mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a biological property of cells suspended in a liquid media, the method comprising: receiving electrical property data of the cells obtained by applying a signal to said cells at more than two signal frequencies; receiving biological property data of the cells obtained using an alternate analytical technique; generating at least one value representative of frequency dependence of said electrical property data; determining a relationship between said biological property data and said value representative of said electrical property data, wherein said value is generated by determining an area ratio under the curve derived from the electrical property data, wherein said value representative of said electrical property data represents a shape of said electrical property data relative to frequency; and wherein said relationship is used to adjust one or more environmental conditions of said cells. receiving electrical property data of the cells obtained by applying a signal to said cells at more than two signal frequencies; receiving biological property data of the cells obtained using an alternate analytical technique; generating at least one value representative of frequency dependence of said electrical property data; determining a relationship between said biological property data and said value representative of said electrical property data, wherein said value is generated by determining an area ratio under the curve derived from the electrical property data, wherein said value representative of said electrical property data represents a shape of said electrical property data relative to frequency; and wherein said relationship is used to adjust one or more environmental conditions of said cells.
An incineration ash treatment apparatus (1; 21; 31) comprising: a crusher (4; 38) for crushing an incineration ash (A; A1) to be less or equal to 5mm in maximum particle diameter, or/and a classifier for classifying an incineration ash (A; A1) to obtain an incineration ash whose maximum particle diameter is less or equal to 5mm; an eddy current separator (8; 26; 42) configured to separate an incineration ash whose maximum particle diameter is less or equal to 5mm discharged from the crusher or/and the classifier into a conductor and a nonconductor, wherein rotation speed of a drum of said eddy current separator (8; 26; 42) is configured to be more or equal to 4000rpm; a specific gravity separator configured to separate at a conductor discharged from the eddy current separator into a high gravity material (H; H2) and a low gravity material (L; L2). a crusher (4; 38) for crushing an incineration ash (A; A1) to be less or equal to 5mm in maximum particle diameter, or/and a classifier for classifying an incineration ash (A; A1) to obtain an incineration ash whose maximum particle diameter is less or equal to 5mm; an eddy current separator (8; 26; 42) configured to separate an incineration ash whose maximum particle diameter is less or equal to 5mm discharged from the crusher or/and the classifier into a conductor and a nonconductor, wherein rotation speed of a drum of said eddy current separator (8; 26; 42) is configured to be more or equal to 4000rpm; a specific gravity separator configured to separate at a conductor discharged from the eddy current separator into a high gravity material (H; H2) and a low gravity material (L; L2).
A method for performing microscopy-based imaging of samples comprising: loading a sample holder onto a support configured to receive the sample holder; moving the sample holder in a first direction (R 1), from a starting position on a first strip (S 1) of the sample holder, to move the sample holder relative to an imaging line of a line camera, to capture an image of the first strip of the sample holder; determining a focal plane using an autofocus system as the sample holder is moved in the first direction; in response to a signal from the autofocus system, moving an objective lens along the optical axis to adjust the focal plane; and moving the sample holder in a second direction (R 2), to align the imaging line of the line camera with a position on a second strip (S 2) of the sample holder, characterized in that: the first and second strips follow radial lines (L 1, L 2), and the image of the first strip is captured by linearly translating the sample holder across the imaging line of the line camera, and the imaging line of the line camera is aligned with the position on the second strip of the sample holder by rotating the sample holder. loading a sample holder onto a support configured to receive the sample holder; moving the sample holder in a first direction (R 1), from a starting position on a first strip (S 1) of the sample holder, to move the sample holder relative to an imaging line of a line camera, to capture an image of the first strip of the sample holder; determining a focal plane using an autofocus system as the sample holder is moved in the first direction; in response to a signal from the autofocus system, moving an objective lens along the optical axis to adjust the focal plane; and moving the sample holder in a second direction (R 2), to align the imaging line of the line camera with a position on a second strip (S 2) of the sample holder, characterized in that: the first and second strips follow radial lines (L 1, L 2), and the image of the first strip is captured by linearly translating the sample holder across the imaging line of the line camera, and the imaging line of the line camera is aligned with the position on the second strip of the sample holder by rotating the sample holder.
A method of preparing a silver layer or pattern comprising the step of applying a silver nanoparticle dispersion comprising silver nanoparticles, a binder and a liquid carrier on a substrate followed by a sintering step, wherein the binder is a vinylidene chloride copolymer comprising 90 wt% or less of vinylidene chloride based on the total weight of the binder, characterized in that the silver nanoparticle dispersion further comprises an acidic polyester as adhesion promoting compound and the substrate is an ITO layer on a polymeric or a glass support.
A process for the separation of a first gas from a gas mixture comprising at least two different gases by controlling a gas transport through a metal-organic framework film, characterized in that - the linkers of the metal-organic framework contain photo-switchable terminal units in their side chains, and - the entirety of the photo-switchable units are switched into a defined state providing a defined gas selectivity by variation of the enlightening time, variation of the irradiation wavelength and/or by using a defined ratio of light with two different wavelengths, wherein the defined state is characterized by a certain, well defined ratio of cis to trans isomers within the MOF film. - the linkers of the metal-organic framework contain photo-switchable terminal units in their side chains, and - the entirety of the photo-switchable units are switched into a defined state providing a defined gas selectivity by variation of the enlightening time, variation of the irradiation wavelength and/or by using a defined ratio of light with two different wavelengths, wherein the defined state is characterized by a certain, well defined ratio of cis to trans isomers within the MOF film.
Device for heating or keeping food warm, comprising a housing with at least one opening for loading or removing the food, an interior space formed by the housing, and at least one electromagnetic radiation source for emitting heat radiation, said at least one electromagnetic radiation source disposed in the interior space of the housing, wherein the housing comprises a cooling device for cooling one or more parts of the housing, said cooling device including ventilation means to transport an air current from a surrounding area along the parts of the housing to be cooled, characterized in that the ventilation means furthermore generate an air current that runs substantially parallel to a plane that extends across the at least one opening of the housing.
A gas barrier laminate comprising a gas barrier layer laminated on a plastic substrate, wherein a thermoplastic resin constituting the plastic substrate is a polyamide resin or a polyester resin, the plastic substrate includes a metal compound in a content of 0.1 to 70% by mass, the metal compound being selected from magnesium oxide and magnesium carbonate, and the gas barrier layer includes a polycarboxylic acid. a thermoplastic resin constituting the plastic substrate is a polyamide resin or a polyester resin, the plastic substrate includes a metal compound in a content of 0.1 to 70% by mass, the metal compound being selected from magnesium oxide and magnesium carbonate, and the gas barrier layer includes a polycarboxylic acid.
A clamping collar comprising a belt wound on itself around a substantially cylindrical outline and having two ends provided with lugs (12, 14) that are upstanding relative to said outline and that are suitable for being brought closer together for tightening the collar, the collar further comprising a spacer (22; 122; 222; 322) having a land (24; 124; 224; 324) extending substantially along said outline between the ends (10A, 10B) of the belt and a web (26; 126; 226; 326) comprising at least a first tab (30; 130; 230; 330) that is upstanding relative to said land, which web extends between the lugs; said clamping collar being characterized in that the spacer (22; 122; 222; 322) is formed by a strip that is folded with a first fold situated at the junction between said first tab and the land, and a second fold situated at a first end (24A; 124A; 224A; 324A) of the land, the land having a first double-walled portion (25A; 125A; 225A; 325A) between said first and second folds (P1, P2).
A thermal transfer image receiving sheet of the type which comprises a heat-insulating layer, an undercoat layer and a dye-receiving layer successively stacked on one surface of a substrate, characterized in that the undercoat layer comprises as a main component a polycondensate formed by using at least one of an alkoxide represented by the following formula, a hydrolyzate of an alkoxide and tin chloride, a water-soluble polymer, a vinyl pyrrolidone-vinyl imidazole copolymer, and a urethane resin, wherein the total amount of the at least one of an alkoxide, a hydrolyzate of an alkoxide and tin chloride, the water-soluble polymer, the vinyl pyrrolidone-vinyl imidazole copolymer and the urethane resin is greater than 50 mass% relative to the total of the undercoat layer after its formation; M n... wherein, in the general formula, M represents a metal, R represents an alkyl group, and n is an integer of 1 to 4 that differs depending on the type of M.
A rotor for a rotary electric machine in which magnets are bonded to the bonding surface of the outer circumferential surface of a rotor core formed by a plurality of laminated by rotating sheets integrally fixed by a plurality of caulking portions, wherein the hole diameter of a shaft through hole formed in said rotor core is changed in an axial direction, thereby forming a plurality of concave portions whose hole diameter is large and a plurality of convex portions whose hole diameter is small in the inner circumferential surface of the shaft through hole; the concave portions and the convex portions being formed by the plurality of sheets; a convex portion is arranged at opening portions on both ends of the shaft through hole; a shaft (2, 3) having ridge-shaped convex portions on a fitting portion is fitted into the shaft through hole; the number of the concave portions is equal to or more than two and the number of the convex portions is that of the concave portions plus one; and respective diameter dimensions of the concave portions, the convex portions, and said shaft (2, 3) are set to be the diameter of a main body of said shaft<the diameter of the convex portions<the diameter of the ridge-shaped convex portions of said shaft<the diameter of the concave portions; wherein said rotor core is formed with a hole portion between the shaft through hole and the bonding surface of said magnets, the hole portion being formed for preventing said rotor core from deforming at the time of press-fitting of said shaft (2, 3).
A blade for a gas turbine engine comprising: a platform having a radially inner side and a radially outer side; a root portion extending from the radially inner side of the platform; and an airfoil extending from the radially outer side of the platform, the airfoil including: a pressure side extending between a leading edge and a trailing edge; a suction side extending between the leading edge and the trailing edge; characterised in that: a ratio of maximum thickness (T max) to axial chord length (b x) is between 0.40 (T max /b x) and 0.65 (T max /b x), wherein the maximum thickness (T max) is the maximum thickness of the airfoil measured along a line perpendicular to a chord line of the airfoil; and the ratio of maximum thickness (T max) to axial chord length (b x) at 0% span is between approximately 0.59-0.63 (T max /b x). a platform having a radially inner side and a radially outer side; a root portion extending from the radially inner side of the platform; and an airfoil extending from the radially outer side of the platform, the airfoil including: a pressure side extending between a leading edge and a trailing edge; a suction side extending between the leading edge and the trailing edge; characterised in that: a ratio of maximum thickness (T max) to axial chord length (b x) is between 0.40 (T max /b x) and 0.65 (T max /b x), wherein the maximum thickness (T max) is the maximum thickness of the airfoil measured along a line perpendicular to a chord line of the airfoil; and the ratio of maximum thickness (T max) to axial chord length (b x) at 0% span is between approximately 0.59-0.63 (T max /b x). a pressure side extending between a leading edge and a trailing edge; a suction side extending between the leading edge and the trailing edge; a ratio of maximum thickness (T max) to axial chord length (b x) is between 0.40 (T max /b x) and 0.65 (T max /b x), wherein the maximum thickness (T max) is the maximum thickness of the airfoil measured along a line perpendicular to a chord line of the airfoil; and the ratio of maximum thickness (T max) to axial chord length (b x) at 0% span is between approximately 0.59-0.63 (T max /b x).
A method for creating a biological feature data, for use in an electronic apparatus with a user-operable controller, characterized in that the method comprises: determining whether a biological feature data for user verification is stored in the electronic apparatus when the electronic apparatus is powered on; capturing at least a biological feature of a user without instructing the user to do anything for the capturing operation in response to a control signal generated by the controller due to a manipulating input operation of the user and a determination that the biological feature data for user verification is not stored in the electronic apparatus, thereby generating the biological feature data for user verification; and storing the biological feature data for user verification in the electronic apparatus while executing the control signal to perform a function corresponding to the manipulating input operation of the user. determining whether a biological feature data for user verification is stored in the electronic apparatus when the electronic apparatus is powered on; capturing at least a biological feature of a user without instructing the user to do anything for the capturing operation in response to a control signal generated by the controller due to a manipulating input operation of the user and a determination that the biological feature data for user verification is not stored in the electronic apparatus, thereby generating the biological feature data for user verification; and storing the biological feature data for user verification in the electronic apparatus while executing the control signal to perform a function corresponding to the manipulating input operation of the user.
A system for determining the electrical characteristic of a device connectable to the system via a jack and an application circuit, the system comprising: a codec circuit configured to measure a value of at least one electrical characteristic of a device when connected to the jack and identify the device based on the measured value of the electrical characteristic; the system is being characterised by an updateable database populated with application circuit information comprising an electrical characteristic of the application circuit, the application circuit coupled between the jack and the codec circuit; and a middleware application configured to adjust the measured value of the electrical characteristic of the device based on the application circuit information stored in the database and to identify the device based on the adjusted value of the measured electrical characteristic. a codec circuit configured to measure a value of at least one electrical characteristic of a device when connected to the jack and identify the device based on the measured value of the electrical characteristic; the system is being characterised by an updateable database populated with application circuit information comprising an electrical characteristic of the application circuit, the application circuit coupled between the jack and the codec circuit; and a middleware application configured to adjust the measured value of the electrical characteristic of the device based on the application circuit information stored in the database and to identify the device based on the adjusted value of the measured electrical characteristic.
An image recording unit for recording endoscope images captured by an image capturing device of an endoscope, the image recording unit comprising a processing unit, one or more memory units operationally connected to the processing unit, a connection unit, the processing unit is operationally connectable to the image capturing device and a display for displaying images captured by the image capturing device, the processing unit being operationally connectable to the image capturing device via the connection unit, wherein the reprocessing unit has a normal operational state, wherein the processing unit is configured to, when being in the normal operational state, in connection with an endoscopic procedure on a patient: receive metadata specifying information about the patient and / or information about the endoscopic procedure; continuously receive images captured by the image capturing device of the endoscope and control the display to show the received images; store permanently in the one or more memory units in response to a user input one or more single images or one or more streams of images received from the image capturing device together with the received metadata, whereby a database is created in the one or more memory units storing for a plurality of previously performed endoscopic procedures one or more single images or stream of images together with the metadata, characterized in that the processing unit has further an error state, and wherein the processing unit is configured to when being set in the error state overwrite at least some of the metadata for the plurality of previously performed endoscopic procedures with new data. receive metadata specifying information about the patient and / or information about the endoscopic procedure; continuously receive images captured by the image capturing device of the endoscope and control the display to show the received images; store permanently in the one or more memory units in response to a user input one or more single images or one or more streams of images received from the image capturing device together with the received metadata, whereby a database is created in the one or more memory units storing for a plurality of previously performed endoscopic procedures one or more single images or stream of images together with the metadata, characterized in that the processing unit has further an error state, and wherein the processing unit is configured to when being set in the error state overwrite at least some of the metadata for the plurality of previously performed endoscopic procedures with new data.
A cigarette paper that provides a cigarette manufactured therefrom with self extinguishing properties, wherein the cigarette paper comprises at least one discrete area, characterized in that this area is perforated and has an air permeability greater than the air permeability beyond the perforated area, and in that it furthermore comprises a short side A, which is suitable for facing a filter of the finished cigarette, wherein the mean air permeability within the half or third of the length of the cigarette paper adjacent to short side A is greater than the mean air permeability of the remaining part of the cigarette paper.
Endoscope device for automated inspection of an interior of a transmission, the endoscope device comprising a control unit and an evaluation unit, a feed unit with a swivel element, a changer magazine with a plurality of guide channels, and an endoscope, wherein the control unit is connected to the endoscope and is provided mainly for controlling the endoscope and transmitting images to the evaluation unit, wherein the swivel element is provided for aligning a distal end of the endoscope in relation to a respective guide channel, and wherein the feed unit is provided for passing the endoscope axially through the respective guide channel.
Process for manufacturing a structural component of a tyre for vehicle wheels, comprising: - providing at least one elongated element comprising at least one metallic wire twisted together with at least one textile yarn; - removing said at least one textile yarn from said at least one elongated element to form a metallic reinforcing cord in which said at least one metallic wire extends along a helical path; and - incorporating said metallic reinforcing cord in a piece of elastomeric material to make said structural component of the tyre. - providing at least one elongated element comprising at least one metallic wire twisted together with at least one textile yarn; - removing said at least one textile yarn from said at least one elongated element to form a metallic reinforcing cord in which said at least one metallic wire extends along a helical path; and - incorporating said metallic reinforcing cord in a piece of elastomeric material to make said structural component of the tyre.
A method for transferring a nano layer from a first substrate (5, 105) to a second substrate (30, 130), wherein the nano layer comprises a self-aggregating mono layer with cross-linked phenyl groups and / or a monoatomic graphite layer (graphene), and wherein the method comprises the following steps: a. applying a transfer medium (20, 120) onto the nano layer, wherein the transfer medium (20, 120) is transformed from a liquid or a gaseous phase to a solid phase during this step or afterwards; b. detaching the transfer medium (20, 120) and the nano layer from the first substrate (5, 105); c. applying the transfer medium (20, 120) and the nano layer onto the second layer (30, 130); and d. removing of the transfer medium (20, 120). a. applying a transfer medium (20, 120) onto the nano layer, wherein the transfer medium (20, 120) is transformed from a liquid or a gaseous phase to a solid phase during this step or afterwards; b. detaching the transfer medium (20, 120) and the nano layer from the first substrate (5, 105); c. applying the transfer medium (20, 120) and the nano layer onto the second layer (30, 130); and d. removing of the transfer medium (20, 120).