mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing a thin film composite membrane, comprising: (a) preparing an aqueous phase comprising a polyamine, and an organic phase comprising a polyfunctional acid halide, wherein the aqueous phase or organic phase or both further include a flux enhancing inclusion complex; (b) applying the aqueous phase to a surface of a porous support membrane to form a coated support membrane; and (c) applying the organic phase to the coated support membrane and interfacially polymerizing the polyamine and the polyfunctional acid halide to form a discrimination layer of a thin film composite membrane comprising the porous support membrane and the discrimination layer, the thin film composite membrane having a water flux that is greater than the water flux of a thin film composite membrane prepared in the absence of the flux enhancing inclusion complex, wherein the membrane exhibits a water flux of at least 51 L/m 2 /hr (30 gfd) when the membrane is exposed to deionized water containing 32,000 ppm NaCl at a temperature of 25°C and a pressure of 5515 kPa (800 psi) and, wherein the flux enhancing inclusion complex is characterized by comprising: a host component having a cavity; and a guest component within the cavity, wherein the guest component includes a metal chelate containing a metal atom or metal ion, and a bidentate ligand, and the host component comprises a crown ether. (a) preparing an aqueous phase comprising a polyamine, and an organic phase comprising a polyfunctional acid halide, wherein the aqueous phase or organic phase or both further include a flux enhancing inclusion complex; (b) applying the aqueous phase to a surface of a porous support membrane to form a coated support membrane; and (c) applying the organic phase to the coated support membrane and interfacially polymerizing the polyamine and the polyfunctional acid halide to form a discrimination layer of a thin film composite membrane comprising the porous support membrane and the discrimination layer, the thin film composite membrane having a water flux that is greater than the water flux of a thin film composite membrane prepared in the absence of the flux enhancing inclusion complex, wherein the membrane exhibits a water flux of at least 51 L/m 2 /hr (30 gfd) when the membrane is exposed to deionized water containing 32,000 ppm NaCl at a temperature of 25°C and a pressure of 5515 kPa (800 psi) and, wherein the flux enhancing inclusion complex is characterized by comprising: a host component having a cavity; and a guest component within the cavity, wherein the guest component includes a metal chelate containing a metal atom or metal ion, and a bidentate ligand, and the host component comprises a crown ether. a host component having a cavity; and a guest component within the cavity, wherein the guest component includes a metal chelate containing a metal atom or metal ion, and a bidentate ligand, and the host component comprises a crown ether.
A vehicle projection system comprising: a first projector positioned adjacent to a first portion of a ceiling of a vehicle, wherein the vehicle comprises an aircraft having a cabin; wherein the first projector includes a first lens and is configured to project a first image on the first portion of the ceiling, characterized in that the first projector is disposed on a first curtain header in the cabin, the curtain header being configured to separate portions of the cabin, and being arranged such that a curtain may be connected to it to selectively separate the portions of the cabin, and wherein the first projector is partially hidden in the curtain header such that only the first lens is visible. a first projector positioned adjacent to a first portion of a ceiling of a vehicle, wherein the vehicle comprises an aircraft having a cabin; wherein the first projector includes a first lens and is configured to project a first image on the first portion of the ceiling, characterized in that the first projector is disposed on a first curtain header in the cabin, the curtain header being configured to separate portions of the cabin, and being arranged such that a curtain may be connected to it to selectively separate the portions of the cabin, and wherein the first projector is partially hidden in the curtain header such that only the first lens is visible.
A method comprising: providing a coating composition comprising: at least 5% of an unsaturated binder polymer having an iodine value of at least 10 as determined according to ASTM D 5768-02 (Reapproved 2006), based on the total weight of nonvolatile material in the coating composition, an ether component including one or more ether groups, and a liquid carrier; applying the coating composition to at least a portion of a planar metal substrate; and heating the coated metal substrate to a peak metal temperature of at least 350°F (177°C) to form a crosslinked coating, wherein the unsaturated binder polymer is obtainable by reacting the one or more hydroxyl groups of a hydroxyl-functional (poly)alkene compound with isocyanate groups present on the binder polymer, and the hydroxyl-functional (poly)alkene compound is a hydroxylated polybutadiene. providing a coating composition comprising: at least 5% of an unsaturated binder polymer having an iodine value of at least 10 as determined according to ASTM D 5768-02 (Reapproved 2006), based on the total weight of nonvolatile material in the coating composition, an ether component including one or more ether groups, and a liquid carrier; at least 5% of an unsaturated binder polymer having an iodine value of at least 10 as determined according to ASTM D 5768-02 (Reapproved 2006), based on the total weight of nonvolatile material in the coating composition, an ether component including one or more ether groups, and a liquid carrier; applying the coating composition to at least a portion of a planar metal substrate; and heating the coated metal substrate to a peak metal temperature of at least 350°F (177°C) to form a crosslinked coating, wherein the unsaturated binder polymer is obtainable by reacting the one or more hydroxyl groups of a hydroxyl-functional (poly)alkene compound with isocyanate groups present on the binder polymer, and the hydroxyl-functional (poly)alkene compound is a hydroxylated polybutadiene.
A Coriolis flowmeter comprising: flow tube means (101, 102, 201) adapted to receive a material flow from a flowmeter inlet and to extend said material flow through said flow tube means to a flowmeter outlet; a driver for vibrating said flow tube means; pick off means (LPO, RPO) coupled to said flow tube means for generating output signals representing Coriolis deflections of said vibrating flow tube means with material flow; means responsive to said output signals generated by said pick offs for generating output information pertaining to said material flow; and characterized in that said flow tube means is a single integral plastic injection molded element which defines a plastics wetted material flow path that extends through the entirety of the length of said flow tube means; said wetted material flow path further includes flow tube stubs formed of a plastics material (217A, 217B) each having a first end connected to ends of said flow tube means; a first one of said flow tube stubs has a second end adapted to receive said material flow; a second one of said flow tube stubs has a second end adapted to discharge said material flow. flow tube means (101, 102, 201) adapted to receive a material flow from a flowmeter inlet and to extend said material flow through said flow tube means to a flowmeter outlet; a driver for vibrating said flow tube means; pick off means (LPO, RPO) coupled to said flow tube means for generating output signals representing Coriolis deflections of said vibrating flow tube means with material flow; means responsive to said output signals generated by said pick offs for generating output information pertaining to said material flow; and characterized in that said flow tube means is a single integral plastic injection molded element which defines a plastics wetted material flow path that extends through the entirety of the length of said flow tube means; said wetted material flow path further includes flow tube stubs formed of a plastics material (217A, 217B) each having a first end connected to ends of said flow tube means; a first one of said flow tube stubs has a second end adapted to receive said material flow; a second one of said flow tube stubs has a second end adapted to discharge said material flow.
A piezoelectric material, comprising: a perovskite-type metal oxide having the following general formula; (Na x Ba 1-y) (Nb y Ti 1-y)O 3 (wherein x satisfies 0.80 ≤ x ≤ 0.95, and y satisfies 0.85 ≤ y ≤ 0.95), and characterized by having additionally at least one rare-earth element selected from La,Pr, Nd, Pm, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, and Lu, wherein the rare-earth element content is more than 0,25 mol% and 5 mol % or less of the amount of perovskite-type metal oxide.
Mixing plant for mixing several components in a predetermined mixing ratio to form a mixture, comprising a) a change valve arrangement with several inlets each with an individually controllable inlet valve for supplying the components to be mixed and a common outlet for discharging the components to be mixed, and b) a metering cylinder (8; 8.1, 8.2) at the outlet of the change valve arrangement, wherein the metering cylinder (8; 8.1, 8.2) has a displaceable metering piston (9; 9.1, 9.2), and the components to be mixed are each fed in accordance with the piston movement of the metering piston (9; 9. 1, 9.2) with a defined filling quantity from the outlet of the change valve arrangement and combines them in the metering cylinder (8; 8.1, 8.2) in order to set the predetermined mixing ratio, characterized by c) a controllable flushing agent valve (15; 15.1, 15.2) for feeding flushing agent into the metering cylinder (8; 8.1, 8.2). a) a change valve arrangement with several inlets each with an individually controllable inlet valve for supplying the components to be mixed and a common outlet for discharging the components to be mixed, and b) a metering cylinder (8; 8.1, 8.2) at the outlet of the change valve arrangement, wherein the metering cylinder (8; 8.1, 8.2) has a displaceable metering piston (9; 9.1, 9.2), and the components to be mixed are each fed in accordance with the piston movement of the metering piston (9; 9. 1, 9.2) with a defined filling quantity from the outlet of the change valve arrangement and combines them in the metering cylinder (8; 8.1, 8.2) in order to set the predetermined mixing ratio, c) a controllable flushing agent valve (15; 15.1, 15.2) for feeding flushing agent into the metering cylinder (8; 8.1, 8.2).
An element substrate comprising: a plurality of printing elements configured to generate energy to be used to discharge liquid; and a delay circuit configured to delay a heat enable signal to be used to drive the printing elements; wherein the delay circuit includes: a first delay buffer group formed by series-connecting a plurality of buffer circuits in which the heat enable signal is transferred while being delayed by the plurality of buffer circuits; a second delay buffer group formed by series-connecting a plurality of buffer circuits in which the heat enable signal is transferred while being delayed by the plurality of buffer circuits in a direction different from an arrayed direction of the plurality of buffer circuits of the first delay buffer group; and characterised in that the delay circuit further includes a switchover circuit configured to switch over, in accordance with a control signal, a delay sequence in a case of using the heat enable signal to drive each of the plurality of printing elements by switching over between the first delay buffer group and the second delay buffer group in accordance with the control signal. a plurality of printing elements configured to generate energy to be used to discharge liquid; and a delay circuit configured to delay a heat enable signal to be used to drive the printing elements; wherein the delay circuit includes: a first delay buffer group formed by series-connecting a plurality of buffer circuits in which the heat enable signal is transferred while being delayed by the plurality of buffer circuits; a second delay buffer group formed by series-connecting a plurality of buffer circuits in which the heat enable signal is transferred while being delayed by the plurality of buffer circuits in a direction different from an arrayed direction of the plurality of buffer circuits of the first delay buffer group; and characterised in that the delay circuit further includes a switchover circuit configured to switch over, in accordance with a control signal, a delay sequence in a case of using the heat enable signal to drive each of the plurality of printing elements by switching over between the first delay buffer group and the second delay buffer group in accordance with the control signal. a first delay buffer group formed by series-connecting a plurality of buffer circuits in which the heat enable signal is transferred while being delayed by the plurality of buffer circuits; a second delay buffer group formed by series-connecting a plurality of buffer circuits in which the heat enable signal is transferred while being delayed by the plurality of buffer circuits in a direction different from an arrayed direction of the plurality of buffer circuits of the first delay buffer group; and characterised in that the delay circuit further includes a switchover circuit configured to switch over, in accordance with a control signal, a delay sequence in a case of using the heat enable signal to drive each of the plurality of printing elements by switching over between the first delay buffer group and the second delay buffer group in accordance with the control signal.
A method of operating an analyte measurement device having a display, user interface, processor and user interface buttons (7, 8, 9) including user interface scroll buttons (8, 9) and an OK button, the method comprising; measuring an analyte with the analyte measurement device; displaying a value representative of the analyte; and characterized in activating only one of the user interface scroll buttons (8, 9) once to provide a display of a plurality of user selectable meal flags (62, 64) after the displaying of the value; selecting one of the plurality of user selectable meal flags using said one of the user interface scroll buttons (8, 9); and associating the selected meal flag (62, 64) with the representative value of the analyte using said OK button.
An integrally blow-moulded bag-in-container suitable for dispensing a liquid contained in an inner bag by squeezing it upon control of the pressure in the region between the inner bag and the outer container, said bag-in-container comprising the same polymer in contact on either side of the interface between the inner bag and the outer container 22.
A method of forming a solid film on a lubricated surface comprising: placing a lubricant in a contact region defined by two surfaces in proximity, said lubricant comprising metal oxide nanocrystals that are at least partially capped with a capping agent, forming the solid film in the contact region defined by the two surfaces in proximity by sliding and/or rolling the two surfaces in proximity so as to produce pressure and/or shear stress on the lubricated surface sufficient to remove the capping agents from the nanocrystals and thereby cause the nanocrystals to bind with each other and to at least one of the two surfaces in proximity to form a solid film of bound metal oxide nanocrystals in the contact region which is adhered to the at least one of the two surfaces in proximity in said contact region. placing a lubricant in a contact region defined by two surfaces in proximity, said lubricant comprising metal oxide nanocrystals that are at least partially capped with a capping agent, forming the solid film in the contact region defined by the two surfaces in proximity by sliding and/or rolling the two surfaces in proximity so as to produce pressure and/or shear stress on the lubricated surface sufficient to remove the capping agents from the nanocrystals and thereby cause the nanocrystals to bind with each other and to at least one of the two surfaces in proximity to form a solid film of bound metal oxide nanocrystals in the contact region which is adhered to the at least one of the two surfaces in proximity in said contact region.
A method for calling a traditional circuit switched domain network user by a packet core network which takes a Session Initiation Protocol as a call control signalling, characterized in that, the method comprises: after receiving at a media gateway control unit a request message sent from a call session control unit, sending, by the media gateway control unit, to the call session control unit a first call progress message which carries a preset prompt tone indicating please wait; sending, by the media gateway control unit, an initial address message to a traditional circuit switched domain network and starting a preset timer; and when the timer goes beyond a preset time and the traditional circuit switched domain network does not respond, sending, by the media gateway control unit, to the call session control unit a second call progress message which carries a preset prompt tone indicating that the traditional circuit switched domain network user can not be connected for the moment, and performing processing by the media gateway control unit according to a preset policy. after receiving at a media gateway control unit a request message sent from a call session control unit, sending, by the media gateway control unit, to the call session control unit a first call progress message which carries a preset prompt tone indicating please wait; sending, by the media gateway control unit, an initial address message to a traditional circuit switched domain network and starting a preset timer; and when the timer goes beyond a preset time and the traditional circuit switched domain network does not respond, sending, by the media gateway control unit, to the call session control unit a second call progress message which carries a preset prompt tone indicating that the traditional circuit switched domain network user can not be connected for the moment, and performing processing by the media gateway control unit according to a preset policy.
A method of collecting runtime virtual machine nondeterministic state, the runtime virtual machine being a virtual machine that is configured to execute an application by compiling bytecode into native machine code, the virtual machine nondeterministic state being for use in emulation of the application, the method comprising: identifying application bytecode for which runtime virtual machine nondeterministic state is to be collected; executing native machine code generated from the bytecode causing state of the runtime virtual machine to change; capturing one or more snapshots of states of the runtime virtual machine; wherein executing the native machine code generated from the bytecode further generates the runtime virtual machine nondeterministic state; collecting the runtime virtual machine nondeterministic state; storing the snapshots and the runtime virtual machine nondeterministic state, and emulating execution of the application using an emulator which emulates the runtime virtual machine, wherein emulation is started from a snapshot and proceeds from the snapshot up until runtime virtual machine nondeterministic state is needed; and iteratively emulating execution from the snapshot toward the endpoint, wherein each iteration of emulated execution emulates execution of progressively smaller portions of the application; wherein the emulator comprises a secondary diagnostic virtual machine configured to emulate the runtime virtual machine. identifying application bytecode for which runtime virtual machine nondeterministic state is to be collected; executing native machine code generated from the bytecode causing state of the runtime virtual machine to change; capturing one or more snapshots of states of the runtime virtual machine; wherein executing the native machine code generated from the bytecode further generates the runtime virtual machine nondeterministic state; collecting the runtime virtual machine nondeterministic state; storing the snapshots and the runtime virtual machine nondeterministic state, and emulating execution of the application using an emulator which emulates the runtime virtual machine, wherein emulation is started from a snapshot and proceeds from the snapshot up until runtime virtual machine nondeterministic state is needed; and iteratively emulating execution from the snapshot toward the endpoint, wherein each iteration of emulated execution emulates execution of progressively smaller portions of the application; wherein the emulator comprises a secondary diagnostic virtual machine configured to emulate the runtime virtual machine.
A milling tool having a main body to which cutting inserts (3, 4) are fastened, each having at least one cutting edge (5, 6), characterised in that the cutting edges (5, 6) as a whole describe a barrel shape, wherein a first group of cutting inserts is arranged on a flat end face of the main body and a second group of cutting inserts is arranged on a barrel-shaped curved outer surface of the main body.
An autonomous driving vehicle configured to receive from a remote commander a remote instruction relating to travel of the autonomous driving vehicle based on sensor information from an external sensor of the autonomous driving vehicle, the autonomous driving vehicle comprising: an external sensor configured to detect an external environment of the autonomous driving vehicle; characterised by further comprising: a transmission information limitation unit configured to set a range of information to be transmitted to the remote commander among sensor information detected by the external sensor, as a limited information range, based on a trajectory of the autonomous driving vehicle and either the external environment or an external situation obtained based on map information. an external sensor configured to detect an external environment of the autonomous driving vehicle; characterised by further comprising: a transmission information limitation unit configured to set a range of information to be transmitted to the remote commander among sensor information detected by the external sensor, as a limited information range, based on a trajectory of the autonomous driving vehicle and either the external environment or an external situation obtained based on map information.