mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-stage syngas cooler for cooling high temperature gas, the cooler comprising: a dense fluid bed with imbedded cooling coils in communication with an inlet hot syngas stream; and multiple stages of internally circulating fluidized bed coolers in series; a riser where the syngas mixes and transfer heat energy to circulating bed of solids; a disengagement section to disengage the syngas from the circulating bed of solids; an aeration and seal mechanism to control the flow of circulating solids into the riser section; and a cone section that facilitates internal solids circulation and serves as a partition between cooler stages, characterized in that the high temperature gas is syngas from a coal gasifier, the cooler further comprises an annular space for circulating solids to flow down and transfer heat to imbedded heat transfer surfaces; and the cone section comprises steam cooled coils with openings for a portion of syngas to pass through and provide aeration for solids in the annular space. a dense fluid bed with imbedded cooling coils in communication with an inlet hot syngas stream; and multiple stages of internally circulating fluidized bed coolers in series; a riser where the syngas mixes and transfer heat energy to circulating bed of solids; a disengagement section to disengage the syngas from the circulating bed of solids; an aeration and seal mechanism to control the flow of circulating solids into the riser section; and a cone section that facilitates internal solids circulation and serves as a partition between cooler stages, characterized in that the high temperature gas is syngas from a coal gasifier, the cooler further comprises an annular space for circulating solids to flow down and transfer heat to imbedded heat transfer surfaces; and the cone section comprises steam cooled coils with openings for a portion of syngas to pass through and provide aeration for solids in the annular space.
A composition for straightening hair comprising: - a proteinogenic amino acid or one of its acid or base, organic or mineral salts; - a protein; - an alcohol; and - a vegetable oil. - a proteinogenic amino acid or one of its acid or base, organic or mineral salts; - a protein; - an alcohol; and - a vegetable oil.
A method for producing a textile fabric which is configured with at least one fillable chamber and a textile sealing rim surrounding it, comprising the step of: - weaving of the fabric as an OPW structure, the sealing rim being configured with a lower weaving density than adjacent textile regions and being provided with a sealing compound over its surface, characterized in that the sealing rim is previously configured at a distance from the chamber with a filling channel , through which the sealing compound is supplied to the sealing rim with the lower weaving density. - weaving of the fabric as an OPW structure, the sealing rim being configured with a lower weaving density than adjacent textile regions and being provided with a sealing compound over its surface,
A method of making a medicament comprising the steps of: a) forming a plurality of starch based nanoparticles, wherein the nanoparticles are colloidal hydrogel particles, wherein the starch based nanoparticles are made up of at least 50% of high molecular weight starch, wherein the high molecular weight starch has a molecular weight of at least 10,000 Da, wherein 50% or more of the nanoparticles by number have a size in the range of 50 to 150 nm; and, b) after step a) combining an active agent with the nanoparticles, wherein the active agent is loaded into the core of the nanoparticle. a) forming a plurality of starch based nanoparticles, wherein the nanoparticles are colloidal hydrogel particles, wherein the starch based nanoparticles are made up of at least 50% of high molecular weight starch, wherein the high molecular weight starch has a molecular weight of at least 10,000 Da, wherein 50% or more of the nanoparticles by number have a size in the range of 50 to 150 nm; and, b) after step a) combining an active agent with the nanoparticles, wherein the active agent is loaded into the core of the nanoparticle.
An integrated circuit comprising: a plurality of components (16A-16B, 18, 20, 22, 24, 26), each component included in one of a plurality of performance domains (14A-14F) and a power management unit ; characterised in that : the power management unit comprises a plurality of configuration registers , wherein the plurality of configuration registers are programmed with data identifying performance states for the plurality of performance domains (14A-14F), wherein at least two performance states are identified for each performance domain of the plurality of performance domains (14A-14F), and wherein the power management unit is configured to establish a selected performance state of the at least two performance states in each of the plurality of performance domains (14A-14F) responsive to an event that is subsequent to the programming of the plurality of configuration registers . a plurality of components (16A-16B, 18, 20, 22, 24, 26), each component included in one of a plurality of performance domains (14A-14F) and a power management unit ; characterised in that : the power management unit comprises a plurality of configuration registers , wherein the plurality of configuration registers are programmed with data identifying performance states for the plurality of performance domains (14A-14F), wherein at least two performance states are identified for each performance domain of the plurality of performance domains (14A-14F), and wherein the power management unit is configured to establish a selected performance state of the at least two performance states in each of the plurality of performance domains (14A-14F) responsive to an event that is subsequent to the programming of the plurality of configuration registers . the power management unit comprises a plurality of configuration registers , wherein the plurality of configuration registers are programmed with data identifying performance states for the plurality of performance domains (14A-14F), wherein at least two performance states are identified for each performance domain of the plurality of performance domains (14A-14F), and wherein the power management unit is configured to establish a selected performance state of the at least two performance states in each of the plurality of performance domains (14A-14F) responsive to an event that is subsequent to the programming of the plurality of configuration registers .
A Data Storage Device, DSD, , comprising: at least one memory for storing data; and a controller configured to: receive data from a first sensing device and a second sensing device configured to detect an environmental condition; generate metadata for data received from the first sensing device based on data received from the second sensing device, wherein the generated metadata includes an indication of a priority level of the data received from the first sensing device based on the data received from the second sensing device; store the data received from the first sensing device and the generated metadata in the at least one memory; and manage retention in the at least one memory of the data received from the first sensing device based on the generated metadata when more space is needed in the at least one memory. at least one memory for storing data; and a controller configured to: receive data from a first sensing device and a second sensing device configured to detect an environmental condition; generate metadata for data received from the first sensing device based on data received from the second sensing device, wherein the generated metadata includes an indication of a priority level of the data received from the first sensing device based on the data received from the second sensing device; store the data received from the first sensing device and the generated metadata in the at least one memory; and manage retention in the at least one memory of the data received from the first sensing device based on the generated metadata when more space is needed in the at least one memory. receive data from a first sensing device and a second sensing device configured to detect an environmental condition; generate metadata for data received from the first sensing device based on data received from the second sensing device, wherein the generated metadata includes an indication of a priority level of the data received from the first sensing device based on the data received from the second sensing device; store the data received from the first sensing device and the generated metadata in the at least one memory; and manage retention in the at least one memory of the data received from the first sensing device based on the generated metadata when more space is needed in the at least one memory.
A radio base station , comprising: a failure notification receiving unit adapted to receive from a user equipment a failure notification that indicates that a radio link failure has occurred in the secondary cell group for a split bearer (B SP ) between the radio base station included in a master cell group and other radio base station included in a secondary cell group; and a connection control unit adapted to, when the failure notification receiving unit has received the failure notification, transmit to the other radio base station a resource change request to instruct to release the resource of the split bearer of a predetermined layer and the layers below thereof in the secondary cell group, wherein the connection control unit is adapted to delete the configuration of the secondary cell group when a bearer belonging to the secondary cell group other than the split bearer is not set. a failure notification receiving unit adapted to receive from a user equipment a failure notification that indicates that a radio link failure has occurred in the secondary cell group for a split bearer (B SP ) between the radio base station included in a master cell group and other radio base station included in a secondary cell group; and a connection control unit adapted to, when the failure notification receiving unit has received the failure notification, transmit to the other radio base station a resource change request to instruct to release the resource of the split bearer of a predetermined layer and the layers below thereof in the secondary cell group, wherein the connection control unit is adapted to delete the configuration of the secondary cell group when a bearer belonging to the secondary cell group other than the split bearer is not set.
A medical screw formed of a metallic material for joining a fracture site comprising: a screw thread portion formed on an outer surface of a distal end portion ; and an external thread portion formed on an outer periphery of a head portion which is provided at a rear end portion ; characterized in that a top potion of the head portion is bulged upward in an arcuate shape, and the external thread portion , with which engagement of a withdrawal operating jig is enabled, is formed in a reverse direction to a direction of a thread of the screw thread portion . a screw thread portion formed on an outer surface of a distal end portion ; and an external thread portion formed on an outer periphery of a head portion which is provided at a rear end portion ; characterized in that a top potion of the head portion is bulged upward in an arcuate shape, and the external thread portion , with which engagement of a withdrawal operating jig is enabled, is formed in a reverse direction to a direction of a thread of the screw thread portion .
A magnetic pass-through controller of an in-helmet display , the controller comprising: internal components inside a helmet comprising: a magnet assembly holding one or more internal magnets , and a swing arm affixed to the magnet assembly and affixed to the in-helmet display; and external components outside the helmet comprising: an external magnet housing holding one or more external magnets , and characterized by an adjuster configured for manual rotation and coupled to the external magnet housing such that the manual rotation of the adjuster causes a corresponding rotation of the external magnet housing, wherein magnetic coupling between the one or more internal magnets and the one or more external magnets causes the corresponding rotation also in the magnet assembly and the swing arm. internal components inside a helmet comprising: a magnet assembly holding one or more internal magnets , and a swing arm affixed to the magnet assembly and affixed to the in-helmet display; and a magnet assembly holding one or more internal magnets , and a swing arm affixed to the magnet assembly and affixed to the in-helmet display; and external components outside the helmet comprising: an external magnet housing holding one or more external magnets , and characterized by an adjuster configured for manual rotation and coupled to the external magnet housing such that the manual rotation of the adjuster causes a corresponding rotation of the external magnet housing, wherein magnetic coupling between the one or more internal magnets and the one or more external magnets causes the corresponding rotation also in the magnet assembly and the swing arm. an external magnet housing holding one or more external magnets , and characterized by an adjuster configured for manual rotation and coupled to the external magnet housing such that the manual rotation of the adjuster causes a corresponding rotation of the external magnet housing, wherein magnetic coupling between the one or more internal magnets and the one or more external magnets causes the corresponding rotation also in the magnet assembly and the swing arm.
Saccharomyces cerevisiae yeast strain deposited with the CNCM on 17 October 2007 under number 1-3856, for use in the prevention and/or treatment of an oropharyngeal candidiasis in a subject.
A process for forming a polymer, comprising a) forming a reaction mixture containing 1) at least one polyene compound having an average of at least two groups containing aliphatic carbon-carbon double bonds capable of reaction with a thiol group, wherein at least one of such aliphatic carbon-carbon double bonds is separated from each other said aliphatic carbon-carbon double bond by an aliphatic spacer group having a weight of at least 1000 atomic mass units, 2) from 20 to 150 parts by weight, per 100 parts by weight of component 1), of at least one epoxy resin having an average of at least 1.5 epoxide groups per molecule and an epoxy equivalent weight of up to 1000 and 3) at least one thiol curing agent having at least two thiol groups and at least one amine curing agent having at least two amine hydrogens, the thiol and amine curing agents being present in a mole ratio of 1:99 to 99:1, and b) curing the reaction mixture to form the polymer.
A mounting system for an aircraft, comprising a jet engine , a wing and a strut , wherein the strut comprises: a plurality of engine mounts ; and a space frame truss supported from the wing and comprising a front portion and an aft portion , wherein the aft portion is coupled to the front portion , the front portion being coupled to and supporting the engine mounts , the aft portion extending upwardly and rearwardly from an aft end of the front portion , wherein said aft portion comprises: a lower frame having an aft end, an upper frame having an aft end, and a U-shaped aft frame disposed at an aft end of the aft portion and coupling the aft end of the lower frame to the aft end of the upper frame ; wherein the upper frame comprises: a rectangular frame , an upper skin defining an X-shaped pattern extending between diagonal corners of the rectangular frame , a pair of stiffeners disposed on an upper surface of the skin and forming a cross extending between diagonal corners of the frame . a plurality of engine mounts ; and a space frame truss supported from the wing and comprising a front portion and an aft portion , wherein the aft portion is coupled to the front portion , the front portion being coupled to and supporting the engine mounts , the aft portion extending upwardly and rearwardly from an aft end of the front portion , wherein said aft portion comprises: a lower frame having an aft end, an upper frame having an aft end, and a U-shaped aft frame disposed at an aft end of the aft portion and coupling the aft end of the lower frame to the aft end of the upper frame ; a lower frame having an aft end, an upper frame having an aft end, and a U-shaped aft frame disposed at an aft end of the aft portion and coupling the aft end of the lower frame to the aft end of the upper frame ; wherein the upper frame comprises: a rectangular frame , an upper skin defining an X-shaped pattern extending between diagonal corners of the rectangular frame , a pair of stiffeners disposed on an upper surface of the skin and forming a cross extending between diagonal corners of the frame . a rectangular frame , an upper skin defining an X-shaped pattern extending between diagonal corners of the rectangular frame , a pair of stiffeners disposed on an upper surface of the skin and forming a cross extending between diagonal corners of the frame .
A marine vessel to transport natural gas hydrates (NGH) comprising: a hull , a skeletal structure to support said hull , and a sealing liner to envelop the interior and the exterior of said hull for: a. sealing to gas and b. sealing to water and c. insulating to thermal, wherein said hull is formed from solid NGH . a hull , a skeletal structure to support said hull , and a sealing liner to envelop the interior and the exterior of said hull for: a. sealing to gas and b. sealing to water and c. insulating to thermal, wherein said hull is formed from solid NGH . a. sealing to gas and b. sealing to water and c. insulating to thermal,
An apparatus , comprising: (a) a surgical stapling cartridge , the surgical stapling cartridge including: (i) a deck , a plurality of staple apertures being formed through the deck, and (ii) a plurality of staples positioned in the staple apertures; (b) an elongate body sized and shaped to correspond with the deck of the surgical staple cartridge such that the elongate body is configured to cover the plurality of staple apertures of the surgical staple cartridge; (c) at least one latch member configured to removably secure the elongate body to the surgical staple cartridge; and characterized by (d) a cartridge removal feature integral with the elongate body, the cartridge removal feature defining a gap configured to receive a portion of the surgical staple cartridge, the cartridge removal feature being further operable to remove the surgical staple cartridge from a surgical stapler, the cartridge removal feature including a vertically extending member and a distally extending member . (a) a surgical stapling cartridge , the surgical stapling cartridge including: (i) a deck , a plurality of staple apertures being formed through the deck, and (ii) a plurality of staples positioned in the staple apertures; (i) a deck , a plurality of staple apertures being formed through the deck, and (ii) a plurality of staples positioned in the staple apertures; (b) an elongate body sized and shaped to correspond with the deck of the surgical staple cartridge such that the elongate body is configured to cover the plurality of staple apertures of the surgical staple cartridge; (c) at least one latch member configured to removably secure the elongate body to the surgical staple cartridge; and characterized by (d) a cartridge removal feature integral with the elongate body, the cartridge removal feature defining a gap configured to receive a portion of the surgical staple cartridge, the cartridge removal feature being further operable to remove the surgical staple cartridge from a surgical stapler, the cartridge removal feature including a vertically extending member and a distally extending member .
A method of selecting an encoding specification for encoding audio and/or video data to be streamed from a sender to a receiver via a network , the method comprising: partitioning a range of possible conditions of the network into a finite plurality of discrete network conditions, each characterised by different combinations of data-transmission characteristics of at least two different types; in respect of the network in each of the plurality of discrete network conditions, obtaining (s540, s660) a performance measure in respect of each of a plurality of different encoding specifications, the performance measure in respect of the network when in a particular network condition and in respect of a particular encoding specification being obtained by applying a predetermined performance measuring process in respect of audio and/or video data encoded (s520) using said encoding specification and streamed (s530) via the network when in said network condition; subsequently obtaining (s710, s910) current data-transmission characteristics of said at least two different types in respect of the network and selecting (s720, s920) a corresponding current network condition from said finite plurality of discrete network conditions; and selecting (s750, s930) an encoding specification for encoding said data to be streamed, the selection of said encoding specification being made in dependence on the performance measures obtained using said plurality of encoding specifications in respect of the network when in said selected corresponding current network condition. partitioning a range of possible conditions of the network into a finite plurality of discrete network conditions, each characterised by different combinations of data-transmission characteristics of at least two different types; in respect of the network in each of the plurality of discrete network conditions, obtaining (s540, s660) a performance measure in respect of each of a plurality of different encoding specifications, the performance measure in respect of the network when in a particular network condition and in respect of a particular encoding specification being obtained by applying a predetermined performance measuring process in respect of audio and/or video data encoded (s520) using said encoding specification and streamed (s530) via the network when in said network condition; subsequently obtaining (s710, s910) current data-transmission characteristics of said at least two different types in respect of the network and selecting (s720, s920) a corresponding current network condition from said finite plurality of discrete network conditions; and selecting (s750, s930) an encoding specification for encoding said data to be streamed, the selection of said encoding specification being made in dependence on the performance measures obtained using said plurality of encoding specifications in respect of the network when in said selected corresponding current network condition.