mhurhangee/ep-ind-claims huggingface dataset:
A shield and a shield coupling assembly for coupling the shield to both sides of a helmet main body such that the shield can be opened and closed up and down, and that can be separated from the helmet main body, and having a locker capable of coupling the shield to a lock supporting member fixed to the helmet main body such that the shield can be fastened or unfastened, the shield coupling assembly, further comprising: a supporting plate attached to each side of the helmet main body; a rotation guiding unit attached to, and supported by, the supporting plate and able to be fitted and coupled to an inner coupling hole of the shield and capable of supporting the shield; an elastic unit comprising an elasticity applying body elastically coupled to the supporting plate;and an elastic body provided between the elasticity applying body and the supporting plate, characterized in that a shield elasticity supplying part protruding at the inner side of the shield is configured to be in pressurized contact with the elasticity applying body when the shield is closed with the locker such that the elasticity applying body transmits a repulsive force through the shield elasticity supplying part, and when the shield is opened, the elasticity applying body is adapted to no longer be in contact with the shield elasticity supplying part, and an elastic repulsive force is no longer generated. a supporting plate attached to each side of the helmet main body; a rotation guiding unit attached to, and supported by, the supporting plate and able to be fitted and coupled to an inner coupling hole of the shield and capable of supporting the shield; an elastic unit comprising an elasticity applying body elastically coupled to the supporting plate;and an elastic body provided between the elasticity applying body and the supporting plate, characterized in that a shield elasticity supplying part protruding at the inner side of the shield is configured to be in pressurized contact with the elasticity applying body when the shield is closed with the locker such that the elasticity applying body transmits a repulsive force through the shield elasticity supplying part, and when the shield is opened, the elasticity applying body is adapted to no longer be in contact with the shield elasticity supplying part, and an elastic repulsive force is no longer generated.
A compound according to Formula: wherein: Y is N; X is O, NR''' or S where R''' is hydrogen or C 1 -C 6 alkyl; Ar is aryl; R 1 is hydrogen or C 1 -C 6 alkyl; R 2 is C 1 -C 6 alkyl or halo substituted C 1 -C 6 alkyl; R 3 is hydrogen; and pharmaceutically acceptable salts, stereoisomers and tautomers thereof. Y is N; X is O, NR''' or S where R''' is hydrogen or C 1 -C 6 alkyl; Ar is aryl; R 1 is hydrogen or C 1 -C 6 alkyl; R 2 is C 1 -C 6 alkyl or halo substituted C 1 -C 6 alkyl; R 3 is hydrogen; and pharmaceutically acceptable salts, stereoisomers and tautomers thereof.
A dynamic line management system for processing data relating to the capabilities of each of a plurality of digital subscriber loops each serving a respective termination point of a telecommunications system, the dynamic line management system comprising means for generating a profile of each digital subscriber loop and setting a rate profile to allow control of the transmission of data to the individual termination points, characterised in that the dynamic line management system is associated with a network distribution point operating as a node intermediate between a remote access server and the respective digital subscriber loops, and the network distribution point is arranged to transmit data to the individual termination points under the control of the associated dynamic line management system.
A plastics material container with an aperture by way of which a liquid is capable of being removed from the container, with a main body adjoining this aperture in a longitudinal direction and a base portion adjoining this main body in this longitudinal direction, wherein the base portion has at least three stand feet, wherein external surfaces of these stand feet in each case form a stand portion (20a, 20b, 20c) of the plastics material container extending in sections in the form of an annular segment over a pre-set circumferential angle (a1, a2, a3..) and wherein at least three grooves are formed between these stand feet, wherein these grooves extend at least also in a radial direction of the plastics material container which is at a right angle to the longitudinal direction, wherein these grooves have in each case a groove bottom which extends at least also in the radial direction as well as a wall portion which extends at least also from this groove bottom to a stand portion (20a, 20b, 20c) of a stand foot adjacent to this groove bottom, wherein a sum of these circumferential angles (a1, a2, a3..) is greater than 180°, characterized in that at least one groove starting from the groove bottom thereof has an opening angle (b) which is less than 45°, preferably less than 30°, preferably less than 25°, preferably less than 20°.
A method of communication between a base station (eNodeB) and a user equipment configured to transmit a data signal to the base station and receive an acknowledgement signal from the base station within an expected predetermined time period from when the user equipment sends the data signal to the base station, the method comprising the steps of: - sending, by the base station, at least one acknowledgment signal to the user equipment; and - receiving, by the base station, the data signal from the user equipment (T=4); characterized in that the base station sends the at least one acknowledgement signal to the user equipment before receiving the data signal from the user equipment so that the user equipment receives (T=3) the at least one acknowledgment signal sent by the base station within the expected predetermined time period from when the user equipment sends (T=2) the data signal to the base station. - sending, by the base station, at least one acknowledgment signal to the user equipment; and - receiving, by the base station, the data signal from the user equipment (T=4);
An electrode material, comprising: catalyst particles wherein a conductive support and metal particles are coated with a porous inorganic material, and the metal particles are arranged on the conductive support and the metal particles are brought into contact with the conductive support, wherein a combination of the metal particles and the porous inorganic material that coats the metal particles is any combination of: Pt and SiO 2; Pd and SiO 2 or a titania-silica composite oxide; Rh and SiO 2 or ZrO 2; and Au and SiO 2. catalyst particles wherein a conductive support and metal particles are coated with a porous inorganic material, and the metal particles are arranged on the conductive support and the metal particles are brought into contact with the conductive support, wherein a combination of the metal particles and the porous inorganic material that coats the metal particles is any combination of: Pt and SiO 2; Pd and SiO 2 or a titania-silica composite oxide; Rh and SiO 2 or ZrO 2; and Au and SiO 2.
A submergible cleaning system for cleaning an underwater hull surface of a vessel while the vessel is afloat or an offshore facility, the cleaning system comprising: - a housing comprising a top face and side faces having edges and an open bottom face, the edges and bottom face being arranged opposite the hull surface, and the housing further comprising: - a rotary disc having a plurality of nozzles arranged around a periphery of the rotary disc, the nozzles facing the hull surface, - rolling spacing devices for providing a predetermined first gap between the rotary disc and the hull surface, - a suction device fluidly connected to an outlet arranged in the housing for providing a negative pressure within the housing, - a pressurising device fluidly connected with the nozzles for providing a high pressure fluid to the nozzles, whereby the nozzles are adapted for discharging fluid under high pressure against the hull surface for cleaning, wherein the housing further comprises a shroud at least partly arranged between the rotary disc and the housing, whereby a chamber is provided between the housing and the shroud, the chamber being in fluid communication with the suction device. - a housing comprising a top face and side faces having edges and an open bottom face, the edges and bottom face being arranged opposite the hull surface, and the housing further comprising: - a rotary disc having a plurality of nozzles arranged around a periphery of the rotary disc, the nozzles facing the hull surface, - rolling spacing devices for providing a predetermined first gap between the rotary disc and the hull surface, - a rotary disc having a plurality of nozzles arranged around a periphery of the rotary disc, the nozzles facing the hull surface, - rolling spacing devices for providing a predetermined first gap between the rotary disc and the hull surface, - a suction device fluidly connected to an outlet arranged in the housing for providing a negative pressure within the housing, - a pressurising device fluidly connected with the nozzles for providing a high pressure fluid to the nozzles, whereby the nozzles are adapted for discharging fluid under high pressure against the hull surface for cleaning, wherein the housing further comprises a shroud at least partly arranged between the rotary disc and the housing, whereby a chamber is provided between the housing and the shroud, the chamber being in fluid communication with the suction device.
A steam generating humidifier apparatus, comprising a water container with a water inlet and at least one steam outlet and at least two elongated electrodes (3, 4) according to claim 7, which are arranged vertically within the container.
Method for treating plant material comprising the application, to all or part of the surface of the plant material, of an aqueous dispersion comprising: (a) particles of at least one water-swellable polymer in a form non water-swollen or in a form wherein it maintains a water absorption capacity greater than 10 times its volume; (b) at least one equilibrating agent selected from among a mineral salt, organic salt, dispersant organic polymer and mixtures thereof. (a) particles of at least one water-swellable polymer in a form non water-swollen or in a form wherein it maintains a water absorption capacity greater than 10 times its volume; (b) at least one equilibrating agent selected from among a mineral salt, organic salt, dispersant organic polymer and mixtures thereof.
An ultrasound probe, comprising: an ultrasound module comprising a transducer configured to convert ultrasound waves into an electrical signal or vice versa; and a backing member including a porous foam-type body and a backing material that absorbs the ultrasound waves generated by the ultrasound module, CHARACTERISED IN THAT the porous foam-type body comprises a plurality of pores and a plurality of bridges which are connected to one another and located between the plurality of pores, and wherein the plurality of bridges are formed of at least one material selected from a group of metals of copper, aluminum, silver, nickel, iron, gold, and tungsten, and the backing member is grounded. an ultrasound module comprising a transducer configured to convert ultrasound waves into an electrical signal or vice versa; and a backing member including a porous foam-type body and a backing material that absorbs the ultrasound waves generated by the ultrasound module, CHARACTERISED IN THAT the porous foam-type body comprises a plurality of pores and a plurality of bridges which are connected to one another and located between the plurality of pores, and wherein the plurality of bridges are formed of at least one material selected from a group of metals of copper, aluminum, silver, nickel, iron, gold, and tungsten, and the backing member is grounded.
An aqueous composition comprising: a) from 0.5 to 150 parts of fluoropolymer particles having a weight average particle size of less than 500 nm; b) from 10 to 500 parts of one or more powdery electrode-forming materials; c) from 1 to 150 parts of one or more organic carbonates; d) 100 parts of water; all parts are by weight and based on 100 parts by weight of water, wherein said fluoropolymer is a polyvinylidene fluoride (PVDF) homopolymer or copolymer comprising at least 70 mole percent of vinylidene fluoride units. a) from 0.5 to 150 parts of fluoropolymer particles having a weight average particle size of less than 500 nm; b) from 10 to 500 parts of one or more powdery electrode-forming materials; c) from 1 to 150 parts of one or more organic carbonates; d) 100 parts of water;
Cosmetic treatment method for adding fibers to natural eyelashes, comprising the following successive steps: a) applying an adhesive composition to at least part of the eyelashes, the length on which the adhesive composition is applied being in a range of 1 to 70% of the natural length of the eyelashes, b) bringing fibers borne by an applicator into contact with said adhesive composition present on said eyelashes, the fibers being positioned on the applicator such that they are substantially parallel to one another on the applicator. c) moving the applicator away from the eyelashes, so as to release fibers which adhere to said eyelashes. a) applying an adhesive composition to at least part of the eyelashes, the length on which the adhesive composition is applied being in a range of 1 to 70% of the natural length of the eyelashes, b) bringing fibers borne by an applicator into contact with said adhesive composition present on said eyelashes, the fibers being positioned on the applicator such that they are substantially parallel to one another on the applicator. c) moving the applicator away from the eyelashes, so as to release fibers which adhere to said eyelashes.
A method for forming microchannels in a ceramic matrix composite component, the method comprising: laying up a plurality of body plies for forming a body of the CMC component; laying up a microchannel ply on the plurality of body plies, the microchannel ply having at least one void therein for forming at least one microchannel; laying up a cover ply on the microchannel ply, the cover ply defining an outer layer of the CMC component; processing the laid up body plies, microchannel ply, and cover ply to form the CMC component; and machining at least one film cooling hole from an outer surface of the CMC component to supply a film of cooling fluid from the at least one microchannel to the outer surface of the CMC component, characterized in that the method further comprises forming a film cooling cavity and a film supply conduit in the body plies, the film supply conduit providing a flow of cooling fluid from the at least one microchannel to the film cooling cavity; and wherein forming at least one film cooling hole comprises forming at least one film cooling hole from the outer surface of the CMC component to the film cooling cavity to supply the film of cooling fluid from the film cooling cavity to the outer surface of the CMC component. laying up a plurality of body plies for forming a body of the CMC component; laying up a microchannel ply on the plurality of body plies, the microchannel ply having at least one void therein for forming at least one microchannel; laying up a cover ply on the microchannel ply, the cover ply defining an outer layer of the CMC component; processing the laid up body plies, microchannel ply, and cover ply to form the CMC component; and machining at least one film cooling hole from an outer surface of the CMC component to supply a film of cooling fluid from the at least one microchannel to the outer surface of the CMC component, characterized in that the method further comprises forming a film cooling cavity and a film supply conduit in the body plies, the film supply conduit providing a flow of cooling fluid from the at least one microchannel to the film cooling cavity; and wherein forming at least one film cooling hole comprises forming at least one film cooling hole from the outer surface of the CMC component to the film cooling cavity to supply the film of cooling fluid from the film cooling cavity to the outer surface of the CMC component.
A method of manufacturing a bladed stator shell segment of an axial turbomachine, comprising - a body (18, 20; 118, 120) with a generally arcuate profile and made of a first polymeric material (54; 154); - at least one working surface (28, 32; 128, 132) on the body and made of a second polymeric material injected with the first material; wherein the segment is moulded by injecting the first polymeric material (54; 154) and injecting the second polymeric material (56; 156), the injection of the first and second materials being coordinated such that one of the first and second materials is still pasty when the other of the first and second materials is brought into contact with the material; characterized in that the other one of the first and second materials is at least partially pasty when brought into contact with the one of the first and second materials, and the second polymeric material comprises silicone and/or Teflon. - a body (18, 20; 118, 120) with a generally arcuate profile and made of a first polymeric material (54; 154); - at least one working surface (28, 32; 128, 132) on the body and made of a second polymeric material injected with the first material; wherein the segment is moulded by injecting the first polymeric material (54; 154) and injecting the second polymeric material (56; 156), the injection of the first and second materials being coordinated such that one of the first and second materials is still pasty when the other of the first and second materials is brought into contact with the material; characterized in that the other one of the first and second materials is at least partially pasty when brought into contact with the one of the first and second materials, and the second polymeric material comprises silicone and/or Teflon.
A method for treating cement kiln dust containing alkaline metal salts, which method comprises a hydration step to produce hydrated CKD, a drying step which reduces the moisture content of the hydrated CKD to less than 20 % by weight, and a carbonation step, wherein the carbonation step is carried out in a fluidized bed reactor, wherein if the hydrated CKD resulting from step comprises particles greater than 10mm in size at their widest point the method further comprises a fractionating step between steps and, which fractionating step involves removing particles greater than 10mm in size at their widest point.
Process for preparing highly sinter-stable metal nanoparticles supported on mesoporous graphitic particles, said process comprising the steps of: a. impregnating particles having a porous basic framework with a graphitizable organic compound, b. subjecting the particles obtained in step a) to a high temperature graphitization process, whereby a graphitic framework in the porous basic framework is provided, c. subjecting the so-obtained graphitized particles to a process for removing the basic framework, whereby a mesoporous graphitic framework is provided, d. impregnating the mesoporous graphitic particles obtained in step c) with a solution of a salt of at least one catalytically active metal selected from Ti, V, Cr, Mn, Fe, Co, Ni, Cu, Zn, Al, Mo, Se, Sn, Pt, Ru, Pd, W, Ir, Os, Rh, Nb, Ta, Pb, Bi, Au, Ag, Sc, Y including salts and mixtures thereof, where the volume of the solution of the metal salt(s) is completely absorbed in the mesopores of the mesoporous graphitic particles; e. subjecting the mesoporous graphitic particles obtained in step d) to a hydrogenation process whereby catalytically active metal sites on and/or in the graphitic mesoporous particles are provided, and f. subjecting the mesoporous graphitic particles obtained in step e) to a high temperature treatment in a high temperature range from 600° to 1400°C, in particular 600° to 1000°C, and in an inert atmosphere. a. impregnating particles having a porous basic framework with a graphitizable organic compound, b. subjecting the particles obtained in step a) to a high temperature graphitization process, whereby a graphitic framework in the porous basic framework is provided, c. subjecting the so-obtained graphitized particles to a process for removing the basic framework, whereby a mesoporous graphitic framework is provided, d. impregnating the mesoporous graphitic particles obtained in step c) with a solution of a salt of at least one catalytically active metal selected from Ti, V, Cr, Mn, Fe, Co, Ni, Cu, Zn, Al, Mo, Se, Sn, Pt, Ru, Pd, W, Ir, Os, Rh, Nb, Ta, Pb, Bi, Au, Ag, Sc, Y including salts and mixtures thereof, where the volume of the solution of the metal salt(s) is completely absorbed in the mesopores of the mesoporous graphitic particles; e. subjecting the mesoporous graphitic particles obtained in step d) to a hydrogenation process whereby catalytically active metal sites on and/or in the graphitic mesoporous particles are provided, and f. subjecting the mesoporous graphitic particles obtained in step e) to a high temperature treatment in a high temperature range from 600° to 1400°C, in particular 600° to 1000°C, and in an inert atmosphere.
A method comprising: generating a mode indicator field for identifying a modulation and coding mode applied to a data payload of a data frame of a communications network, wherein the modulation and coding mode is one of either a first set of modulation and coding modes or a second set of modulation and coding modes; encoding the mode indicator field; modulating the encoded mode indicator field, wherein: when the modulation and coding mode is one of the first set of modulation and coding modes, the modulation of the encoded mode indicator field is applied in a first mode; and when the modulation and coding mode is one of the second set of modulation and coding modes, the modulation of the encoded mode indicator field is applied in a second mode; and generating a data frame containing a frame header and a frame data payload, wherein the frame header contains a start of frame, SOF, and the mode indicator field; wherein the first mode for the modulation of the encoded mode indicator field comprises modulation in a first phase, and the second mode for the modulation of the encoded mode indicator field comprises modulation in a second phase; and wherein the first phase for the modulation of the encoded mode indicator field is out of phase by approximately 90 degrees with respect to the second phase for the modulation of the encoded mode indicator field. generating a mode indicator field for identifying a modulation and coding mode applied to a data payload of a data frame of a communications network, wherein the modulation and coding mode is one of either a first set of modulation and coding modes or a second set of modulation and coding modes; encoding the mode indicator field; modulating the encoded mode indicator field, wherein: when the modulation and coding mode is one of the first set of modulation and coding modes, the modulation of the encoded mode indicator field is applied in a first mode; and when the modulation and coding mode is one of the second set of modulation and coding modes, the modulation of the encoded mode indicator field is applied in a second mode; and generating a data frame containing a frame header and a frame data payload, wherein the frame header contains a start of frame, SOF, and the mode indicator field; wherein the first mode for the modulation of the encoded mode indicator field comprises modulation in a first phase, and the second mode for the modulation of the encoded mode indicator field comprises modulation in a second phase; and wherein the first phase for the modulation of the encoded mode indicator field is out of phase by approximately 90 degrees with respect to the second phase for the modulation of the encoded mode indicator field.