org.gradle.kotlin.dsl.allWarningsAsErrors=true
# Kotlin settings
kotlin.incremental.useClasspathSnapshot=true
kotlin.stdlib.default.dependency=false
kotlin.js.ir.output.granularity=whole-program
# Temporarily force IDEs to produce build scans
systemProp.org.gradle.internal.ide.scan=true
# If you're experimenting with changes and don't want to update the verification file right away, please change the mode to "lenient" (not "off")
org.gradle.dependency.verification=strict

Gradle provides tools to visualize and analyze a project's dependency graph (i.e. dependency tree).
You can use a link:https://scans.gradle.com/get-started[Build Scan(TM)] or <<viewing_debugging_dependencies.adoc#sec:debugging-build-scans,built-in tasks>>.

.Build scan dependencies report

[[licenses:build_scan_plugin]]
== Gradle Build Scan Plugin

        }

        buildFile << """
            task t
        """

        when:
        succeeds "t", "--configuration-cache"

        then:
        scanPlugin.assertUnsupportedMessage(output, "Build scans have been disabled due to incompatibility between your Gradle Enterprise plugin version (3.3.4) and configuration caching. Please use Gradle Enterprise plugin version 3.4 or later for compatibility with configuration caching.")
    }

Neither will a project with lots of inter-subproject dependencies.
But most multi-subproject builds see a reduction in build times.

=== Visualize parallelism with build scans

Build scans give you a visual timeline of task execution. In the following
example build, you can see long-running tasks at the beginning and end of the build:

You can see a dependency tree and see which resolved dependency versions differed from what was requested by clicking the _Dependencies_ view and using the search functionality, specifying the resolution reason.

.Debugging dependency conflicts with build scans
image::troubleshooting-dependency-management-build-scan.png[]

func (c *Uniform) At(x, y int) color.Color { return c.C }

func (c *Uniform) RGBA64At(x, y int) color.RGBA64 {
	r, g, b, a := c.C.RGBA()
	return color.RGBA64{uint16(r), uint16(g), uint16(b), uint16(a)}
}

// Opaque scans the entire image and reports whether it is fully opaque.
func (c *Uniform) Opaque() bool {
	_, _, _, a := c.C.RGBA()
	return a == 0xffff
}

// NewUniform returns a new [Uniform] image of the given color.

#include "mlir/IR/BuiltinOps.h"  // from @llvm-project
#include "mlir/Pass/Pass.h"  // from @llvm-project
#include "mlir/Support/LogicalResult.h"  // from @llvm-project

namespace mlir {
namespace TFR {

// Scans the func op and adds all the canonicalization patterns of the ops
// except the tf ops, inside the function.
void populateCanonicalizationPatterns(func::FuncOp func,
                                      RewritePatternSet &patterns);

// and always room at the top level), which eliminates all but
// the first freq_I_B text scans (that is, 5 of the 6).
// So the top level of the recursion only does 22 - 6 - 5 = 11
// input-sized scans and a typical level does 16 scans.
//
// The linear scans do not cost anywhere near as much as
// the random accesses to the text made during a few of
// the scans (specifically #6, #9, #16, #19, #22 marked above).

        spec.setEffectiveAnnotationProcessors(annotationProcessors);
        return delegate.execute(spec);
    }

    /**
     * Scans the processor path for processor declarations. Filters them if the explicit <code>-processor</code> argument is given.
     * Treats explicit processors that didn't have a matching declaration on the path as non-incremental.
     */