Anomalous interaction of terawatt-picosecond laser pulses allows side-on ignition of solid state density fusion fuel with the unexpected possibility of igniting uncompressed hydrogen boron p-11B.
The chapter discusses the factors influencing ignition; the physical state of a fuel influences its ignition and combustion properties.
The same features of up to five steady-state multiplicities and up to two ignition and extinction states can be obtained by changing the flow strain rate.
During the evolution of solid-state ignition systems, there have been many modifications.
Solid-state ignition systems, unlike battery-and-coil systems that use a distributor, use an electronic module to collect information from engine sensors, compute engine operating parameters, and control ignition discharge to a separate coil for each spark plug.
Although these are similar in basic principle, the magneto is self-contained and requires only the spark plugs and connecting wires to complete the system, whereas the battery-and-coil and solid-state ignition systems involve several separate components.
This multiplicity is the result of combined thermokinetic and transport effects on the behavior of critical ignition and extinction states.
Flame stability was first analyzed to identify ignition and extinction states based on the eigenvalues of the Jacobian of the governing equations.
This study investigates experimentally and computationally the existence of mild oxidation regimes and multiple ignition and extinction states in a system of nonpremixed, counterflowing hydrogen against heated air.
It was found that the perturbations in reactions with large BI values have significant effects, while those with small BI values have minor effects, on the ignition and extinction states.
