</p>

<pre>
f()
i := *p
*q = 1
</pre>

<p>
If the call never returned, then once again the original program
would never access <code>*p</code> or <code>*q</code>, but the rewritten program would.
And if the call contained synchronizing operations, then the original program
could establish happens before edges preceding the accesses

  workspace. The directory is created by
  <a href="/pkg/cmd/go#hdr-Make_vendored_copy_of_dependencies"><code>go</code> <code>work</code> <code>vendor</code></a>,
  and used by build commands when the <code>-mod</code> flag is set to
	<code>vendor</code>, which is the default when a workspace <code>vendor</code>
  directory is present.
</p>
<p>
  Note that the <code>vendor</code> directory's contents for a workspace are different

You can change/extend these stubs, and tests should not be breaking too much, since most tests
assert using expected values from the stubs. Normally, when you try to use data from the stubs that
have not been properly populated, you'll get a nullpointer in your test and you then have to
identify which stub creates that specific piece of data.

The most important stubs are:
LifecycleExecutionPlanCalculatorStub
ProjectDependencyGraphStub

</p>

<ol>
<li>
When converting between integer types, if the value is a signed integer, it is
sign extended to implicit infinite precision; otherwise it is zero extended.
It is then truncated to fit in the result type's size.
For example, if <code>v := uint16(0x10F0)</code>, then <code>uint32(int8(v)) == 0xFFFFFFF0</code>.

            ?.content?.elements?.find { description -> description is JavadocSnippet }
            ?.toText()

    private
    fun nodeName(it: Node?, unit: CompilationUnit, file: File) = when (it) {
        is EnumDeclaration -> tryResolve({ it.resolve().qualifiedName }) { inferClassName(unit) }
        is ClassOrInterfaceDeclaration -> tryResolve({ it.resolve().qualifiedName }) { inferClassName(unit) }

				return await WebAssembly.instantiate(source, importObject);
			};
		}

		const go = new Go();
		let mod, inst;
		WebAssembly.instantiateStreaming(fetch("test.wasm"), go.importObject).then((result) => {
			mod = result.module;
			inst = result.instance;
			document.getElementById("runButton").disabled = false;
		}).catch((err) => {
			console.error(err);
		});

		async function run() {

PCALIGN $32
MOVD $2, R0
</pre>
</p>

<h3 id="data-offsets">Interacting with Go types and constants</h3>

<p>
If a package has any .s files, then <code>go build</code> will direct
the compiler to emit a special header called <code>go_asm.h</code>,
which the .s files can then <code>#include</code>.
The file contains symbolic <code>#define</code> constants for the
offsets of Go struct fields, the sizes of Go struct types, and most

                    mutableSetOf()
                }.add(problem)
            }
        }
        generateReport(byCategory)
    }

    private
    fun toCategory(version: String, gradleModule: String) = when {
        gradleModule.endsWith("-native") || gradleModule in listOf("model-core", "platform-base", "testing-base") -> "Software Model and Native"
        else -> "Incubating since $version"
    }

    private

and yield a result of the same type as the operands.
The left operand is evaluated, and then the right if the condition requires it.
</p>

<pre class="grammar">
&amp;&amp;    conditional AND    p &amp;&amp; q  is  "if p then q else false"
||    conditional OR     p || q  is  "if p then true else q"
!     NOT                !p      is  "not p"
</pre>