Abstract: A fuel injector for a turbine engine includes a fuel scheduling valve configured for regulation of fuel flow from a fuel inlet, in response to fuel pressure received at the fuel inlet. Primary, secondary and auxiliary fuel circuits receive fuel from the scheduling valve, and an electrically-controlled valve is provided in fluid communication with the auxiliary circuit, which electrically-controlled valve is adapted and configured to actively control fuel through the auxiliary circuit in response to a control signal.

Abstract: A fuel injector for a turbine engine includes a fuel scheduling valve configured for regulation of fuel flow from a fuel inlet, in response to fuel pressure received at the fuel inlet. Primary, secondary and auxiliary fuel circuits receive fuel from the scheduling valve, and an electrically-controlled valve is provided in fluid communication with the auxiliary circuit, which electrically-controlled valve is adapted and configured to actively control fuel through the auxiliary circuit in response to a control signal.

Abstract: A fuel system can include a total flow line configured to receive a total flow and a primary flow line connected to the total flow line. The primary flow line can be in fluid communication with one or more primary fuel nozzles of a nozzle assembly. The fuel system can include a secondary flow line connected to the total flow line in parallel with the primary flow line, the secondary flow line in fluid communication with a plurality of secondary flow nozzles of the nozzle assembly. The fuel system can include a flow split system configured to control a flow split between a primary flow of the primary flow line and a secondary flow of the secondary flow line.

Abstract: Technology related to obfuscating programs using different instruction set architectures is disclosed. In one example, a method includes receiving a program implemented as a set of ordered instructions. Each instruction of the set of ordered instructions has a type specified by a first instruction set architecture (ISA). A subgroup of instructions is selected from the set of ordered instructions. A new instruction type is generated to perform the operations of the subgroup of consecutive instructions. The new instruction type is added to a second ISA. An updated program is generated by replacing the subgroup of instructions with a new instruction of the generated new instruction type. An interpreter for executing programs using the second ISA is generated. In response to a request for the program, the updated program and the interpreter is sent.

Abstract: A fuel system can include a total flow line configured to receive a total flow and a primary flow line connected to the total flow line. The primary flow line can be in fluid communication with one or more primary fuel nozzles of a nozzle assembly. The fuel system can include a secondary flow line connected to the total flow line in parallel with the primary flow line, the secondary flow line in fluid communication with a plurality of secondary flow nozzles of the nozzle assembly. The fuel system can include a flow split system configured to control a flow split between a primary flow of the primary flow line and a secondary flow of the secondary flow line.

Abstract: A fuel system can include a total flow line configured to receive a total flow and a primary flow line connected to the total flow line. The primary flow line can be in fluid communication with one or more primary fuel nozzles of a nozzle assembly. The fuel system can include a secondary flow line connected to the total flow line in parallel with the primary flow line, the secondary flow line in fluid communication with a plurality of secondary flow nozzles of the nozzle assembly. The fuel system can include a flow split system configured to control a flow split between a primary flow of the primary flow line and a secondary flow of the secondary flow line.

Abstract: Programs written in interpreted languages, such as JavaScript, are distributed in source form, which is helpful to attackers so that they can more easily derive the purposes and effects of a program. As discussed herein, a program's high-level code may be effectively obfuscated by transforming the program's code from its high-level programming language to low-level processor-specific language, such as x86 instructions for x86 processors, JVM bytecode for JVMs, or proprietary opcodes for a corresponding proprietary processor or interpreter. Additional obfuscation techniques can be applied the program's low-level processor-specific code.

Abstract: Techniques are provided for determining environment parameter values based on rendered emoji analysis, A server computer provides a first set of code that, when executed by a browser application at a client computing device, renders a set of emoji at the client computing device, generates a set of rendered graphic data for the set of emoji at the client computing device, and transmits the set of rendered graphic data for each emoji of the set of emoji from the client computing device to the server computer. The server computer receives the rendered graphic data generated at the client computing device, Based on the set of rendered graphic data for the set of emoji generated at the client computing device, the server computer determines a set values for one or more environment parameters of the client computing device.

Abstract: A fuel system can include a total flow line configured to receive a total flow and a primary flow line connected to the total flow line. The primary flow line can be in fluid communication with one or more primary fuel nozzles of a nozzle assembly. The fuel system can include a secondary flow line connected to the total flow line in parallel with the primary flow line, the secondary flow line in fluid communication with a plurality of secondary flow nozzles of the nozzle assembly. The fuel system can include a flow split system configured to control a flow split between a primary flow of the primary flow line and a secondary flow of the secondary flow line.

Abstract: In an embodiment, a computer system configured to improve security of client computer interacting with server computers comprises one or more processors; a digital electronic memory storing a set of program instructions which when executed using the one or more processors cause the one or more processors to: process a first set of original instructions that produce a first set of outputs or effects; generate a first set of interpreter instructions that define a first interpreter; generate a first set of alternate instructions from the first set of original instructions, wherein the first set of alternate instructions is functionally equivalent to the first set of original instructions when the first set of alternate instructions is executed by the first interpreter; send, to the first client computer, the first set of alternate instructions and the first set of interpreter instructions.

Abstract: Computer modules with small thicknesses and associated methods of manufacturing are disclosed. In one embodiment, the computer modules can include a module substrate having a module material and an aperture extending at least partially into the module material. The computer modules can also include a microelectronic package carried by the module substrate. The microelectronic package includes a semiconductor die carried by a package substrate. At least a portion of the semiconductor die extends into the substrate material via the aperture.

Abstract: Computer modules with small thicknesses and associated methods of manufacturing are disclosed. In one embodiment, the computer modules can include a module substrate having a module material and an aperture extending at least partially into the module material. The computer modules can also include a microelectronic package carried by the module substrate. The microelectronic package includes a semiconductor die carried by a package substrate. At least a portion of the semiconductor die extends into the substrate material via the aperture.

Abstract: A shut-off valve system includes a tank having an inlet and an outlet with a flow path defined therebetween. A float within the tank occludes the tank outlet at a first fluid level under positive G forces and unoccludes the tank outlet at a second fluid level under positive G forces. A flow restricting orifice and/or a hydraulic fuse is downstream of float and tank outlet to restrict fluid communication between tank outlet and an ejector pump. A method for restricting flow in an ecology fuel return system includes recovering fuel from engine components, communicating the fuel to an inlet of a fuel tank, pumping the fuel from an outlet of fuel tank to an inlet of an engine when a float within tank unoccludes the outlet of the fuel tank, and restricting fluid flow from tank outlet to an ejector pump with a flow restricting orifice and/or a hydraulic fuse.

Abstract: Computer modules with small thicknesses and associated methods of manufacturing are disclosed. In one embodiment, the computer modules can include a module substrate having a module material and an aperture extending at least partially into the module material. The computer modules can also include a microelectronic package carried by the module substrate. The microelectronic package includes a semiconductor die carried by a package substrate. At least a portion of the semiconductor die extends into the substrate material via the aperture.

Abstract: A system and method for the calculation of a fuel lacquer index using environmental monitoring is disclosed. The system and method may comprise: capturing a fuel temperature data; determining a fuel quality rating; calculating a volumetric fuel flow; calculating a fuel filter differential pressure; and calculating a fuel lacquer index. The fuel lacquer index may be calculated as a percentage value based upon the fuel temperature data, the fuel quality rating, the volumetric fuel flow, and the fuel filter differential pressure.

Abstract: A shut-off valve includes a float and a negative G control component. The float is configured to occlude a tank outlet at a first fluid level and 1 G and unocclude the tank outlet at a second fluid level and 1 G. The negative G control component is operatively connected to the float to limit fluid, e.g. liquid or gas, communication between a tank outlet and an ejector pump during negative G events. An ecology fuel return system includes a tank, an ejector pump, a float, and a negative G control component, as described above. The tank has an inlet and an outlet. The inlet is configured to be in fluid communication with components of an engine. The ejector pump is in fluid communication with the tank outlet and is configured to pump fuel from the tank to a fuel pump inlet of an engine.

Abstract: An ecology system includes an ecology tank, a check valve, a shutoff valve, and an ejector pump. The check valve is fluidly connected to the ecology tank and is configured to allow flow from the ecology tank. The shutoff valve is fluidly connected to the check valve, and the ejector pump is fluidly connected to the shutoff valve. The ejector pump is configured to draw fuel from the ecology tank when the shutoff valve is in an open configuration.

Abstract: A shut-off valve includes a float and a negative G control component. The float is configured to occlude a tank outlet at a first fluid level and 1 G and unocclude the tank outlet at a second fluid level and 1 G. The negative G control component is operatively connected to the float to limit fluid, e.g. liquid or gas, communication between a tank outlet and an ejector pump during negative G events. An ecology fuel return system includes a tank, an ejector pump, a float, and a negative G control component, as described above. The tank has an inlet and an outlet. The inlet is configured to be in fluid communication with components of an engine. The ejector pump is in fluid communication with the tank outlet and is configured to pump fuel from the tank to a fuel pump inlet of an engine.

Abstract: Programs written in interpreted languages, such as JavaScript, are distributed in source form, which is helpful to attackers so that they can more easily derive the purposes and effects of a program. As discussed herein, a program's high-level code may be effectively obfuscated by transforming the program's code from its high-level programming language to low-level processor-specific language, such as x86 instructions for x86 processors, JVM bytecode for JVMs, or proprietary opcodes for a corresponding proprietary processor or interpreter. Additional obfuscation techniques can be applied the program's low-level processor-specific code.

Abstract: A monitored anode apparatus is provided. The apparatus includes a metal body having an exterior and a core, and a plurality of electrically conductive probes passing through the exterior and disposed at respective depths within the core. At least one of the plurality of conductive probes is disposed at a first depth, and at least one of the plurality of conductive probes is disposed at a second depth greater than the first depth. A bonding conductor is in electrical communication with the body and configured to create electrical continuity between the body and a protected structure. The metal body is configured as a galvanic anode, and at least one of the plurality of probes is configured to break electrical conductivity with the body upon galvanic consumption thereof.