mhurhangee/ep-ind-claims huggingface dataset:
Lifting bellows, for example for axle-lifting apparatuses of vehicles, wherein the lifting bellows has at least one hose-shaped elastomer main body with an elastomer matrix and has reinforcing supports (6, 7) embedded in the elastomer matrix, two end covers (3, 3A) and two clamping elements, wherein the reinforcing support (6, 7) of the main body is built up from at least two thread plies (6, 7), wherein each thread ply (6, 7) is arranged, in the non-loaded state, at a winding angle (11A, 11B) with respect to the circumferential direction, the absolute value of which winding angle (11A, 11B) is less than 35.3°, wherein the two winding angles (11A, 11B) have virtually the same absolute value but different signs, and in that the end covers (3, 3A) are each connected at both ends to the main body in an air-tight fashion by means of the clamping elements.
A method for lubricating a diesel engine equipped with exhaust gas recirculation, comprising supplying thereto a composition comprising an oil of lubricating viscosity and 0.1 to 3 weight percent of the reaction product of: (a) an olefin polymer comprising carboxylic acid functionality or a reactive equivalent thereof, said polymer having a number average molecular weight of greater than 5,000; and (b) an amine component comprising at least one aromatic amine wherein said at least one aromatic amine comprises 3-nitroaniline. (a) an olefin polymer comprising carboxylic acid functionality or a reactive equivalent thereof, said polymer having a number average molecular weight of greater than 5,000; and (b) an amine component comprising at least one aromatic amine wherein said at least one aromatic amine comprises 3-nitroaniline.
Method for operating a vehicle, wherein the vehicle comprises at least one first and one second electric motor, wherein a front axle of the vehicle can be driven by the first electric motor, and a rear axle of the vehicle can be driven by the second electric motor, wherein the first and the second electric motors are operated using a torque, which is dependent upon a characteristic map, wherein the characteristic map defines areas, which are delimited depending on a driver-requested torque and a vehicle speed, which areas have torque distributions for the first and the second electric motors, which are discontinuously different from one another, wherein the characteristic map defines at least three areas, wherein, in a first area, the first electric motor is activated exclusively and, in a second area, the second electric motor is activated exclusively and in a third area both electric motors are activated, characterized in that, when a motor is deactivated, it is disconnected from the drive train by means of a clutch, so that a non-driven axle is decoupled and is disconnected from the drive train, so that, in the first area, the front axle is driven exclusively, in the second area, the rear axle is driven exclusively, and in the third area, both axles are driven.
A method for performing a random access procedure by a user equipment, UE, in a dual connectivity, DC, with a master evolved node b, MeNB, and a secondary eNB, SeNB, in a wireless network, the method comprising: performing a random access, RA, procedure on a Primary Cell, PCell, for a master cell group, MCG, of the MeNB; receiving, from the MeNB, an RRC connection reconfiguration message for addition or modification of at least one secondary cell, SCell, for a SCell group, SCG associated with the SeNB provided with PUCCH configuration; performing a RA procedure on the at least one SCell, for the SCG of the SeNB associated with at least one second frequency; and transmitting, to the at least one SCell for the SCG of the SeNB, uplink data, wherein performing the RA procedure on the at least one SCell for the SCG of the SeNB comprises: transmitting a RA preamble on a physical random access channel, PRACH, to the at least one SCell for the SCG of the SeNB; receiving a random access response, RAR, message including an uplink grant, uplink timing advance information and a temporary Cell Radio Network Temporary Identifier, C-RNTI, from the at least one SCell for the SCG of the SeNB; and sending a request message based on the uplink grant to the at least one SCell for the SCG of the SeNB; and receiving a contention resolution message using the temporary C-RNTI, wherein the RA procedure on the at least one SCell for the SCG of the SeNB is initiated by the UE. performing a random access, RA, procedure on a Primary Cell, PCell, for a master cell group, MCG, of the MeNB; receiving, from the MeNB, an RRC connection reconfiguration message for addition or modification of at least one secondary cell, SCell, for a SCell group, SCG associated with the SeNB provided with PUCCH configuration; performing a RA procedure on the at least one SCell, for the SCG of the SeNB associated with at least one second frequency; and transmitting, to the at least one SCell for the SCG of the SeNB, uplink data, wherein performing the RA procedure on the at least one SCell for the SCG of the SeNB comprises: transmitting a RA preamble on a physical random access channel, PRACH, to the at least one SCell for the SCG of the SeNB; receiving a random access response, RAR, message including an uplink grant, uplink timing advance information and a temporary Cell Radio Network Temporary Identifier, C-RNTI, from the at least one SCell for the SCG of the SeNB; and sending a request message based on the uplink grant to the at least one SCell for the SCG of the SeNB; and transmitting a RA preamble on a physical random access channel, PRACH, to the at least one SCell for the SCG of the SeNB; receiving a random access response, RAR, message including an uplink grant, uplink timing advance information and a temporary Cell Radio Network Temporary Identifier, C-RNTI, from the at least one SCell for the SCG of the SeNB; and sending a request message based on the uplink grant to the at least one SCell for the SCG of the SeNB; and receiving a contention resolution message using the temporary C-RNTI, wherein the RA procedure on the at least one SCell for the SCG of the SeNB is initiated by the UE.
A cosmetic compact comprising: a base (10,12), wherein one or more portions of the base (10,12) are adapted for holding one or more personal care and cosmetic products; a cover that is moveable with respect to the base, between an opened position and a closed position, such that in the closed position, the cosmetic product is not accessible, and in the opened position, the cosmetic product is accessible; a rechargeable electric charge storage device; and at least one digital or analog signal connector accessible at a surface of the compact, selected from the group consisting of RF (BNC, C, F, GR, N, SC, TNC, UHF, TV aerial plug, miniature, subminiature and micro types of these), D-subminiature, DVI, mini-DVI, micro-DVI, DIN, Mini-DIN, SCART, D-Terminal, VGA/Mini-VGA, Banana, RCA, TS, TRS, TRRS (2.5mm, 3.5mm, 6.35mm versions), AV Multi, memory card slot, Apple Attachment Unit Interface, HDMI, PDMI, DisplayPort, Mini DisplayPort, DMS-59, FireWire, USB-A, USB-B, parallel ATA, serial ATA, XLR, and Registered Jack-type connectors, characterized in that it comprises at least one output electric power connector that is electrically connected to the charge storage device, and that is accessible at a surface of the compact. a base (10,12), wherein one or more portions of the base (10,12) are adapted for holding one or more personal care and cosmetic products; a cover that is moveable with respect to the base, between an opened position and a closed position, such that in the closed position, the cosmetic product is not accessible, and in the opened position, the cosmetic product is accessible; a rechargeable electric charge storage device; and at least one digital or analog signal connector accessible at a surface of the compact, selected from the group consisting of RF (BNC, C, F, GR, N, SC, TNC, UHF, TV aerial plug, miniature, subminiature and micro types of these), D-subminiature, DVI, mini-DVI, micro-DVI, DIN, Mini-DIN, SCART, D-Terminal, VGA/Mini-VGA, Banana, RCA, TS, TRS, TRRS (2.5mm, 3.5mm, 6.35mm versions), AV Multi, memory card slot, Apple Attachment Unit Interface, HDMI, PDMI, DisplayPort, Mini DisplayPort, DMS-59, FireWire, USB-A, USB-B, parallel ATA, serial ATA, XLR, and Registered Jack-type connectors, characterized in that it comprises at least one output electric power connector that is electrically connected to the charge storage device, and that is accessible at a surface of the compact.
A porous metal body including a skeleton having a three-dimensional mesh-like structure, the porous metal body having a plate-like overall shape, the skeleton having a hollow structure, the skeleton comprising a primary metal layer, a first microporous layer and a second microporous layer, the first microporous layer and the second microporous layer being porous layers having pores formed therein which are formed by sintering metal microparticles, the primary metal layer consisting of nickel or a nickel alloy, the first microporous layer containing nickel and chromium, the first microporous layer consisting of an alloy of nickel with chromium, the first microporous layer being disposed on an outer peripheral surface of the primary metal layer, the second microporous layer containing nickel and chromium, the second microporous layer consisting of an alloy of nickel with chromium, the second microporous layer being disposed on an inner peripheral surface of the primary metal layer, the inner peripheral surface facing a hollow space of the skeleton.
A mobile terminal (100; 200; 300) comprising: a sensing unit (140, 411); a display unit (151; 251; 351); and a processor, wherein the processor is configured to: execute a first application, the first application being a music playback application preselected by a user to be executed in an Always on Display, AOD, mode; while executing the first application, execute the AOD mode for enabling the display unit (151; 251; 351) to be always turned on at low power and to maintain only a part of the display unit in a dimming state or on-state while the music playback application is running in a background state; display a first controller (3631, 3632; 3731, 3732, 3733) corresponding to the first application on the display unit (151; 251; 351) in the AOD mode, the first controller (3631, 3632; 3731, 3732, 3733) including at least one music playback control icon; and in response to a predetermined touch input signal to select one of the at least one music playback related icon in the AOD mode, perform a music playback related function mapped to the selected icon in the AOD mode. a sensing unit (140, 411); a display unit (151; 251; 351); and a processor, wherein the processor is configured to: execute a first application, the first application being a music playback application preselected by a user to be executed in an Always on Display, AOD, mode; while executing the first application, execute the AOD mode for enabling the display unit (151; 251; 351) to be always turned on at low power and to maintain only a part of the display unit in a dimming state or on-state while the music playback application is running in a background state; display a first controller (3631, 3632; 3731, 3732, 3733) corresponding to the first application on the display unit (151; 251; 351) in the AOD mode, the first controller (3631, 3632; 3731, 3732, 3733) including at least one music playback control icon; and in response to a predetermined touch input signal to select one of the at least one music playback related icon in the AOD mode, perform a music playback related function mapped to the selected icon in the AOD mode. execute a first application, the first application being a music playback application preselected by a user to be executed in an Always on Display, AOD, mode; while executing the first application, execute the AOD mode for enabling the display unit (151; 251; 351) to be always turned on at low power and to maintain only a part of the display unit in a dimming state or on-state while the music playback application is running in a background state; display a first controller (3631, 3632; 3731, 3732, 3733) corresponding to the first application on the display unit (151; 251; 351) in the AOD mode, the first controller (3631, 3632; 3731, 3732, 3733) including at least one music playback control icon; and in response to a predetermined touch input signal to select one of the at least one music playback related icon in the AOD mode, perform a music playback related function mapped to the selected icon in the AOD mode.
A method for ironing and folding laundry items, wherein at least one ironer irons the laundry items running through it in an ironing direction, the ironed laundry items are transported in the ironing direction to at least one folding machine (11, 12), which follows the ironer or the final ironer in a plurality of successive ironers, and they are folded by the at least one folding machine (11, 12), characterized in that the ironed laundry items are folded simultaneously or optionally simultaneously or also independently of one another by a plurality of adjacent folding machines (11, 12) in that laundry items which are ironed in one lane, and take up more than half the operating width of the at least one ironer, are folded in the same way and together in concurrent fashion by a plurality of identical folding machines (11, 12) arranged one beside the other, or in that laundry items which allow for two-lane ironing, and take up less than half the operating width of the at least one ironer, are folded independently of one another over two lanes by the identical folding machines (11, 12) arranged one beside the other.
A laser welding method for repair of melting and erasing a crack (Wa) generated in a structural member of an existing structure, the method comprising: moving laser light having a spot diameter (φ) of less than 3 mm and enlarging a heat input area so as for the crack (Wa) to be located within the heat input area, the heat input area being formed by irradiating the structural member with the laser light, and enlarging the heat input area, irradiating, with the laser light, a region where a temperature detected by a temperature sensor is equal to or less than a mechanical melting temperature of the structural member, or a region where a temperature equal to or less than the mechanical melting temperature of the structural member is obtained, after elapse of a cooling time acquired as data in advance, wherein the laser light is passed along the crack (Wa) a plurality of times and the molten portion by the preceding pass is cooled to obtain the temperature equal to or less than the mechanical melting temperature, and then the subsequent pass is performed, the mechanical melting temperature being the temperature at which yield strength of the structural member that is lowered by heating is lost and at which the yield strength of the structural member recovers when the member is cooled by heat dissipation after operation. moving laser light having a spot diameter (φ) of less than 3 mm and enlarging a heat input area so as for the crack (Wa) to be located within the heat input area, the heat input area being formed by irradiating the structural member with the laser light, and enlarging the heat input area, irradiating, with the laser light, a region where a temperature detected by a temperature sensor is equal to or less than a mechanical melting temperature of the structural member, or a region where a temperature equal to or less than the mechanical melting temperature of the structural member is obtained, after elapse of a cooling time acquired as data in advance, wherein the laser light is passed along the crack (Wa) a plurality of times and the molten portion by the preceding pass is cooled to obtain the temperature equal to or less than the mechanical melting temperature, and then the subsequent pass is performed, the mechanical melting temperature being the temperature at which yield strength of the structural member that is lowered by heating is lost and at which the yield strength of the structural member recovers when the member is cooled by heat dissipation after operation.
Plant for packaging products inside respective containers, the product being preferably defined by a plurality of articles grouped together, in a corresponding packaging configuration; the product being preferably in the form of a food product and in particular in the form of a product with a soft consistency, such as a processed cheese or the like; the container preferably consisting of a first and a second part associated with each other to form a chamber for housing the product, and defining respectively a base body, or bottom, and an upper body, or lid; wherein it comprises a first and a second apparatus for packaging respective products; each apparatus (10, 10') comprising operational packaging means for packaging, or inserting, the product in the containers and a frame for supporting the operational packaging means, each apparatus (10, 10') further comprising means for feeding in the products to the corresponding packaging apparatus, in particular products coming from a corresponding machine for making the products, and means for feeding out the packaged products from the corresponding packaging apparatus, each apparatus (10, 10') comprising means (20, 20') for making a conveying path configured to allows the products, to be packaged or already packaged, to pass beyond the corresponding apparatus (10 or 10'), and in that the means for making a conveying path are set up in each apparatus (10 or 10') to allow a by-pass path to be set up for bypassing the means for packaging, or inserting, the product in the container, by products which are not to be packaged by the corresponding apparatus (10 or 10'), the by-pass path picks up the products upstream of the corresponding packaging apparatus (10 or 10') and transfers them downstream of the corresponding packaging apparatus (10 or 10'), the means (20, 20') for making the conveying path being in the form of a zone, provided in each packaging apparatus (10 or 10'), said zone comprising means (21, 23) for conveying the products, to be packaged or already packaged, means for packaging, or inserting, the product in the containers said means (21, 23) for conveying the products being designed to cross each packaging apparatus (10 or 10'), the plant being characterized in that the first and second packaging apparatus have respective operational packaging means which are identically configured, and in that the means for feeding out the products already packaged in the first apparatus flow into the path designed to passbeyond the second apparatus which is placed downstream to the first apparatus for packaging further prod ucts.
A solar energy system for heating a target fluid using incident solar radiation, the system comprising: a protective upper layer; a target fluid layer comprising the target fluid; a light transmissive inter-fluidic dividing layer; a working fluid layer comprising a working fluid; and a lower retaining layer, wherein the light-transmissive inter-fluidic dividing layer enables each of the fluids (120, 124) to absorb incident solar radiation; and wherein both the target fluid and the working fluid are liquids; wherein the working fluid is arranged to absorb light strongly in the visible spectrum, and re-radiate the absorbed energy in the infrared part of the spectrum to be absorbed by the target fluid, wherein the target fluid has a lower absorbency than the working fluid in the visible part of the spectrum; and wherein incoming solar radiation passes through the target fluid prior to passing into the working fluid. a protective upper layer; a target fluid layer comprising the target fluid; a light transmissive inter-fluidic dividing layer; a working fluid layer comprising a working fluid; and a lower retaining layer, wherein the light-transmissive inter-fluidic dividing layer enables each of the fluids (120, 124) to absorb incident solar radiation; and wherein both the target fluid and the working fluid are liquids; wherein the working fluid is arranged to absorb light strongly in the visible spectrum, and re-radiate the absorbed energy in the infrared part of the spectrum to be absorbed by the target fluid, wherein the target fluid has a lower absorbency than the working fluid in the visible part of the spectrum; and wherein incoming solar radiation passes through the target fluid prior to passing into the working fluid.
A vehicle fuel cell cooling system configured to circulate and supply a coolant to a fuel cell installed in a vehicle and to perform temperature control of the fuel cell, the system comprising: a temperature sensor configured to detect a temperature of the coolant; an outside atmospheric pressure sensor configured to detect an outside atmospheric pressure; a radiator configured to discharge heat from the coolant to the outside air; a first coolant flow path configured to supply the coolant which has cooled the fuel cell to the radiator; a second coolant flow path configured to allow the coolant which has cooled the fuel cell to bypass the radiator; a thermostat valve configured to switch between the first coolant flow path and the second coolant flow path in accordance with temperature of the coolant and to increase a flow rate of the coolant flowing through the first coolant flow path in a case where the temperature of the coolant is high as compared to a case where the temperature of the coolant is low; a warming device configured to warm up the coolant; and controlling means for controlling the warming device based on the temperature of the coolant and on the outside atmospheric pressure and raising the temperature of the coolant flowing into the fuel cell in a case where the outside atmospheric pressure is high as compared to a case where the outside atmospheric pressure is low. a temperature sensor configured to detect a temperature of the coolant; an outside atmospheric pressure sensor configured to detect an outside atmospheric pressure; a radiator configured to discharge heat from the coolant to the outside air; a first coolant flow path configured to supply the coolant which has cooled the fuel cell to the radiator; a second coolant flow path configured to allow the coolant which has cooled the fuel cell to bypass the radiator; a thermostat valve configured to switch between the first coolant flow path and the second coolant flow path in accordance with temperature of the coolant and to increase a flow rate of the coolant flowing through the first coolant flow path in a case where the temperature of the coolant is high as compared to a case where the temperature of the coolant is low; a warming device configured to warm up the coolant; and controlling means for controlling the warming device based on the temperature of the coolant and on the outside atmospheric pressure and raising the temperature of the coolant flowing into the fuel cell in a case where the outside atmospheric pressure is high as compared to a case where the outside atmospheric pressure is low.