ptest.Target = ""
		// Note: The preparation of the vet config requires that common
		// indexes in ptest.Imports and ptest.Internal.RawImports
		// all line up (but RawImports can be shorter than the others).
		// That is, for 0 ≤ i < len(RawImports),
		// RawImports[i] is the import string in the program text, and
		// Imports[i] is the expanded import string (vendoring applied or relative path expanded away).

					}
				}
			}
		}
	}

	// Record non-identity import mappings in p.ImportMap.
	for _, p := range pkgs {
		nRaw := len(p.Internal.RawImports)
		for i, path := range p.Imports {
			var srcPath string
			if i < nRaw {
				srcPath = p.Internal.RawImports[i]
			} else {
				// This path is not within the raw imports, so it must be an import
				// found only within CompiledGoFiles. Those paths are found in

	p.Imports = make([]string, len(pp.Imports))
	copy(p.Imports, pp.Imports)
	p.Internal.RawImports = pp.Imports
	p.TestGoFiles = pp.TestGoFiles
	p.TestImports = pp.TestImports
	p.XTestGoFiles = pp.XTestGoFiles
	p.XTestImports = pp.XTestImports
	if opts.IgnoreImports {
		p.Imports = nil
		p.Internal.RawImports = nil
		p.TestImports = nil
		p.XTestImports = nil
	}
	p.EmbedPatterns = pp.EmbedPatterns

	// and the compiler falls back to looking in pkg itself, which mostly works,
	// except when it doesn't.
	var icfg bytes.Buffer
	fmt.Fprintf(&icfg, "# import config\n")
	for i, raw := range p.Internal.RawImports {
		final := p.Imports[i]
		if final != raw {
			fmt.Fprintf(&icfg, "importmap %s=%s\n", raw, final)
		}
	}
	for _, a1 := range a.Deps {
		p1 := a1.Package