Prior to this commit, some tests would belong to the PERFORMANCE
`TestGroup`, while they were not testing for performance but rather
performing functional tests that involve long running operations or
timeouts.
This commit moves those tests to the LONG_RUNNING `TestGroup`.
See gh-24830
The AspectJPrecedenceComparator was designed to mimic the precedence
order enforced by the AspectJ compiler with regard to multiple 'after'
methods defined within the same aspect whose pointcuts match the same
joinpoint. Specifically, if an aspect declares multiple @After,
@AfterReturning, or @AfterThrowing advice methods whose pointcuts match
the same joinpoint, such 'after' advice methods should be invoked in
the reverse order in which they are declared in the source code.
When the AspectJPrecedenceComparator was introduced in Spring Framework
2.0, it achieved its goal of mimicking the AspectJ compiler since the
JDK at that time (i.e., Java 5) ensured that an invocation of
Class#geDeclaredMethods() returned an array of methods that matched the
order of declaration in the source code. However, Java 7 removed this
guarantee. Consequently, in Java 7 or higher,
AspectJPrecedenceComparator no longer works as it is documented or as
it was designed when sorting advice methods in a single @Aspect class.
Note, however, that AspectJPrecedenceComparator continues to work as
documented and designed when sorting advice configured via the
<aop:aspect> XML namespace element.
PR gh-24673 highlights a use case where AspectJPrecedenceComparator
fails to assign the highest precedence to an @After advice method
declared last in the source code. Note that an @After advice method
with a precedence higher than @AfterReturning and @AfterThrowing advice
methods in the same aspect will effectively be invoked last due to the
try-finally implementation in AspectJAfterAdvice.invoke() which invokes
proceed() in the try-block and invokeAdviceMethod() in the
finally-block.
Since Spring cannot reliably determine the source code declaration
order of annotated advice methods without using ASM to analyze the byte
code, this commit introduces reliable invocation order for advice
methods declared within a single @Aspect. Specifically, the
getAdvisors(...) method in ReflectiveAspectJAdvisorFactory now hard
codes the declarationOrderInAspect to `0` instead of using the index of
the current advice method. This is necessary since the index no longer
has any correlation to the method declaration order in the source code.
The result is that all advice methods discovered via reflection will
now be sorted only according to the precedence rules defined in the
ReflectiveAspectJAdvisorFactory.METHOD_COMPARATOR. Specifically, advice
methods within a single @Aspect will be sorted in the following order
(with @After advice methods effectively invoked after @AfterReturning
and @AfterThrowing advice methods): @Around, @Before, @After,
@AfterReturning, @AfterThrowing.
The modified assertions in AspectJAutoProxyAdviceOrderIntegrationTests
demonstrate the concrete effects of this change.
Closes gh-25186
Prior to this commit we did not have tests in place to verify the status
quo for the invocation order of all advice types when declared within
a single aspect, either via the <aop:aspect> XML namespace or AspectJ
auto-proxy support.
This commit introduces such tests that demonstrate where such ordering
is broken or suboptimal.
The only test for which the advice invocation order is correct or at
least as expected is the afterAdviceTypes() test method in
ReflectiveAspectJAdvisorFactoryTests, where an AOP proxy is hand crafted
using ReflectiveAspectJAdvisorFactory without the use of Spring's
AspectJPrecedenceComparator.
See gh-25186
Previously, when a project's jar was an input into a test task, a
cache hit required the current build to be using the same JDK as the
one that created the cache entry. This was due to the Created-By
entry in the jar's manifest which will vary if JDKs with different
values for the java.version and java.specification.vendor version are
used.
This commit configures normalization of the runtime classpath to ignore
META-INF/MANIFEST.MF, thereby allowing a cache hit when the tests were
previously run on a different JDK than the one being used now. Typically
this is a different update release being used on a CI agent and a
developer's machine. This change will therefore improve the likelihood
of a cache hit once remote caching has been enabled.
Closes gh-23872
Prior to this commit, a lot of work had been done to prevent improper
use of testing Framework APIs throughout the codebase; however, there
were still some loopholes.
This commit addresses these loopholes by introducing additional
Checkstyle rules (and modifying existing rules) to prevent improper use
of testing framework APIs in production code as well as in test code.
- Checkstyle rules for banned imports have been refactored into
multiple rules specific to JUnit 3, JUnit 4, JUnit Jupiter, and
TestNG.
- Accidental usage of org.junit.Assume has been switched to
org.junit.jupiter.api.Assumptions.
- All test classes now reside under org.springframework packages.
- All test classes (including abstract test classes) now conform to the
`*Tests` naming convention.
- As an added bonus, tests in the renamed
ScenariosForSpringSecurityExpressionTests are now included in the
build.
- Dead JUnit 4 parameterized code has been removed from
DefaultServerWebExchangeCheckNotModifiedTests.
Closes gh-22962
Prior to this commit, the Spring Framework build would partially use the
dependency management plugin to import and enforce BOMs.
This commit applies the dependency management plugin to all Java
projects and regroups all version management declaration in the root
`build.gradle` file (versions and exclusions).
Some versions are overridden in specific modules for
backwards-compatibility reasons or extended support.
This commit also adds the Gradle versions plugin that checks for
dependency upgrades in artifact repositories and produces a report; you
can use the following:
./gradlew dependencyUpdates
Instead of relying on the CI server to apply and configure this plugin,
this commit does it directly in the Spring Framework build.
This allows us to take full control over which projects are published
and how.
See gh-23282
Prior to this commit, the build would use a custom task to create a BOM
and manually include/exclude/customize dependencies. It would also use
the "maven" plugin to customize the POM before publication.
This commit now uses a Gradle Java Platform for publishing the Spring
Framework BOM. We're also now using the "maven-publish" plugin to
prepare and customize publications.
This commit also tells the artifactory plugin (which is currently
applied only on the CI) not to publish internal modules.
See gh-23282
This commit reorganizes tasks and scripts in the build to only apply
them where they're needed. We're considering here 3 "types" of projects
in our build:
* the root project, handling documentation, publishing, etc
* framework modules (a project that's published as a spring artifact)
* internal modules, such as the BOM, our coroutines support and our
integration-tests
With this change, we're strealining the project configuration for all
spring modules and only applying plugins when needed (typically our
kotlin support).
See gh-23282
This commit moves the dependency management and test source files
related to integration tests to a dedicated module.
This allows us to focus the root project on building the Spring
Framework.
See gh-23282
Juergen Hoeller
Brian Clozel
Сергей Цыпанов
Sam Brannen
Sam Brannen
Qimiao Chen
Sam Brannen
Andy Wilkinson
Phillip Webb
Juergen Hoeller
Brian Clozel
Stephane Nicoll