case f == g:
		return 0, false
	}
	return 0, true // must be NaN
}

func testcmp(t *testing.T, f, g float64) {
	hcmp, hisnan := hwcmp(f, g)
	scmp, sisnan := Fcmp64(math.Float64bits(f), math.Float64bits(g))
	if int32(hcmp) != scmp || hisnan != sisnan {
		err(t, "cmp(%g, %g) = sw %v, %v, hw %v, %v\n", f, g, scmp, sisnan, hcmp, hisnan)
	}
}

func same(f, g float64) bool {
	if math.IsNaN(f) && math.IsNaN(g) {

	}.MustBuild()
)

func TestSchemas_Basic(t *testing.T) {
	g := NewWithT(t)

	schemas := collection.SchemasFor(emptyResource)
	g.Expect(schemas.All()).To(HaveLen(1))
	g.Expect(schemas.All()[0]).To(Equal(emptyResource))
}

func TestSchemas_MustAdd(t *testing.T) {
	g := NewWithT(t)
	defer func() {
		r := recover()
		g.Expect(r).To(BeNil())
	}()
	b := collection.NewSchemasBuilder()

			t.Errorf("Gamma(%g) = %g, want %g", vf[i], f, gamma[i])
		}
	}
	for _, g := range vfgamma {
		f := Gamma(g[0])
		var ok bool
		if IsNaN(g[1]) || IsInf(g[1], 0) || g[1] == 0 || f == 0 {
			ok = alike(g[1], f)
		} else if g[0] > -50 && g[0] <= 171 {
			ok = veryclose(g[1], f)
		} else {
			ok = close(g[1], f)
		}
		if !ok {
			t.Errorf("Gamma(%g) = %g, want %g", g[0], f, g[1])
		}

}

type Uint16 uint16

func (x Uint16) m(a, b, c, d, e, f, g, h byte) {
	check("Uint16", int64(x), 0x0102, a, b, c, d, e, f, g, h)
}

type Int32 int32

func (x Int32) m(a, b, c, d, e, f, g, h byte) {
	check("Int32", int64(x), 0x01020304, a, b, c, d, e, f, g, h)
}

type Uint32 uint32

func (x Uint32) m(a, b, c, d, e, f, g, h byte) {
	check("Uint32", int64(x), 0x01020304, a, b, c, d, e, f, g, h)
}

			if mass < trackMass {
				if ok {
					t.Errorf("approx(%g) = [%g, %g), but mass = %g", trackMass, l, u, mass)
				}
				if ok2 {
					t.Errorf("exact(%g) = %g, but mass = %g", trackMass, inv, mass)
				}
			} else {
				if !ok {
					t.Errorf("approx(%g) failed, but mass = %g", trackMass, mass)
				}
				if !ok2 {
					t.Errorf("exact(%g) failed, but mass = %g", trackMass, mass)
				}

	JMP	(R4)

// void mcall(fn func(*g))
// Switch to m->g0's stack, call fn(g).
// Fn must never return. It should gogo(&g->sched)
// to keep running g.
TEXT runtime·mcall(SB), NOSPLIT|NOFRAME, $0-8
	// Save caller state in g->sched
	MOVV	R29, (g_sched+gobuf_sp)(g)
	MOVV	R31, (g_sched+gobuf_pc)(g)
	MOVV	R0, (g_sched+gobuf_lr)(g)

	// Switch to m->g0 & its stack, call fn.
	MOVV	g, R1
	MOVV	g_m(g), R3
	MOVV	m_g0(R3), g

		} else {
			g.Expect(line).To(ContainSubstring(boilerplateLines[i-len(expected)]))
		}
	}
}

func expectNoMessages(t test.Failer, g *GomegaWithT, output []string) {
	t.Helper()
	g.Expect(output).To(HaveLen(1))
	g.Expect(output[0]).To(ContainSubstring("No validation issues found when analyzing"))
}

func expectJSONMessages(t test.Failer, g *GomegaWithT, output string, expected ...*diag.MessageType) {
	t.Helper()

	two[31] = 2

	// 0×G + 0×G = ∞
	x, y := p256.CombinedMult(gx, gy, zero, zero)
	if x.Sign() != 0 || y.Sign() != 0 {
		t.Errorf("0×G + 0×G = (%d, %d), should be ∞", x, y)
	}

	// 1×G + 0×G = G
	x, y = p256.CombinedMult(gx, gy, one, zero)
	if x.Cmp(gx) != 0 || y.Cmp(gy) != 0 {
		t.Errorf("1×G + 0×G = (%d, %d), should be (%d, %d)", x, y, gx, gy)
	}

	// 0×G + 1×G = G

}

// NRGBA represents a non-alpha-premultiplied 32-bit color.
type NRGBA struct {
	R, G, B, A uint8
}

func (c NRGBA) RGBA() (r, g, b, a uint32) {
	r = uint32(c.R)
	r |= r << 8
	r *= uint32(c.A)
	r /= 0xff
	g = uint32(c.G)
	g |= g << 8
	g *= uint32(c.A)
	g /= 0xff
	b = uint32(c.B)
	b |= b << 8
	b *= uint32(c.A)
	b /= 0xff
	a = uint32(c.A)
	a |= a << 8

	BR	(R6)

// void mcall(fn func(*g))
// Switch to m->g0's stack, call fn(g).
// Fn must never return.  It should gogo(&g->sched)
// to keep running g.
TEXT runtime·mcall(SB), NOSPLIT, $-8-8
	// Save caller state in g->sched
	MOVD	R15, (g_sched+gobuf_sp)(g)
	MOVD	LR, (g_sched+gobuf_pc)(g)
	MOVD	$0, (g_sched+gobuf_lr)(g)

	// Switch to m->g0 & its stack, call fn.
	MOVD	g, R3
	MOVD	g_m(g), R8
	MOVD	m_g0(R8), g