mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator comprising: a cold air generator configured to generate cold air; a storage chamber (10, 20) configured to receive the cold air generated by the cold air generator, and store at least one food and ice stuffs, the storage chamber (10, 20) comprising a top wall or ceiling surface and a bottom wall or bottom surface; a storage chamber door (11, 21) rotatably mounted to the storage chamber (10, 20) to open and close the storage chamber (10, 20); and a moving member configured to be moved in forward and backward directions in response to opening and closing of the door (11, 21), the moving member including an inner frame configured to be slidably moved in forward and backward directions and a moving structure (41, 42) configured to be moved together with the inner frame, characterized in that the inner frame comprises: a top surface positioned at an upper side from a center of the refrigerator and slidably connected to a top wall surface of the storage chamber (10, 20); and a bottom surface positioned at lower side from the center of the refrigerator and slidably connected to a bottom wall surface of the storage chamber (10, 20), and a top sliding unit, comprising a top slider and a top frame and slidably connected to a ceiling surface of the storage chamber (10, 20); and a bottom sliding unit, comprising a bottom slider and a bottom frame and slidably connected to a bottom surface of the storage chamber (10, 20). a cold air generator configured to generate cold air; a storage chamber (10, 20) configured to receive the cold air generated by the cold air generator, and store at least one food and ice stuffs, the storage chamber (10, 20) comprising a top wall or ceiling surface and a bottom wall or bottom surface; a storage chamber door (11, 21) rotatably mounted to the storage chamber (10, 20) to open and close the storage chamber (10, 20); and a moving member configured to be moved in forward and backward directions in response to opening and closing of the door (11, 21), the moving member including an inner frame configured to be slidably moved in forward and backward directions and a moving structure (41, 42) configured to be moved together with the inner frame, characterized in that the inner frame comprises: a top surface positioned at an upper side from a center of the refrigerator and slidably connected to a top wall surface of the storage chamber (10, 20); and a bottom surface positioned at lower side from the center of the refrigerator and slidably connected to a bottom wall surface of the storage chamber (10, 20), and a top surface positioned at an upper side from a center of the refrigerator and slidably connected to a top wall surface of the storage chamber (10, 20); and a bottom surface positioned at lower side from the center of the refrigerator and slidably connected to a bottom wall surface of the storage chamber (10, 20), and a top sliding unit, comprising a top slider and a top frame and slidably connected to a ceiling surface of the storage chamber (10, 20); and a bottom sliding unit, comprising a bottom slider and a bottom frame and slidably connected to a bottom surface of the storage chamber (10, 20).
An assembly-type device for a treatment of tricuspid regurgitation, the device comprising: a fixing member for the pulmonary artery, wherein the fixing member is adapted to be installed in the pulmonary artery; a connecting tube provided with a connecting tube lumen formed therein to be movable along a connecting wire; a fixing member for inferior vena cava, wherein the fixing member is adapted to be coupled to a lower end of the connecting tube and installed in the inferior vena cava; and a blocking part adapted to be coupled to one side of the connecting tube and to obliquely pass through a tricuspid valve to block an orifice of the tricuspid valve, characterized in that the device further comprises: an assembly part provided with a first assembly coupled to a lower end of the fixing member for the pulmonary artery and a second assembly coupled to an upper end of the connecting tube, wherein the first assembly and the second assembly are configured to allow the fixing member for the pulmonary artery and the connecting tube to be assembled in a patient's body. a fixing member for the pulmonary artery, wherein the fixing member is adapted to be installed in the pulmonary artery; a connecting tube provided with a connecting tube lumen formed therein to be movable along a connecting wire; a fixing member for inferior vena cava, wherein the fixing member is adapted to be coupled to a lower end of the connecting tube and installed in the inferior vena cava; and a blocking part adapted to be coupled to one side of the connecting tube and to obliquely pass through a tricuspid valve to block an orifice of the tricuspid valve, characterized in that the device further comprises: an assembly part provided with a first assembly coupled to a lower end of the fixing member for the pulmonary artery and a second assembly coupled to an upper end of the connecting tube, wherein the first assembly and the second assembly are configured to allow the fixing member for the pulmonary artery and the connecting tube to be assembled in a patient's body.
A heat generator that is used by being attached to an adherend, the heat generator comprising: a heat-generating section for generating heat that is transmitted to the adherend; an accommodation body for accommodating the heat-generating section, the accommodation body having an attachment surface that is attached to the adherend; a pressure-sensitive adhesive layer provided to an attachment surface side of the accommodation body; and a release sheet provided to an attachment surface side of the pressure-sensitive adhesive layer and being releasable from the pressure-sensitive adhesive layer, wherein the pressure-sensitive adhesive layer contains a volatile component, a first packaging material disposed on the attachment surface side of the accommodation body includes a first gas barrier layer, the release sheet includes a second gas barrier layer, and the release sheet has an oxygen permeability of 0 to 0.5 cc/m 2 ·day·atm, wherein the oxygen permeability is a value determined under conditions with a temperature of 20°C and a humidity of 90% relative humidity in accordance with the differential pressure method defined in JIS K 7126-1:2006. a heat-generating section for generating heat that is transmitted to the adherend; an accommodation body for accommodating the heat-generating section, the accommodation body having an attachment surface that is attached to the adherend; a pressure-sensitive adhesive layer provided to an attachment surface side of the accommodation body; and a release sheet provided to an attachment surface side of the pressure-sensitive adhesive layer and being releasable from the pressure-sensitive adhesive layer, wherein the pressure-sensitive adhesive layer contains a volatile component, a first packaging material disposed on the attachment surface side of the accommodation body includes a first gas barrier layer, the release sheet includes a second gas barrier layer, and the release sheet has an oxygen permeability of 0 to 0.5 cc/m 2 ·day·atm, wherein the oxygen permeability is a value determined under conditions with a temperature of 20°C and a humidity of 90% relative humidity in accordance with the differential pressure method defined in JIS K 7126-1:2006.
A service access control method, comprising: receiving, by a local service access control server, a local service access request message of a User Equipment, UE, wherein the local service access request message carries an identifier of a local service; and determining, by the local service access control server, whether the UE has a privilege to access the local service, according to the identifier of the local service, and transmitting a corresponding feedback message to the UE, said method being characterized by comprising the features of: referring, by the local service access control server, to preconfigured local service related information to determine whether a local service server corresponding to the identifier of the local service needs to control an access of any UE; and when the local service server corresponding to the identifier of the local service does not need to control an access of any UE, determining, by the local service access control server, that the UE has a privilege to access the local service. receiving, by a local service access control server, a local service access request message of a User Equipment, UE, wherein the local service access request message carries an identifier of a local service; and determining, by the local service access control server, whether the UE has a privilege to access the local service, according to the identifier of the local service, and transmitting a corresponding feedback message to the UE, said method being characterized by comprising the features of: referring, by the local service access control server, to preconfigured local service related information to determine whether a local service server corresponding to the identifier of the local service needs to control an access of any UE; and when the local service server corresponding to the identifier of the local service does not need to control an access of any UE, determining, by the local service access control server, that the UE has a privilege to access the local service. referring, by the local service access control server, to preconfigured local service related information to determine whether a local service server corresponding to the identifier of the local service needs to control an access of any UE; and when the local service server corresponding to the identifier of the local service does not need to control an access of any UE, determining, by the local service access control server, that the UE has a privilege to access the local service.
A computer-implemented method for calculating blood pressure based on pulse return wave transmission time, comprising steps of: S1: collecting pulse waveform data at a fingertip by means of a pulse sensor and storing the pulse waveform data by a processor; S2: processing said pulse waveform data, by the processor, to obtain a heart rate and parameters of a plurality of pulse periods, detecting time axis coordinates of a primary wave start point SPL1 of a pulse wave and a growth point SPL2 of a return wave in each of said pulse periods, and calculating a corresponding pulse return wave transmission time RWTT: RWTT = SPL2 - SPL1; S3: calculating, by the processor, the pulse return wave transmission time RWTT in each of said pulse periods to form a RWTT array; characterized in that the method further comprises the step of: S4: calculating, by the processor, systolic and diastolic pressures based on said RWTT array and the heart rate, wherein the step of calculating the systolic pressure comprises establishing a systolic pressure SYS formula according to said RWTT array SYS = K s ⋅ 266 ⋅ height 2 RWTT 2, where K S is 1.2-1.8. S1: collecting pulse waveform data at a fingertip by means of a pulse sensor and storing the pulse waveform data by a processor; S2: processing said pulse waveform data, by the processor, to obtain a heart rate and parameters of a plurality of pulse periods, detecting time axis coordinates of a primary wave start point SPL1 of a pulse wave and a growth point SPL2 of a return wave in each of said pulse periods, and calculating a corresponding pulse return wave transmission time RWTT: RWTT = SPL2 - SPL1; S3: calculating, by the processor, the pulse return wave transmission time RWTT in each of said pulse periods to form a RWTT array; S4: calculating, by the processor, systolic and diastolic pressures based on said RWTT array and the heart rate, wherein the step of calculating the systolic pressure comprises establishing a systolic pressure SYS formula according to said RWTT array SYS = K s ⋅ 266 ⋅ height 2 RWTT 2, where K S is 1.2-1.8.
A wash composition comprising: a) 30 to 70% by weight polyol; b) 0.25 to 6% by weight gelling agent; c) 1.0 to 32% by weight surfactant; d) 5 to 70% by weight water, wherein the wash composition comprises no more than 2.0% by weight oil, the surfactant is a mixture of cocamidopropyl betaine and sodium lauroyl glutamate in a 1:1 to 1:5 weight ratio, and further wherein the gelling agent is tragacanth gum, lambda carrageenan, C 10 -C 30 alkyl acrylate crosslinked with allyl pentaerythritol or a mixture thereof, wherein total surfactant is present in an amount of from 1.0 to 32% by weight, based on total weight of the wash composition, and wherein total gelling agent is present in an amount of from 0.25 to 6% by weight of the wash composition. a) 30 to 70% by weight polyol; b) 0.25 to 6% by weight gelling agent; c) 1.0 to 32% by weight surfactant; d) 5 to 70% by weight water, wherein the wash composition comprises no more than 2.0% by weight oil, the surfactant is a mixture of cocamidopropyl betaine and sodium lauroyl glutamate in a 1:1 to 1:5 weight ratio, and further wherein the gelling agent is tragacanth gum, lambda carrageenan, C 10 -C 30 alkyl acrylate crosslinked with allyl pentaerythritol or a mixture thereof, wherein total surfactant is present in an amount of from 1.0 to 32% by weight, based on total weight of the wash composition, and wherein total gelling agent is present in an amount of from 0.25 to 6% by weight of the wash composition.
A unit of a communication system for distributing a time-division duplex radio frequency signal, comprising: a first interface (116A, 116B) operable as a simplex interface or a duplex interface, wherein the first interface (116A, 116B) is configured to receive first downlink radio frequency signals from a first interface (103A, 103B) of an upstream device (101A, 101B), wherein the first interface (116A, 116B) is configured to be coupled to the downlink path of the communication system and the uplink path of the communication system; a second interface (117A, 117B) operable only as a simplex interface, wherein the second interface (117A, 117B) is configured to be coupled to the uplink signal path of the communication system; wherein the unit is configured to be communicatively coupled to a second unit of the communication system; wherein the unit is configured to transmit first uplink radio frequency signals to the first interface (103A, 103B) of an upstream device (101A, 101B) using the first interface (116A, 116B) when the first interface (116A, 116B) is operable as a duplex interface, wherein the unit is configured to transmit the first uplink radio frequency signals to a second interface of an upstream device (101A, 101B) with the second interface (117A, 117B) when the first interface (116A, 116B) is operable as a simplex interface; wherein the first uplink radio frequency signals output by the first interface (116A, 116B) or the second interface (117A, 117B) are derived from uplink radio frequency signals received from a downstream device by the second unit of the communication system. a first interface (116A, 116B) operable as a simplex interface or a duplex interface, wherein the first interface (116A, 116B) is configured to receive first downlink radio frequency signals from a first interface (103A, 103B) of an upstream device (101A, 101B), wherein the first interface (116A, 116B) is configured to be coupled to the downlink path of the communication system and the uplink path of the communication system; a second interface (117A, 117B) operable only as a simplex interface, wherein the second interface (117A, 117B) is configured to be coupled to the uplink signal path of the communication system; wherein the unit is configured to be communicatively coupled to a second unit of the communication system; wherein the unit is configured to transmit first uplink radio frequency signals to the first interface (103A, 103B) of an upstream device (101A, 101B) using the first interface (116A, 116B) when the first interface (116A, 116B) is operable as a duplex interface, wherein the unit is configured to transmit the first uplink radio frequency signals to a second interface of an upstream device (101A, 101B) with the second interface (117A, 117B) when the first interface (116A, 116B) is operable as a simplex interface; wherein the first uplink radio frequency signals output by the first interface (116A, 116B) or the second interface (117A, 117B) are derived from uplink radio frequency signals received from a downstream device by the second unit of the communication system.
An optical waveguide comprising a body of material configured for the contained propagation of light therethrough, a surface relief grating configured to receive the propagating light and at least partially to diffract light out of the waveguide, wherein the optical waveguide includes a layer of dielectric material, characterised in that the layer of dielectric material is a layer of conformal dielectric material that has a varying thickness that varies in the direction of propagation of light and in that said layer of conformal dielectric material has a first surface and a second surface which conform to a profiled surface of the grating so that the grating exhibits a spatial variation in efficiency dependent on the varying thickness of the layer of conformal dielectric material.
A nanostructure comprising: a nanocrystal core; and at least one shell disposed on the core comprising ZnSe, and at least one shell comprising ZnS and fluoride; wherein the nanostructure exhibits a photoluminescence quantum yield of between 60% and 99%, and the photoluminescence spectrum of the nanostructure has a full width at half maximum of between 10 nm and 40 nm. a nanocrystal core; and at least one shell disposed on the core comprising ZnSe, and at least one shell comprising ZnS and fluoride; wherein the nanostructure exhibits a photoluminescence quantum yield of between 60% and 99%, and the photoluminescence spectrum of the nanostructure has a full width at half maximum of between 10 nm and 40 nm.
Method for machining a surface, wherein a laser beam is guided over the surface by means of a laser scanner, and wherein the surface is displaced and/or rotated relative to the laser scanner along a predefined route in at least one repositioning process by means of movement mechanism, characterized in that a position signal is transmitted to the laser scanner by the movement mechanism, and in that the position signal indicates a current position and/or orientation of the surface relative to the laser scanner, and in that the laser scanner is controlled depending on the position signal, and wherein the position signal is an individual signal which indicates the advancement of the route along which the surface is displaced and/or rotated relative to the laser scanner. wherein a laser beam is guided over the surface by means of a laser scanner, and wherein the surface is displaced and/or rotated relative to the laser scanner along a predefined route in at least one repositioning process by means of movement mechanism, characterized in that a position signal is transmitted to the laser scanner by the movement mechanism, and in that the position signal indicates a current position and/or orientation of the surface relative to the laser scanner, and in that the laser scanner is controlled depending on the position signal, and wherein the position signal is an individual signal which indicates the advancement of the route along which the surface is displaced and/or rotated relative to the laser scanner.
A flat preform of a three-dimensional object, made on a panel of material, said flat preform comprising at least: one first transverse edge, one second transverse edge, opposite the first edge, at least one deformation zone intended to be deformed to form a first volume v1, said deformation zone comprising a first plurality of blind cutouts forming tongues extending from the first edge towards the second edge over a determined distance d1 strictly less than the total length L of the preform, each blind cutout of the first plurality extending along a generally longitudinal axis of the planar preform, the preform further comprises a second plurality of blind cutouts forming tabs extending from the second edge of the flat preform towards the first edge over a determined distance d2 strictly less than the total length L of the preform, the distance d3 between each blind cutout of the second plurality and the first edge having no cutout so that the tongues and the tabs are interconnected at the deformation zone, the tabs being configured to, when the three-dimensional object is produced, delimit a second volume v2 prolonging the first volume v1, and extend from the deformation zone tangentially to the first volume v1.
Sol-gel process for the production of a silica aerogel comprising the following steps: - preparing an aqueous solution of an alkali metal silicate; - separately preparing in a container a solution of a concentrated inorganic acid selected from sulfuric, hydrochloric, nitric and phosphoric acid; - combining the silicate and acid solutions; - keeping the system rest up to the formation of a wet gel; - washing the wet gel just produced to exchange the liquid phase present in its pores with a liquid volatile organic compound and thereafter possibly with liquid carbon dioxide; - drying the gel by extraction in hypercritical conditions of said liquid organic volatile compound; characterized in that said step of combining the silicate and acid solutions is carried out by pouring the silicate solution in the acid solution and operating so that the pH of the system always stays below 1. - preparing an aqueous solution of an alkali metal silicate; - separately preparing in a container a solution of a concentrated inorganic acid selected from sulfuric, hydrochloric, nitric and phosphoric acid; - combining the silicate and acid solutions; - keeping the system rest up to the formation of a wet gel; - washing the wet gel just produced to exchange the liquid phase present in its pores with a liquid volatile organic compound and thereafter possibly with liquid carbon dioxide; - drying the gel by extraction in hypercritical conditions of said liquid organic volatile compound;
A management device, for allowing endpoints to use Interactive Connectivity Establishment, ICE, to enable multimedia communications across restrictive security boundaries, comprising: a processor, adapted to: receive, from a source endpoint, an initial outgoing message; reject the received initial outgoing message from the source endpoint, and in response send back a protection token; receive a subsequent outgoing message from the source endpoint including the protection token in response to the rejection; and include the protection token in a locally generated path verification message that is used for establishing a media flow across a security device. receive, from a source endpoint, an initial outgoing message; reject the received initial outgoing message from the source endpoint, and in response send back a protection token; receive a subsequent outgoing message from the source endpoint including the protection token in response to the rejection; and include the protection token in a locally generated path verification message that is used for establishing a media flow across a security device.
A base used in an external preparation for skin that administers an active ingredient transdermally, comprising at least an acrylic-based synthetic polymer and a volatile oil, wherein the base is in a liquid or ointment form prior to application to a skin surface, and the volatile oil evaporates after application of the base to form a hydrophobic coating film containing the volatile oil in the range of 0 to 60 wt% with respect to 100 parts by weight of the acrylic-based synthetic polymer, wherein the acrylic-based synthetic polymer is at least one selected from alkyl acrylate copolymer, alkyl acrylate copolymer sodium, alkyl acrylate copolymer ammonium, (alkyl acrylate/diacetone acrylamide) copolymer, and (alkyl acrylate/dimethicone) copolymer, and wherein the volatile oil is at least one selected from short chain paraffins and volatile silicone oils.