mhurhangee/ep-ind-claims huggingface dataset:
A battery storage rack comprising at least one storage space, a battery located in the storage space, the storage space being provided with a fluid cooling device for cooling the battery, the fluid cooling device comprises: a first bracket mounted on the battery storage rack; a fluid cooling terminal unit provided with a first connector and a second connector in fluid communication with each other, and a third connector and a fourth connector in fluid communication with each other, the first connector and the third connector being respectively in communication with an output port and an input port of a pipeline for supplying a fluid; a second bracket arranged adjacent to the first bracket, the fluid cooling terminal unit being mounted on the second bracket; characterized in that the fluid cooling device further comprises: a driving unit configured for providing a driving force to move the first bracket and the second bracket relative to each other so as to cause the second connector and the fourth connector to engage with a fluid inlet and a fluid outlet provided on the battery respectively to form a fluid circulation circuit for cooling the battery, or to cause the second connector and the fourth connector to disengage from the fluid inlet and the fluid outlet respectively. a first bracket mounted on the battery storage rack; a fluid cooling terminal unit provided with a first connector and a second connector in fluid communication with each other, and a third connector and a fourth connector in fluid communication with each other, the first connector and the third connector being respectively in communication with an output port and an input port of a pipeline for supplying a fluid; a second bracket arranged adjacent to the first bracket, the fluid cooling terminal unit being mounted on the second bracket; characterized in that the fluid cooling device further comprises: a driving unit configured for providing a driving force to move the first bracket and the second bracket relative to each other so as to cause the second connector and the fourth connector to engage with a fluid inlet and a fluid outlet provided on the battery respectively to form a fluid circulation circuit for cooling the battery, or to cause the second connector and the fourth connector to disengage from the fluid inlet and the fluid outlet respectively.
A compound represented by a formula below: where R 1 represents bromo group, a diazaborinane derivative, BX 3 -, or BX 3 - M +, wherein X represents F, and M + represents an alkali metal ion, an ammonium ion, a tetraalkylammonium ion, a tetraarylammonium ion, a tetraalkylphosphonium ion, a tetraarylphosphonium ion, or an imidazolium ion.
Replicable genetic package displaying a peptide having at least one intramolecular cyclic bond between two atoms of amino acid side chains, wherein said cyclic bond is between C-N, C-O, C-S, N-N, N-O, N-S, O-O, O-S, except a Gram-positive host cell comprising a nucleic acid construct encoding a fusion peptide which comprises from the N-terminus to the C-terminus, at least the following sequential elements: (a) an N-terminal lantibiotic leader sequence; (b) an amino acid sequence of interest to be post-translationally modified to a thioether-bridge containing polypeptide; (c) a hydrophilic cell-wall spanning domain; (d) a sortase recognition motif; (e) a hydrophobic membrane spanning domain; and (f) a C-terminal charged membrane anchoring domain, which host cell is capable of post-translationally modifying said amino acid sequence of interest to a thioether bridge containing polypeptide. (a) an N-terminal lantibiotic leader sequence; (b) an amino acid sequence of interest to be post-translationally modified to a thioether-bridge containing polypeptide; (c) a hydrophilic cell-wall spanning domain; (d) a sortase recognition motif; (e) a hydrophobic membrane spanning domain; and (f) a C-terminal charged membrane anchoring domain,
A process for activating a Ni-Fe battery comprising an iron electrode, comprising the steps of: (i) providing a Ni-Fe battery comprising a nickel cathode and an iron anode, with the battery further comprising an electrolyte comprising NaOH, LiOH, and a metal sulfide in an amount of from 1-2 wt%; and (ii) cycling the battery to equalize the state-of-charge of the cathode and iron anode. (i) providing a Ni-Fe battery comprising a nickel cathode and an iron anode, with the battery further comprising an electrolyte comprising NaOH, LiOH, and a metal sulfide in an amount of from 1-2 wt%; and (ii) cycling the battery to equalize the state-of-charge of the cathode and iron anode.
Rotary stirring device for a beverage preparation machine, said device comprising a rotary tool about an axis A and intended to stir a preparation contained in a container and a pipe for delivering hot water and/or steam to the rotary tool, said delivery pipe comprising a hollow portion of a drive shaft which communicates with a tubular portion which extends along the axis A between a first end which is coupled to the rotary tool by means of a first coupling device and a second end which is coupled to said hollow portion by means of a second coupling device, characterised in that the second coupling device is a magnetic coupling device configured to generate a magnetic attraction force along the axis A between the drive shaft and the second end of the tubular portion, the magnetic coupling device comprising a metal member arranged on said second end and formed by an inner ring made of stainless steel resistant to corrosion in steam ambience and an outer ring made of a ferromagnetic material, the inner ring being intended to slide over the hollow portion which is made of stainless steel resistant to corrosion in a steam ambience, during the achievement of the coupling.
A system for generating a three-dimensional object, the system comprising: at least one agent distributor to selectively deliver coalescing agent at a first density onto portions of a layer of build material and at a second density lower than the first density; an energy source and a controller to control the at least one agent distributor to selectively deliver the coalescing agent at the first and second densities onto respective first and second portions of the layer in respective first and second patterns derived from data representing the three-dimensional object to be generated, so that when energy is applied to the layer the build material is to heat up above the melting point of the build material, coalesce and solidify to form a slice of the three-dimensional object in accordance with the first pattern, wherein the second portion is in proximity to a boundary of the first portion, wherein presence of the coalescing agent in the second portion is to prevent at least some heat from flowing away from the first portion when the energy is applied. at least one agent distributor to selectively deliver coalescing agent at a first density onto portions of a layer of build material and at a second density lower than the first density; an energy source and a controller to control the at least one agent distributor to selectively deliver the coalescing agent at the first and second densities onto respective first and second portions of the layer in respective first and second patterns derived from data representing the three-dimensional object to be generated, so that when energy is applied to the layer the build material is to heat up above the melting point of the build material, coalesce and solidify to form a slice of the three-dimensional object in accordance with the first pattern, wherein the second portion is in proximity to a boundary of the first portion, wherein presence of the coalescing agent in the second portion is to prevent at least some heat from flowing away from the first portion when the energy is applied.
A frangible munition 1 comprising a tail unit 2, a main body 5 which comprises a payload cavity for receiving a payload 10, a fuze 9, and an explosive train operably connected to said fuze, located between said main body and the fuze, is a frangible ogive element 7, wherein the frangible ogive element and main body are retained in operable engagement by at least one frangible link 7a, such that upon an impact, said frangible link is caused to fail, characterised in that there is a locking ring 6 located between the main body and said frangible ogive element, to retain said payload within the payload cavity.
Crimping tool exchange device for exchanging a first crimping tool, which is arranged in a process position in a crimping press for producing a crimp connection in order to connect a conductor end of a cable to a crimp contact, for a second crimping tool, the crimping tool exchange device having at least two exchange locations for holding a crimping tool (50, 51) in each case, it being possible to arrange the exchange locations in a first exchange position in such a way that the first crimping tool can be displaced, in particular linearly, along a first direction of movement from the process position to a first of the exchange locations, the exchange locations can be moved linearly out of the first exchange position into a second exchange position in such a way that the first crimping tool on the first of the exchange locations and a second crimping tool on a second of the exchange locations move in a second direction of movement which is different to the first direction of movement, and the exchange locations can be arranged in the second exchange position in such a way that the second crimping tool can be displaced from the second of the exchange locations in the process position in a third direction of movement which extends in the opposite direction to the first direction of movement, characterized in that the crimping tool exchange device comprises a guiding device which has a T-shaped guiding path for guiding and holding a holding pin of the first crimping tool and for guiding and holding a second holding pin of the second crimping tool during the displacement of the first crimping tool and/or the second crimping tool.
A computer-implemented method of simulating downhole conditions, comprising: receiving configuration information about a well system in a production configuration, the well system including annular fluids disposed therein; receiving heat source information associated with a heat source disposed within the well system; simulating heat transfer in the well system during a production scenario based at least on the configuration information and the heat source information; and predicting pressure buildup in the annular fluids based on the simulated heat transfer in the well system. receiving configuration information about a well system in a production configuration, the well system including annular fluids disposed therein; receiving heat source information associated with a heat source disposed within the well system; simulating heat transfer in the well system during a production scenario based at least on the configuration information and the heat source information; and predicting pressure buildup in the annular fluids based on the simulated heat transfer in the well system.
A straddled vehicle, comprising: an electronically controlled continuously variable transmission; a target output calculation unit being configured to calculate a target output based on information relating to an accelerator operation amount and information relating to a vehicle speed; a basic engine revolution speed calculation unit being configured to calculate a basic engine revolution speed based on the information relating to the vehicle speed; a target engine revolution speed calculation unit being configured to calculate a target engine revolution speed by adding a correction revolution speed to the basic engine revolution speed, holding the correction revolution speed, and performing lag processing on a change in the correction revolution speed; and a target gear ratio calculation unit being configured to calculate a target gear ratio of the electronically controlled continuously variable transmission based on the target engine revolution speed. an electronically controlled continuously variable transmission; a target output calculation unit being configured to calculate a target output based on information relating to an accelerator operation amount and information relating to a vehicle speed; a basic engine revolution speed calculation unit being configured to calculate a basic engine revolution speed based on the information relating to the vehicle speed; a target engine revolution speed calculation unit being configured to calculate a target engine revolution speed by adding a correction revolution speed to the basic engine revolution speed, holding the correction revolution speed, and performing lag processing on a change in the correction revolution speed; and a target gear ratio calculation unit being configured to calculate a target gear ratio of the electronically controlled continuously variable transmission based on the target engine revolution speed.
A method of producing a part using a three-dimensional modeler, wherein the modeler produces the part by selectively curing layers of a solidifiable liquid material with actinic radiation projected from an imager, the method comprising: diffusing the actinic radiation projected from the imager; determining an intensity profile of the actinic radiation projected from the imager, wherein determining the intensity profile comprises using at least one intensity profiler to measure diffused actinic radiation projected from the imager; providing a single layer of the solidifiable liquid material proximate an image plane of the modeler; projecting the actinic radiation in a plurality of patterns (44, 46, 48) to selectively cure the single layer of the solidifiable liquid material, wherein the patterns (44, 46, 48) are correlated to the intensity profile of the actinic radiation; providing a single layer of the solidifiable liquid material proximate the image plane of the modeler; and repeating the projecting of actinic radiation and the providing of a single layer to produce the part. diffusing the actinic radiation projected from the imager; determining an intensity profile of the actinic radiation projected from the imager, wherein determining the intensity profile comprises using at least one intensity profiler to measure diffused actinic radiation projected from the imager; providing a single layer of the solidifiable liquid material proximate an image plane of the modeler; projecting the actinic radiation in a plurality of patterns (44, 46, 48) to selectively cure the single layer of the solidifiable liquid material, wherein the patterns (44, 46, 48) are correlated to the intensity profile of the actinic radiation; providing a single layer of the solidifiable liquid material proximate the image plane of the modeler; and repeating the projecting of actinic radiation and the providing of a single layer to produce the part.
Machine for packaging single-use capsules for infusion or extraction beverages, like coffee or tea, the capsules including a rigid body, cup-shaped, with a bottom and an upper aperture provided with a rim, a dose of extraction or infusion product contained within the rigid body, and a lid for closing the upper aperture of the rigid body, wherein the machine further comprises: - a transport element for transporting the rigid bodies, the transfer element being closed in a loop around movement organs, rotating about vertical axes for moving the transport element along an advancement path; said transport element including a belt and a plurality of support elements, each support element defining a respective seat with a corresponding vertical development axis for a rigid body; the seats being arranged in succession; - a plurality of operative stations, arranged along the advancement path of the transport element, and including: - a feeding station for feeding the rigid bodies within corresponding seats of the transport element; - a dosing station for dosing the product within the rigid body; - a closing station for closing the upper aperture of the rigid body with a lid; and - an outfeed station that draws the capsules formed from the respective seats of the transport element, said machine being characterized in that said plurality of operative stations are configured to operate continuously and in phase with the same continuously rotating transport element. - a transport element for transporting the rigid bodies, the transfer element being closed in a loop around movement organs, rotating about vertical axes for moving the transport element along an advancement path; said transport element including a belt and a plurality of support elements, each support element defining a respective seat with a corresponding vertical development axis for a rigid body; the seats being arranged in succession; - a plurality of operative stations, arranged along the advancement path of the transport element, and including: - a feeding station for feeding the rigid bodies within corresponding seats of the transport element; - a dosing station for dosing the product within the rigid body; - a closing station for closing the upper aperture of the rigid body with a lid; and - an outfeed station that draws the capsules formed from the respective seats of the transport element, - a feeding station for feeding the rigid bodies within corresponding seats of the transport element; - a dosing station for dosing the product within the rigid body; - a closing station for closing the upper aperture of the rigid body with a lid; and - an outfeed station that draws the capsules formed from the respective seats of the transport element,
Railway vehicle comprising a driver's cab, wherein the driver's cab comprises a head-up display, the display comprising: • a projector able to project images, • a combiner able to display the images projected by the projector, and • a displacement system for the combiner and the projector, the displacement system being able to rotate the combiner and the projector with respect to a main axis among a plurality of adjustment positions. • a projector able to project images, • a combiner able to display the images projected by the projector, and • a displacement system for the combiner and the projector, the displacement system being able to rotate the combiner and the projector with respect to a main axis among a plurality of adjustment positions.
A control unit for controlling luminance in a space, the control unit being configured to: - transmit via a transmitter at least one probing signal within a transmitting range, - receive from a plurality of receivers at least one return signal, the at least one return signal being a part of the at least one probing signal that is reflected against at least one target present within the transmitting range, - estimate a three-dimensional location of the at least one target as a function of time based on the at least one return signal, and - control a lighting function of at least one light source based on the estimated three-dimensional location of the at least one target. - transmit via a transmitter at least one probing signal within a transmitting range, - receive from a plurality of receivers at least one return signal, the at least one return signal being a part of the at least one probing signal that is reflected against at least one target present within the transmitting range, - estimate a three-dimensional location of the at least one target as a function of time based on the at least one return signal, and - control a lighting function of at least one light source based on the estimated three-dimensional location of the at least one target.
Method for manufacturing turbulator members for heat-exchangers or similar devices, comprising the following steps: a. prearranging a first twisting head and a second twisting head spaced from one another along a working direction, so as to receive a portion (101, 102, 103) of elongated shape material, in particular wire or band, of a determined extension, said first twisting head and said second twisting head being arranged facing and coaxial with respect to a longitudinal axis parallel to the said working direction, and being operable in a relative rotation motion about said longitudinal axis; b. feeding said portion of said elongated shape material by means of a feed device through a load device, mobile along said working direction and carrying auxiliary unwinding means, configured to arrange about themselves the elongated shape material in a U-configuration, to arrange said fed portion (101, 102, 103) of filiform material in U-shape; c. operating said load device in motion along said working direction so as to unwind said portion of elongated shape material between said first twisting head and said second twisting head; d. clamping by means of first clamping means carried by said first twisting head one end of said portion of elongated shape material; e. clamping by means of second clamping means carried by said second twisting head a portion opposite to said end of said portion of elongated shape material; f. operating in said relative rotation motion according to said longitudinal axis said first twisting head with respect to said second twisting head; g. releasing and extracting said portion of material so twisted. a. prearranging a first twisting head and a second twisting head spaced from one another along a working direction, so as to receive a portion (101, 102, 103) of elongated shape material, in particular wire or band, of a determined extension, said first twisting head and said second twisting head being arranged facing and coaxial with respect to a longitudinal axis parallel to the said working direction, and being operable in a relative rotation motion about said longitudinal axis; b. feeding said portion of said elongated shape material by means of a feed device through a load device, mobile along said working direction and carrying auxiliary unwinding means, configured to arrange about themselves the elongated shape material in a U-configuration, to arrange said fed portion (101, 102, 103) of filiform material in U-shape; c. operating said load device in motion along said working direction so as to unwind said portion of elongated shape material between said first twisting head and said second twisting head; d. clamping by means of first clamping means carried by said first twisting head one end of said portion of elongated shape material; e. clamping by means of second clamping means carried by said second twisting head a portion opposite to said end of said portion of elongated shape material; f. operating in said relative rotation motion according to said longitudinal axis said first twisting head with respect to said second twisting head; g. releasing and extracting said portion of material so twisted.