mhurhangee/ep-ind-claims huggingface dataset:
A direct-current cable comprising: a conductive portion; and an insulating layer covering an outer periphery of the conductive portion, the insulating layer containing cross-linked base resin and inorganic filler, the base resin containing polyethylene, a BET specific surface area of the inorganic filler being greater than or equal to 5 m 2 / g and less than or equal to 150 m 2 / g, and a mean volume diameter of the inorganic filler being less than or equal to 1.0 μm, the mean volume diameter being measured using a laser diffraction particle size analyzer, the mass ratio of the inorganic filler with respect to the base resin being greater than or equal to 0.001 and less than or equal to 0.05, and the cross-linked base resin being cross-linked by a cross-linking agent containing organic peroxide, wherein the base resin further contains polyethylene-graft-maleic anhydride and the mass ratio of the polyethylene-graft-maleic anhydride with respect to the polyethylene is less than or equal to 5/95. a conductive portion; and an insulating layer covering an outer periphery of the conductive portion, the insulating layer containing cross-linked base resin and inorganic filler, the base resin containing polyethylene, a BET specific surface area of the inorganic filler being greater than or equal to 5 m 2 / g and less than or equal to 150 m 2 / g, and a mean volume diameter of the inorganic filler being less than or equal to 1.0 μm, the mean volume diameter being measured using a laser diffraction particle size analyzer, the mass ratio of the inorganic filler with respect to the base resin being greater than or equal to 0.001 and less than or equal to 0.05, and the cross-linked base resin being cross-linked by a cross-linking agent containing organic peroxide, wherein the base resin further contains polyethylene-graft-maleic anhydride and the mass ratio of the polyethylene-graft-maleic anhydride with respect to the polyethylene is less than or equal to 5/95.
Closure for a container having two container parts (2, 3), wherein the closure is arranged on a first container part and has first connecting means for releasable connection with complementary, second connecting means of the second container part, characterised by a shaft for accommodating an information carrier which carriesinformation about the content of the container.
A labeling arrangement for deep-freeze applications, comprising: - a top label comprising a top layer and an adhesive layer arranged on a surface of the top layer and having a predefined freezing temperature below 0°C, and - a base component comprising a base layer and an interlocking structure having a plurality of hook-shaped coupling elements arranged on a surface of the base layer, wherein the hook-shaped coupling elements each comprise a first portion and a second portion that are formed so as to be geometrically different, so that the first portion extends laterally beyond the second portion with respect to a lateral main plane of extension of the base layer, and wherein the second portion is arranged between the first portion and the base layer and couples the first portion to the base layer, and wherein the adhesive layer is configured to be coupled to the interlocking structure above the freezing temperature of the adhesive layer, so that the top label and the base component form a positive coupling at deep-freeze temperatures below the freezing temperature of the adhesive layer and a material bond coupling at temperatures above the freezing temperature of the adhesive layer. - a top label comprising a top layer and an adhesive layer arranged on a surface of the top layer and having a predefined freezing temperature below 0°C, and - a base component comprising a base layer and an interlocking structure having a plurality of hook-shaped coupling elements arranged on a surface of the base layer, wherein the hook-shaped coupling elements each comprise a first portion and a second portion that are formed so as to be geometrically different, so that the first portion extends laterally beyond the second portion with respect to a lateral main plane of extension of the base layer, and wherein the second portion is arranged between the first portion and the base layer and couples the first portion to the base layer, and wherein the adhesive layer is configured to be coupled to the interlocking structure above the freezing temperature of the adhesive layer, so that the top label and the base component form a positive coupling at deep-freeze temperatures below the freezing temperature of the adhesive layer and a material bond coupling at temperatures above the freezing temperature of the adhesive layer. wherein the hook-shaped coupling elements each comprise a first portion and a second portion that are formed so as to be geometrically different, so that the first portion extends laterally beyond the second portion with respect to a lateral main plane of extension of the base layer, and wherein the second portion is arranged between the first portion and the base layer and couples the first portion to the base layer, and wherein the adhesive layer is configured to be coupled to the interlocking structure above the freezing temperature of the adhesive layer, so that the top label and the base component form a positive coupling at deep-freeze temperatures below the freezing temperature of the adhesive layer and a material bond coupling at temperatures above the freezing temperature of the adhesive layer.
A method of transmitting a device-to-device, D2D, signal by a first user equipment, UE, supporting D2D communication, the method comprising: transmitting scheduling assignment, SA, information for scheduling D2D data to a second UE, wherein the SA information includes a single frequency network, SFN, request; and transmitting repeatedly the D2D data to the second UE according to the SA information, wherein the first UE requests the second UE to repeatedly transmit the D2D data together with the first UE on a same time-frequency resource to which the first UE transmits the D2D data based on a SFN scheme. transmitting scheduling assignment, SA, information for scheduling D2D data to a second UE, wherein the SA information includes a single frequency network, SFN, request; and transmitting repeatedly the D2D data to the second UE according to the SA information, wherein the first UE requests the second UE to repeatedly transmit the D2D data together with the first UE on a same time-frequency resource to which the first UE transmits the D2D data based on a SFN scheme.
An electrospray ion source for a mass spectrometer (100,300) comprising a source of an analyte-bearing liquid; a source of a sheath gas; a sheath gas conduit (72,95) comprising an inlet (94,140) configured to receive the sheath gas from the source of sheath gas; a plurality of liquid conduits (32,96), each liquid conduit configured so as to receive a portion of the analyte-bearing liquid from the source of analyte-bearing liquid; at least one electrode (32,96,97,142) for producing electrospray emission of charged droplets from an outlet of each of said liquid conduits (32,96) under application of an electrical potential to the at least one electrode (32,96,97,142); and a power supply electrically coupled to the at least one electrode (32,96,97,142) for maintaining the at least one electrode (32,96,97,142) at the electrical potential, the electrospray ion source characterized in that: the sheath gas conduit (72,95) at least partially encloses every one of the plurality of liquid conduits (32,96) and includes a single outlet that circumferentially surrounds the spray from the plurality of liquid conduits (32,96) so as to emit a sheath gas flow that circumferentially surrounds, in at least two dimensions, a portion of the charged droplets emitted from every one of the plurality of liquid conduit outlets (32,96).
An electrical energy generation system comprising: - an alternator coupled to a driving system, delivering an alternating voltage to an output bus, - an AC/DC reversible converter whose AC bus is linked to the output bus of the alternator, - an electrical storage element linked to the DC bus of the converter, - a controller arranged to react to transient load-shedding or charging impact conditions by controlling the converter in such a way as to take energy from the output bus of the alternator and store it in the storage element in load-shedding cases, and to take energy from the storage element and inject it onto the output bus in charging impact cases, the converter being controlled to inject harmonic current neutralization currents on the AC bus of the alternator, the storage element being preferably a supercapacitor, the controller being arranged to react to transient reactive and/or active power conditions on a micronetwork, upon load-shedding or charging impact, to allow the control of the imbalance(s) in form, in amplitude and in response time by virtue of the control of the converter managing the energy on the output bus of the alternator, the controller allowing the dynamic control of the motor torque of the driving system from the storage element in charging impact and load-shedding cases. - an alternator coupled to a driving system, delivering an alternating voltage to an output bus, - an AC/DC reversible converter whose AC bus is linked to the output bus of the alternator, - an electrical storage element linked to the DC bus of the converter, - a controller arranged to react to transient load-shedding or charging impact conditions by controlling the converter in such a way as to take energy from the output bus of the alternator and store it in the storage element in load-shedding cases, and to take energy from the storage element and inject it onto the output bus in charging impact cases,
A frame gasket for a fuel cell, comprising: a base for being positioned along an edge of a separator, a membrane electrode assembly, or an end plate to extend from the edge of the separator, the membrane electrode assembly, or the end plate to a predetermined width and height, which includes a first elastic base and reinforced fibers (11, 21) mixed therein to ensure sealing of a fuel cell stack; and a plurality of first projection units, which extend from an upper end of the base to project over the base and which include a second elastic base, that is an elastomer, and the reinforced fibers (11, 21) mixed therein, wherein the first elastic base is a same as the second elastic base, and the base and the plurality of the first projection units are integrally molded, wherein a content of the reinforced fibers (11, 21) is lower in the plurality of the first projection units than in the base, wherein the first elastic base includes at least one of an ethylene propylene diene monomer (EPDM), fluorine and silicone-based rubbers, and/or the reinforced fibers (11, 21) include at least one of carbon fibers, glass fibers, and aramid fibers, and wherein a width of the plurality of the first projection units is smaller than a fiber length of the reinforced fibers (11, 21). a base for being positioned along an edge of a separator, a membrane electrode assembly, or an end plate to extend from the edge of the separator, the membrane electrode assembly, or the end plate to a predetermined width and height, which includes a first elastic base and reinforced fibers (11, 21) mixed therein to ensure sealing of a fuel cell stack; and a plurality of first projection units, which extend from an upper end of the base to project over the base and which include a second elastic base, that is an elastomer, and the reinforced fibers (11, 21) mixed therein, wherein the first elastic base is a same as the second elastic base, and the base and the plurality of the first projection units are integrally molded, wherein a content of the reinforced fibers (11, 21) is lower in the plurality of the first projection units than in the base, wherein the first elastic base includes at least one of an ethylene propylene diene monomer (EPDM), fluorine and silicone-based rubbers, and/or the reinforced fibers (11, 21) include at least one of carbon fibers, glass fibers, and aramid fibers, and wherein a width of the plurality of the first projection units is smaller than a fiber length of the reinforced fibers (11, 21).
A bogie frame for railway vehicles, comprising: a pair of left and right side beams disposed along a direction of rails; a cross beam that connects the side beams to each other; and a mounting bracket for mounting a functional part, the mounting bracket being joined to the cross beam, wherein the cross beam has a rectangular cross section and includes a top plate section, a bottom plate section, and a pair of side plate sections (23, 24); characterized in that the top plate section has a cutout opening extending to one of the side plate sections (23, 24); the mounting bracket is inserted in the cutout opening; and the mounting bracket and the top plate section are joined together by butt welding. a pair of left and right side beams disposed along a direction of rails; a cross beam that connects the side beams to each other; and a mounting bracket for mounting a functional part, the mounting bracket being joined to the cross beam, wherein the cross beam has a rectangular cross section and includes a top plate section, a bottom plate section, and a pair of side plate sections (23, 24); characterized in that the top plate section has a cutout opening extending to one of the side plate sections (23, 24); the mounting bracket is inserted in the cutout opening; and the mounting bracket and the top plate section are joined together by butt welding.
An ultrasonic system for liquid and multiphasic media processing comprising: i) a source of alternating electrical field, ii) an electro-acoustic transducer connected to the source of alternating electrical field; iii) a booster connected to the electro-acoustic transducer with a cross section distal to the electro-acoustic transducer smaller than a cross section proximal to the electro-acoustic transducer; iv) a horn (4', 17) having a tip, the horn (4', 17) being coupled to the distal end of the booster, and v) at least one tuned blade (5, 5') coupled to the tip of the horn (4', 17), wherein the at least one blade (5, 5') couple flexural vibrations to the liquid or multiphasic media; characterised in that: vi) the electro-acoustic transducer comprises piezo-electric elements polarized in the circumferential direction, producing a torsional vibratory motion of the electro-acoustic transducer in response to the alternating electrical field applied. i) a source of alternating electrical field, ii) an electro-acoustic transducer connected to the source of alternating electrical field; iii) a booster connected to the electro-acoustic transducer with a cross section distal to the electro-acoustic transducer smaller than a cross section proximal to the electro-acoustic transducer; iv) a horn (4', 17) having a tip, the horn (4', 17) being coupled to the distal end of the booster, and v) at least one tuned blade (5, 5') coupled to the tip of the horn (4', 17), wherein the at least one blade (5, 5') couple flexural vibrations to the liquid or multiphasic media; characterised in that: vi) the electro-acoustic transducer comprises piezo-electric elements polarized in the circumferential direction, producing a torsional vibratory motion of the electro-acoustic transducer in response to the alternating electrical field applied.
A charging apparatus for charging a vehicle battery of an electric vehicle comprising: a connector having a control pilot pin used by a charging controller of said charging apparatus to control a charging of the vehicle battery of an electric vehicle connected via a charging cable to said charging apparatus, wherein the charging controller is adapted to transmit via the control pilot pin a PWM control pilot signal encoding available power sources of said charging apparatus to a vehicle controller of the electric vehicle, apply switch control signals to one or more relays (41, 42, 43) to switch AC charging phases (L1, L2, L3) supplied by an inverter of the charging apparatus via AC phase or photovoltaic panel DC supply lines, and send information by changing the PWM voltage level on the control pilot pin to indicate which AC charging phases (L1, L2, L3) are available for charging the vehicle battery to the vehicle controller to trigger a soft switching on the concerned AC charging phases (L1, L2, L3). a connector having a control pilot pin used by a charging controller of said charging apparatus to control a charging of the vehicle battery of an electric vehicle connected via a charging cable to said charging apparatus, wherein the charging controller is adapted to transmit via the control pilot pin a PWM control pilot signal encoding available power sources of said charging apparatus to a vehicle controller of the electric vehicle, apply switch control signals to one or more relays (41, 42, 43) to switch AC charging phases (L1, L2, L3) supplied by an inverter of the charging apparatus via AC phase or photovoltaic panel DC supply lines, and send information by changing the PWM voltage level on the control pilot pin to indicate which AC charging phases (L1, L2, L3) are available for charging the vehicle battery to the vehicle controller to trigger a soft switching on the concerned AC charging phases (L1, L2, L3). transmit via the control pilot pin a PWM control pilot signal encoding available power sources of said charging apparatus to a vehicle controller of the electric vehicle, apply switch control signals to one or more relays (41, 42, 43) to switch AC charging phases (L1, L2, L3) supplied by an inverter of the charging apparatus via AC phase or photovoltaic panel DC supply lines, and send information by changing the PWM voltage level on the control pilot pin to indicate which AC charging phases (L1, L2, L3) are available for charging the vehicle battery to the vehicle controller to trigger a soft switching on the concerned AC charging phases (L1, L2, L3).
A mass spectrometry system comprising: a first linear quadrupole ion trap mass spectrometer in a first vacuum chamber and coupled to a first pump; a second linear quadrupole ion trap mass spectrometer in a second vacuum chamber and coupled to a second pump, the second linear quadrupole ion trap mass spectrometer configured to analyze the mass-to-charge ratio of a charged particle provided from the first linear quadrupole ion trap mass spectrometer; and a vacuum manifold operably coupled between the first and second vacuum chambers and configured to allow the charged particle to travel from the first linear quadrupole ion trap mass spectrometer in the first vacuum chamber to the second linear quadrupole ion trap mass spectrometer in the second vacuum chamber, characterised in that the vacuum manifold comprises a front flange with a first ion passageway configured to allow ions from the first linear quadrupole ion trap mass spectrometer into the vacuum manifold and a back flange with a second ion passageway configured to allow ions from the vacuum manifold into the second linear quadrupole ion trap mass spectrometer, wherein the vacuum manifold is evacuated by the first and second pumps. a first linear quadrupole ion trap mass spectrometer in a first vacuum chamber and coupled to a first pump; a second linear quadrupole ion trap mass spectrometer in a second vacuum chamber and coupled to a second pump, the second linear quadrupole ion trap mass spectrometer configured to analyze the mass-to-charge ratio of a charged particle provided from the first linear quadrupole ion trap mass spectrometer; and a vacuum manifold operably coupled between the first and second vacuum chambers and configured to allow the charged particle to travel from the first linear quadrupole ion trap mass spectrometer in the first vacuum chamber to the second linear quadrupole ion trap mass spectrometer in the second vacuum chamber, characterised in that the vacuum manifold comprises a front flange with a first ion passageway configured to allow ions from the first linear quadrupole ion trap mass spectrometer into the vacuum manifold and a back flange with a second ion passageway configured to allow ions from the vacuum manifold into the second linear quadrupole ion trap mass spectrometer, wherein the vacuum manifold is evacuated by the first and second pumps.
An integrated circuit for controlling a process of a transmitting terminal, the process comprising: receiving a system information, broadcast from a base station, including information on a temporary transmission radio resource pool, indicating a radio resource usable by the transmitting terminal for performing a direct communication transmission to a receiving terminal over a direct link connection, the system information including configuration information on the temporary transmission radio resource pool, the configuration information limiting an amount of time that the temporary transmission radio resource pool is usable by the transmitting terminal; determining to use the radio resource indicated in the information on the temporary radio resource pool for the direct communication transmission to the receiving terminal when the transmitting terminal receives the system information on the temporary transmission radio resource pool and detects a condition on a start of a Radio Resource Control, RRC, connection establishment with the base station; and transmitting data using the radio resource for the direct communication transmission only for the limited amount of time according to the configuration information from the moment the condition on the start of the RRC connection establishment being detected until the transmitting terminal is informed by the base station about a rejection of the RRC connection establishment. receiving a system information, broadcast from a base station, including information on a temporary transmission radio resource pool, indicating a radio resource usable by the transmitting terminal for performing a direct communication transmission to a receiving terminal over a direct link connection, the system information including configuration information on the temporary transmission radio resource pool, the configuration information limiting an amount of time that the temporary transmission radio resource pool is usable by the transmitting terminal; determining to use the radio resource indicated in the information on the temporary radio resource pool for the direct communication transmission to the receiving terminal when the transmitting terminal receives the system information on the temporary transmission radio resource pool and detects a condition on a start of a Radio Resource Control, RRC, connection establishment with the base station; and transmitting data using the radio resource for the direct communication transmission only for the limited amount of time according to the configuration information from the moment the condition on the start of the RRC connection establishment being detected until the transmitting terminal is informed by the base station about a rejection of the RRC connection establishment.