mhurhangee/ep-ind-claims huggingface dataset:
A method of determining protein characteristics, the method comprising: obtaining a substrate in which one or more proteins are conjugated to the substrate such that each individual (at the molecular level) protein has a unique, optically resolvable, spatial address; applying a fluid containing a first through (ordered) nth set of one or more affinity reagents to the substrate, wherein each of the one or more affinity reagents is specific to one epitope (contiguous or non-contiguous amino acid sequence) of the one or more proteins, and wherein each affinity reagent of the first through nth set of one or more of affinity reagents is linked to an identifiable tag; after each application to the substrate of the first and subsequent through nth set of one or more of affinity reagents, performing the following steps: observing the identifiable tag; identifying one or more unique spatial addresses of the substrate having one or more observed signal; determining for each of the one or more proteins having an identified unique spatial address the one or more epitopes associated with the one or more observed signals; and determining the characteristics of each protein based on the one or more epitopes. obtaining a substrate in which one or more proteins are conjugated to the substrate such that each individual (at the molecular level) protein has a unique, optically resolvable, spatial address; applying a fluid containing a first through (ordered) nth set of one or more affinity reagents to the substrate, wherein each of the one or more affinity reagents is specific to one epitope (contiguous or non-contiguous amino acid sequence) of the one or more proteins, and wherein each affinity reagent of the first through nth set of one or more of affinity reagents is linked to an identifiable tag; after each application to the substrate of the first and subsequent through nth set of one or more of affinity reagents, performing the following steps: observing the identifiable tag; identifying one or more unique spatial addresses of the substrate having one or more observed signal; determining for each of the one or more proteins having an identified unique spatial address the one or more epitopes associated with the one or more observed signals; and determining the characteristics of each protein based on the one or more epitopes. observing the identifiable tag; identifying one or more unique spatial addresses of the substrate having one or more observed signal; determining for each of the one or more proteins having an identified unique spatial address the one or more epitopes associated with the one or more observed signals; and determining the characteristics of each protein based on the one or more epitopes.
A bonded structure, comprising a room temperature-curable composition and pieces of a wood material bonded with the room temperature-curable composition, wherein the room temperature-curable composition comprises: a (meth)acrylate polymer that contains a reactive silyl group represented by the following formula: -SiX 3 wherein X represents a hydroxyl or hydrolyzable group, a polyoxyalkylene polymer that contains a reactive silicon represented by the following formula: -SiR 1 3-b Y b wherein R 1 represents a C1-10 alkyl group, a C6-10 aryl group, or a C7-10 aralkyl group; Y represents a hydroxyl or hydrolyzable group; b represents 1, 2, or 3; and when two or more R 1 ' s or Y' s are present, they may be the same as or different from each other an epoxy resin, and a ketimine. a (meth)acrylate polymer that contains a reactive silyl group represented by the following formula: -SiX 3 wherein X represents a hydroxyl or hydrolyzable group, a polyoxyalkylene polymer that contains a reactive silicon represented by the following formula: -SiR 1 3-b Y b wherein R 1 represents a C1-10 alkyl group, a C6-10 aryl group, or a C7-10 aralkyl group; Y represents a hydroxyl or hydrolyzable group; b represents 1, 2, or 3; and when two or more R 1 ' s or Y' s are present, they may be the same as or different from each other an epoxy resin, and a ketimine.
A cartridge for a vaporizer device, the cartridge comprising: a reservoir configured to contain a vaporizable material; and an atomizer comprising a heating element and a gel wick, the atomizer configured to heat the vaporizable material to generate a vapor. a reservoir configured to contain a vaporizable material; and an atomizer comprising a heating element and a gel wick, the atomizer configured to heat the vaporizable material to generate a vapor.
An electronic device comprising: a display; a proximity sensor; a camera; and a controller configured to switch between gesture detection based on a value output from the proximity sensor and gesture detection based on a value output from the camera, in accordance with a state in which a user uses the electronic device, wherein the controller is configured to determine the state in which the user uses the electronic device based on an environment in which the electronic device is being used by the user, characterized in that, when an illuminance of an ambient light is equal to or more than a first threshold and less than a second threshold, the controller is configured to perform gesture detection based on the value output from the camera, and when the illuminance of the ambient light is not within the range equal to or more than the first threshold and less than the second threshold, the controller is configured to perform gesture detection using the proximity sensor, and in that, when the illuminance of the ambient light is less than the first threshold, gesture detection using the proximity sensor is enabled and the electronic device is configured to turn on the display upon detecting a user gesture in which a hand is held over the electronic device. a display; a proximity sensor; a camera; and a controller configured to switch between gesture detection based on a value output from the proximity sensor and gesture detection based on a value output from the camera, in accordance with a state in which a user uses the electronic device, wherein the controller is configured to determine the state in which the user uses the electronic device based on an environment in which the electronic device is being used by the user, characterized in that, when an illuminance of an ambient light is equal to or more than a first threshold and less than a second threshold, the controller is configured to perform gesture detection based on the value output from the camera, and when the illuminance of the ambient light is not within the range equal to or more than the first threshold and less than the second threshold, the controller is configured to perform gesture detection using the proximity sensor, and in that, when the illuminance of the ambient light is less than the first threshold, gesture detection using the proximity sensor is enabled and the electronic device is configured to turn on the display upon detecting a user gesture in which a hand is held over the electronic device.
A compound of formula I wherein Y is C-R 1'; R 1' is hydrogen, F or Cl; R 1 is F or Cl; R 2 is hydrogen or C 1-7 -alkyl; R 3 is phenyl, pyridinyl or isothiazolyl, wherein the N atom in the pyridinyl group may be in different positions, optionally substituted by one or two halogen atoms; R 4 is hydrogen or C 1-7 -alkyl; Het is a 5-membered heteroaryl group, containing two or three heteroatoms, selected from N,O or S, optionally substituted by C 1-7 -alkyl, cycloalkyl, C 1-7 -alkoxyalkyl, heterocycloalkyl, wherein the hetero-atom is O, or C 1-7 -alkyl substituted by hydroxy, or is a bicyclic heteroaromatic ring, containing two or three N-heteroatoms selected from the groups or a pharmaceutically acceptable salt or acid addition salt, a racemic mixture, or its corresponding enantiomer and/or optical isomer and/or stereoisomer thereof. Y is C-R 1'; R 1' is hydrogen, F or Cl; R 1 is F or Cl; R 2 is hydrogen or C 1-7 -alkyl; R 3 is phenyl, pyridinyl or isothiazolyl, wherein the N atom in the pyridinyl group may be in different positions, optionally substituted by one or two halogen atoms; R 4 is hydrogen or C 1-7 -alkyl; Het is a 5-membered heteroaryl group, containing two or three heteroatoms, selected from N,O or S, optionally substituted by C 1-7 -alkyl, cycloalkyl, C 1-7 -alkoxyalkyl, heterocycloalkyl, wherein the hetero-atom is O, or C 1-7 -alkyl substituted by hydroxy, or is a bicyclic heteroaromatic ring, containing two or three N-heteroatoms selected from the groups or a pharmaceutically acceptable salt or acid addition salt, a racemic mixture, or its corresponding enantiomer and/or optical isomer and/or stereoisomer thereof.
Boiler having an exhaust gas flow channel and an electrostatic precipitator which is provided in this exhaust gas flow channel and includes a discharge electrode arranged in the exhaust gas flow channel and a collector electrode formed by channel walls, characterised in that within the exhaust gas flow channel flow plates are provided distributed over the channel length, said flow plates extending over the channel cross-section in an inclined manner with respect to the longitudinal axis of the exhaust gas flow channel and having flow apertures, receiving the discharge electrode, for the exhaust gases, and in that the flow plates form, opposite the exhaust gas flow channel, strike-off edges lying loosely against the channel walls and are connected to a control drive extending in the direction of the longitudinal axis of the exhaust gas flow channel.
A method for providing selective deposition of a second semiconductor material on a first semiconductor material, the method comprising: - providing a patterned substrate comprising at least a first region and a second region, where the first region comprises an exposed first semiconductor material and the second region comprises an exposed insulator material, - loading the patterned substrate in a CVD chamber, - depositing a film comprising the second semiconductor material on the patterned substrate, wherein depositing the film comprises selectively providing the second semiconductor material on the first semiconductor material of the first region by providing a precursor of the second semiconductor material, a first carrier gas that is non-reactive with Cl-compounds and tin-tetrachloride, and whereby tin-tetrachloride inhibits the deposition of the second semiconductor material on the insulator material of the second region and the flow of tin-tetrachloride into the chamber is greater than a minimum amount necessary to achieve selective deposition, but lower than the flow at which growth turns into etching. - providing a patterned substrate comprising at least a first region and a second region, where the first region comprises an exposed first semiconductor material and the second region comprises an exposed insulator material, - loading the patterned substrate in a CVD chamber, - depositing a film comprising the second semiconductor material on the patterned substrate, wherein depositing the film comprises selectively providing the second semiconductor material on the first semiconductor material of the first region by providing a precursor of the second semiconductor material, a first carrier gas that is non-reactive with Cl-compounds and tin-tetrachloride, and whereby tin-tetrachloride inhibits the deposition of the second semiconductor material on the insulator material of the second region and the flow of tin-tetrachloride into the chamber is greater than a minimum amount necessary to achieve selective deposition, but lower than the flow at which growth turns into etching.
A carbonation head assembly comprising a chassis, platform, exhaust valve, safety valve, carbonation injector, bottle insertion lever and a pronged clamp for attaching a soda bottle to a soda machine, the pronged clamp comprising flexible prongs to attach said bottle to said soda machine to enable insertion of the bottle into the pronged clamp at an angle to the vertical; the assembly further comprising: a pivot rod extending between first and second pivot points (265A, 265B) on the assembly, wherein the first pivot point is attached to the chassis to remain in the same position when the bottle insertion lever is pushed inwards by a bottle and wherein the attitude of the second pivot point moves in the direction of the bottle insertion lever upon insertion of bottle; a constricting ring generally square in shape with a hollow center and positioned in parallel to the platform arranged such that in an "open" state, when inserting a bottle, the constricting ring is positioned just underneath the platform encompassing upper portions of prongs, and the second pivot point is attached to the constricting ring, and when a bottle is pressed against lever the differential between the first and second pivot points (265A, 265B) lowers the constricting ring thereby constricting the pronged clamp to hold the bottle in place underneath the platform; and a locking mechanism to lock said bottle to said machine at least during carbonation. a pivot rod extending between first and second pivot points (265A, 265B) on the assembly, wherein the first pivot point is attached to the chassis to remain in the same position when the bottle insertion lever is pushed inwards by a bottle and wherein the attitude of the second pivot point moves in the direction of the bottle insertion lever upon insertion of bottle; a constricting ring generally square in shape with a hollow center and positioned in parallel to the platform arranged such that in an "open" state, when inserting a bottle, the constricting ring is positioned just underneath the platform encompassing upper portions of prongs, and the second pivot point is attached to the constricting ring, and when a bottle is pressed against lever the differential between the first and second pivot points (265A, 265B) lowers the constricting ring thereby constricting the pronged clamp to hold the bottle in place underneath the platform; and a locking mechanism to lock said bottle to said machine at least during carbonation.
A load carrying system, comprising: a. a load supporting frame comprising three connection points (421,422,423); and b. three lifts configured to be controlled independently with respect to vertical positioning of one of the three connection points, the three lifts defining six separate triangles (1,2,3,4,5,6) defining separate planes configured to brace against surge, sway and yaw with respect to the frame, each lift defining two of the six separate triangles, each lift comprising: i. a controllable motor; ii. a drum operative connected to the controllable motor and configured to accept a predetermined length of a corresponding cable about a portion of the drum; iii. a set of pulleys (411,412,413,414,415,416); and iv. a cable (430 - 431,432,433) routed over the set of pulleys and routed to a predetermined connection point of the three connection points, the cable comprising a first end attached to the drum and a second end cooperatively attached to the drum, the cable and the load supporting frame defining two separate triangles of the six separate triangles. a. a load supporting frame comprising three connection points (421,422,423); and b. three lifts configured to be controlled independently with respect to vertical positioning of one of the three connection points, the three lifts defining six separate triangles (1,2,3,4,5,6) defining separate planes configured to brace against surge, sway and yaw with respect to the frame, each lift defining two of the six separate triangles, each lift comprising: i. a controllable motor; ii. a drum operative connected to the controllable motor and configured to accept a predetermined length of a corresponding cable about a portion of the drum; iii. a set of pulleys (411,412,413,414,415,416); and iv. a cable (430 - 431,432,433) routed over the set of pulleys and routed to a predetermined connection point of the three connection points, the cable comprising a first end attached to the drum and a second end cooperatively attached to the drum, the cable and the load supporting frame defining two separate triangles of the six separate triangles. i. a controllable motor; ii. a drum operative connected to the controllable motor and configured to accept a predetermined length of a corresponding cable about a portion of the drum; iii. a set of pulleys (411,412,413,414,415,416); and iv. a cable (430 - 431,432,433) routed over the set of pulleys and routed to a predetermined connection point of the three connection points, the cable comprising a first end attached to the drum and a second end cooperatively attached to the drum, the cable and the load supporting frame defining two separate triangles of the six separate triangles.
A catalyst composition for the oxidation of carbon monoxide and volatile organic compounds, said composition comprising at least one base metal promoter and at least one base metal catalyst supported on an oxide support material comprising alumina and CeZrO 2 or TiZrO 2, wherein said VOCs comprise methyl bromide; wherein said at least one base metal catalyst is copper (Cu); wherein said at least one base metal promoter is manganese (Mn); and wherein said catalyst composition is free of platinum group metals.
A forward engine mounting system (110; 310) comprising: a frame (124; 318) having an elongated shape and having a first end (132; 324) configured to be connected to a forward end of a support structure (108; 306) for an engine (102; 208, 210) of an aircraft (100; 200), the frame (124; 318) being configured to extend forward of the support structure (108; 306); a first linking system (126; 320) connected to a second end (134; 326) of the frame (124; 318) and configured to be connected to a fan case (116; 302) in the engine (102; 208, 210); and a second linking system (128; 322) connected to the first end (132; 324) of the frame (124; 318) and configured to be connected to an engine core case (118; 304) in the engine (102; 208, 210); wherein the first linking system (126; 320) is configured to support a side load (502, 504) in a first direction that is substantially perpendicular to an axis extending centrally through the fan case (116; 302); and wherein the second linking system (128; 322) is configured to support a vertical load (510, 512) in a second direction that is substantially perpendicular to the axis extending centrally through the fan case (116; 302). a frame (124; 318) having an elongated shape and having a first end (132; 324) configured to be connected to a forward end of a support structure (108; 306) for an engine (102; 208, 210) of an aircraft (100; 200), the frame (124; 318) being configured to extend forward of the support structure (108; 306); a first linking system (126; 320) connected to a second end (134; 326) of the frame (124; 318) and configured to be connected to a fan case (116; 302) in the engine (102; 208, 210); and a second linking system (128; 322) connected to the first end (132; 324) of the frame (124; 318) and configured to be connected to an engine core case (118; 304) in the engine (102; 208, 210); wherein the first linking system (126; 320) is configured to support a side load (502, 504) in a first direction that is substantially perpendicular to an axis extending centrally through the fan case (116; 302); and wherein the second linking system (128; 322) is configured to support a vertical load (510, 512) in a second direction that is substantially perpendicular to the axis extending centrally through the fan case (116; 302).
A rotor (24; 124) for a Wankel engine comprising: two axially spaced apart end faces having a triangular profile with outwardly arched sides and three circumferentially spaced apex portions; a peripheral face extending between the end faces and defining three flanks, each flank extending between two corresponding ones of the apex portions, each flank including a recess in the peripheral face defining part of a combustion chamber; a bearing support extending between the end faces to support a rotor bearing, the bearing support having a central axis corresponding to a central axis of the rotor (24; 124); and a plurality of ribs (74, 76; 174, 176) extending between the end faces from the bearing support to each one of the flanks, the plurality of ribs (74, 76; 174, 176) including, for each flank, a first rib (74; 174) connected to the flank between the recess and one of the corresponding apex portions and a second rib (76; 176) connected to the flank between the recess and the other corresponding one of the apex portions; characterised in that: at least a portion of the first and second ribs (74,76; 174, 176) of each flank is curved and defines concave and convex sides when viewed in a plane perpendicular to the central axis of the rotor (24; 124). two axially spaced apart end faces having a triangular profile with outwardly arched sides and three circumferentially spaced apex portions; a peripheral face extending between the end faces and defining three flanks, each flank extending between two corresponding ones of the apex portions, each flank including a recess in the peripheral face defining part of a combustion chamber; a bearing support extending between the end faces to support a rotor bearing, the bearing support having a central axis corresponding to a central axis of the rotor (24; 124); and a plurality of ribs (74, 76; 174, 176) extending between the end faces from the bearing support to each one of the flanks, the plurality of ribs (74, 76; 174, 176) including, for each flank, a first rib (74; 174) connected to the flank between the recess and one of the corresponding apex portions and a second rib (76; 176) connected to the flank between the recess and the other corresponding one of the apex portions; characterised in that: at least a portion of the first and second ribs (74,76; 174, 176) of each flank is curved and defines concave and convex sides when viewed in a plane perpendicular to the central axis of the rotor (24; 124).
Device for producing a radiation treatment plan and for establishing the irradiation of the target volume by a multiplicity of particle beams requiring to be applied successively, comprising a computer unit having an input device and an output device, which device is embodied for implementing the following method steps: - specifying a dataset in which an object requiring to be irradiated is represented, - determining a target volume requiring to be irradiated within the object, - ascertaining a metric identifying a density heterogeneity for a region that will be struck by a planned treatment beam, wherein the region whose density heterogeneity can be identified by the metric includes an area that will be struck by a plurality of the particle beams requiring to be applied successively, - determining as a function of the ascertained metric a safety margin for the target volume requiring to be irradiated. - specifying a dataset in which an object requiring to be irradiated is represented, - determining a target volume requiring to be irradiated within the object, - ascertaining a metric identifying a density heterogeneity for a region that will be struck by a planned treatment beam, wherein the region whose density heterogeneity can be identified by the metric includes an area that will be struck by a plurality of the particle beams requiring to be applied successively, - determining as a function of the ascertained metric a safety margin for the target volume requiring to be irradiated.