Strike warfare describes the destruction or neutralization of enemy targets through the use of conventional or nuclear weapons. It centers on delivering decisive kinetic effects to degrade the opponent’s combat power, command and control, logistics, or critical systems. This includes actions like air strikes, missile attacks, and artillery bombardments aimed at specific targets to produce a strategic or operational impact. The other concepts focus on gathering information (intelligence), deploying or countering mines (mine warfare), or moving and maneuvering forces (mobility), rather than the deliberate application of weapon effects against targets. An example would be a precision strike against a hostile command post to disrupt coordination and overall warfighting capability.

Measuring fuel quantity through capacitance relies on sensors designed to detect changes in capacitance as the fuel level varies. Those sensors are the capacitance gauging transmitters. The signals they generate are then sent to and interpreted by the signal data computer, which converts the raw readings into actual fuel quantities. So this option best fits the process: capacitance gauging transmitters perform the measurement, and the signal data computer processes their readings to yield a quantity. The other approaches don’t measure via capacitance—float gauges rely on a floating mechanism, while infrared or optical sensors use different principles and aren’t the capacitance-based method used here.

The main idea is that FADEC provides full authority control of each engine and uses the throttle lever position as the input to determine engine operation. On the Growler, each engine has its own FADEC, which takes the throttle lever position as the pilot’s commanded thrust and translates it into precise fuel metering and engine speed targets (like N1). FADEC also handles ignition timing, start sequencing, transient response, and protective limits, so the throttle position directly governs engine performance through the FADEC rather than through manual, mechanical metering. This setup gives consistent, optimized engine response and safeguards the engine from overlimit conditions. The other statements don’t fit because FADEC is not about steering control, it’s not merely a passive sensor module, and it doesn’t manage fuel flow to wingtip devices. It is the active, engine-focused control unit that governs how much fuel the engine receives and how it responds to throttle input.

When the anti-icing system is activated, the FADEC (Full Authority Digital Engine Control) signals the anti-ice valves to open. FADEC is the central engine computer that manages bleed-air flow and valve positions based on the anti-ice demand and engine state, ensuring the right amount of bleed air reaches the surfaces needing protection. The valve actuation is coordinated automatically by this electronic control, not by the throttle lever, landing gear controller, or in-flight refueling system. Those other systems handle power, gear, and refueling tasks, respectively, while FADEC handles engine-related bleed-air management, including anti-ice.