mhurhangee/ep-ind-claims huggingface dataset:
A variable speed drive comprising: - at least two components that generate heat during operation; - a cooling member to circulate a fluid to cool the at least two components, the cooling member comprising: at least two bases secured together, each base having: - a surface configured to receive a corresponding component of the at least two components; - a tub formed in the surface of the base; - a first passageway extending through the base and in fluid communication with the tub; - a second passageway extending through the base and in fluid communication with the tub, the second passageway being positioned opposite the first passageway; and wherein the first passageway, second passageway and tub are used to circulate a fluid to provide cooling to the component; wherein each base comprises a mating elements (70,72) to secure the bases together, whereas each base is manufactured from an injection molding process. - at least two components that generate heat during operation; - a cooling member to circulate a fluid to cool the at least two components, the cooling member comprising: at least two bases secured together, each base having: - a surface configured to receive a corresponding component of the at least two components; - a tub formed in the surface of the base; - a first passageway extending through the base and in fluid communication with the tub; - a second passageway extending through the base and in fluid communication with the tub, the second passageway being positioned opposite the first passageway; and wherein the first passageway, second passageway and tub are used to circulate a fluid to provide cooling to the component; wherein each base comprises a mating elements (70,72) to secure the bases together, whereas each base is manufactured from an injection molding process. at least two bases secured together, each base having: - a surface configured to receive a corresponding component of the at least two components; - a tub formed in the surface of the base; - a first passageway extending through the base and in fluid communication with the tub; - a second passageway extending through the base and in fluid communication with the tub, the second passageway being positioned opposite the first passageway; and - a surface configured to receive a corresponding component of the at least two components; - a tub formed in the surface of the base; - a first passageway extending through the base and in fluid communication with the tub; - a second passageway extending through the base and in fluid communication with the tub, the second passageway being positioned opposite the first passageway; and
A system comprising a device for testing and a device to be tested - said device to be tested comprising at least one visual output, - said device for testing comprising one or more input units for automated actuation of the device to be tested, one or more image analysis units, which acquires and analyzes the at least one visual output of the device to be tested, and a control unit, which controls the one or more input units and the one or more image analysis units, and automatically relays a test result based on predetermined desired outputs and image recognition of the one or more image analysis units, characterized in that - said device to be tested comprises at least one mechanical input element and a series of interdependent components, allowing activation of the at least one visual output as reaction of said device to be tested to said at least one mechanical input element, and - in that said device for testing comprises the one or more input units for automated mechanical actuation of the at least one mechanical input element of the device to be tested. - said device to be tested comprising at least one visual output, - said device for testing comprising one or more input units for automated actuation of the device to be tested, one or more image analysis units, which acquires and analyzes the at least one visual output of the device to be tested, and a control unit, which controls the one or more input units and the one or more image analysis units, and automatically relays a test result based on predetermined desired outputs and image recognition of the one or more image analysis units, - said device to be tested comprises at least one mechanical input element and a series of interdependent components, allowing activation of the at least one visual output as reaction of said device to be tested to said at least one mechanical input element, and - in that said device for testing comprises the one or more input units for automated mechanical actuation of the at least one mechanical input element of the device to be tested.
A bunkering marine vessel comprising: a buoyant vessel having an elongated hull with a first hull side and an opposing second hull side, a first hull end and a second hull end and defining a centerline plane extending from the first hull end to the second hull end between the two hull sides substantially bisecting the hull between the two hull sides and an amidships plane defined between the two hull ends substantially bisecting the hull between the two hull ends, with a keel between the first and second hull ends along the centerline plane; an upper deck extending between the hull sides so as to define a volume within the hull; at least one main bunkering fuel storage tank within the hull; at least two hull decks below the upper deck, the at least two hull decks extending between the hull sides, the main bunkering fuel storage tank comprising a pressure vessel of a height extending through at least one hull deck; and a multi-deck, elongated, enclosed accommodation structure, the accommodation structure having at least two vertically spaced apart, enclosed decks, with a bridge deck and a bridge mounted on top of the accommodation structure, the accommodation structure extending along a portion of the length of the second hull side and across the amidships plane so as to be equidistant between the first hull end and the second hull end, the accommodation structure and the bridge deck spaced apart from the centerline plane. a buoyant vessel having an elongated hull with a first hull side and an opposing second hull side, a first hull end and a second hull end and defining a centerline plane extending from the first hull end to the second hull end between the two hull sides substantially bisecting the hull between the two hull sides and an amidships plane defined between the two hull ends substantially bisecting the hull between the two hull ends, with a keel between the first and second hull ends along the centerline plane; an upper deck extending between the hull sides so as to define a volume within the hull; at least one main bunkering fuel storage tank within the hull; at least two hull decks below the upper deck, the at least two hull decks extending between the hull sides, the main bunkering fuel storage tank comprising a pressure vessel of a height extending through at least one hull deck; and a multi-deck, elongated, enclosed accommodation structure, the accommodation structure having at least two vertically spaced apart, enclosed decks, with a bridge deck and a bridge mounted on top of the accommodation structure, the accommodation structure extending along a portion of the length of the second hull side and across the amidships plane so as to be equidistant between the first hull end and the second hull end, the accommodation structure and the bridge deck spaced apart from the centerline plane.
A method for processing data in a network system, the method comprising receiving (S11, S21) data from a terminal or a relay station and using interference alignment or partially distributed space-time coding or network encoding technologies to coordinate and suppress interference of the data; identifying (S12, S22) the characteristics of the data and classifying the data into data to be transmitted back to a core network and data to be bypassed, the characteristics comprising any one of quality requirement, service level and secrecy requirement; and transmitting (S13, S23) the classified data to the core network or bypassing the classified data according to the classifications of the data.
A vehicle front structure, including: a head pipe; a handlebar pipe disposed steerably on the head pipe; a handlebar cover supported on the handlebar pipe, the handlebar cover for covering an outside of the handlebar pipe; and a visor member disposed at an upper portion of the handlebar cover, the visor member for smoothing an air flow, characterized in that: the visor member includes left and right side wall portions (93L, 93R) extended substantially perpendicularly from the handlebar cover and a front wall portion extending across the left and right side wall portions and spaced away from an upper surface of the handlebar cover; an air guide path that introduces an air flow to a back surface of the visor member is formed between the upper surface of the handlebar cover and the visor member; the air guide path is defined by the upper surface of the handlebar cover, the left and right side wall portions (93L, 93R), and the front wall portion; and the left and right side wall portions include side wall step portions (131L, 131R) formed at trailing ends thereof. a head pipe; a handlebar pipe disposed steerably on the head pipe; a handlebar cover supported on the handlebar pipe, the handlebar cover for covering an outside of the handlebar pipe; and a visor member disposed at an upper portion of the handlebar cover, the visor member for smoothing an air flow, characterized in that: the visor member includes left and right side wall portions (93L, 93R) extended substantially perpendicularly from the handlebar cover and a front wall portion extending across the left and right side wall portions and spaced away from an upper surface of the handlebar cover; an air guide path that introduces an air flow to a back surface of the visor member is formed between the upper surface of the handlebar cover and the visor member; the air guide path is defined by the upper surface of the handlebar cover, the left and right side wall portions (93L, 93R), and the front wall portion; and the left and right side wall portions include side wall step portions (131L, 131R) formed at trailing ends thereof. the visor member includes left and right side wall portions (93L, 93R) extended substantially perpendicularly from the handlebar cover and a front wall portion extending across the left and right side wall portions and spaced away from an upper surface of the handlebar cover; an air guide path that introduces an air flow to a back surface of the visor member is formed between the upper surface of the handlebar cover and the visor member; the air guide path is defined by the upper surface of the handlebar cover, the left and right side wall portions (93L, 93R), and the front wall portion; and the left and right side wall portions include side wall step portions (131L, 131R) formed at trailing ends thereof.
A process of synthesizing an intumescent, halogen-free, silicon-phosphorus-nitrogen (IHFSPN) polymer comprising the steps of: (i) contacting at reaction conditions a dihalosilane and a diamine to form a silanediyldiamine; (ii) contacting at reaction conditions a dihalophosphate and a polyhydric alcohol to produce a spirodihalophosphate; and (iii) contacting at reaction conditions the silanediyldiamine and the spirodihalophosphate to produce an IHFSPN polymer of Formula where R 1 through R 6 may be the same or different from each other, and each is: hydrogen, C 1 -C 5 alkyl, C 3 -C 5 hydroxyalkyl, C 3 -C 4 alkenyl, C 6 -C 10 aryl, C 7 -C 8 arylalkyl, or a cycloalkyl structure and n is 2 to 100. (i) contacting at reaction conditions a dihalosilane and a diamine to form a silanediyldiamine; (ii) contacting at reaction conditions a dihalophosphate and a polyhydric alcohol to produce a spirodihalophosphate; and (iii) contacting at reaction conditions the silanediyldiamine and the spirodihalophosphate to produce an IHFSPN polymer of Formula where R 1 through R 6 may be the same or different from each other, and each is: hydrogen, C 1 -C 5 alkyl, C 3 -C 5 hydroxyalkyl, C 3 -C 4 alkenyl, C 6 -C 10 aryl, C 7 -C 8 arylalkyl, or a cycloalkyl structure and n is 2 to 100.
A method of deposition on a substrate used for the manufacture of a solar cell, comprising: depositing a first conductive pattern on a first side of the substrate, the first conductive pattern being one of a plurality of busbars and a plurality of fingers; providing a screen over the substrate, the screen comprising: a set of openings; and a bottom side having a varying vertical profile including low portions and high portions; transferring a printing material from the screen to the substrate through the set of openings to print a second conductive pattern on the first side of the substrate, the second conductive pattern being the other one of the plurality of busbars and the plurality of fingers, wherein, during the printing of the second conductive pattern, the first conductive pattern is substantially wet and the screen is disposed over the substrate in a manner such that the high portions are elevated above the first conductive pattern, and wherein the first conductive pattern has a first shape, wherein the high portions form a pattern having a second shape encompassing the first shape. depositing a first conductive pattern on a first side of the substrate, the first conductive pattern being one of a plurality of busbars and a plurality of fingers; providing a screen over the substrate, the screen comprising: a set of openings; and a bottom side having a varying vertical profile including low portions and high portions; a set of openings; and a bottom side having a varying vertical profile including low portions and high portions; transferring a printing material from the screen to the substrate through the set of openings to print a second conductive pattern on the first side of the substrate, the second conductive pattern being the other one of the plurality of busbars and the plurality of fingers, wherein, during the printing of the second conductive pattern, the first conductive pattern is substantially wet and the screen is disposed over the substrate in a manner such that the high portions are elevated above the first conductive pattern, and wherein the first conductive pattern has a first shape, wherein the high portions form a pattern having a second shape encompassing the first shape.
A cooling device comprising; a compressor, an evaporator, a bracket attached onto the compressor forming a conduit in-between, a drip tray to be placed onto the compressor wherein the drip tray is configured to be fluidly communicated with the evaporator via a water discharge line such that the water discharged through said water discharge line is collected into the drip tray, the drip tray comprising a fastening means via which the drip tray is removable placed onto the compressor via the conduit, wherein the fastening means comprises; a pair of lugs wherein each of the lugs comprises a tab via which the fastening means holds onto the bracket in an open position of the lugs, characterized by a button pressable by means of force exerted and which upon being pressed, forces the pair of lugs to pivot around respective axes towards a closed position during which the tabs converge, freeing the tabs and the drip tray from the bracket and the compressor respectively. a compressor, an evaporator, a bracket attached onto the compressor forming a conduit in-between, a drip tray to be placed onto the compressor wherein the drip tray is configured to be fluidly communicated with the evaporator via a water discharge line such that the water discharged through said water discharge line is collected into the drip tray, the drip tray comprising a fastening means via which the drip tray is removable placed onto the compressor via the conduit, wherein the fastening means comprises; a pair of lugs wherein each of the lugs comprises a tab via which the fastening means holds onto the bracket in an open position of the lugs, characterized by a button pressable by means of force exerted and which upon being pressed, forces the pair of lugs to pivot around respective axes towards a closed position during which the tabs converge, freeing the tabs and the drip tray from the bracket and the compressor respectively.
A data communication processing method, applied to a communication device, comprising: acquiring a modulation order and a target code rate, wherein the acquiring the modulation order and the target code rate comprises: receiving control information from a wireless communication node, wherein the control information comprises: modulation and coding scheme, MCS, field information; and determining the modulation order and the target code rate from an MCS table according to the MCS field information, wherein the MCS table comprises the following fields: an MCS index, the modulation order and the target code rate; and wherein a maximum target code rate corresponding to an MCS having a modulation order of 1 is a ratio of 198 to 1024; calculating an intermediate number N info of information bits according to a total number of resource elements, the modulation order and the target code rate; quantizing the intermediate number N info of the information bits to obtain a quantized intermediate number N' info; and determining a transport block size, TBS, according to the quantized intermediate number N' info. acquiring a modulation order and a target code rate, wherein the acquiring the modulation order and the target code rate comprises: receiving control information from a wireless communication node, wherein the control information comprises: modulation and coding scheme, MCS, field information; and determining the modulation order and the target code rate from an MCS table according to the MCS field information, wherein the MCS table comprises the following fields: an MCS index, the modulation order and the target code rate; and wherein a maximum target code rate corresponding to an MCS having a modulation order of 1 is a ratio of 198 to 1024; calculating an intermediate number N info of information bits according to a total number of resource elements, the modulation order and the target code rate; quantizing the intermediate number N info of the information bits to obtain a quantized intermediate number N' info; and receiving control information from a wireless communication node, wherein the control information comprises: modulation and coding scheme, MCS, field information; and determining the modulation order and the target code rate from an MCS table according to the MCS field information, wherein the MCS table comprises the following fields: an MCS index, the modulation order and the target code rate; and wherein a maximum target code rate corresponding to an MCS having a modulation order of 1 is a ratio of 198 to 1024; calculating an intermediate number N info of information bits according to a total number of resource elements, the modulation order and the target code rate; quantizing the intermediate number N info of the information bits to obtain a quantized intermediate number N' info; and
A method of coupling a first optical transmission means embedded within a fibre composite structure to a second optical transmission means external to the fibre composite structure, the method comprising the following steps performed in order: - providing an optical steering means suitable for reflecting, collimating or splitting a light beam on a micro-substrate embedded within the fibre composite structure and securing the first optical transmission means to the optical steering means using the micro-substrate; - locating the position using an imaging technique of the optical steering means within the fibre composite structure; - forming a passageway through the fibre composite structure to the optical steering means; and - establishing an optical connection between the first and second optical transmission means at the intersection of the passageway and the first optical transmission means, the optical steering means optically processing light passing to or from the first optical transmission means. - providing an optical steering means suitable for reflecting, collimating or splitting a light beam on a micro-substrate embedded within the fibre composite structure and securing the first optical transmission means to the optical steering means using the micro-substrate; - locating the position using an imaging technique of the optical steering means within the fibre composite structure; - forming a passageway through the fibre composite structure to the optical steering means; and - establishing an optical connection between the first and second optical transmission means at the intersection of the passageway and the first optical transmission means, the optical steering means optically processing light passing to or from the first optical transmission means.
Device for storing electrical energy (1; 101) in the form of kinetic energy of the type comprising, placed inside a housing (10; 110), a flywheel secured to a shaft, the shaft being mounted freely rotatable relative to the housing by means of rolling means comprising at least two bearings (37, 38) holding the shaft by its ends, as well as conversion means capable of transforming an electrical energy applied at the input of the device into a mechanical energy stored in the flywheel and of transforming a mechanical energy stored in the flywheel into an electrical energy at the output of the device, the storage device comprising a first rotor/stator assembly consisting of a rotor and a stator, the rotor of which is coupled to the shaft and the stator of which is integral with the housing and surrounds the rotor, and a second rotor/stator assembly consisting of a rotor and a stator, the rotor (31, 35) of which is coupled to the shaft and the stator of which is integral with the housing, the housing having two inner walls (18, 20), each inner wall (18, 20) supporting one of the stators (32, 36) of the two rotor/stator assemblies (30, 34), characterised in that the device is symmetrical with respect to a median plane orthogonal to an axis of rotation of the shaft, in that the flywheel is annular in shape and a web of the flywheel rests in the median plane; in that said conversion means comprises the first and second rotor/stator assemblies, the rotor of each of the first and second rotor/stator assemblies being fixed directly to the shaft and the stator of each of the first and second rotor/stator assemblies surrounding the corresponding rotor; and in that the first and second rotor/stator assemblies are arranged on either side of said web and housed inside the ring formed by the flywheel.
Abrasive grain (110; 210; 310; 410), having a surface with at least a first face (120; 220; 320; 420) with a first outer contour (121; 221; 321; 421) and at least a second face (125; 225; 325; 425) with a second outer contour (126; 226; 326; 426), characterized in that the first outer contour (121; 221; 321; 421) does not include a corner and the second outer contour (126; 226; 326; 426) includes at least one corner (127; 227; 327; 427).