? window : global).PopperUtils;\n\n  static placements = placements;\n\n  static Defaults = Defaults;\n}\n\n/**\n * The `referenceObject` is an object that provides an interface compatible with Popper.js\n * and lets you use it as replacement of a real DOM node.<br />\n * You can use this method to position a popper relatively to a set of coordinates\n * in case you don't have a DOM node to use as reference.\n *\n * ```\n * new Popper(referenceObject, popperNode);\n * ```\n *\n * NB: This feature...

// the source file, but most processing should be over the vendor-resolved
// import paths. We do this resolution lazily both to avoid file system work
// and because the eventual real load of the test imports (during 'go test')
// can produce better error messages if it starts with the original paths.
// The initial load of p loads all the non-test imports and rewrites

// It panics if v's Kind is not [Complex64] or [Complex128].
func (v Value) OverflowComplex(x complex128) bool {
	k := v.kind()
	switch k {
	case Complex64:
		return overflowFloat32(real(x)) || overflowFloat32(imag(x))
	case Complex128:
		return false
	}
	panic(&ValueError{"reflect.Value.OverflowComplex", v.kind()})
}

                //
                // Debuggability heuristics:
                // 1. Names that end in digits are likely to be internal aliases
                // to the "real" names.
                // 2. Longer names are more likely to be internal aliases.
                //
                // Example set of object names created by Keras for the weight

		assert.Equal(t, containerID, fakeCommandRunner.ContainerID, "(testError=%v) ID", testError)
		assert.Equal(t, cmd, fakeCommandRunner.Cmd, "(testError=%v) command", testError)
		// this isn't 100% foolproof as a bug in a real CommandRunner where it fails to copy to stdout/stderr wouldn't be caught by this test
		assert.Equal(t, "foo", string(actualOutput), "(testError=%v) output", testError)
		assert.Equal(t, err, testError, "(testError=%v) err", testError)

func isJump(p *obj.Prog) bool {
	return p.To.Target() != nil || p.As == obj.AJMP || p.As == obj.ACALL ||
		p.As == obj.ARET || p.As == obj.ADUFFCOPY || p.As == obj.ADUFFZERO
}

// lookForJCC returns the first real instruction starting from p, if that instruction is a conditional
// jump. Otherwise, nil is returned.
func lookForJCC(p *obj.Prog) *obj.Prog {
	// Skip any PCDATA, FUNCDATA or NOP instructions
	var q *obj.Prog

			}
		}
	}), func(ts *httptest.Server) {
		ts.Config.ErrorLog = log.New(io.Discard, "", 0)
	}).ts

	// Connect an idle TCP connection to this server before we run
	// our real tests. This idle connection used to block forever
	// in the TLS handshake, preventing future connections from
	// being accepted. It may prevent future accidental blocking
	// in newConn.

      "properties": {
        "path": {
          "description": "Path of the directory on the host. If the path is a symlink, it will follow the link to the real path. More info: https://kubernetes.io/docs/concepts/storage/volumes#hostpath",
          "type": "string"
        },
        "type": {

// an interface requires dereferencing the itab word, the misinterpretation will try to
// deference Inner.P1, causing a crash during garbage collection.
//
// This came up in a real program in issue 7725.

type Outer struct {
	*Inner
	R io.Reader
}

type Inner struct {
	X  *Outer
	P1 uintptr
	P2 uintptr
}

func (pi *Inner) M() {

Length of the Rectilinear Sides of the Spectrum would be the whole Length of all the Colours, were the Circles of which (as we shewed) that Spectrum consists contracted and reduced to Physical Points, so in that Case this corrected distance would be the real distance of the two observed Colours. When therefore I farther observed the deepest sensible red, and that blue whose corrected distance from it was 7/12 Parts of the Length of the Rectilinear Sides of the Spectrum, the difference of the distances...