mhurhangee/ep-ind-claims huggingface dataset:
A plant for assembling mechanical parts on vehicle bodies, of the type comprising an assembly line along which a plurality of pallets are circulated in a closed loop, the assembly line being divided into a first and a second section comprising a plurality of first and second stations, respectively, the pallets sequentially advancing in a fist predetermined direction along the first section where they are progressively loaded, into the first stations, with a predetermined group of mechanical parts to be assembled, arranged on each pallet according to a defined layout, and the pallets then sequentially advancing along the second section, in a second direction, opposite to the first, where the predetermined group of mechanical parts carried by each pallet is progressively assembled in sequence on a respective vehicle body; characterized in that it further comprises, in combination: i)- a conveyor arranged at least partially parallel to the second section and above the second stations, a plurality of balance supports running along the conveyor, each integrally provided with one of said bodies; ii)- a coupling station, arranged immediately upstream of the second section, with reference to the pallet movement direction along the second section, provided with means for integrally coupling each pallet to a balance support so that the latter is supported by the pallet; and iii)- a decoupling station, arranged immediately downstream of the second section, with reference to the pallet movement direction along the second station, provided with means for separating the pallets from the balance supports. i)- a conveyor arranged at least partially parallel to the second section and above the second stations, a plurality of balance supports running along the conveyor, each integrally provided with one of said bodies; ii)- a coupling station, arranged immediately upstream of the second section, with reference to the pallet movement direction along the second section, provided with means for integrally coupling each pallet to a balance support so that the latter is supported by the pallet; and iii)- a decoupling station, arranged immediately downstream of the second section, with reference to the pallet movement direction along the second station, provided with means for separating the pallets from the balance supports.
A multipoint fuel injection system comprising: an outer support and an inner support 104 that form a pair of rings that defines an axis; wherein the outer support is a circumferentially extending outer support extending circumferentially around the axis; wherein the inner support is a circumferentially extending inner support extending circumferentially around the axis, with a plurality of circumferentially spaced apart feed arms extending radially between the inner support and the outer support; a plurality of outlet openings extending in an axial direction from the feed arm for feeding respective injection nozzles, wherein the outer support and feed arm define a plurality of fuel passages therethrough to convey fluid from an external source through the outer support and feed arm to the outlet openings; and a heat shield extending around the feed arms from the outer support to the inner support; wherein a plurality of outlet openings extend in an axial direction from each feed arm for feeding respective injection nozzles; and the heat shield is a single heat shield extending around the feed arms from the outer support to the inner support, wherein the heat shield is spaced apart from the feed arms with an insulative gap therebetween. an outer support and an inner support 104 that form a pair of rings that defines an axis; wherein the outer support is a circumferentially extending outer support extending circumferentially around the axis; wherein the inner support is a circumferentially extending inner support extending circumferentially around the axis, with a plurality of circumferentially spaced apart feed arms extending radially between the inner support and the outer support; a plurality of outlet openings extending in an axial direction from the feed arm for feeding respective injection nozzles, wherein the outer support and feed arm define a plurality of fuel passages therethrough to convey fluid from an external source through the outer support and feed arm to the outlet openings; and a heat shield extending around the feed arms from the outer support to the inner support; wherein a plurality of outlet openings extend in an axial direction from each feed arm for feeding respective injection nozzles; and the heat shield is a single heat shield extending around the feed arms from the outer support to the inner support, wherein the heat shield is spaced apart from the feed arms with an insulative gap therebetween.
A reclaiming unit comprising a heat energy storage module receiving a storage fluid, a heat exchanger and a heat storage circuit configured to fluidly connect the storage module and the heat exchanger and to ensure circulation of the storage fluid to which the storage module is connected, wherein the storage module comprises an empty so-called buffer volume and in that the storage fluid to be stored in the storage module represents a volume smaller than the volume of the storage module so as to keep an empty so-called buffer volume, the energy storage module comprises at least two sensible heat storage reservoirs, including at least a first reservoir and a second reservoir, and a storage fluid injection and withdrawal system arranged in the lower part of each of the at least two reservoirs (110, 120) for removing the storage fluid from the lower part of each of the at least two reservoirs (110, 120) and injecting the storage fluid into the lower part of each of the at least two reservoirs (110, 120), the storage fluid injection and withdrawal system being configured to promote formation and maintenance of temperature stratification, characterised in that the reclaiming unit comprises a storage module management module configured to control the storage fluid injection or withdrawal system as a function of a temperature set point in the heat exchanger.
An apparatus for facilitating treatment via a vascular wall defining a vascular lumen containing an occlusion therein, the apparatus comprising: an intravascular device having a lumen and a distal portion, the distal portion including a first aperture and a second aperture that are longitudinally offset from one another and both in fluid communication with the lumen; and a reentry device having a body with a proximal portion and a distal portion, and a penetrator extending distally beyond a distal end of the body, wherein a diameter of the body is greater than a diameter of the penetrator, wherein the reentry device has a natural state and a compressed state, wherein when the reentry device is in the compressed state, the distal portion is substantially aligned with the proximal portion, whereby the reentry device is configured to be advanced into the lumen of the intravascular device, and wherein when the reentry device is in the natural state, the distal portion forms an angle with respect to the proximal portion, whereby the distal portion of the reentry device is configured to be advanced through each of the first and second apertures. an intravascular device having a lumen and a distal portion, the distal portion including a first aperture and a second aperture that are longitudinally offset from one another and both in fluid communication with the lumen; and a reentry device having a body with a proximal portion and a distal portion, and a penetrator extending distally beyond a distal end of the body, wherein a diameter of the body is greater than a diameter of the penetrator, wherein the reentry device has a natural state and a compressed state, wherein when the reentry device is in the compressed state, the distal portion is substantially aligned with the proximal portion, whereby the reentry device is configured to be advanced into the lumen of the intravascular device, and wherein when the reentry device is in the natural state, the distal portion forms an angle with respect to the proximal portion, whereby the distal portion of the reentry device is configured to be advanced through each of the first and second apertures.
Lifting platform for lifting vehicles, - with two base assembly halves, - with in each case one lifting device arranged on the base assembly half, which, by means of at least one drive, are transferable out of a starting position arranged on the floor into an operating position and which comprises a carrier in in each case one end region of the lifting device, and each carrier receives at least one support arm arranged pivotably thereon, so that the support arms opposite one another are pivotable in a working space formed at least between the lifting devices, characterized in that - an angle of inclination is adjustable between the at least one support arm and the lifting device. - with two base assembly halves, - with in each case one lifting device arranged on the base assembly half, which, by means of at least one drive, are transferable out of a starting position arranged on the floor into an operating position and which comprises a carrier in in each case one end region of the lifting device, and each carrier receives at least one support arm arranged pivotably thereon, so that the support arms opposite one another are pivotable in a working space formed at least between the lifting devices, characterized in that - an angle of inclination is adjustable between the at least one support arm and the lifting device.
A particulate cathode material comprising an electroactive material having the empirical formula Li a Mn b Fe c D d PO 4, wherein a is a number from 1.04 to 1.08; b is from 0.70 to 0.85; c is from 0.15 to 0.25; d is from 0.02 to 0.10; and 1.92 ≤ (2b + 2c +dV) ≤ 2.01, wherein V is the valence of D, and D is a metal ion selected from one or more of magnesium, cobalt or a mixture of magnesium and cobalt and further wherein at least a portion of the electroactive material has an olivine structure. a is a number from 1.04 to 1.08; b is from 0.70 to 0.85; c is from 0.15 to 0.25; d is from 0.02 to 0.10; and 1.92 ≤ (2b + 2c +dV) ≤ 2.01, wherein V is the valence of D, and D is a metal ion selected from one or more of magnesium, cobalt or a mixture of magnesium and cobalt and further wherein at least a portion of the electroactive material has an olivine structure.
A method performed by a wireless communication station, for facilitating positioning determination in a Wi-Fi communication network, the Wi-Fi communication network comprising the wireless communication station and an access point that is in wireless communication with the wireless communication station, the method comprising: sending, to the access point, a request to start a position-related determination procedure; sending, to the access point, information of a first plurality of frequency bands over which the wireless communication station is able to communicate; receiving second information from the access point, the second information being related to a second number of frequency bands over which the access point is able to communicate and comprising an instruction to the wireless communication station to trigger start of the position-related determination procedure over the at least one of the third number of frequency bands that occurs in both the first plurality of frequency bands and the second number of frequency bands, and triggering start of the position-related determination procedure based on the received second information. sending, to the access point, a request to start a position-related determination procedure; sending, to the access point, information of a first plurality of frequency bands over which the wireless communication station is able to communicate; receiving second information from the access point, the second information being related to a second number of frequency bands over which the access point is able to communicate and comprising an instruction to the wireless communication station to trigger start of the position-related determination procedure over the at least one of the third number of frequency bands that occurs in both the first plurality of frequency bands and the second number of frequency bands, and triggering start of the position-related determination procedure based on the received second information.
A method for disengaging a shrink coupling that secures a shaft to a drive train component in a wind turbine, comprising: erecting a reaction plate around the shaft at a location axially displaced from the shrink coupling, said reaction plate being erected around the shaft and anchored relative to a bedplate of the wind turbine at anchor locations; disposing a plurality of jacking devices between the reaction plate and the shrink coupling, the jacking devices being circumferentially spaced around the shaft and having a first end engaged against the reaction plate and a second opposite end in a pull-engagement configuration with the shrink coupling; releasing the shrink coupling from its clamped state; and activating the jacking devices to exert a pulling force on the shrink coupling, wherein the shrink coupling is pulled off of the drive train component axially along the shaft to a resting position on the shaft. erecting a reaction plate around the shaft at a location axially displaced from the shrink coupling, said reaction plate being erected around the shaft and anchored relative to a bedplate of the wind turbine at anchor locations; disposing a plurality of jacking devices between the reaction plate and the shrink coupling, the jacking devices being circumferentially spaced around the shaft and having a first end engaged against the reaction plate and a second opposite end in a pull-engagement configuration with the shrink coupling; releasing the shrink coupling from its clamped state; and activating the jacking devices to exert a pulling force on the shrink coupling, wherein the shrink coupling is pulled off of the drive train component axially along the shaft to a resting position on the shaft.
A computer-implemented method comprising: receiving a client request to process data via one or more machine learning processes, the client request being associated with a client device; comparing a first set of attributes associated with a first network device with a second set of attributes associated with a second network device, the first set of attributes and the second set of attributes include one or more computer resource characteristics of a respective network device and one or more machine learning processing capabilities of a respective network device; based at least in part on the comparing, selecting the first network device to route the client request to and refraining from selecting the second network device; based at least in part on the selecting, causing the first network device to process the client request; and at least partially in response to the processing of the client request, causing a transmission of data to the client device. receiving a client request to process data via one or more machine learning processes, the client request being associated with a client device; comparing a first set of attributes associated with a first network device with a second set of attributes associated with a second network device, the first set of attributes and the second set of attributes include one or more computer resource characteristics of a respective network device and one or more machine learning processing capabilities of a respective network device; based at least in part on the comparing, selecting the first network device to route the client request to and refraining from selecting the second network device; based at least in part on the selecting, causing the first network device to process the client request; and at least partially in response to the processing of the client request, causing a transmission of data to the client device.
Method for producing three-dimensional screen-printed articles, in which at least one printing exploit arranged on a printing table (3, 4) is printed several times with a printing screen, characterized in that after each printing carried out the value of the lift-off is increased by the application thickness of the printing previously carried out.
A refrigerant compressor comprising a hermetically sealed container and a compressor unit, comprising a rotary compression element having a vane, installed in the hermetically sealed container, wherein a HFC type refrigerant mixture and a refrigerator oil having compatibility with the refrigerant are charged into the hermetically sealed container, and the refrigerator oil essentially comprises a polyvinyl ether type compound having structural units represented by the following general formula: wherein n is an integral number in the range of 1 or more, R1 to R3 are each a hydrogen atom or a hydrocarbon group having 1 to 8 carbon atoms and may be the same or different, R4 is an alkyl group having 1 to 4 carbon atoms, and units in which R4 is an alkyl group having 1 to 2 carbon atoms are 40 to 100% and units in which R4 is an alkyl group having 3 to 4 carbon atoms are 0 to 60%, wherein the refrigerant mixture is selected from the group consisting of an azeotropic mixed refrigerant consisting of 50 wt% of difluoromethane and 50 wt % of pentafluoroethane, and a pseudo-azeotropic mixed refrigerant consisting of 44 wt% of pentafluoroethane, 52 wt% of trifluoroethane and 4 wt % of 1,1,1,2-tetrafluoroethane (R134a), and a pseudo-azeotropic mixed refrigerant consisting of 23 wt% of difluoromethane, 25 wt% of pentafluoroethane and 52 wt% of 1,1,1,2-tetrafluoroethane, and wherein the vane is made from one selected from an iron type material subjected to a surface treatment by nitrosulphurization and a SUS type material subjected to a surface treatment by nitrosulphurization.
An arrangement of a switch cabinet base and a switch cabinet frame rack mounted thereon, wherein the switch cabinet base comprises a plurality of base corner pieces fixed to the switch cabinet frame rack, and the switch cabinet frame rack comprises a plurality of profile struts, at least one profile strut of which comprises a first mounting side (202, 204, 205, 208) with a row of holes of first mounting receptacles (203, 206, 207, 209), and wherein at least one of the base corner pieces comprises a second mounting side (3, 15, 16, 23) with a row of holes of second mounting receptacles, characterized in that the second mounting receptacles are spaced apart by the same grid dimension (x) as the first mounting receptacles (203, 206, 207, 209).
An unreleased thermopile infrared sensor comprising: a substrate having a bottom surface and a top surface; a thermally isolating material disposed on at least a portion of the top surface of the substrate, the thermally isolating material having a bottom surface and a top surface; and a 2D material (9, 29) disposed on at least a portion of the top surface of the thermally isolating material, the 2D material having a thickness of a few nanometers or less; wherein the thermally isolating material comprises a polymeric material possessing a thermal conductivity of less than about 1 W/m.K and is stable at temperatures up to 450°C, and wherein the 2D material is configured to be deposited at a temperature greater than 450°C, and, wherein the 2D material is forming one of the two electrical conductors of a thermocouple of the thermopile sensor. a substrate having a bottom surface and a top surface; a thermally isolating material disposed on at least a portion of the top surface of the substrate, the thermally isolating material having a bottom surface and a top surface; and a 2D material (9, 29) disposed on at least a portion of the top surface of the thermally isolating material, the 2D material having a thickness of a few nanometers or less; wherein the thermally isolating material comprises a polymeric material possessing a thermal conductivity of less than about 1 W/m.K and is stable at temperatures up to 450°C, and wherein the 2D material is configured to be deposited at a temperature greater than 450°C, and, wherein the 2D material is forming one of the two electrical conductors of a thermocouple of the thermopile sensor.
An authorization revocation method, comprising: receiving (201, 401), by a first entity, an authorization revocation request message from a second entity; sending (202, 402), by the first entity, an authorization revocation response message to the second entity based on the authorization revocation request message, wherein the authorization revocation request message carries an identifier of an application programming interface, API, invocation entity and further carries a revocation cause value, wherein the revocation cause value is used to indicate an authorization revocation cause; wherein the authorization revocation response message is used to indicate that authorization revocation succeeds; wherein the first entity is a common API framework core function, CCF, corresponding to the API invocation entity, and the second entity is a API exposing function, AEF; wherein the method further comprises: sending, by the first entity, an authorization revocation notification message to another AEF, wherein the authorization revocation notification message is used to notify the another AEF that the API invocation authorization of the API invocation entity is revoked, so that the another AEF can also directly reject an API invocation request of the API invocation entity. receiving (201, 401), by a first entity, an authorization revocation request message from a second entity; sending (202, 402), by the first entity, an authorization revocation response message to the second entity based on the authorization revocation request message, wherein the authorization revocation request message carries an identifier of an application programming interface, API, invocation entity and further carries a revocation cause value, wherein the revocation cause value is used to indicate an authorization revocation cause; wherein the authorization revocation response message is used to indicate that authorization revocation succeeds; wherein the first entity is a common API framework core function, CCF, corresponding to the API invocation entity, and the second entity is a API exposing function, AEF; wherein the method further comprises: sending, by the first entity, an authorization revocation notification message to another AEF, wherein the authorization revocation notification message is used to notify the another AEF that the API invocation authorization of the API invocation entity is revoked, so that the another AEF can also directly reject an API invocation request of the API invocation entity. sending, by the first entity, an authorization revocation notification message to another AEF, wherein the authorization revocation notification message is used to notify the another AEF that the API invocation authorization of the API invocation entity is revoked, so that the another AEF can also directly reject an API invocation request of the API invocation entity.
An open rotor gas turbine engine comprising a first hub and a second hub each mounting a respective blade array (23, 24) and being arranged in operation of the engine to be coaxially mechanically driven in opposite rotational directions with an axial gap between them by a turbine of the engine, characterised in that the engine comprises an electrical generator arrangement comprising a first generator part (33; 43) carried by the first hub and a second generator part (34; 44) carried by the second hub with the second generator part opposite the first generator part across the axial gap, each generator part being arranged for generation of electrical power therein by electromagnetic interaction with the other generator part as the two generator parts counter-rotate in operation of the engine.