mhurhangee/ep-ind-claims huggingface dataset:
A cryogenic cooling system comprising: a vessel extending along a longitudinal axis, wherein the vessel is configured to receive a sample probe movable along the longitudinal axis; one or more cooling members (4, 6) thermally coupled to the vessel so as to produce a thermal gradient along the longitudinal axis of the vessel; and a vent configured to provide a pathway for a flow of gas in one direction only from an inlet of the vent to an outlet of the vent, wherein the inlet is in gaseous communication with the inside of the vessel, and wherein the outlet is in gaseous communication an environment external to the vessel, wherein the inlet is arranged at a position along the vessel configured to obtain a temperature below 63 kelvin during operation of the one or more cooling members, and wherein the outlet is arranged at a position configured to maintain a temperature above 273 kelvin when the inlet has a temperature below 63 kelvin, the vent further comprising a pressure relief element configured to open and close said pathway in dependence on the pressure within the vessel such that, when the pressure of a gas inside the vessel exceeds a safety threshold, the pressure relief element is opened so as to enable a flow of said gas from the inside of the vessel to the environment external to the vessel; characterised in that the vent extends along the outside of the vessel. a vessel extending along a longitudinal axis, wherein the vessel is configured to receive a sample probe movable along the longitudinal axis; one or more cooling members (4, 6) thermally coupled to the vessel so as to produce a thermal gradient along the longitudinal axis of the vessel; and a vent configured to provide a pathway for a flow of gas in one direction only from an inlet of the vent to an outlet of the vent, wherein the inlet is in gaseous communication with the inside of the vessel, and wherein the outlet is in gaseous communication an environment external to the vessel, wherein the inlet is arranged at a position along the vessel configured to obtain a temperature below 63 kelvin during operation of the one or more cooling members, and wherein the outlet is arranged at a position configured to maintain a temperature above 273 kelvin when the inlet has a temperature below 63 kelvin, the vent further comprising a pressure relief element configured to open and close said pathway in dependence on the pressure within the vessel such that, when the pressure of a gas inside the vessel exceeds a safety threshold, the pressure relief element is opened so as to enable a flow of said gas from the inside of the vessel to the environment external to the vessel; characterised in that the vent extends along the outside of the vessel.
Portable electronic entity of the key type comprising an interface for connection to a port of a host station and communication means adapted to execute an application for voice over IP type communication between said portable electronic entity connected in this way to the host station and a communication server, characterized in that it further comprises a memory adapted to contain voice over IP application management software, processing means adapted to load and launch said management software coming from the memory in the host station after connection of the electronic entity to the host station, execution means adapted to execute the communication application in accordance with said management software loaded and launched in this way, and means for making the voice over IP application secure adapted to make execution of the application for voice over IP communication between said portable electronic entity and the communication server secure in accordance with a chosen cryptographic mode.
A ferritic spheroidal graphite cast iron characterized by consisting of: 3.1 to 3.5 percent by mass of carbon; 4.1 to 4.5 percent by mass of silicon; 0.8 percent by mass or below of manganese; 0.1 to 0.6 percent by mass of molybdenum; 0.1 to 1.0 percent by mass of chromium; 0.03 to 0.1 percent by mass of phosphorus; 0.03 percent by mass or below of sulfur; 0.02 to 0.15 percent by mass of magnesium; and Iron; and, further, unavoidable impurities; characterized in that the mass ratio of the content of chromium to the content of molybdenum ranges from 1.97 to 3.45. 3.1 to 3.5 percent by mass of carbon; 4.1 to 4.5 percent by mass of silicon; 0.8 percent by mass or below of manganese; 0.1 to 0.6 percent by mass of molybdenum; 0.1 to 1.0 percent by mass of chromium; 0.03 to 0.1 percent by mass of phosphorus; 0.03 percent by mass or below of sulfur; 0.02 to 0.15 percent by mass of magnesium; and Iron; and, further, unavoidable impurities; characterized in that the mass ratio of the content of chromium to the content of molybdenum ranges from 1.97 to 3.45.
A polypeptide having lipolytic enzyme activity, selected from the group consisting of: (a) a polypeptide having at least 75% sequence identity to amino acids 21 to 309 of SEQ ID NO: 1; and (b) a polypeptide encoded by a polynucleotide having at least 75% sequence identity to the polypeptide coding sequence of SEQ ID NO: 2. (a) a polypeptide having at least 75% sequence identity to amino acids 21 to 309 of SEQ ID NO: 1; and (b) a polypeptide encoded by a polynucleotide having at least 75% sequence identity to the polypeptide coding sequence of SEQ ID NO: 2.
Modular fence structure, comprising at least one upright adapted to support at least one transverse containment element (3, 4, 6, 8, 9, 10, 19) and/or at least one stringer, said at least one upright being constituted by a tubular body with a through hole, said modular fence structure further comprising at least one connection and support element of said at least one upright for the connection, e.g. removable, of said at least one upright to the ground or in a curb or low wall constrained to the ground as well as for the support of said at least one upright, said at least one connection and support element being, on one side, connectable or fixable or fitted in the ground or in a curb or low wall and on the other side it is insertable or inserted in the through hole delimited by a respective upright or it is arranged side-by-side or outside a respective upright, said structure also comprising means for constraining (21, 22) or engaging said at least one connection and support element with said at least one upright, characterized in that said means for constraining or engaging comprise at least one U-shaped or C-shaped clamp or bracket placed at least partially around said at least one connection and support element and with at least one free end inserted in and constrained to said at least one upright.
A method of producing a high non-volatile solids toner for liquid electrophotographic printing, comprising: mixing a polymer with a first quantity of a hydrocarbon carrier fluid at a temperature of 110°C to 160°C to form a polymer paste having an NVS content of 38% to 65%; cooling the polymer paste without dilution to a temperature of 20°C to 60°C; and grinding the polymer paste with pigment particles and a second quantity of a hydrocarbon carrier to form a high NVS toner having an NVS content from 28 wt% to 38 wt%. mixing a polymer with a first quantity of a hydrocarbon carrier fluid at a temperature of 110°C to 160°C to form a polymer paste having an NVS content of 38% to 65%; cooling the polymer paste without dilution to a temperature of 20°C to 60°C; and grinding the polymer paste with pigment particles and a second quantity of a hydrocarbon carrier to form a high NVS toner having an NVS content from 28 wt% to 38 wt%.
Fluid dispensing gun for 1K-polyurethane foam comprising a dispensing tube with a dosing nozzle at its outlet, a spring-loaded needle which is coaxially moveable in the dispensing tube for opening and closing the dosing nozzle, a trigger for actuating said needle in order to open the dosing nozzle and to dispense the fluid, regulating means for regulating the degree of opening of the outlet of the dosing nozzle and coupling means for coupling a pressurized can to the gun, characterized in that the fluid dispensing gun comprises means (8, 9, 10) for delivering a curing fluid separately from the 1K-polyurethane foam in a direction which is essentially parallel to that of the outlet of the dosing nozzle of the dispensing tube, the means (8, 9, 10) for delivering a curing fluid comprising a curing fluid reservoir, a curing fluid outlet situated in proximity of the dosing nozzle of the dispensing tube and a curing fluid line connecting the curing fluid reservoir and the curing fluid outlet, the means (8, 9, 10) for delivering a curing fluid being activated via the trigger of the fluid dispensing gun.
A method for classification of vehicles comprising: capturing video images of moving objects on a road surface with a camera; calibrating a transformation angle between the camera image and the road surface; detecting the moving objects on the road surface in the camera image; establishing a vertical axis of symmetry for each of the moving objects; detecting dominant horizontal edges intersecting with the vertical axis of symmetry for each of the moving objects; tracking the dominant horizontal edges for a plurality of consecutive video frames from the captured video images; projecting each of the dominant horizontal edges onto a ground plane; treating each pair of adjacent projected edges as a projected surface; calculating changes in the projected surface; calculating distinct structural signatures from the changes in the projected surfaces, the projected surfaces corresponding to the dominant vertical edges and the dominant horizontal edges along the vertical axis of symmetry from a rear view image of the moving objects, the moving objects being motor vehicles; and classifying the distinct structural signatures into a class of motor vehicles. capturing video images of moving objects on a road surface with a camera; calibrating a transformation angle between the camera image and the road surface; detecting the moving objects on the road surface in the camera image; establishing a vertical axis of symmetry for each of the moving objects; detecting dominant horizontal edges intersecting with the vertical axis of symmetry for each of the moving objects; tracking the dominant horizontal edges for a plurality of consecutive video frames from the captured video images; projecting each of the dominant horizontal edges onto a ground plane; treating each pair of adjacent projected edges as a projected surface; calculating changes in the projected surface; calculating distinct structural signatures from the changes in the projected surfaces, the projected surfaces corresponding to the dominant vertical edges and the dominant horizontal edges along the vertical axis of symmetry from a rear view image of the moving objects, the moving objects being motor vehicles; and classifying the distinct structural signatures into a class of motor vehicles.
An optical system comprising a plurality of optical elements (L1 - L12) which are arranged between an object and an image plane, wherein at least one of the plurality of optical elements (L1 - L12) comprises: a base material; and an optical thin film which is applied to at least one of optical surfaces of the base material, wherein the optical thin film comprises: MgF2 minute particles; and an amorphous silicon oxide-based binder which exists between the MgF2 minute particles,and wherein the optical thin film has a porous structure, wherein the at least one of the optical surfaces is formed to have one of a flat surface and a curved surface, wherein the optical system is an imaging optical system or an observation optical system, and wherein a multilayered optical thin film comprising a plurality of stacked optical thin films is applied to the at least one of optical surfaces of the base material, and the optical thin film is formed as an outermost layer of the stacked optical thin films, and has a refractive index of not more than 1.30. a base material; and an optical thin film which is applied to at least one of optical surfaces of the base material, wherein the optical thin film comprises: MgF2 minute particles; and an amorphous silicon oxide-based binder which exists between the MgF2 minute particles,and wherein the optical thin film has a porous structure, wherein the at least one of the optical surfaces is formed to have one of a flat surface and a curved surface, wherein the optical system is an imaging optical system or an observation optical system, and wherein a multilayered optical thin film comprising a plurality of stacked optical thin films is applied to the at least one of optical surfaces of the base material, and the optical thin film is formed as an outermost layer of the stacked optical thin films, and has a refractive index of not more than 1.30. MgF2 minute particles; and an amorphous silicon oxide-based binder which exists between the MgF2 minute particles,and wherein the optical thin film has a porous structure, wherein the at least one of the optical surfaces is formed to have one of a flat surface and a curved surface, wherein the optical system is an imaging optical system or an observation optical system, and wherein a multilayered optical thin film comprising a plurality of stacked optical thin films is applied to the at least one of optical surfaces of the base material, and the optical thin film is formed as an outermost layer of the stacked optical thin films, and has a refractive index of not more than 1.30.
A capillary dialyzer comprising a housing and a bundle of semi-permeable hollow fiber membranes disposed therein, characterized in that the bundle of hollow fiber membranes comprises from 85 to 95% crimped fibers and from 5 to 15% non-crimped fibers, relative to the total number of fibers in the bundle.
Method for evaluating a headphone, wherein the headphone comprises an Active Noise Cancellation, ANC, headphone, or an Active Noise Reduction, ANR, headphone, the method comprising: determining, with an acoustic tube, a value of a first parameter ( Z OE), the value of the first parameter ( Z OE) being indicative of the acoustic impedance of a reference termination; determining, with the acoustic tube, a value of a second parameter Z _ OE Hp, the value of the second parameter Z _ OE Hp being indicative of the acoustic impedance of the reference termination, when occluded by the headphone; and calculating a value of a third parameter (Z HP), the value of the third parameter (Z HP) being indicative of the acoustic impedance of the headphone, based on the value of the first parameter ( Z OE) and the value of the second parameter Z _ OE Hp, calculating a value of a fourth parameter as Occlusion Index, OI, based on the value of the third parameter (Z HP), wherein the value of the OI represents the strength of the acoustic impedance of the headphone with respect to the occlusion effect; selecting, based on the value of the OI, a frequency dependent weighting factor, K1, for a feedback filter of the headphone, when the value of the OI is larger than a threshold value; applying the K1 to the headphone; and recalculating the value of the fourth parameter as OI, after applying the K1 to the headphone. determining, with an acoustic tube, a value of a first parameter ( Z OE), the value of the first parameter ( Z OE) being indicative of the acoustic impedance of a reference termination; determining, with the acoustic tube, a value of a second parameter Z _ OE Hp, the value of the second parameter Z _ OE Hp being indicative of the acoustic impedance of the reference termination, when occluded by the headphone; and calculating a value of a third parameter (Z HP), the value of the third parameter (Z HP) being indicative of the acoustic impedance of the headphone, based on the value of the first parameter ( Z OE) and the value of the second parameter Z _ OE Hp, calculating a value of a fourth parameter as Occlusion Index, OI, based on the value of the third parameter (Z HP), wherein the value of the OI represents the strength of the acoustic impedance of the headphone with respect to the occlusion effect; selecting, based on the value of the OI, a frequency dependent weighting factor, K1, for a feedback filter of the headphone, when the value of the OI is larger than a threshold value; calculating a value of a fourth parameter as Occlusion Index, OI, based on the value of the third parameter (Z HP), wherein the value of the OI represents the strength of the acoustic impedance of the headphone with respect to the occlusion effect; selecting, based on the value of the OI, a frequency dependent weighting factor, K1, for a feedback filter of the headphone, when the value of the OI is larger than a threshold value; applying the K1 to the headphone; and recalculating the value of the fourth parameter as OI, after applying the K1 to the headphone.
A method for producing an L-amino acid comprising: (i) cultivating an L-amino acid-producing bacterium of the family Enterobacteriaceae in a culture medium to produce and accumulate an L-amino acid in the culture medium or cells of the bacterium, or both; and (ii) collecting the L-amino acid from the culture medium or cells of the bacterium, or both, wherein said bacterium has been modified to attenuate expression of an inorganic phosphate transporter-encoding gene in comparison with a non-modified bacterium. (i) cultivating an L-amino acid-producing bacterium of the family Enterobacteriaceae in a culture medium to produce and accumulate an L-amino acid in the culture medium or cells of the bacterium, or both; and (ii) collecting the L-amino acid from the culture medium or cells of the bacterium, or both,
A method of increasing communication security, said method comprising: receiving, from a first computer system at a second computer system, a message including a data portion, wherein said data portion is associated with a security token, and wherein said data portion includes a session key; performing, at said second computer system, processing associated with said message, wherein said processing includes accessing, from said data portion, a first unique identifier associated with said first computer system, and wherein said processing further includes accessing, from a portion of said message other than said data portion, a second unique identifier associated with said first computer system; and accessing, responsive to said processing, said session key from said data portion, wherein said accessing further comprises accessing said session key if said first unique identifier correlates to said second unique identifier. receiving, from a first computer system at a second computer system, a message including a data portion, wherein said data portion is associated with a security token, and wherein said data portion includes a session key; performing, at said second computer system, processing associated with said message, wherein said processing includes accessing, from said data portion, a first unique identifier associated with said first computer system, and wherein said processing further includes accessing, from a portion of said message other than said data portion, a second unique identifier associated with said first computer system; and accessing, responsive to said processing, said session key from said data portion, wherein said accessing further comprises accessing said session key if said first unique identifier correlates to said second unique identifier.
A key vault method, comprising: securely storing a key for an encryption system according to a key use policy; sending a vault attestation report of a key vault enclave to a vault client, wherein the vault client is an enclave and the vault client and key vault enclave are hosted on different native enclave platforms; and performing an operation in the key vault enclave with the key, wherein the method further comprises: receiving, at the key vault enclave, a client attestation report of the vault client; and verifying the integrity of the client attestation report by verifying a signature of the client attestation report with a public key associated vault client's native enclave platform and not associated with the key vault enclave's native enclave platform, wherein performing the operation comprises: receiving an indication of a key derivation function from the vault client; and deriving a new key from the key and the indicated key derivation function. securely storing a key for an encryption system according to a key use policy; sending a vault attestation report of a key vault enclave to a vault client, wherein the vault client is an enclave and the vault client and key vault enclave are hosted on different native enclave platforms; and performing an operation in the key vault enclave with the key, wherein the method further comprises: receiving, at the key vault enclave, a client attestation report of the vault client; and verifying the integrity of the client attestation report by verifying a signature of the client attestation report with a public key associated vault client's native enclave platform and not associated with the key vault enclave's native enclave platform, receiving, at the key vault enclave, a client attestation report of the vault client; and verifying the integrity of the client attestation report by verifying a signature of the client attestation report with a public key associated vault client's native enclave platform and not associated with the key vault enclave's native enclave platform, wherein performing the operation comprises: receiving an indication of a key derivation function from the vault client; and deriving a new key from the key and the indicated key derivation function. receiving an indication of a key derivation function from the vault client; and deriving a new key from the key and the indicated key derivation function.
A method for analyzing a component in a sample, the method including: a step for irradiating a thermoplastic resin film internally containing the sample with ionizing laser light of a mass spectrometer, whereby impurities in the sample are isolated by the thermoplastic resin film and the component to be analyzed in the sample are analyzable; characterized in that when the sample is a blood sample, the thermoplastic resin is chosen from ethyl vinyl acetate, polyacrylic resin, polyester resin and the component to be analysed in the sample is Aβ; and characterized in that when the sample is a brain sample, the thermoplastic resin is ethyl vinyl acetate and the component to be analysed in the sample is selected from adenosine triphosphate, phosphatidylserine, phosphatidylinositol, and sulfatide when the sample is a brain sample. a step for irradiating a thermoplastic resin film internally containing the sample with ionizing laser light of a mass spectrometer, whereby impurities in the sample are isolated by the thermoplastic resin film and the component to be analyzed in the sample are analyzable; characterized in that when the sample is a blood sample, the thermoplastic resin is chosen from ethyl vinyl acetate, polyacrylic resin, polyester resin and the component to be analysed in the sample is Aβ; and characterized in that when the sample is a brain sample, the thermoplastic resin is ethyl vinyl acetate and the component to be analysed in the sample is selected from adenosine triphosphate, phosphatidylserine, phosphatidylinositol, and sulfatide when the sample is a brain sample.
A composition for a secondary battery porous membrane containing α-alumina-based modified particles, a particulate binder and water, wherein each of the α-alumina-based modified particles has a peak in a region from 3500 cm -1 to 3600 cm -1 in an infrared diffuse reflectance spectrometry.