mhurhangee/ep-ind-claims huggingface dataset:
A multilayer adhesive film comprising: A. as surface adhesive layers, Adhesion Layer 1 ("AL1") and Adhesion Layer 2 ("AL2") wherein Adhesion Layer 1 comprises an adhesive polar ethylene copolymer and wherein Adhesion Layer 2 comprises an adhesive polar ethylene copolymer, wherein said adhesive polar ethylene copolymers are selected from the group consisting of ethylene/α,β-ethylenically unsaturated carboxylic acid copolymers; ethylene vinyl acetate copolymers; ethylene alkyl (meth)acrylate copolymers; and blends of two or more thereof; B. an internal Controlled Bond Layer ("CBL") located between the AL1 and the AL2 and strippably adhered to the AL1 and comprising a propylene-based polymer; C. an internal Strong Bond Layer ("SBL") different than the CBL and located between the CBL and AL2 and having a facial surface in adhering contact to the CBL and wherein the Strong Bond Layer comprises a thermoplastic ethylene-based polymer having a density less than 0.92 g/cm 3; and D. optionally, one or more different internal Filler Layer(s) located between the SBL and the adhesive surface layer on the side of the SBL opposite to the adhered CBL; the adhesive film: (i) having a bond strength between the CBL and a non-CBL layer adjacent thereto that is less than the heat activated adhesive bond strengths of the surface layers to surfaces of metal or thermoplastic ethylene polymer and other bond strengths between other adjacent layers in the film, (ii) comprising at least three weight percent recycled film composition in either the SBL or a Filler Layer and, (iii) when adhering a thermoplastic ethylene polymer surface to a metal surface, providing a strippable interface at the CBL; wherein said bond strengths are according to the Adhesion Test Method described in the description. A. as surface adhesive layers, Adhesion Layer 1 ("AL1") and Adhesion Layer 2 ("AL2") wherein Adhesion Layer 1 comprises an adhesive polar ethylene copolymer and wherein Adhesion Layer 2 comprises an adhesive polar ethylene copolymer, wherein said adhesive polar ethylene copolymers are selected from the group consisting of ethylene/α,β-ethylenically unsaturated carboxylic acid copolymers; ethylene vinyl acetate copolymers; ethylene alkyl (meth)acrylate copolymers; and blends of two or more thereof; B. an internal Controlled Bond Layer ("CBL") located between the AL1 and the AL2 and strippably adhered to the AL1 and comprising a propylene-based polymer; C. an internal Strong Bond Layer ("SBL") different than the CBL and located between the CBL and AL2 and having a facial surface in adhering contact to the CBL and wherein the Strong Bond Layer comprises a thermoplastic ethylene-based polymer having a density less than 0.92 g/cm 3; and D. optionally, one or more different internal Filler Layer(s) located between the SBL and the adhesive surface layer on the side of the SBL opposite to the adhered CBL;
An aircraft, comprising: a fuselage; a wing coupled to the fuselage; one or more engines or motors disposed within or attached to the wing or fuselage; a shaft operably connected to the one or more engines or motors; a hub in mechanical communication with the shaft; two or more rotor blades, each rotor blade in mechanical communication with the hub and pivotable about an axis of rotation; a bearing plate comprising a rotating portion and a non-rotating portion; a fold linkage mechanically coupling the rotating portion of the bearing plate to each of the two or more rotor blades; and an actuator coupled to the non-rotating portion of the bearing plate and operable to reposition the bearing plate from a first position to a second position, wherein the fold linkages pivot the two or more rotor blades from a deployed position to a forward folded position, wherein the wing comprises a closed wing coupled to the fuselage with one or more spokes, and the closed wing provides lift whenever the aircraft is in forward flight, and the one or more engines or motors provide lift whenever the aircraft is in vertical takeoff and landing and stationary flight and provide thrust whenever the aircraft is in forward flight, and wherein the closed wing, the fuselage and the one or more spokes are symmetrically shaped to provide transition between vertical takeoff and landing, stationary flight and forward flight in any direction. a fuselage; a wing coupled to the fuselage; one or more engines or motors disposed within or attached to the wing or fuselage; a shaft operably connected to the one or more engines or motors; a hub in mechanical communication with the shaft; two or more rotor blades, each rotor blade in mechanical communication with the hub and pivotable about an axis of rotation; a bearing plate comprising a rotating portion and a non-rotating portion; a fold linkage mechanically coupling the rotating portion of the bearing plate to each of the two or more rotor blades; and an actuator coupled to the non-rotating portion of the bearing plate and operable to reposition the bearing plate from a first position to a second position, wherein the fold linkages pivot the two or more rotor blades from a deployed position to a forward folded position, wherein the wing comprises a closed wing coupled to the fuselage with one or more spokes, and the closed wing provides lift whenever the aircraft is in forward flight, and the one or more engines or motors provide lift whenever the aircraft is in vertical takeoff and landing and stationary flight and provide thrust whenever the aircraft is in forward flight, and wherein the closed wing, the fuselage and the one or more spokes are symmetrically shaped to provide transition between vertical takeoff and landing, stationary flight and forward flight in any direction.
Fluidized bed apparatus, comprising a circulating fluidized bed reactor with at least one outlet port at its upper part, wherein said outlet port allows a mixture of gas and solid particles exhausted from the fluidized bed reactor to flow into a number (n) of associated separators for separating solid particles from said gas, a number (n) of means to transfer said separated solid particles from said (n) separators into a number (up to n) of discrete fluidized bed heat exchangers (24.1, 24.2, 24.3), and return means to transport at least part of said solid particles back from said discrete fluidized bed heat exchangers into the circulating fluidized bed reactor, wherein each discrete fluidized bed heat exchanger comprises a chamber, comprising at least one solid particles inlet port, at least one solid particles outlet port, arranged at a distance to the at least one inlet port, means for introducing a fluidizing gas from a bottom area of said chamber into said chamber, multiple heat transfer means arranged within said chamber, wherein an individual heat transfer means is designed in a wall-like structure and a set of multiple heat transfer means is arranged at a distance to each other with channels in between, wherein the heat transfer means and the channels extend substantially parallel to the main flow direction of the solid particles on their way to and through the outlet port, the number (up to n) of discrete fluidized bed heat exchangers (24.1, 24.2, 24.3) are mechanically connected to provide one common fluidized bed heat exchanger with a water cooled intermediate wall between adjacent discrete fluidized bed heat exchangers (24.1, 24.2, 24.3), the circulating fluidized bed reactor, the said (n) separator(s) and the common fluidized bed heat exchanger are mounted in a suspended manner. each discrete fluidized bed heat exchanger comprises a chamber, comprising at least one solid particles inlet port, at least one solid particles outlet port, arranged at a distance to the at least one inlet port, means for introducing a fluidizing gas from a bottom area of said chamber into said chamber, multiple heat transfer means arranged within said chamber, wherein an individual heat transfer means is designed in a wall-like structure and a set of multiple heat transfer means is arranged at a distance to each other with channels in between, wherein the heat transfer means and the channels extend substantially parallel to the main flow direction of the solid particles on their way to and through the outlet port, the number (up to n) of discrete fluidized bed heat exchangers (24.1, 24.2, 24.3) are mechanically connected to provide one common fluidized bed heat exchanger with a water cooled intermediate wall between adjacent discrete fluidized bed heat exchangers (24.1, 24.2, 24.3), the circulating fluidized bed reactor, the said (n) separator(s) and the common fluidized bed heat exchanger are mounted in a suspended manner.
A method for removal of particulate in pre-combustion waste vapor of an acrylonitrile butadiene styrene process, the method comprising: introducing a first stream of water into a first water inlet of a housing oriented on a vertical axis and having a first end and a second end, the housing having a vapor outlet and a particulate outlet, the vapor outlet disposed at the first end of the housing, and the particulate outlet disposed and the second end, and the housing having a mist filter disposed at the first end of the housing and adjacent the vapor outlet; introducing a waste vapor into a vapor inlet of the vessel, the vapor inlet disposed between the particulate outlet and the mist filter; introducing a second stream of water from a second water inlet into the vessel, the second water inlet disposed between the vapor inlet and the mist filter; introducing a third stream of water from a third water inlet into the vessel, the third water inlet disposed between the mist filter and the vapor outlet; directing the introduced waste vapor along the vertical axis from the vapor inlet through the first water stream, second water stream, and third water stream, and the mist filter, and through the vapor outlet to provide a resultant vapor stream; directing the resultant vapor stream to a regenerative thermal oxidizer; and collecting a particulate from the waste vapor and the water upon exiting through the particulate outlet. introducing a first stream of water into a first water inlet of a housing oriented on a vertical axis and having a first end and a second end, the housing having a vapor outlet and a particulate outlet, the vapor outlet disposed at the first end of the housing, and the particulate outlet disposed and the second end, and the housing having a mist filter disposed at the first end of the housing and adjacent the vapor outlet; introducing a waste vapor into a vapor inlet of the vessel, the vapor inlet disposed between the particulate outlet and the mist filter; introducing a second stream of water from a second water inlet into the vessel, the second water inlet disposed between the vapor inlet and the mist filter; introducing a third stream of water from a third water inlet into the vessel, the third water inlet disposed between the mist filter and the vapor outlet; directing the introduced waste vapor along the vertical axis from the vapor inlet through the first water stream, second water stream, and third water stream, and the mist filter, and through the vapor outlet to provide a resultant vapor stream; directing the resultant vapor stream to a regenerative thermal oxidizer; and collecting a particulate from the waste vapor and the water upon exiting through the particulate outlet.
An elongate, flexible, medical device comprising: an elongate, flexible portion having a distal end and a proximal end, further comprising: an elongate, flexible inner member extending from the proximal end and athe distal end, a support member extending around the inner member intermediate the proximal end and the distal end thereof; an outer member surrounding over the inner member and the support member, a bendable portion having at least one ionic electroactive polymer actuator, the actuator comprising: at least one polymer electrolyte layer secured adjacent to the inner member at the distal end of the elongate, flexible portion and defining an exterior surface, characterized by a plurality of electrodes circumferentially distributed about the exterior surface of the at least one polymer electrolyte layers, and a plurality of electrically-conductive wires being deployed between the inner member and the outer member, each being braided with the support member and having a distal end that extends outwardly from the distal end of the elongate, flexible portion to be electrically connected to one of the electrodes. an elongate, flexible inner member extending from the proximal end and athe distal end, a support member extending around the inner member intermediate the proximal end and the distal end thereof; an outer member surrounding over the inner member and the support member, a bendable portion having at least one ionic electroactive polymer actuator, the actuator comprising: at least one polymer electrolyte layer secured adjacent to the inner member at the distal end of the elongate, flexible portion and defining an exterior surface, characterized by a plurality of electrodes circumferentially distributed about the exterior surface of the at least one polymer electrolyte layers, and a plurality of electrically-conductive wires being deployed between the inner member and the outer member, each being braided with the support member and having a distal end that extends outwardly from the distal end of the elongate, flexible portion to be electrically connected to one of the electrodes. at least one polymer electrolyte layer secured adjacent to the inner member at the distal end of the elongate, flexible portion and defining an exterior surface, characterized by a plurality of electrodes circumferentially distributed about the exterior surface of the at least one polymer electrolyte layers, and a plurality of electrically-conductive wires being deployed between the inner member and the outer member, each being braided with the support member and having a distal end that extends outwardly from the distal end of the elongate, flexible portion to be electrically connected to one of the electrodes.
A herbicide formulation, characterized by comprising a water soluble salt of glyphosate and at least one adjuvant, the said adjuvant consisting in an alkoxylated imidazoline with the following structure: wherein R 1 is selected from: a saturated linear C3 to C23 alkyl, cis -8-pentadecenyl, cis -8-hexadecenyl, cis -8-heptadecenyl, cis -8, cis -11-heptadecadienyl, cis- 8, cis -11, cis -14-heptadecatrienyl, cis -5, cis -8, cis -11-heptadecatrienyl, cis -8, trans- 10, trans- 12-heptadecatrienyl, R11-hydroxy-8- cis -heptadecenyl, dihydroxyheptadecanyl, cis -4, cis- 7, cis -10, cis -13-nonadecatetraenyl, cis -4, cis -7, cis- 10, cis- 13,cis- 16- nonadecapentenyl, cis- 12-henicosenyl, and cis- 3, cis- 6, cis -9, cis -12, cis -15,cis -18 - henicosahexenyl; and wherein R 2 is selected from one of the following compounds: - ethylene polyoxide (-CH 2 CH 2 O-) n H, wherein n > 1 - propylene polyoxide (-CHCH 3 CH 2 O-) n H, wherein n > 1 - ethylene and propylene polyoxide (-CH 2 CH 2 O-) n (-CHCH 3 CH 2 O-) m H, wherein n + m > 1 - alkoxylated ethylene amine wherein x + y is a number between 0 and 100. wherein R 1 is selected from: a saturated linear C3 to C23 alkyl, cis -8-pentadecenyl, cis -8-hexadecenyl, cis -8-heptadecenyl, cis -8, cis -11-heptadecadienyl, cis- 8, cis -11, cis -14-heptadecatrienyl, cis -5, cis -8, cis -11-heptadecatrienyl, cis -8, trans- 10, trans- 12-heptadecatrienyl, R11-hydroxy-8- cis -heptadecenyl, dihydroxyheptadecanyl, cis -4, cis- 7, cis -10, cis -13-nonadecatetraenyl, cis -4, cis -7, cis- 10, cis- 13,cis- 16- nonadecapentenyl, cis- 12-henicosenyl, and cis- 3, cis- 6, cis -9, cis -12, cis -15,cis -18 - henicosahexenyl; and wherein R 2 is selected from one of the following compounds: - ethylene polyoxide (-CH 2 CH 2 O-) n H, wherein n > 1 - propylene polyoxide (-CHCH 3 CH 2 O-) n H, wherein n > 1 - ethylene and propylene polyoxide (-CH 2 CH 2 O-) n (-CHCH 3 CH 2 O-) m H, wherein n + m > 1 - alkoxylated ethylene amine - ethylene polyoxide (-CH 2 CH 2 O-) n H, wherein n > 1 - propylene polyoxide (-CHCH 3 CH 2 O-) n H, wherein n > 1 - ethylene and propylene polyoxide (-CH 2 CH 2 O-) n (-CHCH 3 CH 2 O-) m H, wherein n + m > 1 - alkoxylated ethylene amine wherein x + y is a number between 0 and 100.
A method of regenerating an etch solution comprising a metastable complex of manganese ions in a strong acid, wherein at least a portion of the manganese ions have been destabilized, causing them to disproportionate into manganese dioxide and manganese ions, the method comprising the steps of: a. adding an effective amount of a reducing agent for the Mn of the manganese dioxide to the etch solution; b. allowing the reducing agent to react with the etch solution to cause the Mn in the manganese dioxide to be reduced to Mn and to dissolve; and c. applying an electrical current through an anode and a cathode in the etch solution to regenerate manganese ions in the etch solution from manganese ions. a. adding an effective amount of a reducing agent for the Mn of the manganese dioxide to the etch solution; b. allowing the reducing agent to react with the etch solution to cause the Mn in the manganese dioxide to be reduced to Mn and to dissolve; and c. applying an electrical current through an anode and a cathode in the etch solution to regenerate manganese ions in the etch solution from manganese ions.
A computer-implemented method, comprising: receiving (702, 712, 722) at a network access component of an application executed at a client device a network request from an application component of the application, the network request for access to a network resource; comparing (704, 714, 726), by the network access component, using a processor circuit, the network resource to a plurality of zero-rating rewrite rules stored in a data store of the client device to identify a zero-rating rewrite rule matching the network resource; transforming (706, 716, 728), by the network access component, the network request to a zero-rated network request for the network resource using the identified zero-rating rewrite rule; and performing (708, 718, 730), by the network access component, the zero-rated network request using a network interface controller, the zero-rated network request comprising requesting the network resource from a zero-rated network server without generating specific bandwidth charges to the client. receiving (702, 712, 722) at a network access component of an application executed at a client device a network request from an application component of the application, the network request for access to a network resource; comparing (704, 714, 726), by the network access component, using a processor circuit, the network resource to a plurality of zero-rating rewrite rules stored in a data store of the client device to identify a zero-rating rewrite rule matching the network resource; transforming (706, 716, 728), by the network access component, the network request to a zero-rated network request for the network resource using the identified zero-rating rewrite rule; and performing (708, 718, 730), by the network access component, the zero-rated network request using a network interface controller, the zero-rated network request comprising requesting the network resource from a zero-rated network server without generating specific bandwidth charges to the client.
Apparatus comprising: a combustion chamber wall enclosing a combustion chamber; and a heat exchanger integral with at least a portion of said combustion chamber wall; wherein the heat exchanger and the combustion chamber wall are formed together as one entity from a single body of material; wherein said heat exchanger transfers heat from a hot gas to a cold gas and comprises a plurality of hot gas conduits to direct hot gas along respective hot gas paths, and a plurality of cold gas conduits (14, 16, 20) to direct cold gas along respective cold gas paths, wherein a portion of said combustion chamber wall is porous and said cold gas passes from at least some of said cold gas conduits into said combustion chamber through porous openings in said combustion chamber wall; and wherein one or more of: (i) at least some of said cold gas conduits directly connect to respective inlet openings in said combustion chamber wall; (ii) at least some of said cold gas conduits directly connect to one or more cold gas plenums abutting said combustion chamber wall and plenum-inlet openings provide flow paths for said cold gas between respective ones of said one or more cold gas plenums and said combustion chamber. a combustion chamber wall enclosing a combustion chamber; and a heat exchanger integral with at least a portion of said combustion chamber wall; wherein the heat exchanger and the combustion chamber wall are formed together as one entity from a single body of material; wherein said heat exchanger transfers heat from a hot gas to a cold gas and comprises a plurality of hot gas conduits to direct hot gas along respective hot gas paths, and a plurality of cold gas conduits (14, 16, 20) to direct cold gas along respective cold gas paths, wherein a portion of said combustion chamber wall is porous and said cold gas passes from at least some of said cold gas conduits into said combustion chamber through porous openings in said combustion chamber wall; and wherein one or more of: (i) at least some of said cold gas conduits directly connect to respective inlet openings in said combustion chamber wall; (ii) at least some of said cold gas conduits directly connect to one or more cold gas plenums abutting said combustion chamber wall and plenum-inlet openings provide flow paths for said cold gas between respective ones of said one or more cold gas plenums and said combustion chamber. (i) at least some of said cold gas conduits directly connect to respective inlet openings in said combustion chamber wall; (ii) at least some of said cold gas conduits directly connect to one or more cold gas plenums abutting said combustion chamber wall and plenum-inlet openings provide flow paths for said cold gas between respective ones of said one or more cold gas plenums and said combustion chamber.
A high-voltage electrode arrangement for charging or discharging an object, in particular a moving material web, wherein the high-voltage electrode arrangement has the following: - a housing with an end face and side walls which are adjacent to the end face; - at least one electrode, which has an electrode body and an electrode tip, wherein the at least one electrode is arranged such that the electrode tip at the end face prestrudes at least partially beyond the end face of the housing of the high-voltage electrode arrangement, wherein the at least one electrode is completely surrounded by a replaceable insulating material in the area between the electrode tip and the electrode body, characterized in that the replaceable insulating material is arranged outside the housing of the high-voltage electrode arrangement, the electrode tip of the at least one electrode can be removed from the electrode body, and the replaceable insulating material and the electrode tip of the at least one electrode can be removed together. - a housing with an end face and side walls which are adjacent to the end face; - at least one electrode, which has an electrode body and an electrode tip, wherein the at least one electrode is arranged such that the electrode tip at the end face prestrudes at least partially beyond the end face of the housing of the high-voltage electrode arrangement, wherein the at least one electrode is completely surrounded by a replaceable insulating material in the area between the electrode tip and the electrode body, characterized in that the replaceable insulating material is arranged outside the housing of the high-voltage electrode arrangement, the electrode tip of the at least one electrode can be removed from the electrode body, and the replaceable insulating material and the electrode tip of the at least one electrode can be removed together.