79e6b0e0f6
As of today <zephyr/zephyr.h> is 100% equivalent to <zephyr/kernel.h>. This patch proposes to then include <zephyr/kernel.h> instead of <zephyr/zephyr.h> since it is more clear that you are including the Kernel APIs and (probably) nothing else. <zephyr/zephyr.h> sounds like a catch-all header that may be confusing. Most applications need to include a bunch of other things to compile, e.g. driver headers or subsystem headers like BT, logging, etc. The idea of a catch-all header in Zephyr is probably not feasible anyway. Reason is that Zephyr is not a library, like it could be for example `libpython`. Zephyr provides many utilities nowadays: a kernel, drivers, subsystems, etc and things will likely grow. A catch-all header would be massive, difficult to keep up-to-date. It is also likely that an application will only build a small subset. Note that subsystem-level headers may use a catch-all approach to make things easier, though. NOTE: This patch is **NOT** removing the header, just removing its usage in-tree. I'd advocate for its deprecation (add a #warning on it), but I understand many people will have concerns. Signed-off-by: Gerard Marull-Paretas <gerard.marull@nordicsemi.no>
132 lines
4.0 KiB
C
132 lines
4.0 KiB
C
/*
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* Copyright (c) 2016 Intel Corporation
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*
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* SPDX-License-Identifier: Apache-2.0
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*/
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#include <zephyr/kernel.h>
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#include <zephyr/ztest.h>
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#include <zephyr/arch/cpu.h>
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#include <zephyr/tc_util.h>
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#ifdef CONFIG_BIG_ENDIAN
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#define BIT_INDEX(bit) ((3 - ((bit >> 3) & 0x3)) + 4*(bit >> 5))
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#else
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#define BIT_INDEX(bit) (bit >> 3)
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#endif
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#define BIT_VAL(bit) (1 << (bit & 0x7))
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#define BITFIELD_SIZE 512
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/**
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* @addtogroup kernel_common_tests
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* @{
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*/
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/**
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* @brief Test bitfield operations
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*
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* @see sys_test_bit(), sys_set_bit(), sys_clear_bit(),
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* sys_bitfield_set_bit(), sys_bitfield_clear_bit(),
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* sys_bitfield_test_bit(), sys_bitfield_test_and_set_bit(),
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* sys_bitfield_test_and_clear_bit()
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*/
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ZTEST(bitfield, test_bitfield)
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{
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uint32_t b1 = 0U;
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unsigned char b2[BITFIELD_SIZE >> 3] = { 0 };
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unsigned int bit;
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int ret;
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TC_PRINT("twiddling bits....\n");
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for (bit = 0U; bit < 32; ++bit) {
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sys_set_bit((mem_addr_t)&b1, bit);
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zassert_equal(b1, (1 << bit),
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"sys_set_bit failed on bit %d\n", bit);
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zassert_true(sys_test_bit((mem_addr_t)&b1, bit),
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"sys_test_bit did not detect bit %d\n", bit);
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sys_clear_bit((mem_addr_t)&b1, bit);
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zassert_equal(b1, 0, "sys_clear_bit failed for bit %d\n", bit);
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zassert_false(sys_test_bit((mem_addr_t)&b1, bit),
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"sys_test_bit erroneously detected bit %d\n",
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bit);
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zassert_false(sys_test_and_set_bit((mem_addr_t)&b1, bit),
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"sys_test_and_set_bit erroneously"
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" detected bit %d\n", bit);
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zassert_equal(b1, (1 << bit),
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"sys_test_and_set_bit did not set bit %d\n",
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bit);
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zassert_true(sys_test_and_set_bit((mem_addr_t)&b1, bit),
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"sys_test_and_set_bit did not detect bit %d\n",
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bit);
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zassert_equal(b1, (1 << bit),
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"sys_test_and_set_bit cleared bit %d\n", bit);
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zassert_true(sys_test_and_clear_bit((mem_addr_t)&b1, bit),
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"sys_test_and_clear_bit did not detect bit %d\n",
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bit);
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zassert_equal(b1, 0, "sys_test_and_clear_bit did not clear"
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" bit %d\n", bit);
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zassert_false(sys_test_and_clear_bit((mem_addr_t)&b1, bit),
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"sys_test_and_clear_bit erroneously detected"
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" bit %d\n", bit);
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zassert_equal(b1, 0, "sys_test_and_clear_bit set bit %d\n",
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bit);
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}
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for (bit = 0U; bit < BITFIELD_SIZE; ++bit) {
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sys_bitfield_set_bit((mem_addr_t)b2, bit);
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zassert_equal(b2[BIT_INDEX(bit)], BIT_VAL(bit),
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"sys_bitfield_set_bit failed for bit %d\n",
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bit);
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zassert_true(sys_bitfield_test_bit((mem_addr_t)b2, bit),
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"sys_bitfield_test_bit did not detect bit %d\n",
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bit);
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sys_bitfield_clear_bit((mem_addr_t)b2, bit);
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zassert_equal(b2[BIT_INDEX(bit)], 0,
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"sys_bitfield_clear_bit failed for bit %d\n",
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bit);
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zassert_false(sys_bitfield_test_bit((mem_addr_t)b2, bit),
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"sys_bitfield_test_bit erroneously detected"
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" bit %d\n", bit);
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ret = sys_bitfield_test_and_set_bit((mem_addr_t)b2, bit);
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zassert_false(ret, "sys_bitfield_test_and_set_bit erroneously"
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" detected bit %d\n", bit);
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zassert_equal(b2[BIT_INDEX(bit)], BIT_VAL(bit),
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"sys_bitfield_test_and_set_bit did not set"
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" bit %d\n", bit);
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zassert_true(sys_bitfield_test_and_set_bit((mem_addr_t)b2, bit),
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"sys_bitfield_test_and_set_bit did not detect bit"
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" %d\n", bit);
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zassert_equal(b2[BIT_INDEX(bit)], BIT_VAL(bit),
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"sys_bitfield_test_and_set_bit cleared bit %d\n",
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bit);
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zassert_true(sys_bitfield_test_and_clear_bit((mem_addr_t)b2,
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bit), "sys_bitfield_test_and_clear_bit did not"
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" detect bit %d\n", bit);
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zassert_equal(b2[BIT_INDEX(bit)], 0,
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"sys_bitfield_test_and_clear_bit did not"
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" clear bit %d\n", bit);
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zassert_false(sys_bitfield_test_and_clear_bit((mem_addr_t)b2,
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bit), "sys_bitfield_test_and_clear_bit"
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" erroneously detected bit %d\n", bit);
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zassert_equal(b2[BIT_INDEX(bit)], 0,
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"sys_bitfield_test_and_clear_bit set bit %d\n",
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bit);
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}
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}
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/**
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* @}
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*/
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