mhurhangee/patent-ind-claim-en huggingface dataset:
A method for sensing an analyte utilizing a sensor, the sensor including a working electrode, the method comprising: providing the working electrode with a sensing element comprising an analyte-specific enzyme, a redox mediator, and carbon nanotubes; providing the working electrode to the analyte; accumulating charge derived from the analyte reacting with the analyte-specific enzyme and the redox mediator for a set period of time; connecting the working electrode to a circuit after the set period of time; and measuring a signal from the accumulated charge, wherein the redox mediator comprises a redox species selected from a compound of osmium, ruthenium, iron, and cobalt, coupled with a polymer selected from poly (vinylpyridine), poly(thiophene), poly(aniline), poly(pyrrole), and poly(acetylene). providing the working electrode with a sensing element comprising an analyte-specific enzyme, a redox mediator, and carbon nanotubes; providing the working electrode to the analyte; accumulating charge derived from the analyte reacting with the analyte-specific enzyme and the redox mediator for a set period of time; connecting the working electrode to a circuit after the set period of time; and measuring a signal from the accumulated charge, wherein the redox mediator comprises a redox species selected from a compound of osmium, ruthenium, iron, and cobalt, coupled with a polymer selected from poly (vinylpyridine), poly(thiophene), poly(aniline), poly(pyrrole), and poly(acetylene).
A polypeptide comprising an immunoglobulin Fc domain and a heterologous polypeptide, wherein the heterologous polypeptide is fused to the N-terminus or the C-terminus of the Fc domain by a polypeptide linker comprising an amino acid sequence that is at least 90% identical to any one of SEQ ID NOs: 86, 67, and 57.
A method for displaying information relative to an aircraft , the method being implemented by a computer and including the following steps: - receiving a mission plan for the aircraft ; - acquiring at least one message from among a meteorological message and an aeronautical information message, each message including at least one mission object identifier, each mission object identifier being according to document ICAO 7910; - searching , among the mission object identifier(s) contained in each acquired message, for at least one mission object identifier verifying at least one criterion from among first, second and third predefined criteria, the first criterion depending on a received mission plan, the second criterion depending on the current position of the aircraft, and the third criterion depending on both the current position of the aircraft and the received mission plan; the received mission plan including mission objects, each mission object having an associated identifier; the first predefined criterion being the inclusion of the searched mission object identifier both in the acquired message and in the received mission plan; and - if at least one mission object identifier is detected verifying at least one of the first, second and third predefined criteria, displaying each detected mission object identifier, each detected mission object identifier being displayed, in the corresponding message, in a distinct manner with respect to the other mission object identifier(s) potentially displayed. - receiving a mission plan for the aircraft ; - acquiring at least one message from among a meteorological message and an aeronautical information message, each message including at least one mission object identifier, each mission object identifier being according to document ICAO 7910; - searching , among the mission object identifier(s) contained in each acquired message, for at least one mission object identifier verifying at least one criterion from among first, second and third predefined criteria, the first criterion depending on a received mission plan, the second criterion depending on the current position of the aircraft, and the third criterion depending on both the current position of the aircraft and the received mission plan; the received mission plan including mission objects, each mission object having an associated identifier; the first predefined criterion being the inclusion of the searched mission object identifier both in the acquired message and in the received mission plan; and - if at least one mission object identifier is detected verifying at least one of the first, second and third predefined criteria, displaying each detected mission object identifier, each detected mission object identifier being displayed, in the corresponding message, in a distinct manner with respect to the other mission object identifier(s) potentially displayed.
An integrated high density server vault (HDSV) system comprising one or more server modules adapted for receiving one or more rows of server rack(s) and providing electrical and communication connectivity for disposed computing and electrical equipment, wherein each server module is operationally associated with an integrated mechanical module comprising: a) a fully self-contained heating, ventilation and air conditioning (HVAC) system adapted for maintaining precise temperature and humidity levels and directly ventilating the server module with which the HVAC system communicates with respect to air flow, wherein the HVAC system is optionally equipped with an uninterrupted power system (UPS); and b) an automatic fire suppression system adapted for protecting contents of the server module ; wherein the integrated server and mechanical modules are adapted to be operationally connected to each other forming a unitary integrated high density server vault system which functions to maintain set temperature and humidity, air quality and protect computing and/or electrical equipment installed in the server rack(s) , and providing for operational functioning of and between the installed computing and/or electrical equipment, wherein the integrated HDSV system is adapted for physical, electrical, data, communications and air quality connectivity with the one or more additional integrated HDSVs such that the two or more integrated HDSVs cooperate in maintaining set temperature and humidity and protecting equipment installed in a plurality of server racks , and/or such that the disposed computing and/or electrical equipment operationally communicate, and wherein a common white space connects the integrated server and mechanical modules, optionally in a side-by-side fashion, and the one or more additional integrated HDSVs to provide practical access to the server and mechanical modules through the common white space. a) a fully self-contained heating, ventilation and air conditioning (HVAC) system adapted for maintaining precise temperature and humidity levels and directly ventilating the server module with which the HVAC system communicates with respect to air flow, wherein the HVAC system is optionally equipped with an uninterrupted power system (UPS); and b) an automatic fire suppression system adapted for protecting contents of the server module ;
Handling system for the multisensory fruition of at least an artwork comprising: - at least a bookstand for said at least one artwork ; - at least one horizontal translation group of said at least one artwork ; - at least one vertical translation group of said at least one artwork connected to the horizontal translation group and configured to lift said at least one artwork in a position of loading/unloading said at least one artwork on said at least on bookstand ; - at least a loading unit of said at least one artwork connected to said at least one horizontal translation group and able to slide on it up to a position corresponding to said at least one vertical translation group ; characterized in that said at least one vertical translation group comprises first vertical fixed support elements connected perpendicularly to said at least one horizontal translation group and second vertical movable support elements able to vertically slide along said vertical fixed support elements , said second vertical movable support elements comprising at least one coupling element configured to engage at least one slot positioned at an upper end of the lateral edge of said artwork . - at least a bookstand for said at least one artwork ; - at least one horizontal translation group of said at least one artwork ; - at least one vertical translation group of said at least one artwork connected to the horizontal translation group and configured to lift said at least one artwork in a position of loading/unloading said at least one artwork on said at least on bookstand ; - at least a loading unit of said at least one artwork connected to said at least one horizontal translation group and able to slide on it up to a position corresponding to said at least one vertical translation group ;
An opening adapter assembly comprising: an opening adapter, , further comprising: an external bottom threaded surface configured to removably couple to and seal an opening of a canister; a grip ring an internal threaded surface ; a plug structure having a substantially cylindrical top portion and a substantially cylindrical bottom portion, the plug structure further comprising: a threaded outer surface configured to removably couple to the internal threaded surface; a handle, , rigidly coupled to the top characterized in that it further comprises an external top threaded surface ; a retention tab , flexibly coupled to the bottom portion; and an external channel, , extending between a channel top edge and a channel bottom edge and in that said grip ring is spaced between said external top threaded surface and said external bottom threaded surface. an opening adapter, , further comprising: an external bottom threaded surface configured to removably couple to and seal an opening of a canister; a grip ring an internal threaded surface ; a plug structure having a substantially cylindrical top portion and a substantially cylindrical bottom portion, the plug structure further comprising: a threaded outer surface configured to removably couple to the internal threaded surface; a handle, , rigidly coupled to the top characterized in that it further comprises an external top threaded surface ; a retention tab , flexibly coupled to the bottom portion; and an external channel, , extending between a channel top edge and a channel bottom edge and in that said grip ring is spaced between said external top threaded surface and said external bottom threaded surface. an external bottom threaded surface configured to removably couple to and seal an opening of a canister; a grip ring an internal threaded surface ; a plug structure having a substantially cylindrical top portion and a substantially cylindrical bottom portion, the plug structure further comprising: a threaded outer surface configured to removably couple to the internal threaded surface; a handle, , rigidly coupled to the top characterized in that it further comprises an external top threaded surface ; a retention tab , flexibly coupled to the bottom portion; and an external channel, , extending between a channel top edge and a channel bottom edge and in that said grip ring is spaced between said external top threaded surface and said external bottom threaded surface. a threaded outer surface configured to removably couple to the internal threaded surface; a handle, , rigidly coupled to the top characterized in that it further comprises an external top threaded surface ; a retention tab , flexibly coupled to the bottom portion; and an external channel, , extending between a channel top edge and a channel bottom edge and in that said grip ring is spaced between said external top threaded surface and said external bottom threaded surface.
A computer-implemented method of generating a reservoir property model, comprising: a. receiving , at a computer processor, a seismic inversion product volume and a seismic attribute volume representative of a subsurface volume of interest wherein the seismic inversion product volume and the seismic attribute volume are structured as a regular grid of cells; b. receiving , at the computer processor, well data from wells drilled in the subsurface volume of interest; c. identifying collocated cells in the seismic inversion product volume by comparing the seismic inversion product volume to the well data to match an equivalent seismic inversion property derived from the well data passing through that cell; d. creating attribute vectors from the seismic inversion product volume and the seismic attribute volume in each of the collocated cells and a range of neighboring cells; e. calculating a seismic inversion error magnitude property at the collocated cells from the difference between the seismic inversion product and the equivalent seismic inversion property derived from the well data; f. training a data analytics method with a preprocessor to predict the observed seismic inversion error magnitude property from the attribute vectors at all cells in the grid; g. verifying that the data analytics method accurately predicts the seismic inversion error magnitude using cross-validation; h. generating an inversion quality volume using the prediction of seismic inversion error magnitude to assess inversion quality in each cell; and i. generating the reservoir property model based on the inversion quality volume. a. receiving , at a computer processor, a seismic inversion product volume and a seismic attribute volume representative of a subsurface volume of interest wherein the seismic inversion product volume and the seismic attribute volume are structured as a regular grid of cells; b. receiving , at the computer processor, well data from wells drilled in the subsurface volume of interest; c. identifying collocated cells in the seismic inversion product volume by comparing the seismic inversion product volume to the well data to match an equivalent seismic inversion property derived from the well data passing through that cell; d. creating attribute vectors from the seismic inversion product volume and the seismic attribute volume in each of the collocated cells and a range of neighboring cells; e. calculating a seismic inversion error magnitude property at the collocated cells from the difference between the seismic inversion product and the equivalent seismic inversion property derived from the well data; f. training a data analytics method with a preprocessor to predict the observed seismic inversion error magnitude property from the attribute vectors at all cells in the grid; g. verifying that the data analytics method accurately predicts the seismic inversion error magnitude using cross-validation; h. generating an inversion quality volume using the prediction of seismic inversion error magnitude to assess inversion quality in each cell; and i. generating the reservoir property model based on the inversion quality volume.
A component comprising a glass element and a base body comprising a processed surface and an opening with a wall , the glass element being seated in the opening of the body , wherein the base body is an powder injection molded element, wherein the glass of the glass element is fused into the opening so that the glass is fixedly connected to the surface of the wall and hermetically seals the opening , and wherein a surface of the wall has a roughness R a of more than 1.5 μm, and wherein the processed surface has a surface roughness R a of not more than 0.5 μm and at least 0.07 μm at least in a portion thereof so that at least in a portion of the processed surface a roughness of said surface is lower than a roughness of the wall , wherein the base body has a density of at least 95 % of the theoretical density and less than 100%, and wherein a porosity of the base body decreases towards the processed surface in a surface region of the base body .
A sensor device, comprising at least one optical sensor based on porous matrices, a container to be sterilized prior to use by means of radiation, wherein the container has a sterile barrier, and a compartmentalization means , wherein the compartmentalization means is embodied such that it can temporarily compartmentalize the container in at least one main space and an adjacent space containing the optical sensor , and wherein the compartmentalization means is embodied such that the compartmentalization can be undone, without breaking the sterile barrier of the container .
Pre-impregnate obtained from a decorative base paper impregnated with a formaldehyde-free impregnating resin, characterized in that a hydrophobic coating is applied onto at least one side of the pre-impregnate, the hydrophobic coating being arranged on the side opposite the decorative side of the pre-impregnate.
A device for amplifying electromagnetic radiation, comprising a radiation source for generating the electromagnetic radiation and an amplifier for amplifying the generated electromagnetic radiation, wherein the electromagnetic radiation propagating in the amplifier is polarised largely non-linearly, specifically elliptically or circularly, characterised in that the amplifier of the electromagnetic radiation impresses a non-linear phase, caused by non-linear effects, which is reduced compared to the non-linear phase with linear polarisation of the electromagnetic radiation, and wherein the amplifier comprises an optically isotropic medium, wherein the optically isotropic medium is a waveguide or a gas.
An indirect gas sensor comprising, a sensor layer comprising a plasmonic sensor provided so as to allow, upon illumination with electromagnetic radiation a localized surface plasmon resonance condition, a sensing layer comprising a gas permeable material that, when exposed to a gas, modifies the localized surface plasmon resonance condition, and a separating layer arranged in between the sensor layer and the sensing layer such that the plasmonic sensor is separated from gas present in the sensing layer , characterized in that the separating layer is impermeable to gases. a sensor layer comprising a plasmonic sensor provided so as to allow, upon illumination with electromagnetic radiation a localized surface plasmon resonance condition, a sensing layer comprising a gas permeable material that, when exposed to a gas, modifies the localized surface plasmon resonance condition, and a separating layer arranged in between the sensor layer and the sensing layer such that the plasmonic sensor is separated from gas present in the sensing layer , characterized in that the separating layer is impermeable to gases.
A closure member for a food container, comprising: - A multilayer laminate peripherally delimited by its peripheral edge having a predetermined shape suitable for covering an opening of a corresponding container and defining at least one hand gripping portion for a user; said laminate comprising: a first layer ; a second layer made of a preferably plastic material; a third layer made of a repositionable adhesive material interposed between said first layer and said second layer ; - at least one inner weakening line defined on said second layer and extending according to a predetermined geometry defining, in use, an access gap to the container ; - at least one outer weakening line defined on said second layer , proximal to the peripheral edge with respect to the inner weakening line at least at the hand gripping portion ; characterised in that said first layer is made of a material at least partially light permeable and in that said second layer has a predetermined graphic pattern (G) moulded or formed on at least one of its faces and in that said predetermined graphic pattern (G) of the second layer extends at least partly astride said inner weakening line to define a tamper-evident tab (TE). - A multilayer laminate peripherally delimited by its peripheral edge having a predetermined shape suitable for covering an opening of a corresponding container and defining at least one hand gripping portion for a user; said laminate comprising: a first layer ; a second layer made of a preferably plastic material; a third layer made of a repositionable adhesive material interposed between said first layer and said second layer ; a first layer ; a second layer made of a preferably plastic material; a third layer made of a repositionable adhesive material interposed between said first layer and said second layer ; - at least one inner weakening line defined on said second layer and extending according to a predetermined geometry defining, in use, an access gap to the container ; - at least one outer weakening line defined on said second layer , proximal to the peripheral edge with respect to the inner weakening line at least at the hand gripping portion ; characterised in that said first layer is made of a material at least partially light permeable and in that
An input apparatus comprising: a handwriting input unit configured to receive a handwritten input using a position of a pen or a user's finger in contact with a display ; and a display unit configured to display the handwritten input received by the handwriting input unit on the display as a handwritten object , wherein the input apparatus is configured to, in response to no occurrence of a change in the handwritten object during a first period, display one or more operation command candidates on the basis of the handwritten object , characterized in that the input apparatus is configured to identify one or more character string candidates from the handwritten object , to identify one or more operation command candidates from the handwritten object and to display the one or more character string candidates identified from the handwritten object and the one or more operation command candidates identified from the handwritten object at the same time as selectable candidates. a handwriting input unit configured to receive a handwritten input using a position of a pen or a user's finger in contact with a display ; and a display unit configured to display the handwritten input received by the handwriting input unit on the display as a handwritten object , wherein the input apparatus is configured to, in response to no occurrence of a change in the handwritten object during a first period, display one or more operation command candidates on the basis of the handwritten object , characterized in that the input apparatus is configured to identify one or more character string candidates from the handwritten object , to identify one or more operation command candidates from the handwritten object and to display the one or more character string candidates identified from the handwritten object and the one or more operation command candidates identified from the handwritten object at the same time as selectable candidates.
Arrangement of electrochemical cells which are arranged one above another and in electrically conducting communication with one another, where repeating units, which are formed of at least one interconnector , in which there are apertures for gas passage are formed, an electrochemical cell , formed of a cathode , an electrolyte and an anode , and contact elements on the anode side and the cathode side , are arranged one above another, and the area of the individual planar electrochemical cells is in each case smaller than the area of the individual interconnectors , and the electrolytes finish flush in each case with a plane of a surface of the respective interconnector , and mounted at this surface of the interconnector in each case is a single sealing ply of a glass solder having constant thickness, for sealing the gap between electrolyte and interconnector and the gaps between apertures for gas passage of two adjacent interconnectors ; characterized in that the sealing plies are formed with glass solder sheet elements (510, 520, 530 and 540) and the sealing plies with constant thickness are forming hit points on two opposing surfaces of a repeating unit which are arranged locally offset from one another perpendicularly to the sealing ply plane.