Regime
The strong-shock limit — the ambient pressure is negligible
Every figure drawn under this hypothesis — 38 of them — with the essay each one belongs to and the generator that drew it.
38 figure placements state this regime. The strip along the foot of every figure names two things — the model that produced it and the regime it holds in — and this listing is read back out of the finished drawing rather than from what produced it.
- A hypersonic body leaves a line explosion behind it — strong shock, γ = 1.4, at every slice behind the nose · nonlinear-wave
- A radius that gives the energy away — γ = 1.4, strong shock — the exponent is fitted, not assumed · nonlinear-wave · hero
- A radius that gives the energy away — the strong-shock limit — the ambient pressure would add a second group · nonlinear-wave
- A radius that gives the energy away — γ = 1.4, strong shock — the ambient pressure is neglected · nonlinear-wave
- A radius that gives the energy away — γ = 1.4, strong shock — the exponent is fitted, not assumed · nonlinear-wave
- A radius that gives the energy away — γ = 1.4 — the strong-shock limit, so the late times are outside it too · nonlinear-wave
- A radius that gives the energy away — γ = 1.2, strong shock — the ambient pressure is neglected · nonlinear-wave
- A radius that gives the energy away — γ = 1.2, strong shock — the exponent is fitted, not assumed · nonlinear-wave
- A radius that gives the energy away — γ = 1.2 — the strong-shock limit, so the late times are outside it too · nonlinear-wave
- A radius that gives the energy away — ρ₀ = 1.2 kg/m³, C = 1.033 — the strong-shock limit, and only while it holds · nonlinear-wave
- An exponent dimensions cannot give — a strong shock converging on an axis or a point — inviscid, γ from 1.1 to 2 · regime-collapse · hero
- An exponent dimensions cannot give — a strong shock converging on an axis or a point — inviscid, γ stated · regime-collapse
- An exponent dimensions cannot give — a strong shock converging on an axis or a point — inviscid, γ from 1.1 to 2 · regime-collapse
- An exponent dimensions cannot give — a strong shock converging on a point — inviscid, γ = 1.4 · regime-collapse
- An exponent dimensions cannot give — a strong shock converging on a point — inviscid, γ = 1.4 · regime-collapse
- An exponent dimensions cannot give — a strong shock converging on a point — inviscid, γ = 1.4 · regime-collapse
- An exponent dimensions cannot give — a strong shock converging on a point — inviscid, γ = 1.4 · regime-collapse
- An exponent dimensions cannot give — a strong shock converging on a point — inviscid, γ = 1.4 · regime-collapse
- An exponent dimensions cannot give — a strong shock converging on an axis or a point — inviscid · regime-collapse
- The fireball is hollow — a strong shock: ambient pressure negligible; perfect gas · nonlinear-wave · hero
- The fireball is hollow — a strong shock: ambient pressure negligible; perfect gas · nonlinear-wave
- The fireball is hollow — a strong shock: ambient pressure negligible; perfect gas · nonlinear-wave
- The fireball is hollow — a strong shock: ambient pressure negligible; perfect gas · nonlinear-wave
- The fireball is hollow — a strong shock: ambient pressure negligible; perfect gas · nonlinear-wave
- The fireball is hollow — a strong shock: ambient pressure negligible; perfect gas · nonlinear-wave
- The fireball is hollow — a strong shock: ambient pressure negligible; perfect gas · nonlinear-wave
- The only theory simple enough to optimise — hypersonic — the rule is the strong-shock limit and is used as one · newtonian-lift · hero
- The only theory simple enough to optimise — hypersonic — the rule is the strong-shock limit and is used as one · newtonian-lift
- The only theory simple enough to optimise — hypersonic — the rule is the strong-shock limit and is used as one · newtonian-lift
- The only theory simple enough to optimise — hypersonic — the rule is the strong-shock limit and is used as one · newtonian-lift
- The only theory simple enough to optimise — hypersonic — the rule is the strong-shock limit and is used as one · newtonian-lift
- The shock layer is Hill's vortex, and it heats the nose a tenth harder than Newton says — the strong-shock limit; density ratio ε as dialled · hot-gas · hero
- The shock layer is Hill's vortex, and it heats the nose a tenth harder than Newton says — the strong-shock limit; density ratio ε as dialled · hot-gas
- The shock layer is Hill's vortex, and it heats the nose a tenth harder than Newton says — the strong-shock limit, Mach number large; density ratio ε across the shock from 0.05 to 0.3 · hot-gas
- The shock layer is Hill's vortex, and it heats the nose a tenth harder than Newton says — the strong-shock limit, Mach number large; density ratio ε across the shock from 0.05 to 0.3 · hot-gas
- The shock layer is Hill's vortex, and it heats the nose a tenth harder than Newton says — the strong-shock limit, ε = 1/6 (a perfect gas, γ = 1.4) · hot-gas
- The shock layer is Hill's vortex, and it heats the nose a tenth harder than Newton says — the strong-shock limit, Mach number large; density ratio ε across the shock from 0.05 to 0.3 · hot-gas
- The shock layer is Hill's vortex, and it heats the nose a tenth harder than Newton says — the strong-shock limit, Mach number large; density ratio ε across the shock from 0.05 to 0.3 · hot-gas