// if the type is "indirectly" converted to an interface
// using reflection with a method descriptor as intermediate.
// However, it uses MethodByName() with a constant name of
// a method to look up. This does not disable the DCE like
// Method(0) does.

package main

import "reflect"

type S int

func (s S) M() { println("S.M") }

type I interface{ M() }

type T float64

! go test -json .

	# We should see only JSON output on stdout, no non-JSON.
	# To simplify the check, we just look for non-curly-braces, since
	# every JSON entry has them and they're unlikely to occur
	# in other error messages.
! stdout '^[^{]'
! stdout '[^}]\n$'

	# Since the only test we requested failed to build, we should
	# not see any "pass" actions in the JSON stream.
! stdout '\{.*"Action":"pass".*\}'

// sanitizer with Go programs. The memory sanitizer only applies to
// C/C++ code; this permits that code to see the Go code as normal
// program addresses that have been initialized.

// To support interceptors that look for both mmap and munmap,
// also call the C library for munmap.

//go:cgo_import_static x_cgo_mmap
//go:linkname x_cgo_mmap x_cgo_mmap
//go:linkname _cgo_mmap _cgo_mmap
var x_cgo_mmap byte
var _cgo_mmap = &x_cgo_mmap

       * to test it.
       */
      return;
    }

    /*
     * Only under Windows (or hypothetically when running with some other non-POSIX, ACL-based
     * filesystem) does our prod code look up the username. Thus, this test doesn't necessarily test
     * anything interesting under most environments. Still, we can run it (except for Android, at

            problem("Build file 'sub/sub-a/build.gradle': line 2: Project ':sub:sub-a' cannot dynamically look up a property in the parent project ':sub'")
            problem("Build file 'sub/sub-b/build.gradle': line 2: Project ':sub:sub-b' cannot dynamically look up a property in the parent project ':sub'")
        }
    }

    /**
     * Returns the node that this managed instance is backed by.
     */
    MutableModelNode getBackingNode();

    /**
     * Returns the original model type of the instance. This can be used to look up the schema for the type.
     */
    ModelType<?> getManagedType();

					t.Errorf("schema %v failed to look up field with dbname %v", s, f.DBName)
				}
			}

			for _, name := range []string{f.DBName, f.Name} {
				if name != "" {
					if field := s.LookUpField(name); field == nil || (field.Name != name && field.DBName != name) {
						t.Errorf("schema %v failed to look up field with dbname %v", s, f.DBName)
					}
				}
			}

			if f.PrimaryKey {

== Step 2. Understanding Project Dependencies
Gradle provides excellent support for dependency management and automation.

Let's take another look at our build script (the `build.gradle(.kts)` file), specifically the following section:
[.multi-language-sample]
=====
[source, kotlin]
----
repositories {
    // Use Maven Central for resolving dependencies.

	// mask the address for sanity
	address := prefix.Masked().Addr()
	// we can't check longer than the request mask
	mask := prefix.Bits()
	// walk the network bits of the prefix
	for bitPosition < mask {
		// Look for a child checking the bit position after the mask
		n = n.child[getBitFromAddr(address, bitPosition+1)]
		if n == nil {
			return zeroT, false
		}
		// check we are in the right branch comparing the suffixes

    /**
     * Adds and configures a repository which will look for dependencies in a number of local directories.
     *
     * @param action The action to execute to configure the repository.
     * @return The repository.
     */
    FlatDirectoryArtifactRepository flatDir(Action<? super FlatDirectoryArtifactRepository> action);

    /**
     * Adds a repository which looks in Gradle Central Plugin Repository for dependencies.
     *