mhurhangee/patent-ind-claim-en huggingface dataset:
An ink jet ink composition comprising: ethanol, wherein the ethanol is present in an amount at least 70% by weight of the ink composition; a binder present in an amount of between 2% and 15% by weight of the ink composition, where the binder comprises a polyvinyl butyral resin and does not include a polyamide resin, a hydroxyaromatic resin, or a phenolic resin; water in an amount less than 5% by weight of the ink composition; a conductive agent; and a solvent dye. ethanol, wherein the ethanol is present in an amount at least 70% by weight of the ink composition; a binder present in an amount of between 2% and 15% by weight of the ink composition, where the binder comprises a polyvinyl butyral resin and does not include a polyamide resin, a hydroxyaromatic resin, or a phenolic resin; water in an amount less than 5% by weight of the ink composition; a conductive agent; and a solvent dye.
A composition comprising a biocompatible matrix and a mesenchymal stem cells population, wherein said mesenchymal stem cells are derived from adipose tissue, wherein said mesenchymal stem cells population is substantially pure, wherein said mesenchymal stem cells are undifferentiated and wherein said mesenchymal stem cells population comprises less than 25% of fibroblasts.
Method for removing unwanted data from an optically detected, virtual representation of an arch of the jaw comprising teeth and intraoral structures, wherein the method contains the following steps: a. defining an extension line of the representation, which line substantially follows the arch of the jaw, by the steps of: a.i. determining features of the representation; a.ii. generating a two-dimensional point cloud by projecting points at which the features are located onto an extension projection plane; a.iii. forming a graph which extends along the point cloud generated in a.ii.; a.iv. defining the graph generated in a.iii as the extension line; b. stipulating at least one optimization surface which has, in at least one region, a constant distance from the extension line, wherein the optimization surface is a cylinder around the extension line; c. defining an inner side and an outer side of the optimization surface; d. determining all elements of the representation outside the outer side of the optimization surface; e. removing all elements outside the optimization surface. a. defining an extension line of the representation, which line substantially follows the arch of the jaw, by the steps of: a.i. determining features of the representation; a.ii. generating a two-dimensional point cloud by projecting points at which the features are located onto an extension projection plane; a.iii. forming a graph which extends along the point cloud generated in a.ii.; a.iv. defining the graph generated in a.iii as the extension line; a.i. determining features of the representation; a.ii. generating a two-dimensional point cloud by projecting points at which the features are located onto an extension projection plane; a.iii. forming a graph which extends along the point cloud generated in a.ii.; a.iv. defining the graph generated in a.iii as the extension line; b. stipulating at least one optimization surface which has, in at least one region, a constant distance from the extension line, wherein the optimization surface is a cylinder around the extension line; c. defining an inner side and an outer side of the optimization surface; d. determining all elements of the representation outside the outer side of the optimization surface; e. removing all elements outside the optimization surface.
- A supporting structure for a ventilated facade , comprising: - a plurality of uprights which are vertical and are spaced from one another in a horizontal direction ; - anchoring means for fixing said uprights to a building; - a plurality of cross members , which are parallel to one another, are arranged at different heights, are fixed to said uprights and are configured so as to couple a plurality of panels to said supporting structure and, therefore, form said ventilated facade ; further comprising, for each upright : - at least one bar , which is vertical and arranged on said upright , and - fixing means which lock said bar with respect to said upright , characterized in that said at least one bar is graduated. - a plurality of uprights which are vertical and are spaced from one another in a horizontal direction ; - anchoring means for fixing said uprights to a building; - a plurality of cross members , which are parallel to one another, are arranged at different heights, are fixed to said uprights and are configured so as to couple a plurality of panels to said supporting structure and, therefore, form said ventilated facade ; further comprising, for each upright : - at least one bar , which is vertical and arranged on said upright , and - fixing means which lock said bar with respect to said upright , characterized in that said at least one bar is graduated.
An ejector for generating a vacuum comprising: a first section including: a drive nozzle arranged to accelerate compressed air for generating a drive jet of air from a flow of compressed air, wherein an inlet flow section of the drive nozzle has a converging section and an outlet flow section of the drive nozzle has a diverging section; a first section expansion nozzle receiving the drive jet of air from the drive nozzle in order to entrain air in a volume surrounding the drive jet of air into the jet flow to generate a vacuum across the first section ; and a ring drive nozzle for generating a drive ring of air from the flow of compressed air and directing the drive ring of air onto the jet flow and the entrained air; and a second section including an exit expansion nozzle which receives the jet flow, the entrained air and the drive ring of air after exiting the first section . a first section including: a drive nozzle arranged to accelerate compressed air for generating a drive jet of air from a flow of compressed air, wherein an inlet flow section of the drive nozzle has a converging section and an outlet flow section of the drive nozzle has a diverging section; a first section expansion nozzle receiving the drive jet of air from the drive nozzle in order to entrain air in a volume surrounding the drive jet of air into the jet flow to generate a vacuum across the first section ; and a ring drive nozzle for generating a drive ring of air from the flow of compressed air and directing the drive ring of air onto the jet flow and the entrained air; and a drive nozzle arranged to accelerate compressed air for generating a drive jet of air from a flow of compressed air, wherein an inlet flow section of the drive nozzle has a converging section and an outlet flow section of the drive nozzle has a diverging section; a first section expansion nozzle receiving the drive jet of air from the drive nozzle in order to entrain air in a volume surrounding the drive jet of air into the jet flow to generate a vacuum across the first section ; and a ring drive nozzle for generating a drive ring of air from the flow of compressed air and directing the drive ring of air onto the jet flow and the entrained air; and a second section including an exit expansion nozzle which receives the jet flow, the entrained air and the drive ring of air after exiting the first section .
An apparatus for M2M service layer non-group based somecast for which no group information is explicitly specified, the apparatus comprising: a processor ; and a memory coupled with the processor, the memory comprising executable instructions that when executed by the processor cause the processor to effectuate operations comprising: receiving a first request message comprising instructions to somecast using an M2M service layer; determining a subset of target nodes to perform an operation, wherein the determining the subset of target nodes is based on selection criteria received in the first request message, wherein the selection criteria comprise at least an indication of a physical location within which target nodes that can perform the operation are located; and sending a second request message to the subset of target nodes to perform the operation. a processor ; and a memory coupled with the processor, the memory comprising executable instructions that when executed by the processor cause the processor to effectuate operations comprising: receiving a first request message comprising instructions to somecast using an M2M service layer; determining a subset of target nodes to perform an operation, wherein the determining the subset of target nodes is based on selection criteria received in the first request message, wherein the selection criteria comprise at least an indication of a physical location within which target nodes that can perform the operation are located; and sending a second request message to the subset of target nodes to perform the operation. receiving a first request message comprising instructions to somecast using an M2M service layer; determining a subset of target nodes to perform an operation, wherein the determining the subset of target nodes is based on selection criteria received in the first request message, wherein the selection criteria comprise at least an indication of a physical location within which target nodes that can perform the operation are located; and sending a second request message to the subset of target nodes to perform the operation.
A method of detecting sag in a drilling fluid within a borehole, the method comprising: measuring a first pressure at a first time at a point within the borehole; predicting a characteristic of the drilling fluid at the point using a computer model, thereby obtaining a predicted characteristic; calculating the characteristic based on the first pressure, thereby obtaining a calculated characteristic; and determining whether sag has occurred based on a comparison between the calculated characteristic and the predicted characteristic; further comprising measuring a second pressure at the point at a second time that is after the first time, and wherein: predicting the characteristic of the drilling fluid further comprises predicting a theoretical pressure slope between the first and second times; calculating the characteristic further comprises calculating a pressure slope based on the first and second pressures and the first and second times; and determining whether sag has occurred further comprises comparing a difference between the theoretical pressure slope and the pressure slope to a threshold, where, if the difference is greater than the threshold, sag has occurred. measuring a first pressure at a first time at a point within the borehole; predicting a characteristic of the drilling fluid at the point using a computer model, thereby obtaining a predicted characteristic; calculating the characteristic based on the first pressure, thereby obtaining a calculated characteristic; and determining whether sag has occurred based on a comparison between the calculated characteristic and the predicted characteristic; further comprising measuring a second pressure at the point at a second time that is after the first time, and wherein: predicting the characteristic of the drilling fluid further comprises predicting a theoretical pressure slope between the first and second times; calculating the characteristic further comprises calculating a pressure slope based on the first and second pressures and the first and second times; and determining whether sag has occurred further comprises comparing a difference between the theoretical pressure slope and the pressure slope to a threshold, where, if the difference is greater than the threshold, sag has occurred. predicting the characteristic of the drilling fluid further comprises predicting a theoretical pressure slope between the first and second times; calculating the characteristic further comprises calculating a pressure slope based on the first and second pressures and the first and second times; and determining whether sag has occurred further comprises comparing a difference between the theoretical pressure slope and the pressure slope to a threshold, where, if the difference is greater than the threshold, sag has occurred.
An ophthalmic apparatus comprising: a first optical system that acquires an image of a predetermined region of a subject eye; and a second optical system that includes a catadioptric optical unit (280A2) and that acquires an image of a surrounding portion of the predetermined region. a first optical system that acquires an image of a predetermined region of a subject eye; and a second optical system that includes a catadioptric optical unit (280A2) and that acquires an image of a surrounding portion of the predetermined region.
A graphene heating device, comprising: a transparent substrate ; an adhesive layer formed on the transparent subst rate ; and a graphene layer formed on the adhesive layer , wherein the graphene layer is configured to be heated by a current flowing along the graphene layer when a predetermined voltage is applied, characterized in that the adhesive layer includes a moisture absorbent for absorbing moisture. a transparent substrate ; an adhesive layer formed on the transparent subst rate ; and a graphene layer formed on the adhesive layer , wherein the graphene layer is configured to be heated by a current flowing along the graphene layer when a predetermined voltage is applied, characterized in that the adhesive layer includes a moisture absorbent for absorbing moisture.
A system to perform a vapor compression refrigeration cycle using water as the refrigerant, the system comprising: an evaporator to vaporize liquid water to produce water vapor and to output the water vapor having a water vapor temperature of a first temperature and a water vapor pressure of a first pressure; a condenser to output liquid water at a second temperature, which is higher than the first temperature, and a second pressure, which is higher than the first pressure; characterized in that a supersonic compressor assembly is provided, having a first stage centrifugal compressor and a second stage supersonic compressor , operably disposed downstream from the evaporator and upstream from the condenser , to supersonically compress the water vapor to thereby increase the water vapor temperature from the first temperature and to thereby increase the water vapor pressure from the first pressure by at least a 7:1 ratio; and the supersonic compressor assembly is configured such that the first stage centrifugal compressor and the second stage supersonic compressor are counterrotating to each other. an evaporator to vaporize liquid water to produce water vapor and to output the water vapor having a water vapor temperature of a first temperature and a water vapor pressure of a first pressure; a condenser to output liquid water at a second temperature, which is higher than the first temperature, and a second pressure, which is higher than the first pressure; characterized in that a supersonic compressor assembly is provided, having a first stage centrifugal compressor and a second stage supersonic compressor , operably disposed downstream from the evaporator and upstream from the condenser , to supersonically compress the water vapor to thereby increase the water vapor temperature from the first temperature and to thereby increase the water vapor pressure from the first pressure by at least a 7:1 ratio; and the supersonic compressor assembly is configured such that the first stage centrifugal compressor and the second stage supersonic compressor are counterrotating to each other.
A method comprising: receiving a plurality of queries to obtain query data , each query specifying one or more quality-of-service, QoS, requirements for the transmission of a data flow in a network; determining a query prototype by selecting queries from the plurality of queries that specify values for the same QoS components and identifying clusters in the query data, the query prototype comprising at least one QoS component value based on the one or more QoS requirements; obtaining a plurality of items of route data, wherein each item of route data is associated with a corresponding route through the network and indicates a QoS component of the corresponding route; comparing the route data with the query prototype to identify routes which match the query prototype; and in the event that a sufficient number of routes match the query prototype to provide a minimum support requirement, responding to a further query by transmitting a query response comprising a new QoS model based on the matching query prototype. receiving a plurality of queries to obtain query data , each query specifying one or more quality-of-service, QoS, requirements for the transmission of a data flow in a network; determining a query prototype by selecting queries from the plurality of queries that specify values for the same QoS components and identifying clusters in the query data, the query prototype comprising at least one QoS component value based on the one or more QoS requirements; obtaining a plurality of items of route data, wherein each item of route data is associated with a corresponding route through the network and indicates a QoS component of the corresponding route; comparing the route data with the query prototype to identify routes which match the query prototype; and in the event that a sufficient number of routes match the query prototype to provide a minimum support requirement, responding to a further query by transmitting a query response comprising a new QoS model based on the matching query prototype.
A vibratory screening machine , comprising: an outer frame ; an inner frame connected to the outer frame ; a vibratory motor assembly attached to the inner frame such that the vibratory motor assembly vibrates the inner frame ; and a plurality of screen deck assemblies , wherein each screen deck assembly is attached to the inner frame in a stacked position within a stacked configuration of the plurality of screen deck assemblies and wherein each screen deck assembly is configured to receive a screen assembly , an undersized material discharge assembly configured to receive materials that pass through a screen assembly ; and an oversized material discharge assembly configured to receive materials that pass over a top surface of a screen assembly , wherein the undersized material discharge assembly includes an undersized material chute in communication with each of the plurality of screen deck assemblies , characterized in that the oversized material discharge assembly includes a first oversized material chute assembly in communication with each of the plurality of screen deck assemblies and a second oversized material chute assembly in communication with each of the plurality of screen deck assemblies . an outer frame ; an inner frame connected to the outer frame ; a vibratory motor assembly attached to the inner frame such that the vibratory motor assembly vibrates the inner frame ; and a plurality of screen deck assemblies , wherein each screen deck assembly is attached to the inner frame in a stacked position within a stacked configuration of the plurality of screen deck assemblies and wherein each screen deck assembly is configured to receive a screen assembly , an undersized material discharge assembly configured to receive materials that pass through a screen assembly ; and an oversized material discharge assembly configured to receive materials that pass over a top surface of a screen assembly , wherein the undersized material discharge assembly includes an undersized material chute in communication with each of the plurality of screen deck assemblies , characterized in that the oversized material discharge assembly includes a first oversized material chute assembly in communication with each of the plurality of screen deck assemblies and a second oversized material chute assembly in communication with each of the plurality of screen deck assemblies .
Method for determining at least one layer property (n16, wd16) of a layer to be determined in at least one property in an extrusion process in which a feed material is at least partially mixed and coated and an extrusion product is produced with the layer to be determined, with the following steps at a minimum: a) Irradiation of the extrusion product with terahertz radiation (S) in a frequency range of 0.01 to 50 THz, b) Electromagnetic measurement of at least one radiation (R) having passed through the layer to be determined, c) Measurement of at least one feed rate (z) or feed quantity of the feed material , and d) Determination of at least one layer property (n16, wd16) of the layer to be determined from the measured feed quantity (z) and electromagnetic measurement, whereby a reflexion measurement is performed on at least one boundary layer of the extrusion product . a) Irradiation of the extrusion product with terahertz radiation (S) in a frequency range of 0.01 to 50 THz, b) Electromagnetic measurement of at least one radiation (R) having passed through the layer to be determined, c) Measurement of at least one feed rate (z) or feed quantity of the feed material , and d) Determination of at least one layer property (n16, wd16) of the layer to be determined from the measured feed quantity (z) and electromagnetic measurement, whereby a reflexion measurement is performed on at least one boundary layer of the extrusion product .
Plant for producing at least partially desulfurized biogas, comprising a biomass digester and/or post-digester, the digester and/or post-digester comprising: - a chamber comprising the biomass and the gas space , and - a system for injecting an oxidizing gas into the gas space, characterized in that the injection system comprises a tubular means comprising a T-shaped portion the vertical bar of which is placed in the axis of symmetry of the chamber and the horizontal bar of which has micro-injectors . - a chamber comprising the biomass and the gas space , and - a system for injecting an oxidizing gas into the gas space,