mhurhangee/patent-ind-claim-en huggingface dataset:
A sheet for three-dimensional molding which includes a base material with at least a surface protective layer laminated thereon, wherein the surface protective layer is formed of a cured product of a resin composition containing an ionizing radiation curable resin and inorganic particles having an average particle size of 100 nm or more, wherein the curing of the resin composition uses an amount of irradiation with ionizing radiation with which the crosslinking density of the surface protective layer is saturated, the content of the inorganic particles in the surface protective layer is 40% by mass or more, and the average particle size of the inorganic particles is in the range of 100 to 500 nm, wherein the average particle size of inorganic particles is defined as described in the description. the surface protective layer is formed of a cured product of a resin composition containing an ionizing radiation curable resin and inorganic particles having an average particle size of 100 nm or more, wherein the curing of the resin composition uses an amount of irradiation with ionizing radiation with which the crosslinking density of the surface protective layer is saturated, the content of the inorganic particles in the surface protective layer is 40% by mass or more, and the average particle size of the inorganic particles is in the range of 100 to 500 nm, wherein the average particle size of inorganic particles is defined as described in the description.
A device for comminuting flat bodies made of fiber-composite material, comprising a rotatably driven crushing roller , with which the flat bodies can be brought into contact and which is designed to break up the flat bodies in contact with the outer circumferential surface of the crushing roller , and a feed apparatus comprising a feed element being provided, on which a feed surface is formed and which is configured to bring the flat bodies to the crushing roller by moving along the feed surface , in order to enter into interaction with the outer circumferential surface of the crushing roller , the feed surface being configured, in a first circumferential position (I), for feeding with an inclination at an angle (α) to a tangent (T) of the outer circumferential surface or perpendicularly to the tangent (T), characterized in that a mating roller is configured to be arranged adjacently to and/or in parallel with the crushing roller with formation of an intermediate gap.
A water turbine-type device, activated by a current of liquid fluid, such as sea or river currents, to produce electrical energy, including: - a floating shell ; - at least one turbine capable of being rotated by the moving fluid; - an electricity generator driven by the turbine and capable of being connected to an electricity distribution network; - at least one diffuser forming a flow mixer, of annular shape centred on the turbine and surrounding the latter characterised in that it includes two counter-rotating turbines comprising at least two blades each, said turbines being surrounded by a first annular diffuser , and in that the first diffuser is surrounded by a second diffuser in the form of radial fins fastened to the periphery of said first diffuser and extending axially to the rear of the latter. - a floating shell ; - at least one turbine capable of being rotated by the moving fluid; - an electricity generator driven by the turbine and capable of being connected to an electricity distribution network; - at least one diffuser forming a flow mixer, of annular shape centred on the turbine and surrounding the latter characterised in that it includes two counter-rotating turbines comprising at least two blades each, said turbines being surrounded by a first annular diffuser , and in that the first diffuser is surrounded by a second diffuser in the form of radial fins fastened to the periphery of said first diffuser and extending axially to the rear of the latter.
A method of wireless communication performed by a user equipment, UE, comprising: receiving an instruction to measure a synchronization signal block, SSB; receiving scheduling information that schedules a downlink channel communication in one or more symbols that overlap with the SSB; determining , based on an indication from a base station, whether to decode the SSB, the downlink channel communication, or both the SSB and the downlink channel communication; and processing one or more signals received in the one or more symbols based at least in part on the determination; wherein processing the one or more signals comprises one of: decoding both the SSB and the downlink channel communication in the one or more symbols, decoding only the SSB and not the downlink channel communication in the one or more symbols, or decoding only the downlink channel communication and not the SSB in the one or more symbols. receiving an instruction to measure a synchronization signal block, SSB; receiving scheduling information that schedules a downlink channel communication in one or more symbols that overlap with the SSB; determining , based on an indication from a base station, whether to decode the SSB, the downlink channel communication, or both the SSB and the downlink channel communication; and processing one or more signals received in the one or more symbols based at least in part on the determination; wherein processing the one or more signals comprises one of: decoding both the SSB and the downlink channel communication in the one or more symbols, decoding only the SSB and not the downlink channel communication in the one or more symbols, or decoding only the downlink channel communication and not the SSB in the one or more symbols. decoding both the SSB and the downlink channel communication in the one or more symbols, decoding only the SSB and not the downlink channel communication in the one or more symbols, or decoding only the downlink channel communication and not the SSB in the one or more symbols.
A method of receiving a signal by a receiving user equipment, UE, for optical wireless communication, the method comprising: establishing a communication link with a transmitting UE to perform the wireless optical communication; receiving optical signals from the transmitting UE through the communication link; and performing interference cancellation on the optical signals, wherein establishing the communication link comprises exchanging initial information with the transmitting UE, wherein the initial information includes information related to an orbital angular momentum, OAM, mode applied to the optical signals, wherein the interference cancellation is performed based on the OAM mode, wherein performing the interference cancellation comprising: selectively applying optical-to-electrical, O-to-E, conversion to the optical signals with an optical-electrical converter after passing the optical signals through an optical filter, and wherein the O-to-E conversion is applied to only an optical signal detected by an optical-electrical conversion element having distributed therein intensities of the optical signals to which the OAM mode is applied among the plurality of optical-electrical conversion elements included in the optical-electrical converter. establishing a communication link with a transmitting UE to perform the wireless optical communication; receiving optical signals from the transmitting UE through the communication link; and performing interference cancellation on the optical signals, wherein establishing the communication link comprises exchanging initial information with the transmitting UE, wherein the initial information includes information related to an orbital angular momentum, OAM, mode applied to the optical signals, wherein the interference cancellation is performed based on the OAM mode, wherein performing the interference cancellation comprising: selectively applying optical-to-electrical, O-to-E, conversion to the optical signals with an optical-electrical converter after passing the optical signals through an optical filter, and wherein the O-to-E conversion is applied to only an optical signal detected by an optical-electrical conversion element having distributed therein intensities of the optical signals to which the OAM mode is applied among the plurality of optical-electrical conversion elements included in the optical-electrical converter. selectively applying optical-to-electrical, O-to-E, conversion to the optical signals with an optical-electrical converter after passing the optical signals through an optical filter, and wherein the O-to-E conversion is applied to only an optical signal detected by an optical-electrical conversion element having distributed therein intensities of the optical signals to which the OAM mode is applied among the plurality of optical-electrical conversion elements included in the optical-electrical converter.
The use of a semicrystalline thermoplastic polyester for producing biaxially oriented films, said polyester comprising: • at least one 1,4:3,6-dianhydrohexitol unit (A); • at least one alicyclic diol unit (B) other than the 1,4:3,6-dianhydrohexitol units (A); • at least one terephthalic acid unit (C); wherein the (A)/[(A)+(B)] molar ratio is at least 0.05 and at most 0.30; said polyester not containing any aliphatic non-cyclic diol units or comprising a molar amount of aliphatic non-cyclic diol units, relative to all the monomer units of the polyester, of less than 5%, and the reduced viscosity in solution (25°C; phenol (50%m): ortho-dichlorobenzene (50%m); 5 g/l of polyester) of said polyester being greater than 50 ml/g. • at least one 1,4:3,6-dianhydrohexitol unit (A); • at least one alicyclic diol unit (B) other than the 1,4:3,6-dianhydrohexitol units (A); • at least one terephthalic acid unit (C);
A system for fabricating a three-dimensional article comprising: a powder dispenser for sequentially dispensing individual layers of powder ; a fusing apparatus for generating and scanning a plurality of energy beams including a first beam and a second beam to selectively melt the layers of powder ; and a controller configured to: operate the powder dispenser and the fusing apparatus to form a sequence of r selectively fused layers of powder in which r is at least 3, the layers individually including a composite hatch area, the composite hatch area includes a first hatch area defined by the first energy beam and a second hatch area defined by the second energy beam, the first and second hatch areas overlap along a seam with a transverse overlap distance (x), a lateral location of the seam varying by layer, for the sequence of r layers the seam varies in lateral location over a zone having a lateral width of v and in which no two layers in the sequence have a transverse distance between seams of less than u in which u is at least equal to two times the transverse overlap distance (x), characterized in that the transverse overlap distance (x) is based upon an alignment uncertainty of the first beam with respect to the second beam along a transverse axis that is transverse to the seam , and wherein the transverse overlap distance (x) is at least equal to the alignment uncertainty. a powder dispenser for sequentially dispensing individual layers of powder ; a fusing apparatus for generating and scanning a plurality of energy beams including a first beam and a second beam to selectively melt the layers of powder ; and a controller configured to: operate the powder dispenser and the fusing apparatus to form a sequence of r selectively fused layers of powder in which r is at least 3, the layers individually including a composite hatch area, the composite hatch area includes a first hatch area defined by the first energy beam and a second hatch area defined by the second energy beam, the first and second hatch areas overlap along a seam with a transverse overlap distance (x), a lateral location of the seam varying by layer, for the sequence of r layers the seam varies in lateral location over a zone having a lateral width of v and in which no two layers in the sequence have a transverse distance between seams of less than u in which u is at least equal to two times the transverse overlap distance (x), characterized in that the transverse overlap distance (x) is based upon an alignment uncertainty of the first beam with respect to the second beam along a transverse axis that is transverse to the seam , and wherein the transverse overlap distance (x) is at least equal to the alignment uncertainty.
A refrigerator comprising: a body ; a storage compartment formed inside the body ; and a door for the storage compartment , wherein the door comprises: a front panel; a rear panel that is coupled to the rear of the front panel and constitutes a rear side of the door ; a foaming space formed between the front panel and the rear panel ; an adiabatic material foamed in the foaming space ; and a display unit comprising a display portion , characterized in that the front panel is formed of a metal plate material, the front panel having through holes that pass through the front panel , wherein the through holes constitute a predetermined shape, and the display portion having a shape corresponding to the shape of the through holes and displaying information when at least a portion of the display portion is turned on or off, the display unit disposed at a rear side of the front panel so that a position of the display portion corresponds to a position of the through holes. a body ; a storage compartment formed inside the body ; and a door for the storage compartment , wherein the door comprises: a front panel; a rear panel that is coupled to the rear of the front panel and constitutes a rear side of the door ; a foaming space formed between the front panel and the rear panel ; an adiabatic material foamed in the foaming space ; and a display unit comprising a display portion , a front panel; a rear panel that is coupled to the rear of the front panel and constitutes a rear side of the door ; a foaming space formed between the front panel and the rear panel ; an adiabatic material foamed in the foaming space ; and a display unit comprising a display portion ,
An actuating support member for a deployable structure which comprises a plurality of interconnected elongate support members , the structure being deployable from a stowed state to a deployed, expanded, state in which the support members are arranged in a ring; each support member being provided with a connector mounted on the support member for longitudinal movement with respect to the support member when the structure is being changed between the stowed state and the expanded state; wherein the actuating support member comprises a drive member mounted for longitudinal movement with respect to the actuating support member, and an electromechanical device arranged to drive the drive member in one direction with respect to the actuating support member; the drive member being connected to the connector by a lost motion connection so that the drive member causes the connector to move in said one direction when the drive member is moved by the electromechanical device in said one direction, and wherein the drive member and the connector are arranged to detach from each other such that the connector is capable of moving in said one direction even if the drive member is not moved by the electromechanical device, wherein the lost motion connection between the drive member and the connector is provided by a portion of the drive member abutting against a portion of the connector.
Aircraft headlight , comprising: at least one visible light source for emitting a headlight light output; a light transmissive cover , at least partially covering the at least one visible light source ; and at least one infrared emitter for emitting infrared radiation for removing ice from the light transmissive cover ; wherein at least 90 % of radiation energy, comprised in the infrared radiation emitted by the at least infrared emitter , is emitted within a predefined wavelength range; and wherein the light transmissive cover allows at least 25 %, in particular at least 30 %, more particularly at least 45 %, of the radiation energy, which is emitted within the predefined wavelength range, to pass through the light transmissive cover ; characterised in that the predefined wavelength range is from 1500 nm to 3000 nm and the light transmissive cover comprises quartz and/or silica. at least one visible light source for emitting a headlight light output; a light transmissive cover , at least partially covering the at least one visible light source ; and at least one infrared emitter for emitting infrared radiation for removing ice from the light transmissive cover ; wherein at least 90 % of radiation energy, comprised in the infrared radiation emitted by the at least infrared emitter , is emitted within a predefined wavelength range; and wherein the light transmissive cover allows at least 25 %, in particular at least 30 %, more particularly at least 45 %, of the radiation energy, which is emitted within the predefined wavelength range, to pass through the light transmissive cover ; characterised in that the predefined wavelength range is from 1500 nm to 3000 nm and the light transmissive cover comprises quartz and/or silica.
Geocomposite for the treatment of soils, for a system for the treatment of soils by electrokinetics, comprising at least one filter mat and/or at least one drainage mat , having integrated perforated minidrains and integrating at least one part of at least one electrode disposed along a path substantially parallel to the minidrains and capable of being connected to an electric generator connected to another electrode.
A composition comprising a biologically pure culture of a fungicidal Paenibacillus sp. strain comprising a variant fusaricidin synthetase lacking a functional adenylation domain in the third module (FusA-A3), wherein the lack of a functional FusA-A3 inhibits synthesis of fusaricidins with a tyrosine and a phenylalanine at amino acid residue 3 compared to synthesis of fusaricidins by a Paenibacillus sp. strain comprising a wild-type fusaricidin synthetase, and wherein the variant fusaricidin synthetase comprises an amino acid sequence exhibiting at least 90% sequence identity to SEQ ID NO: 10.
A gold leaf processing device for separating gold leaf (G) from gold leaf fabric (O) having first base material (B1) attached thereto, and attaching the separated gold leaf (G) to second base material (B2), the gold leaf processing device comprising: a gold leaf attaching part which dips the gold leaf fabric (O) in an aqueous solution (W) to allow the first base material (B1) to be separated from the gold leaf (G) and sink, and attaches the second base material (B2) to the gold leaf (G) remaining in a floating state on the surface of the aqueous solution (W); and a gold leaf fabric transfer part which transfers the gold leaf fabric (O) to the gold leaf attaching part ; wherein the gold leaf attaching part comprises: a bath for containing an aqueous solution (W); a tray for receiving the gold leaf fabric (O) provided from the gold leaf fabric transfer part ; and an ultrasonic generator for applying ultrasonic waves to the aqueous solution (W). a gold leaf attaching part which dips the gold leaf fabric (O) in an aqueous solution (W) to allow the first base material (B1) to be separated from the gold leaf (G) and sink, and attaches the second base material (B2) to the gold leaf (G) remaining in a floating state on the surface of the aqueous solution (W); and a gold leaf fabric transfer part which transfers the gold leaf fabric (O) to the gold leaf attaching part ; wherein the gold leaf attaching part comprises: a bath for containing an aqueous solution (W); a tray for receiving the gold leaf fabric (O) provided from the gold leaf fabric transfer part ; and an ultrasonic generator for applying ultrasonic waves to the aqueous solution (W). a bath for containing an aqueous solution (W); a tray for receiving the gold leaf fabric (O) provided from the gold leaf fabric transfer part ; and an ultrasonic generator for applying ultrasonic waves to the aqueous solution (W).
A patient support device comprising: a support top ; a head support unit partially supporting the support top; a foot support unit longitudinally spaced from the head support unit , and including a base and a pedestal extending vertically upwardly from the base ; a crown configured to be removably securable to the pedestal ; and an adaptor associated with the foot support unit ; the adaptor being removably securable to the foot support unit so that the adaptor and foot support unit cooperate to partially support the support top so that the support top extends footwardly beyond the foot support unit ; wherein, the foot support unit is configurable in: a) a baseline configuration in which the crown , which is incompatible with supporting the support top , resides atop the pedestal ; and b) a non-baseline configuration in which the adaptor , which is compatible with supporting the support top , resides atop the pedestal in lieu of the crown . a support top ; a head support unit partially supporting the support top; a foot support unit longitudinally spaced from the head support unit , and including a base and a pedestal extending vertically upwardly from the base ; a crown configured to be removably securable to the pedestal ; and an adaptor associated with the foot support unit ; the adaptor being removably securable to the foot support unit so that the adaptor and foot support unit cooperate to partially support the support top so that the support top extends footwardly beyond the foot support unit ; wherein, the foot support unit is configurable in: a) a baseline configuration in which the crown , which is incompatible with supporting the support top , resides atop the pedestal ; and b) a non-baseline configuration in which the adaptor , which is compatible with supporting the support top , resides atop the pedestal in lieu of the crown . a) a baseline configuration in which the crown , which is incompatible with supporting the support top , resides atop the pedestal ; and b) a non-baseline configuration in which the adaptor , which is compatible with supporting the support top , resides atop the pedestal in lieu of the crown .
A massage device for the treatment of skin comprising a body and an applicator for contacting the skin of a user, which is mounted on the body, wherein a drive unit is provided for generating a translational back-and-forth movement of the applicator along a first axis (I), wherein the back-and-forth movement of the applicator while it passes from its rest position, that is to say when the applicator is in its most retracted position, to its end-of-travel position along the first axis (I) has an amplitude of movement of the applicator of 0.2 mm to 1.5 mm, wherein the amplitude of the movement of the applicator can be varied between two different operation modes of the device, characterized by a first operation mode with a first amplitude of the movement of the applicator in the range of between 0.2 mm and 0.4 mm and a second operation mode with a second amplitude in the range of between 0.8 mm and 1.0 mm.