{"id":13782199,"url":"https://github.com/mmurdoch/arduinounit","last_synced_at":"2025-05-11T15:32:19.315Z","repository":{"id":6954867,"uuid":"8206861","full_name":"mmurdoch/arduinounit","owner":"mmurdoch","description":"ArduinoUnit is a unit testing framework for Arduino libraries","archived":false,"fork":false,"pushed_at":"2023-05-31T04:31:10.000Z","size":1577,"stargazers_count":399,"open_issues_count":7,"forks_count":51,"subscribers_count":27,"default_branch":"master","last_synced_at":"2025-04-18T21:26:24.699Z","etag":null,"topics":[],"latest_commit_sha":null,"homepage":null,"language":"C++","has_issues":true,"has_wiki":null,"has_pages":null,"mirror_url":null,"source_name":null,"license":"mit","status":null,"scm":"git","pull_requests_enabled":true,"icon_url":"https://github.com/mmurdoch.png","metadata":{"files":{"readme":"README.md","changelog":"CHANGELOG.md","contributing":null,"funding":null,"license":"LICENSE","code_of_conduct":null,"threat_model":null,"audit":null,"citation":null,"codeowners":null,"security":null,"support":null,"governance":null,"roadmap":null,"authors":null}},"created_at":"2013-02-14T20:21:31.000Z","updated_at":"2025-03-22T02:04:55.000Z","dependencies_parsed_at":"2024-01-15T22:00:34.626Z","dependency_job_id":null,"html_url":"https://github.com/mmurdoch/arduinounit","commit_stats":{"total_commits":362,"total_committers":17,"mean_commits":"21.294117647058822","dds":"0.16022099447513816","last_synced_commit":"1e67169cc831647e975294ca245755bd91361b32"},"previous_names":[],"tags_count":20,"template":false,"template_full_name":null,"repository_url":"https://repos.ecosyste.ms/api/v1/hosts/GitHub/repositories/mmurdoch%2Farduinounit","tags_url":"https://repos.ecosyste.ms/api/v1/hosts/GitHub/repositories/mmurdoch%2Farduinounit/tags","releases_url":"https://repos.ecosyste.ms/api/v1/hosts/GitHub/repositories/mmurdoch%2Farduinounit/releases","manifests_url":"https://repos.ecosyste.ms/api/v1/hosts/GitHub/repositories/mmurdoch%2Farduinounit/manifests","owner_url":"https://repos.ecosyste.ms/api/v1/hosts/GitHub/owners/mmurdoch","download_url":"https://codeload.github.com/mmurdoch/arduinounit/tar.gz/refs/heads/master","host":{"name":"GitHub","url":"https://github.com","kind":"github","repositories_count":253588672,"owners_count":21932300,"icon_url":"https://github.com/github.png","version":null,"created_at":"2022-05-30T11:31:42.601Z","updated_at":"2022-07-04T15:15:14.044Z","host_url":"https://repos.ecosyste.ms/api/v1/hosts/GitHub","repositories_url":"https://repos.ecosyste.ms/api/v1/hosts/GitHub/repositories","repository_names_url":"https://repos.ecosyste.ms/api/v1/hosts/GitHub/repository_names","owners_url":"https://repos.ecosyste.ms/api/v1/hosts/GitHub/owners"}},"keywords":[],"created_at":"2024-08-03T18:01:33.980Z","updated_at":"2025-05-11T15:32:17.594Z","avatar_url":"https://github.com/mmurdoch.png","language":"C++","readme":"ArduinoUnit\n===========\n\nArduinoUnit is a testing framework for Arduino projects. It supports Arduino, ESP8266 and ESP32 as well as \"en vitro\" development system (vs embedded target) testing.\n\n## Getting Started\n\nInstall the library from the Arduino IDE.  From the menu, navigate:\n\n* Sketch-\u003eInclude Library-\u003eManage Libraries...\n* Search for \"arduinounit\"\n* Install\n\nAfter this, examples should be available from File-\u003eExamples in the \"Examples from Custom Libraries\" section.\n\nHere is a simple unit testing sketch:\n\n```\n#line 2 \"sketch.ino\"\n#include \u003cArduinoUnit.h\u003e\n\ntest(ok) \n{\n  int x=3;\n  int y=3;\n  assertEqual(x,y);\n}\n\ntest(bad)\n{\n  int x=3;\n  int y=3;\n  assertNotEqual(x,y);\n}\n\nvoid setup()\n{\n  Serial.begin(9600);\n  while(!Serial) {} // Portability for Leonardo/Micro\n}\n\nvoid loop()\n{\n  Test::run();\n}\n```\n\nUpload this sketch to the Arduino (using the 'Upload' button, `File | Upload` or `Ctrl+U`).\n\nTurn on the Serial Monitor (using the 'Serial Monitor' button, `Tools | Serial Monitor` or \n  `Ctrl+Shift+M`) and expect to see the following:\n\n```\nAssertion failed: (x=3) != (y=3), file sketch.ino, line 17.\nTest bad failed.\nTest ok passed.\nTest summary: 1 passed, 1 failed, and 0 skipped, out of 2 test(s).\n```\n\nThe following asserts are supported [with an optional footnote and return value]\n\n| Assertion | Description |\n| --- | --- |\n| `assertEqual(a,b [,footnote [,retval]])` | `a == b`? |\n| `assertNear(a,b,maxerr, [,footnote[,retval]])` | `abs(b-a)\u003c=maxerr`? |\n| `assertRelativelyNear(a,b,maxerr, [,footnote[,retval]])` | `abs(b-a)/abs(½(abs(a)+abs(b)))\u003c=maxerr`? |\n| `assertNotEqual(a,b [,footnote[,retval]])` | `a != b`? |\n| `assertLess(a,b [,footnote[,retval]])` | `a \u003c b`? |\n| `assertLessOrEqual(a,b [,footnote[,retval]])` | `a \u003c= b`? |\n| `assertMore(a,b [,footnote[,retval]])` | `a \u003e b`? |\n| `assertMoreOrEqual(a,b [,footnote[,retval]])` | `a \u003e= b`? |\n| `assertTrue(p [,footnote[,retval]])` | same as `assertEqual(p,true)` |\n| `assertFalse(p [,footnote[,retval]])` | same as `assertEqual(p,false)` |\n\n\n## [,footnote[,retval]]\n\nAssertions are replaced with essentially (retval is the optional last value of an assert):\n\n    if (not assertion) { fail(); return [retval]; }\n\nWhen things go wrong, it can be useful to print additional information.  As of 2.3.2-alpha, this is possible with any assertXXX() method by adding an additional third parameter [footnote] to the assert.  For example,\n```\ntest(cases)\n{\n  int x=3;\n  for (int k=0; k\u003c4; ++k) {\n    assertNotEqual(x,k,\"case k=\" \u003c\u003c k);\n  }\n}\n```\nwill fail with the message\n```\nAssertion failed: (x=3) != (k=3), file basic.ino, line 20 [case k=3].\n```\nThe additional message is only created if the assert actually needs to generate output (usually when it fails).\nIt appears in the [] brackets at the end of the assert message.  Notice you can create fairly complex messages\nby chaining things you can print (like `Serial.print()`) between `\u003c\u003c` operators.  This is similar to the C++ ostream insertion operators, if you are familar with that.\n\nThe status of the test can be used (bool ok) when printing the message.  Under normal verbosity settings, ok will always be false, but more verbose settings can print assert messages even if they pass.\n\n## Selecting tests\n\nIn your setup() function, you can select which tests are going to be setup and looped.  The default is that all tests are included.\n\n`Test::exclude(const char *pattern)` removes all the tests that match the given *-pattern.\n\n`Test::include(const char *pattern)` includes all the tests that match the given *-pattern.\n\nHere are some examples:\n\n## Select examples:\n\nA single test `my_test`\n\n```\nvoid setup()\n{\n  Serial.begin(9600);\n  while(!Serial) {} // Portability for Leonardo/Micro\n  Test::exclude(\"*\");\n  Test::include(\"my_test\");\n}\n```\n\nAll tests named dev_-something, but not the ones ending in _skip or _slow, or have the word eeprom in them:\n```\nvoid setup()\n{\n  Serial.begin(9600);\n  while(!Serial) {} // Portability for Leonardo/Micro\n  Test::exclude(\"*\");\n  Test::include(\"dev_*\");\n  Test::exclude(\"*_slow\");\n  Test::exclude(\"*_skip\");\n  Test::exclude(\"*eeprom*\");\n}\n```\n\n## Re-running tests (advanced)\nTypically, you just want to run all tests once and then show the result.\nIf so, you can skip this section.\n\nIn more advanced situations, you might want to run the entire test suite\nmultiple times (for example if your tests can be configured with\ndifferent parameters). To facilitate this, you can use the\n`Test::resetDoneTests()` function.\n\nCalling this function will reset all completed tests (passed, failed or\nskipped) back to their initial state. For tests that define a `setup`\nmethod, this will be run again on the next `Test::run()`. If any tests\nwere not completed yet, these are unaffected. The statistics (number of\npassed, failed and skipped tests) are also reset to 0.\n\nNote that excluded tests (using `Test::exclude()`) are treated as\nskipped tests, so these are also re-run (you will need to call\n`Test::exclude()` again after `resetDoneTests()` if you want keep these\ntests excluded). Tests removed with their `remove()` method are really\nremoved, so not re-run when using `resetDoneTests()`.\n\nTypically, you would use this after all tests are completed (but if you\ncall `resetDoneTests()` when some tests are still pending, those\ntests are unaffected). You must never call `resetDoneTests()` from\ninside a test, only between calls to `Test::run()`.\n\nBelow is an example that runs all tests once, then changes a global\nvariable and runs all tests again. To have a bit more direct control\nover running the tests, this example does not call `Test::run()`\ninfinitely in the `loop()`, but instead uses `Test:runUntilDone()` which\nrepeatedly calls `Test::run()` until all tests are completed.\n\n```\nbool some_global_setting = false;\n\nvoid setup() {\n  Serial.begin(9600);\n  while(!Serial) {} // Portability for Leonardo/Micro\n\n  Test::runUntilDone();\n\n  some_global_setting = true;\n  Test::resetDoneTests();\n  Test::runUntilDone();\n}\n\nvoid loop() { }\n```\n\n# Output\n\nThe `Test::out` value is the *shared* value for all tests describing where output for all tests goes.  The default is \n\n```\nTest::out = \u0026Serial;\n```\n\nBut you can set to the address of any Print stream. For example, if you want the output to be on the `Serial3` device on the arduino mega, use\n\n```\nTest::out = \u0026Serial3;\n```\n\nin your `setup()`.  Note the library does not set the baud rate - you have to do that in your `setup()`.\n\n## Verbosity\n\nNormal ArduinoUnit verbosity reports only failed assertions, the status (pass,skip,fail) of completed tests, and a summary.\n\n### Seeing more.\n\nIt is often useful to see the results of assertions [and footnotes] even when they pass. If you want to trace everything in this way, you can turn on all output with `Test::min_verbosity = TEST_VERBOSITY_ALL` in your setup.\n\n### Seeing less more.\n\nThe previous choice is great until you are lost in an ocean of messages for tests you do not want to watch at the moment.  Instead of globally setting `min_verbosity/max_verbosity` in your `setup()`, you can instead use `verbosity = TEST_VERBOSITY_ALL` in a given test to see everything about that test.\n\n## MockPrint and MockStream (intermediate)\n\n`MockPrint` is provided by ArduinoUnit to mimic a real output device, like Serial, but is also a String which happens to contain the information printed to it.  This can be used to test output formatting, as in:\n```\nvoid format(Print \u0026out, int value) {\n  out.print(\"decimal \");\n  out.print(value);\n  out.print(\" is hex \");\n  out.println(value,HEX);\n}\n\ntest(format) {\n  MockPrint mp;\n  format(mp,32); // test as mock\n  assertEqual(mp,\"decimal 32 is hex 20\\r\\n\");\n}\n\nvoid setup() {\n  Serial.begin();\n  while (!Serial) {}\n  format(Serial,100); // format to serial\n}\n\nvoid loop() {\n  Test::run();\n}\n```\n\n`MockStream` is provided by ArduinoUnit to mimic a real input/output device, like Serial.  It contains two `MockPrint` parts, `input` contains the input that will be read from the MockStream, and `output` which contains the output that was written.  This can be used to test input and output, as in:\n```\nvoid square(Stream \u0026io) {\n  io.print(\"value? \");\n  int x = io.parseInt();\n  out.print(value);  \n  out.print(\"*\");\n  out.print(value);\n  out.print(\"=\");\n  out.println(x*x);\n}\n\ntest(square) {\n  MockStream ms;\n  ms.input.print(10);\n  square(ms);\n  assertEqual(ms.output,\"value? 10*10=100\\r\\n\");\n}\n\nvoid setup() {\n  Serial.begin();\n  while (!Serial) {}\n  square(Serial); // format to serial\n}\n\nvoid loop() {\n  Test::run();\n}\n```\nThe `mockstream` example shows a convenient way to switch between real and mock streams for testing.\n\n## En Vitro Testing (advanced)\n\nArduinoUnit will compile in a standard C++ environment (LLVM or GCC) with -std=gnu++11.  The advanced example has a makefile and main.cpp to support this.\n\nNote ArduinoUnit has very limited mocking features; you will have to include the mocking features you need to simulate the embedded environment.  The main.cpp file in the advanced example illustrates minimal mocking.  In particular the only features provided (because of dependencies on these by ArduinoUnit) are:\n```\nF()\nmillis()\nmicros()\nString\nPrint\nPrintable\nStream # public components only\n```\nThese are available via `#include \"ArduinoUnitMock.h\"`.  In the mock environment, there are two additional objects, `CppStreamPrint` and `CppIOStream`, which wrap C++ `std::ostream` (and `std::istream` for `CppIOStream`).  This simplifies creating tests in the mocking environments.  Look at the advanced example and test firmware for guidance.\n\n## Verbosity (advanced)\n\nJust how much information is generated on each test is fairly flexible, and designed to address these rules:\n\n1. How much code is generated (TEST_MAX_VERBOSITY)\n1. Global maximums subject to 1 (static Test::max_verbosity)\n1. Global minimums subject to 1 and 2 (static Test::min_verbosity)\n1. Per-test requirements subject to 1, 2 and 3 (Test::verbosity)\n\nThe rules are as follows for each kind of possible output flag:\n\n1. Is the flag set in TEST_MAX_VERBOSITY?  If not set, then the output is suppressed and we are done.\n1. Is the flag set in Test::max_verbosity? If not set, then the output is suppressed and we are done.\n1. Is the flag set in Test::min_verbosity? If set, then the output is generated and we are done.\n1. Are we in a test context (Test::run())?\n\n    If so, the output is generated if the corresponding\n    per-test verbosity flag is set.\n\nThe default values are as follows\n\n```\n   TEST_MAX_VERBOSITY = TEST_VERBOSITY_ALL\n\n   static Test::max_verbosity = TEST_VERBOSITY_ALL\n   static Test::min_verbosity = TEST_VERBOSITY_TESTS_SUMMARY\n\n   Test::verbosity = (TEST_VERBOSTY_TESTS_ALL|TEST_VERBOSITY_ASSERTIONS_FAILED)\n```\n\nThis amounts to asking for a summary of each test (skip, pass, fail), an overall summary when all tests are resolved, and a more detailed report on each of the failed assertions.  \n\nThe verbosity flags are the bitwise-or of the following values\n\n```\nTEST_VERBOSITY_TESTS_SUMMARY      (0x01)\nTEST_VERBOSITY_TESTS_FAILED       (0x02)\nTEST_VERBOSITY_TESTS_PASSED       (0x04)\nTEST_VERBOSITY_TESTS_SKIPPED      (0x08)\nTEST_VERBOSITY_TESTS_ALL          (0x0F)\nTEST_VERBOSITY_ASSERTIONS_FAILED  (0x10)\nTEST_VERBOSITY_ASSERTIONS_PASSED  (0x20)\nTEST_VERBOSITY_ASSERTIONS_ALL     (0x30)\nTEST_VERBOSITY_ALL                (0x3F)\nTEST_VERBOSITY_NONE               (0x00)\n```\n\n## Built-in Assertions (details)\n\nThe following assertions are supported\n\n```\nassertLess(arg1,arg2)\nassertLessOrEqual(arg1,arg2)\nassertEqual(arg1,arg2)\nassertNotEqual(arg1,arg2)\nassertMoreOrEqual(arg1,arg2)\nassertMore(arg1,arg2)\n```\nAnything that can be compared via a '\u003c' comparison between them can be used.\n\nAll the string-like types (String, char *, char[] and flash string literals) can be used interchangeably in assertions, i.e.:\n```\ntest(strings) {\n   const char *cOk=\"ok\";\n   char aOk[3]; \n   String sOk(cOk);\n   // two underbars (_) for a flash string literal...\n   const __FlashStringHelper *fOk = F(\"ok\"); \n\n   strcpy(aOk,cOk);\n\n   assertEqual(cOk,aOk,F(\"char* vs char[]\"));\n   assertEqual(aOk,sOk,F(\"char[] vs String\"));\n   assertEqual(sOk,fOk,F(\"String vs flash\"));\n   assertEqual(fOk,cOk,F(\"flash vs char*\"));   \n}\n```\n\n### __FlashStringHelper ?\nNote that using a flash string literal directly (except the footnote) in an assert is not supported.  You must declare and use them separately as above.  The main reason for this is the F() macro expands to a large useless expression, which is then represented in flash as part of the assert message.  The alternate version keeps the assert message small and readable.\n\nThere are addtionally some boolean assertions:\n```\nassertTrue(arg)\nassertFalse(arg)\n```\nThese are shorthands for `assertEqual(arg,true)` and `assertEqual(arg,false)`.\n\nSee the section below for assertions on tests.\n\nThe output from these assertions is to print a string represenation of the\narguments, and the value of the arguments, as in:\n```\nAssertion passed/failed: (arg1=value1) op (arg2=value2), file name, line #.\n```\nThese assertions are defined in a way that the problem of multiple\nevaluations is avoided.  The arguments are only evaluated once in these\nassertions.  \n\nAll the assert macros expand to a test that creates an optional message, and, if false, calls fail() on the current test and returns.\n\n## Meta Assertions (Advanced)\n\nYou can make assertions on the outcome of tests as well.  The following meta-assertions are supported:\n\n| Meta Assertion | Description |\n| --- | --- |\n| `assertTestDone(test [,footnote[,retval]])` | test done (skip, pass or fail)?|\n| `assertTestNotDone(test [,footnote[,retval]])` | test not done?|\n| `assertTestPass(test [,footnote[,retval]])` | test passed? |\n| `assertTestNotPass(test [,footnote[,retval]])` | test not passed (fail, skip, or not done)? |\n| `assertTestFail(test [,footnote[,retval]])` | test failed? |\n| `assertTestNotFail(test [,footnote[,retval]])` | test not failed (pass, skip, or not done)? |\n| `assertTestSkip(test [,footnote[,retval]])` | test skipped? |\n| `assertTestNotSkip(test [,footnote[,retval]])` | test not skipped (pass, fail, or not done)? |\n\n| Meta Assertion | Description |\n| --- | --- |\n| `assertCurrentTestDone([footnote[,retval]])`| current test done (skip, pass or fail)?|\n| `assertCurrentTestNotDone([footnote[,retval]])` | current test not done?|\n| `assertCurrentTestPass([footnote[,retval]])` | current test passed? |\n| `assertCurrentTestNotPass([footnote[,retval]])` | current test not passed (fail, skip, or not done)? |\n| `assertCurrentTestFail([footnote[,retval]])` | current test failed? |\n| `assertCurrentTestNotFail([footnote[,retval]])` | current test not failed (pass, skip, or not done)? |\n| `assertCurrentTestSkip([footnote[,retval]])` | current test skipped? |\n| `assertCurrentTestNotSkip([footnote[,retval]])` | current test not skipped (pass, fail, or not done)? |\n\nThese can be used in conjunction with the boolean check-only macros\n```\ncheckTestDone(test) / checkCurrentTestDone()\ncheckTestNotDone(test) / checkCurrentTestNotDone()\ncheckTestPass(test) / checkCurrentTestPass()\ncheckTestNotPass(test) / checkCurrentTestNotPass()\ncheckTestFail(test) / checkCurrentTestFail()\ncheckTestNotFail(test) / checkCurrentTestNotFail()\ncheckTestSkip(test) / checkCurrentTestSkip()\ncheckTestNotSkip(test) / checkCurrentTestNotSkip()\n```\n\nThese behave like the other asserts, but they work only in the context\nof other tests.  The most likely place you would have such a test would\nbe in a testing meta-test as so:\n\n```\ntest(ok) { pass(); }\ntest(bad) { fail(); }\ntesting(slow) { if (millis() \u003e 1000) pass(); }\n\ntesting(passed) \n{\n  if (checkTestDone(ok)) {\n    assertTestPass(ok);\n    pass();\n  }\n}\n\ntesting(too_slow)\n{\n  if (millis() \u003e 100) {\n    assertTestDone(slow);\n    pass();\n  }\n}\n```\n\n## `Test` and `TestOnce` (advanced)\nYou can create your own modular tests by deriving from these classes.\n\n```\nclass MyTest : public Test {\nprivate:\n  void construct() {\n    // TODO: construct named test.\n    // This should be lightweight - it may be excluded\n    //\n    // You can set verbosity.\n  }\npublic:\n  MyTest(const char *name) : Test(name) {construct();}\n#if defined(F)\n  MyTest(const __FlashStringHelper *name) {construct();}\n#endif\n  void setup() {\n    // TODO: setup test\n    // You can call pass(), fail(), or skip() to immediately resolve test\n    // You can make assertions.\n    // You can set verbosity.\n  }\n  void loop() {\n    // TODO: run test on each loop\n    // You can call pass(), fail(), or skip() to resolve test\n    // You can make assertions.\n    // You can set verbosity.\n  }\n};\n\nclass MyTestOnce : public TestOnce\n{\npublic:\n  MyTestOnce(const char *name) : TestOnce(name) {\n  // same as MyTest\n  }\n  void setup() {\n  // same as MyTest\n  }\n  void once() {\n  // same as MyTest::loop(), but will only be called once from loop()\n  // if included in the active tests and was not resolved in setup().\n  }  \n}\n\n// create instances of the custom test \nMyTest myTest1(F(\"myTest1\"));\nMyTest myTest2(F(\"myTest2\"));\n\nMyTestOnce myTestOnce1(\"myTestOnce1\");\nMyTestOnce myTestOnce2(\"myTestOnce2\");\n```\n\nNote that `Test::run()` only calls the active unresolved tests.\n\n## Known Bugs\n\n* The `assertCurrentTestXXXX([,footnote [,retval])` macros do not compile on ESP8266 boards with no footnote.  Use an empty footnote `assertCurrentTestXXXX(\"\")`, or use `assertCurrentTestXXXX_0()` for no footnote.  You do not have to specify a return value.\n\n## FAQ\n\nQ. The line number of the asserts do not match the source file.\n\nA.  As far as I can tell, this is a bug in the compiler -- look two\n   lines up.  I do not know why the `__LINE__` macro does not match\n   the actual line of code.\n\nQ. What's with the `# 2 \"file.ino\"` business in the examples?\n\nA. This is to address question 1 above, and, without this line, the filename\n   will be a very long and mostly useless name in the asserts, like,\n\n\u003cpre\u003e\n/var/folders/gr/n9s7qtcs2qqbdnmcgm6gjzrm0000gp/T/build2118014134542174575.tmp/sketch_mar17a.ino\n\u003c/pre\u003e\n\n  This uses up flash memory space and doesn't give any useful information when\n  something goes wrong.\n\nQ. I get these link errors about multiply defined test_XXXX_instance.\n\nA. You have defined two tests with the same name XXXX using either the\n   test() or testing() macro.\n\nQ. I get no output\n\nA. Here is a troubleshooting guideline:\n\n * Make sure you call `Serial.begin()` in your setup.  Or, if you redirect\n   output by changing the value of `Test::out`, make sure you configure\n   the Print stream you direct it to.\n * If you are using an Arduino Leonardo/Micro: don't forget to add \n   `while(!Serial) {}` after `Serial.begin(9600)` in the setup(). Without this line\n   nothing will be printed in the serial monitor.\n * Make sure you call `Test::run()` in your loop().\n * Make sure you did not exclude the test(s) with `Test::exclude(pattern)`.\n   By default all tests are included.\n * Make sure your tests complete.\n   * Each single-check test() test not be in an infinite loop.\n   * Each continous testing() test do a small amount of work on each\n     call, and should eventually invoke pass(), fail() or skip().\n * Make sure verbosity is adequate.  You can generate all possible output by\n   * Assuring that TEST_MAX_VERBOSITY in ArduinoUnit.h is TEST_VERBOSITY_ALL (the default).\n   * Assuring that Test::max_verbosity is TEST_VERBOSITY_ALL (the default).\n   * Setting Test::min_verbosity = TEST_VERBOSITY_ALL (the default is TEST_VERBOSITY_TESTS_ALL | TEST_VERBOSITY_ASSERTIONS_FAILED, generating output only for failed assertions, completions of tests, and an overall summary).\n   * With these settings, the per-test verbosity has no effect.\n","funding_links":[],"categories":["IDE"],"sub_categories":[],"project_url":"https://awesome.ecosyste.ms/api/v1/projects/github.com%2Fmmurdoch%2Farduinounit","html_url":"https://awesome.ecosyste.ms/projects/github.com%2Fmmurdoch%2Farduinounit","lists_url":"https://awesome.ecosyste.ms/api/v1/projects/github.com%2Fmmurdoch%2Farduinounit/lists"}