mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator comprising: an inner case that defines a storage space; an outer case spaced apart a distance from the inner case, the outer case and the inner case defining, between the outer case and the inner case, a vacuum space that is maintained at a partial vacuum pressure and that is configured to insulate the inner case from the outer case; an evaporator; and a condenser; characterized in that the refrigerator further comprises a liquid-gas interchanger that is arranged in the vacuum space and that is configured to facilitate heat exchange between refrigerant exhausted from the evaporator and refrigerant exhausted from the condenser; and a plurality of guide rings configured to make the liquid-gas interchanger distant from the inner case and the outer case, or distant from a support plate (160, 170) adjacent thereto. an inner case that defines a storage space; an outer case spaced apart a distance from the inner case, the outer case and the inner case defining, between the outer case and the inner case, a vacuum space that is maintained at a partial vacuum pressure and that is configured to insulate the inner case from the outer case; an evaporator; and a condenser; characterized in that the refrigerator further comprises a liquid-gas interchanger that is arranged in the vacuum space and that is configured to facilitate heat exchange between refrigerant exhausted from the evaporator and refrigerant exhausted from the condenser; and a plurality of guide rings configured to make the liquid-gas interchanger distant from the inner case and the outer case, or distant from a support plate (160, 170) adjacent thereto. a liquid-gas interchanger that is arranged in the vacuum space and that is configured to facilitate heat exchange between refrigerant exhausted from the evaporator and refrigerant exhausted from the condenser; and a plurality of guide rings configured to make the liquid-gas interchanger distant from the inner case and the outer case, or distant from a support plate (160, 170) adjacent thereto.
A facility comprising a medium the pressure of which is desired to be measured, a wall separating said medium from an external environment, at least one passage passing through the wall and least one pressure sensor able to measure at least low pressures comprising a body extending in a plane, called a sensor plane, said body comprising a first end and a second end, a measurement zone, located at the first end of the body, a connection zone located at the second end of the body, said measurement zone comprising at least one cavity delimited by at least one wall being movable or deformable under the effect of a pressure difference between the inside of the cavity and an external medium, said movable or deformable wall being located at least at rest in a plane parallel to the sensor plane, said sensor also comprising measurement means for measuring the displacement or deformation of the movable or deformable wall, said measurement means being located in the cavity, electrical connection means connecting the measurement means to the connection zone, said electrical connection means being disposed in the body, the body being intended to be disposed at least partly in the medium the pressure of which is desired to be measured such that said first end is in said medium, and the connection zone being intended to be insulated from the medium to allow an electrical connection with an external environment separated from the medium, wherein the sensor also comprises in the body, a fluid channel between the cavity and the connection zone so as to connect the cavity to the external environment, the sensor being a relative pressure sensor for the relative pressure between the external environment and the medium to be measured, the body of the sensor being sealingly mounted in the passage through the wall such that the measurement zone is in the medium and the connection zone is in the external environment.
A vacuum valve comprising: a base having a hole; a sealing film attached to a flexible film and covering the hole between the base and the flexible film; and the flexible film attached to an upper surface of the base and the sealing film using an adhesive layer, wherein the flexible film is movable to an open position, and when the flexible film is disposed in the open position, the sealing film attached to the flexible film causes the hole to be open and an air path is formed between the sealing film and the base such that air passes therethrough, characterized in that the sealing film and the base have an oil layer disposed therebetween. a base having a hole; a sealing film attached to a flexible film and covering the hole between the base and the flexible film; and the flexible film attached to an upper surface of the base and the sealing film using an adhesive layer, wherein the flexible film is movable to an open position, and when the flexible film is disposed in the open position, the sealing film attached to the flexible film causes the hole to be open and an air path is formed between the sealing film and the base such that air passes therethrough, characterized in that the sealing film and the base have an oil layer disposed therebetween.
A directivity control method for controlling a directivity of a sound collected by a sound collecting unit including a plurality of microphones (22, 23), the directivity control method comprising the steps of: forming (S9, S11) a beam in a direction from the sound collecting unit toward a sound source corresponding to a position designated in an image on a display unit; setting (S9, S11) a magnification for magnifying or demagnifying the image on the display unit according to an input; changing (S9, S11) a size of the formed beam in accordance with the magnification as set; and determining (S9, S11) whether to adjust a volume level of the sound according to the magnification. forming (S9, S11) a beam in a direction from the sound collecting unit toward a sound source corresponding to a position designated in an image on a display unit; setting (S9, S11) a magnification for magnifying or demagnifying the image on the display unit according to an input; changing (S9, S11) a size of the formed beam in accordance with the magnification as set; and determining (S9, S11) whether to adjust a volume level of the sound according to the magnification.
A temperature-raising device for a battery mounted in a vehicle, the temperature-raising device comprising: a battery temperature acquisition unit configured to acquire a temperature of the battery; an environmental temperature acquisition unit configured to acquire an environmental temperature; a heater configured to raise the temperature of the battery; and a controller configured to i) turn ON or OFF the heater based on a result of a comparison between the battery temperature acquired by the battery temperature acquisition unit and a predetermined threshold, characterized in that the controller is further configured to ii) reduce the threshold in accordance with a reduction in the environmental temperature acquired by the environmental temperature acquisition unit. a battery temperature acquisition unit configured to acquire a temperature of the battery; an environmental temperature acquisition unit configured to acquire an environmental temperature; a heater configured to raise the temperature of the battery; and a controller configured to i) turn ON or OFF the heater based on a result of a comparison between the battery temperature acquired by the battery temperature acquisition unit and a predetermined threshold, characterized in that the controller is further configured to ii) reduce the threshold in accordance with a reduction in the environmental temperature acquired by the environmental temperature acquisition unit. i) turn ON or OFF the heater based on a result of a comparison between the battery temperature acquired by the battery temperature acquisition unit and a predetermined threshold, characterized in that the controller is further configured to ii) reduce the threshold in accordance with a reduction in the environmental temperature acquired by the environmental temperature acquisition unit.
A formulation for use in the treatment of Fabry disease, wherein the formulation is an injectable solution comprising a carrier and 1-deoxygalactonojirimycin or a salt therof, characterized in that the 1-deoxygalactonojirimycin or a salt thereof is administered to a Fabry disease patient in an amount of 150 mg every other day.
A rotational positioning system in a wind turbine, comprising a driven part, a plurality of positioning drives coupled to the driven part, and a plurality of sensors each arranged to sense a load parameter indicative of the load of the respective positioning drive, characterised by a load controller (112, 113, 114, 1 15) connected to the plurality of sensors, and arranged to determine a load of a respective positioning drive based on the sensed load parameter, to compare said load with an expected load value, and to output a signal indicative of a failure of the respective positioning drive in response to the load being smaller than the expected load value.
Method for operating a combustion device (5, 15, 25) comprising supplying a fuel and an oxidiser into the combustion device (5, 15, 25) and burning them, the method further comprising the steps of: - choosing a first parameter indicative of the fuel feed, wherein the first parameter is the fuel mass flow or the differential pressure (ΔP) between a fuel supply and the inside of the combustion device (5, 15, 25); - supplying, during at least a part of a transient operation, an additional fluid together with the fuel only when the fuel reaches a critical value of the first parameter; and - regulating the amount of the additional fluid to counteract combustion pulsations. - choosing a first parameter indicative of the fuel feed, wherein the first parameter is the fuel mass flow or the differential pressure (ΔP) between a fuel supply and the inside of the combustion device (5, 15, 25); - supplying, during at least a part of a transient operation, an additional fluid together with the fuel only when the fuel reaches a critical value of the first parameter; and - regulating the amount of the additional fluid to counteract combustion pulsations.
Laundry treatment appliance, comprising an operation element for controlling said appliance and/or for obtaining information of its state, a drawer comprising a drawer frontal panel, an opening configured for insertion/extraction of said drawer and a machine front panel, whereby said operation element and said opening are provided on said machine front panel, characterized in that said drawer frontal panel comprises a shaped portion which in a fully inserted position of said drawer at least partially encircles said operation element.
A monolayered adhesive resin layer comprising an acrylic-based adhesive resin composition having transparency, wherein said adhesive resin composition contains at least an acrylic-based polymer, wherein said acrylic-based polymer is an acrylic-based polymer which is crosslinked with a curing agent comprising at least one kind of an isocyanate-based compound or an epoxy-based compound, urethane acrylate oligomer, and a thermopolymerization initiator, wherein said thermopolymerization initiator is a peroxide having a half-life of 1 min at a temperature of 100°C to 200°C, and said adhesive resin layer has pressure sensitive adhesiveness on both surfaces at an ambient temperature, and can be thermally cured by heating at a temperature of 100 to 250°C and a time of 30 seconds to 10 minutes.
A device comprising: a chassis comprising a ground plane; an antenna feed, a ground side of the antenna feed connected to the ground plane; and an antenna comprising: a first radiating arm configured for generating a first resonance at a first frequency, the first radiating arm connected to the ground plane; a second radiating arm configured for generating a second resonance at a second frequency higher than the first frequency, the second radiating arm connected to the ground plane; and a third radiating arm configured for generating a third resonance at a third frequency higher than the second frequency, the first radiating arm capacitively coupled to the third radiating arm, and the third radiating arm connected to a side of the antenna feed opposite to the ground side, wherein the third radiating arm is not electrically connected to the chassis, and wherein the first resonance comprises a frequency range from 700 MHz to 960 MHz, the second resonance comprises a frequency range from 1710 MHz to 2170 MHz, and the third resonance comprises a frequency range from 2500 MHz to 2700 MHz. a chassis comprising a ground plane; an antenna feed, a ground side of the antenna feed connected to the ground plane; and an antenna comprising: a first radiating arm configured for generating a first resonance at a first frequency, the first radiating arm connected to the ground plane; a second radiating arm configured for generating a second resonance at a second frequency higher than the first frequency, the second radiating arm connected to the ground plane; and a third radiating arm configured for generating a third resonance at a third frequency higher than the second frequency, the first radiating arm capacitively coupled to the third radiating arm, and the third radiating arm connected to a side of the antenna feed opposite to the ground side, wherein the third radiating arm is not electrically connected to the chassis, and wherein the first resonance comprises a frequency range from 700 MHz to 960 MHz, the second resonance comprises a frequency range from 1710 MHz to 2170 MHz, and the third resonance comprises a frequency range from 2500 MHz to 2700 MHz. a first radiating arm configured for generating a first resonance at a first frequency, the first radiating arm connected to the ground plane; a second radiating arm configured for generating a second resonance at a second frequency higher than the first frequency, the second radiating arm connected to the ground plane; and a third radiating arm configured for generating a third resonance at a third frequency higher than the second frequency, the first radiating arm capacitively coupled to the third radiating arm, and the third radiating arm connected to a side of the antenna feed opposite to the ground side, wherein the third radiating arm is not electrically connected to the chassis, and wherein the first resonance comprises a frequency range from 700 MHz to 960 MHz, the second resonance comprises a frequency range from 1710 MHz to 2170 MHz, and the third resonance comprises a frequency range from 2500 MHz to 2700 MHz.
A slicer comprising: a circular blade, which is rotatable about a respective axis of rotation; a protective body for protection of the blade and that encircles at least one zone of the cutting edge of the blade and is substantially arcuate in shape; said protective body having an internal surface facing the cutting edge of the blade; characterized in that it further comprises a movement member for moving the protective body, so as to shift the same protective body between a first position, wherein the cutting edge is located opposite a substantially central zone of the internal surface, and a second position, wherein the cutting edge is located opposite a substantially peripheral zone of the internal surface. a circular blade, which is rotatable about a respective axis of rotation; a protective body for protection of the blade and that encircles at least one zone of the cutting edge of the blade and is substantially arcuate in shape; said protective body having an internal surface facing the cutting edge of the blade; characterized in that it further comprises a movement member for moving the protective body, so as to shift the same protective body between a first position, wherein the cutting edge is located opposite a substantially central zone of the internal surface, and a second position, wherein the cutting edge is located opposite a substantially peripheral zone of the internal surface.
Computer system with a data network port, a reading device, an input component and a security unit, wherein the security unit is configured to establish a data network connection via the data network port in the starting of the computer system, to receive access data selectively via the data network port or via the reading device and the input component, to cross-check said data with a data set stored in a firmware on a memory module, and to boot the computer system if the cross-check was successful.
Method for deactivating mobile stations which are registered in a radio communications system, wherein the radio communications system comprises at least one first network element, which forms a transceiver device for the mobile stations, and wherein a second network element is provided which is designed for network-side deactivation of mobile stations, wherein establishment of connections between the mobile stations and the first network element is monitored, that the second network element and a jammer are then activated in the case of an establishment of a connection for one of the mobile stations, that communication from this mobile station to the second network element is redirected by way of the jammer and that this mobile station is then deactivated (4, 5) by the second network element.
An apparatus for providing operating point control for a Mach-Zehnder modulator having first and second interferometric arms (406,408), wherein the MZM experiences optical absorption at the first and second arms, comprising: a bias control circuit which includes means for generating compensation signals that are used to counter thermally induced index shifts as a result of the optical absorption, wherein the bias control circuitry includes means for generating a first compensation signal that is a direct current compensation signal used for applying to one of the first and second arms (406,408) to compensate for an average of the thermally induced index shifts as a result of the DC component of an electrical input signal, wherein the bias control circuitry includes means for generating a second compensation signal that is an alternating current compensation signal (SD_MP) used for applying to one of the first and second arms (406, 408) to compensate for an instantaneous one of the thermally induced index shifts as a result of an amplitude modulation component of the electrical input, and wherein the bias control circuitry includes means for measuring a photocurrent produced in the first arm and for computing an amplitude of the second, AC compensation signal (SD_MP) that is proportional to an average photocurrent produced in the first arm (406, 408). a bias control circuit which includes means for generating compensation signals that are used to counter thermally induced index shifts as a result of the optical absorption, wherein the bias control circuitry includes means for generating a first compensation signal that is a direct current compensation signal used for applying to one of the first and second arms (406,408) to compensate for an average of the thermally induced index shifts as a result of the DC component of an electrical input signal, wherein the bias control circuitry includes means for generating a second compensation signal that is an alternating current compensation signal (SD_MP) used for applying to one of the first and second arms (406, 408) to compensate for an instantaneous one of the thermally induced index shifts as a result of an amplitude modulation component of the electrical input, and wherein the bias control circuitry includes means for measuring a photocurrent produced in the first arm and for computing an amplitude of the second, AC compensation signal (SD_MP) that is proportional to an average photocurrent produced in the first arm (406, 408).
A method of manufacturing a polarizable compact used for glasses, comprising thermally bonding an injection-molded portion formed from a transparent molding material to a concave surface side of a polarizing sheet having a predetermined curvature radius, the polarizing sheet having a polarizer layer held between a first protective layer and a second protective layer respectively serving as a convex surface side and a concave surface side, the transparent molding material being alicyclic polyamide resin, and the injection-molding being performed at a resin material injection temperature of the transparent molding material of 230°C to 270°C and at a mold temperature of 60°C to 100°C, wherein the first protective layer and the second protective layer are formed from transparent films by a casting method with retardation (Re) ≤ 10 nm, the transparent films of the first protective layer and the second protective layer being formed from an acylcellulose-based plastic film material and a polyamide-based plastic film material, respectively, the second protective layer is directly fused to the injection-molded portion, the polarizing sheet after the bending process has Re ≤ 10 nm, and the polarizing sheet is inverted after being bent to a predetermined curvature by a bending process using thermal press forming. thermally bonding an injection-molded portion formed from a transparent molding material to a concave surface side of a polarizing sheet having a predetermined curvature radius, the polarizing sheet having a polarizer layer held between a first protective layer and a second protective layer respectively serving as a convex surface side and a concave surface side, the transparent molding material being alicyclic polyamide resin, and the injection-molding being performed at a resin material injection temperature of the transparent molding material of 230°C to 270°C and at a mold temperature of 60°C to 100°C, wherein the first protective layer and the second protective layer are formed from transparent films by a casting method with retardation (Re) ≤ 10 nm, the transparent films of the first protective layer and the second protective layer being formed from an acylcellulose-based plastic film material and a polyamide-based plastic film material, respectively, the second protective layer is directly fused to the injection-molded portion, the polarizing sheet after the bending process has Re ≤ 10 nm, and the polarizing sheet is inverted after being bent to a predetermined curvature by a bending process using thermal press forming.