion of the carriage and hence effecting the motion of the spin forming tool toward and away from the die; • a housing driven in rotation about axis relatively to carriage on bearings by an electric motor mounted on the carriage; • the die sections are four (140, 142, 144 and 146), are mounted in bearings and are slidably moveable toward and away from one another using respective actuators (148,150, 152 and 154); • the housing has a fixed axis of rotation and is mounted on a carriage which moves along guide rods toward and away from the die; • the axis of rotation of housing is substantially parallel to the longitudinal axis of the opening defined when the die sections (140, 142, 144 and 146) are brought together.
A system (100, 101) for producing high pressure extracorporeal ballistic shockwaves, the system comprising: at least one high pressure ballistic shockwave applicator, comprising a projectile accelerating portion and at least one shockwave generating portion; said shockwave is generated by a collision between an accelerated projectile disposed within said projectile accelerating portion against a shockwave generating surface disposed in said shockwave generating portion; said shockwave generating surface is configured to withstand high pressure ballistic impact with said projectile; wherein said shockwave generating portion comprises said shockwave generating surface that is configured to withstand high pressure ballistic impact with said projectile; a focal surface configured for shaping the generated shockwaves according to required treatment parameters; and a shockwave propagating medium provided for propagating the shockwave from the focal surface onto a treatment area through a membrane; the system further comprising a gaseous high pressure source and a high pressure flow controller to energize and accelerate said projectile in a controllable and directed manner; the system characterized in that said gaseous high pressure source and high pressure flow controller _is configured to provide an operational pressure of up to about 100 bar, wherein said operational pressure is utilized to accelerate said projectile; wherein said projectile generates a shockwave having an intensity of from about 20 Joules up to about 80Joules. at least one high pressure ballistic shockwave applicator, comprising a projectile accelerating portion and at least one shockwave generating portion; said shockwave is generated by a collision between an accelerated projectile disposed within said projectile accelerating portion against a shockwave generating surface disposed in said shockwave generating portion; said shockwave generating surface is configured to withstand high pressure ballistic impact with said projectile; wherein said shockwave generating portion comprises said shockwave generating surface that is configured to withstand high pressure ballistic impact with said projectile; a focal surface configured for shaping the generated shockwaves according to required treatment parameters; and a shockwave propagating medium provided for propagating the shockwave from the focal surface onto a treatment area through a membrane; the system further comprising a gaseous high pressure source and a high pressure flow controller to energize and accelerate said projectile in a controllable and directed manner; the system characterized in that said gaseous high pressure source and high pressure flow controller _is configured to provide an operational pressure of up to about 100 bar, wherein said operational pressure is utilized to accelerate said projectile; wherein said projectile generates a shockwave having an intensity of from about 20 Joules up to about 80Joules.
A plate heat exchanger assembly comprising: a plate package comprising a first and second set of heat exchanging panels, each comprising a fluid supply area and a heat transfer area, the panels being alternately stacked one on top of the other, and wherein at least one thermoelectric device is arranged between two adjacent heat exchanging panels and in thermal contact with the heat transfer area of one heat exchanging panel from each of the first and second set of heat exchanging panels; and a frame comprising a first end portion and a second end portion, each end portion comprising a first section and a second section and the first and second end portions (20, 21) being arranged on opposite sides of the plate package, the first sections being arranged for compression across the fluid supply areas of the heat exchanging panels and the second sections being arranged for compression across the heat transfer areas of the heat exchanging panels, and a first set of tensioning means extending between the first sections of the first and second end portions (20, 21) and a second set of tensioning means extending between the second sections of the first and second end portions, characterised in that the first and second sections (22, 23) of the first and second end portions (20, 21) respectively being mutually movable. a plate package comprising a first and second set of heat exchanging panels, each comprising a fluid supply area and a heat transfer area, the panels being alternately stacked one on top of the other, and wherein at least one thermoelectric device is arranged between two adjacent heat exchanging panels and in thermal contact with the heat transfer area of one heat exchanging panel from each of the first and second set of heat exchanging panels; and a frame comprising a first end portion and a second end portion, each end portion comprising a first section and a second section and the first and second end portions (20, 21) being arranged on opposite sides of the plate package, the first sections being arranged for compression across the fluid supply areas of the heat exchanging panels and the second sections being arranged for compression across the heat transfer areas of the heat exchanging panels, and a first set of tensioning means extending between the first sections of the first and second end portions (20, 21) and a second set of tensioning means extending between the second sections of the first and second end portions, characterised in that the first and second sections (22, 23) of the first and second end portions (20, 21) respectively being mutually movable.
Transparent soap bar comprising: (i) 20 to 78 wt% total fatty matter and, (ii) 0.003 to 0.5 wt% fluorescer, wherein (i) CIELAB b* value of said bar at 0° viewing and 75° illumination is less than 0; and, (ii) color of said bar expressed as Y+5R on LOVIBOND ® scale is 0 to 3. and wherein said soap bar comprises 0.05 to 10 wt% C 2 to C 3 alcohol. (i) 20 to 78 wt% total fatty matter and, (ii) 0.003 to 0.5 wt% fluorescer, (i) CIELAB b* value of said bar at 0° viewing and 75° illumination is less than 0; and, (ii) color of said bar expressed as Y+5R on LOVIBOND ® scale is 0 to 3. and wherein said soap bar comprises 0.05 to 10 wt% C 2 to C 3 alcohol.
A sheet transport apparatus comprising: an upstream-side transport unit configured to hold a sheet and transport the sheet by rotating; a downstream-side transport unit configured to hold the sheet and further transport the sheet by rotating, the downstream-side transport unit being arranged at such a position that an unrestrained transport section is formed where the sheet is not held downstream in transport direction from the upstream-side transport unit; an upstream-side air-feed unit configured to form an air flow that flows downstream in transport direction on both sides of a transport plane of the sheet in the unrestrained transport section; and a controller configured to control the upstream-side air-feed unit to start forming an air flow before a leading edge of the sheet reaches the unrestrained transport section from the upstream-side transport unit, characterized in that the controller is configured to stop the air flow before a trailing edge of the sheet reaches the unrestrained transport section. an upstream-side transport unit configured to hold a sheet and transport the sheet by rotating; a downstream-side transport unit configured to hold the sheet and further transport the sheet by rotating, the downstream-side transport unit being arranged at such a position that an unrestrained transport section is formed where the sheet is not held downstream in transport direction from the upstream-side transport unit; an upstream-side air-feed unit configured to form an air flow that flows downstream in transport direction on both sides of a transport plane of the sheet in the unrestrained transport section; and a controller configured to control the upstream-side air-feed unit to start forming an air flow before a leading edge of the sheet reaches the unrestrained transport section from the upstream-side transport unit, characterized in that the controller is configured to stop the air flow before a trailing edge of the sheet reaches the unrestrained transport section.
A method for controlling a power transfer rate in to and/or out of a vehicle energy storage device, during a power transfer opportunity, for a vehicle, wherein the vehicle is a locomotive, the method comprising: adjusting the power transfer rate based on a predetermination of a duration of the power transfer opportunity to match a duration of power transfer to the duration of the opportunity and achieve a specified state of charge, determining whether the current power transfer opportunity results in overcharging by comparing the sum of the current state of charge and the maximum change in the state of charge (ΔQ) with the desired state of charge, and if overcharging is determined, adjusting the power transfer rate by reducing the power transfer rate while increasing the duration of power transfer to substantially fill the predetermined duration of the power transfer opportunity as the duration of the power transfer opportunity increases, increasing the power transfer rate while decreasing the duration of power transfer to substantially fill the predetermined duration of the power transfer opportunity as the duration of the power transfer opportunity decreases.
A biopsy system comprising a battery powered biopsy apparatus and a charging station for the battery powered biopsy apparatus, said biopsy apparatus including a driver assembly configured for releasable attachment to a biopsy probe assembly, said driver assembly having a battery and a first housing configured to be grasped by a user, said first housing having a first cavity, said first cavity of said driver assembly being configured for receiving a second housing of said biopsy probe assembly when said biopsy probe assembly is mounted to said driver assembly, said second housing having a first shape, said charging station comprising: a charging dock having a third housing and a charging unit contained in said third housing, said charging unit having a set of electrical contacts, said third housing having a second shape, said third housing being received in said first cavity of said driver assembly with said electrical contacts being coupled in electrical communication with said driver assembly when said driver assembly is mounted on said charging dock for charging; and wherein said charging unit provides a signal to an electromechanical power source of said driver assembly to reset said electromechanical power source to an initialized state when said driver assembly is mounted to said charging station.
A method in an Intercept Mediation and Delivery unit, IMDU, of a Lawful Interception, LI, network for providing a Law Enforcement Agency, LEA, with Intercept Related Information, IRI, and Content of Communications; CC, from data traffic in a digital communications network, said data traffic being related to one or more target identities and interceptable by means of an Intercepting Control Element, ICE, of said LI network and which ICE being situated in a node of the digital communications network, said ICE being configured to receive a request to intercept data traffic related to one or more target identities, collect IRI and CC related to said one or more requested target identities, and forward the IRI and CC to the IMDU comprising an Administration mediation function, ADMF, which performs: - receiving a request for LI activation comprising a target identity to be intercepted; - generating an extended task identifier XID for the target identity, said extended task identifier XID comprising a node identifier part which identifies the ICE and a pure task identifier part which is an identification number assigned by the ADMF for the target identity; - adding the extended task identifier XID to a warrant; - forwarding the warrant to the ICE; - receiving, from the ICE, IRI and CC data packets wherein at least the headers of the CC data packets comprise the pure task identifier part and not the node identifier part of the extended task identifier XID; - identifying the node identifier by means of the data packets source IP address; - correlating the received IRI and CC data packets by means of the pure task identifier part and the node identifier; and - forwarding the received IRI and CC data packets to the intercept requesting LEA. - receiving a request for LI activation comprising a target identity to be intercepted; - generating an extended task identifier XID for the target identity, said extended task identifier XID comprising a node identifier part which identifies the ICE and a pure task identifier part which is an identification number assigned by the ADMF for the target identity; - adding the extended task identifier XID to a warrant; - forwarding the warrant to the ICE; - receiving, from the ICE, IRI and CC data packets wherein at least the headers of the CC data packets comprise the pure task identifier part and not the node identifier part of the extended task identifier XID; - identifying the node identifier by means of the data packets source IP address; - correlating the received IRI and CC data packets by means of the pure task identifier part and the node identifier; and - forwarding the received IRI and CC data packets to the intercept requesting LEA.
An automotive soundproof cover comprising a fibrous formed article that includes two or more types of fibers, the fibrous formed article comprising 50 to 80 mass% of organic fibers, 10 to 40 mass% of flame retardant-containing fibers, and 5 to 20 mass% of an organic binder, a ratio of a total mass of a flame retardant included in the flame retardant-containing fibers to a total mass of the fibrous formed article being 0.01 to 1.8 mass%, and the flame retardant being a melt drip regulator, wherein the melt drip regulator is one or more compounds selected from organophosphoric acids, organophosphates, and halogenated organophosphates. the fibrous formed article comprising 50 to 80 mass% of organic fibers, 10 to 40 mass% of flame retardant-containing fibers, and 5 to 20 mass% of an organic binder, a ratio of a total mass of a flame retardant included in the flame retardant-containing fibers to a total mass of the fibrous formed article being 0.01 to 1.8 mass%, and the flame retardant being a melt drip regulator,
A process for preparing maleic acid-isoprenol copolymers from a) 30% to 80% by weight of maleic acid, b) 5% to 60% by weight of isoprenol, c) 0% to 30% by weight of one or more further ethylenically unsaturated monomers, which comprises polymerizing maleic acid, isoprenol and optionally the further ethylenically unsaturated monomer in the presence of a redox initiator and of a chain transfer agent at a temperature in the range from 10 to 80°C. a) 30% to 80% by weight of maleic acid, b) 5% to 60% by weight of isoprenol, c) 0% to 30% by weight of one or more further ethylenically unsaturated monomers,
A method for producing a plant cell or plant with increased ascorbate relative to a suitable control plant not including a plant with a mutation that results in decreased ascorbate, the method comprising transformation of a plant cell or plant with a polynucleotide encoding a polypeptide with the amino acid sequence of any one of SEQ ID NO:1 to 11, or a variant of the polypeptide, wherein the variant has the activity of an GDP-L-Galactose Guanyltransferase, and wherein the variant comprises at least one of: a) the amino acid sequence: AINVSPIEYGHVLLIP (SEQ ID NO:12), b) the amino acid sequence: GYNSLGAFATINHLHFQAY (SEQ ID NO: 13), and c) a sequence with at least 60% sequence identity to the amino acid sequence of any one of SEQ ID NO:1 to 11. a) the amino acid sequence: AINVSPIEYGHVLLIP (SEQ ID NO:12), AINVSPIEYGHVLLIP (SEQ ID NO:12), b) the amino acid sequence: GYNSLGAFATINHLHFQAY (SEQ ID NO: 13), and GYNSLGAFATINHLHFQAY (SEQ ID NO: 13), and c) a sequence with at least 60% sequence identity to the amino acid sequence of any one of SEQ ID NO:1 to 11.