import org.gradle.declarative.dsl.schema.SchemaMemberFunction
import org.gradle.internal.declarativedsl.analysis.FunctionCallResolver.FunctionResolutionAndBinding
import org.gradle.internal.declarativedsl.language.Expr
import org.gradle.internal.declarativedsl.language.FunctionArgument
import org.gradle.internal.declarativedsl.language.FunctionCall
import org.gradle.internal.declarativedsl.language.PropertyAccess

		// Make direct reference to the static data. See issue 12841.
		vstat := readonlystaticname(n.Type())
		fixedlit(inInitFunction, initKindStatic, n, vstat, init)
		return typecheck.Expr(vstat)
	}
	var_ := typecheck.TempAt(base.Pos, ir.CurFunc, n.Type())
	anylit(n, var_, init)
	return var_
}

// initContext is the context in which static data is populated.

// that Perl, Python, and other implementations use, although this
// package implements it without the expense of backtracking.
// For POSIX leftmost-longest matching, see [CompilePOSIX].
func Compile(expr string) (*Regexp, error) {
	return compile(expr, syntax.Perl, false)
}

// CompilePOSIX is like [Compile] but restricts the regular expression
// to POSIX ERE (egrep) syntax and changes the match semantics to
// leftmost-longest.
//

							t.Errorf("expected invalid expression to result in error")
						}
					}
				})
			}
		})
	}
}

func isValid(env *cel.Env, expr string, activation any) (bool, error) {
	ast, issues := env.Compile(expr)
	if len(issues.Errors()) > 0 {
		return false, issues.Err()
	}
	prog, err := env.Program(ast)
	if err != nil {
		return false, err
	}

        String expr = "/path/to/someproject-${baseVersion}";

        MavenProject project = createDefaultProject();

        ExpressionEvaluator ee = createExpressionEvaluator(project, new Properties());

        Object value = ee.evaluate(expr);

        assertEquals(expr, value);
    }

    @Test

type methodSet map[string]*Func

// recvString returns a string representation of recv of the form "T", "*T",
// "T[A, ...]", "*T[A, ...]" or "BADRECV" (if not a proper receiver type).
func recvString(recv ast.Expr) string {
	switch t := recv.(type) {
	case *ast.Ident:
		return t.Name
	case *ast.StarExpr:
		return "*" + recvString(t.X)
	case *ast.IndexExpr:
		// Generic type with one parameter.

	return hasSelectExp(ast.Expr(), "claims", "email")
}

func anyUsesEmailVerifiedClaim(results []authenticationcel.CompilationResult) bool {
	for _, result := range results {
		if usesEmailVerifiedClaim(result.AST) {
			return true
		}
	}
	return false
}

func usesEmailVerifiedClaim(ast *celgo.Ast) bool {
	return hasSelectExp(ast.Expr(), "claims", "email_verified")
}

	}
	setGoVersion(tc, pkg)

	// It's tempting to record the new types in the
	// existing pass.TypesInfo, but we don't own it.
	altInfo := &types.Info{
		Types: make(map[ast.Expr]types.TypeAndValue),
	}
	tc.Check(pkg.Path(), fset, cgoFiles, altInfo)

	return cgoFiles, altInfo, nil
}

// cgoBaseType tries to look through type conversions involving

func asmCheckVar(badf func(string, ...interface{}), fn *asmFunc, line, expr string, off int, v *asmVar, archDef *asmArch) {
	m := asmOpcode.FindStringSubmatch(line)
	if m == nil {
		if !strings.HasPrefix(strings.TrimSpace(line), "//") {
			badf("cannot find assembly opcode")
		}
		return
	}

	addr := strings.HasPrefix(expr, "$")

	// Determine operand sizes from instruction.

}

// stringConstantExpr returns expression's string constant value.
//
// ("", false) is returned if expression isn't a string
// constant.
func stringConstantExpr(pass *analysis.Pass, expr ast.Expr) (string, bool) {
	lit := pass.TypesInfo.Types[expr].Value
	if lit != nil && lit.Kind() == constant.String {
		return constant.StringVal(lit), true
	}
	return "", false
}