This commit is contained in:
2026-08-30 01:48:03 +08:00
parent 84ebd52c24
commit 7940b67827
170 changed files with 2704 additions and 21276 deletions
+75 -109
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@@ -1,118 +1,84 @@
#include "c_LinkStack.h"
#include "c_Test.h"
#include <stdlib.h>
#include <stdio.h>
#include <assert.h>
typedef struct {
char name[16];
int id;
} Frame_t;
int thread_id;
uint32_t pc_register;
} ThreadContext_t;
void test_log(const char* test_name) {
printf("[PASS] %s\n", test_name);
TEST_CASE(test_link_stack_closure_and_lifo_flow) {
c_LinkStack_t stack;
// 初始化一个专门存放 ThreadContext_t 结构的泛型单向链式栈
ASSERT_INT_EQ(C_ERR_OK, c_LinkStack_Init(&stack, sizeof(ThreadContext_t), NULL));
ASSERT_TRUE(c_LinkStack_IsEmpty(&stack));
ASSERT_TRUE(stack.top == NULL);
ThreadContext_t ctx1 = { .thread_id = 10, .pc_register = 0x00A0 };
ThreadContext_t ctx2 = { .thread_id = 20, .pc_register = 0x00B0 };
ThreadContext_t ctx3 = { .thread_id = 30, .pc_register = 0x00C0 };
// 1. 验证入栈操作 (Push) 与 LIFO 排列
ASSERT_INT_EQ(C_ERR_OK, c_LinkStack_Push(&stack, &ctx1)); // 第一次插入:top -> ctx1
ASSERT_PTR_NOT_NULL(stack.top);
ASSERT_TRUE(stack.top->next == NULL);
ASSERT_INT_EQ(C_ERR_OK, c_LinkStack_Push(&stack, &ctx2)); // 此时排列:top -> ctx2 -> ctx1
ASSERT_INT_EQ(C_ERR_OK, c_LinkStack_Push(&stack, &ctx3)); // 此时排列:top -> ctx3 -> ctx2 -> ctx1
ASSERT_INT_EQ(3, c_LinkStack_Size(&stack));
// 强隔离隔离性检查:修改外部临时变量,内部数据必须牢不可破
ctx3.thread_id = 999;
// 2. 验证 Peek 窥探能力
ThreadContext_t* peeked = (ThreadContext_t*)c_LinkStack_Peek(&stack);
ASSERT_PTR_NOT_NULL(peeked);
ASSERT_INT_EQ(30, peeked->thread_id); // 应该依旧是原值 30,证明深度值复制有效
// 3. 【严苛验证变长内存布局的拓扑对齐情况】
// 根据变长公式寻址:STACK_NODE_DATA(node) 必须与抛出的数据指针完全吻合
ASSERT_TRUE(c_LinkStackNode_Get(stack.top) == peeked);
// 验证更深一层的 LIFO 相对位置节点:
// top 的下一个应当是 ctx2 对应的控制头,提取其内部用户数据区地址
ThreadContext_t* second_data = (ThreadContext_t*)c_LinkStackNode_Get(stack.top->next);
ASSERT_INT_EQ(20, second_data->thread_id);
// 4. 出栈顺序与后进先出(LIFO)及边界复位断言 (Pop)
ThreadContext_t out_res;
// 弹出第 1 个:应当是最后进来的 ctx3
ASSERT_INT_EQ(C_ERR_OK, c_LinkStack_Pop(&stack, &out_res));
ASSERT_INT_EQ(30, out_res.thread_id);
ASSERT_INT_EQ(0, c_LinkStack_IsEmpty(&stack));
// 弹出第 2 个:应当是 ctx2
ASSERT_INT_EQ(C_ERR_OK, c_LinkStack_Pop(&stack, &out_res));
ASSERT_INT_EQ(20, out_res.thread_id);
// 弹出第 3 个:应当是最早进来的 ctx1
ASSERT_INT_EQ(C_ERR_OK, c_LinkStack_Pop(&stack, &out_res));
ASSERT_INT_EQ(10, out_res.thread_id);
// 终极下溢与纯净复位检查
ASSERT_TRUE(c_LinkStack_IsEmpty(&stack));
ASSERT_TRUE(stack.top == NULL);
ASSERT_INT_EQ(0, c_LinkStack_Size(&stack));
// 防御重复下溢出栈,应当优雅报错
ASSERT_INT_EQ(C_ERR_OUTOFBOUND, c_LinkStack_Pop(&stack, &out_res));
ASSERT_TRUE(c_LinkStack_Peek(&stack) == NULL);
c_LinkStack_Destroy(&stack);
}
int main() {
printf("==================================================\n");
printf(" 開始執行 c_LinkStack 完整單元測試用例\n");
printf("==================================================\n\n");
// ==========================================
// 1. 初始化測試
// ==========================================
c_LinkStack_t s;
c_err_t err = c_LinkStack_Init(&s, sizeof(Frame_t));
assert(err == C_ERR_OK);
assert(s.size == 0);
assert(s.head == NULL);
test_log("1. 鏈結堆疊初始化狀態驗證成功");
// ==========================================
// 2. 資料推入測試 (Push)
// ==========================================
Frame_t f1 = {"MainFrame", 100};
Frame_t f2 = {"RenderFrame", 200};
Frame_t f3 = {"UpdateFrame", 300};
// 依序推入,預期最新推入的會待在鏈結最前端 (head)
err = c_LinkStack_Push(&s, &f1); assert(err == C_ERR_OK);
err = c_LinkStack_Push(&s, &f2); assert(err == C_ERR_OK);
err = c_LinkStack_Push(&s, &f3); assert(err == C_ERR_OK);
assert(s.size == 3);
test_log("2. 三筆資料成功推入堆疊 (頭插法 O(1))");
// ==========================================
// 3. 迭代器走訪測試 (應符合後進先出順序:f3 -> f2 -> f1)
// ==========================================
c_LinkStackIter_t iter;
c_LinkStackIter_Init(&iter, &s);
int check_idx = 0;
while (c_LinkStackIter_HasNext(&iter)) {
Frame_t* f = (Frame_t*)c_LinkStackIter_Next(&iter);
if (check_idx == 0) assert(strcmp(f->name, "UpdateFrame") == 0);
if (check_idx == 1) assert(strcmp(f->name, "RenderFrame") == 0);
if (check_idx == 2) assert(strcmp(f->name, "MainFrame") == 0);
check_idx++;
}
assert(check_idx == 3);
test_log("3. 迭代器走訪順序驗證成功 (符合 LIFO 頂端到探底順序)");
// ==========================================
// 4. 查看堆疊頂端 (Peek)
// ==========================================
// 目前最頂端應該依然是最後推進去的 UpdateFrame
Frame_t* p_peek = (Frame_t*)c_LinkStack_Peek(&s);
assert(p_peek != NULL);
assert(strcmp(p_peek->name, "UpdateFrame") == 0);
assert(p_peek->id == 300);
assert(s.size == 3); // 驗證 Peek 不會移除元素
test_log("4. 唯讀查看堆疊頂端元素 (Peek) 成功");
// ==========================================
// 5. 先進後出彈出測試 (Pop)
// ==========================================
Frame_t local_buf;
// 第一次 Pop:預期取出最上方的 UpdateFrame
err = c_LinkStack_Pop(&s, &local_buf);
assert(err == C_ERR_OK);
assert(strcmp(local_buf.name, "UpdateFrame") == 0);
assert(s.size == 2);
// 再次 Peek,頂端應更新為 RenderFrame
p_peek = (Frame_t*)c_LinkStack_Peek(&s);
assert(strcmp(p_peek->name, "RenderFrame") == 0);
// 連續彈出剩下的兩個元素
err = c_LinkStack_Pop(&s, &local_buf); assert(err == C_ERR_OK); // 取出 RenderFrame
err = c_LinkStack_Pop(&s, &local_buf); assert(err == C_ERR_OK); // 取出 MainFrame
assert(s.size == 0);
assert(s.head == NULL);
// 空堆疊彈出與查看測試,預期回傳越界錯誤
err = c_LinkStack_Pop(&s, &local_buf);
assert(err == C_ERR_EMPTY);
assert(c_LinkStack_Peek(&s) == NULL);
test_log("5. 後進先出彈出 (Pop) 邏輯與空防呆驗證成功");
// ==========================================
// 6. 介面安全指標檢查
// ==========================================
assert(c_LinkStack_Init(NULL, sizeof(Frame_t)) == C_ERR_PARAM);
assert(c_LinkStack_Push(NULL, &f1) == C_ERR_PARAM);
assert(c_LinkStack_Pop(&s, NULL) == C_ERR_PARAM);
test_log("6. 介面 NULL 指標防呆驗證成功");
// ==========================================
// 7. 銷毀堆疊 (Destroy)
// ==========================================
c_LinkStack_Destroy(&s);
assert(s.head == NULL);
assert(s.size == 0);
test_log("7. 堆疊資源銷毀與記憶體釋放成功");
printf("\n==================================================\n");
printf(" 恭喜!c_LinkStack 優化版單元測試全數順利通過!\n");
printf("==================================================\n");
return 0;
int main(void) {
printf("\n");
TEST_START(C_LinkStack_Generic_Layout_Tests);
RUN_TEST(test_link_stack_closure_and_lifo_flow);
TEST_REPORT();
RETURN_TEST_STATUS;
}