feat(cache): 增加批量操作支持以提升性能

- 在 HoTimeCache 中新增 SessionsGet、SessionsSet 和 SessionsDelete 方法,支持批量获取、设置和删除 Session 缓存
- 优化缓存逻辑,减少数据库写入次数,提升性能
- 更新文档,详细说明批量操作的使用方法和性能对比
- 添加调试日志记录,便于追踪批量操作的执行情况
This commit is contained in:
2026-01-30 17:51:43 +08:00
parent 27300025f3
commit 3d83c41905
12 changed files with 2065 additions and 46 deletions
+404 -1
View File
@@ -1,10 +1,12 @@
package main
import (
. "code.hoteas.com/golang/hotime"
"encoding/json"
"fmt"
"time"
. "code.hoteas.com/golang/hotime"
. "code.hoteas.com/golang/hotime/common"
. "code.hoteas.com/golang/hotime/db"
)
@@ -90,6 +92,16 @@ func main() {
"upsert": func(that *Context) { that.Display(0, testUpsert(that)) },
"transaction": func(that *Context) { that.Display(0, testTransaction(that)) },
"rawsql": func(that *Context) { that.Display(0, testRawSQL(that)) },
// ==================== 缓存测试 ====================
// 缓存全部测试
"cache": func(that *Context) { that.Display(0, testCacheAll(that)) },
"cache-compat": func(that *Context) { that.Display(0, testCacheCompatible(that)) },
// 批量缓存操作测试
"cache-batch": func(that *Context) {
TestBatchCacheOperations(that.Application)
that.Display(0, Map{"message": "批量缓存测试完成,请查看控制台输出和日志文件"})
},
},
},
})
@@ -903,3 +915,394 @@ func testRawSQL(that *Context) Map {
result["success"] = true
return result
}
// ==================== 缓存测试 ====================
func testCacheAll(that *Context) Map {
result := Map{"name": "数据库缓存测试", "tests": Slice{}}
tests := Slice{}
// 获取当前缓存模式
cacheMode := "unknown"
if that.Application.HoTimeCache != nil && that.Application.HoTimeCache.Config != nil {
dbConfig := that.Application.HoTimeCache.Config.GetMap("db")
if dbConfig != nil {
cacheMode = dbConfig.GetString("mode")
if cacheMode == "" {
cacheMode = "new"
}
}
}
result["cache_mode"] = cacheMode
// 测试用的唯一前缀
testPrefix := fmt.Sprintf("cache_test_%d_", time.Now().UnixNano())
// ==================== 1. 基础读写测试 ====================
test1 := Map{"name": "1. 基础 set/get 测试"}
testKey1 := testPrefix + "basic"
testValue1 := Map{"name": "测试数据", "count": 123, "active": true}
// 设置缓存
that.Application.Cache(testKey1, testValue1)
// 读取缓存
cached1 := that.Application.Cache(testKey1)
if cached1.Data != nil {
cachedMap := cached1.ToMap()
test1["result"] = cachedMap.GetString("name") == "测试数据" && cachedMap.GetInt("count") == 123
test1["cached_value"] = cachedMap
} else {
test1["result"] = false
test1["error"] = "缓存读取返回 nil"
}
tests = append(tests, test1)
// ==================== 2. 删除缓存测试 ====================
test2 := Map{"name": "2. delete 删除缓存测试"}
testKey2 := testPrefix + "delete"
that.Application.Cache(testKey2, "删除测试值")
// 验证存在
before := that.Application.Cache(testKey2)
beforeExists := before.Data != nil
// 删除
that.Application.Cache(testKey2, nil)
// 验证已删除
after := that.Application.Cache(testKey2)
afterExists := after.Data != nil
test2["result"] = beforeExists && !afterExists
test2["before_exists"] = beforeExists
test2["after_exists"] = afterExists
tests = append(tests, test2)
// ==================== 3. 过期时间测试 ====================
test3 := Map{"name": "3. 过期时间测试(短超时)"}
testKey3 := testPrefix + "expire"
// 设置 2 秒过期
that.Application.Cache(testKey3, "短期数据", 2)
// 立即读取应该存在
immediate := that.Application.Cache(testKey3)
immediateExists := immediate.Data != nil
test3["result"] = immediateExists
test3["immediate_exists"] = immediateExists
test3["note"] = "设置了2秒过期,可等待后再次访问验证过期"
tests = append(tests, test3)
// ==================== 4. 不存在的 key 读取测试 ====================
test4 := Map{"name": "4. 不存在的 key 读取测试"}
nonExistKey := testPrefix + "non_exist_key_" + fmt.Sprintf("%d", time.Now().UnixNano())
nonExist := that.Application.Cache(nonExistKey)
test4["result"] = nonExist.Data == nil
test4["value"] = nonExist.Data
tests = append(tests, test4)
// ==================== 5. 重复 set 同一个 key 测试 ====================
test5 := Map{"name": "5. 重复 set 同一个 key 测试"}
testKey5 := testPrefix + "repeat"
that.Application.Cache(testKey5, "第一次值")
first := that.Application.Cache(testKey5).ToStr()
that.Application.Cache(testKey5, "第二次值")
second := that.Application.Cache(testKey5).ToStr()
that.Application.Cache(testKey5, Map{"version": 3})
third := that.Application.Cache(testKey5).ToMap()
test5["result"] = first == "第一次值" && second == "第二次值" && third.GetInt("version") == 3
test5["first"] = first
test5["second"] = second
test5["third"] = third
tests = append(tests, test5)
// ==================== 6. 通配删除测试 ====================
test6 := Map{"name": "6. 通配删除测试 (key*)"}
wildcardPrefix := testPrefix + "wildcard_"
// 创建多个带相同前缀的缓存
that.Application.Cache(wildcardPrefix+"a", "值A")
that.Application.Cache(wildcardPrefix+"b", "值B")
that.Application.Cache(wildcardPrefix+"c", "值C")
// 验证都存在
aExists := that.Application.Cache(wildcardPrefix+"a").Data != nil
bExists := that.Application.Cache(wildcardPrefix+"b").Data != nil
cExists := that.Application.Cache(wildcardPrefix+"c").Data != nil
allExistBefore := aExists && bExists && cExists
// 通配删除
that.Application.Cache(wildcardPrefix+"*", nil)
// 验证都已删除
aAfter := that.Application.Cache(wildcardPrefix+"a").Data != nil
bAfter := that.Application.Cache(wildcardPrefix+"b").Data != nil
cAfter := that.Application.Cache(wildcardPrefix+"c").Data != nil
allDeletedAfter := !aAfter && !bAfter && !cAfter
test6["result"] = allExistBefore && allDeletedAfter
test6["before"] = Map{"a": aExists, "b": bExists, "c": cExists}
test6["after"] = Map{"a": aAfter, "b": bAfter, "c": cAfter}
tests = append(tests, test6)
// ==================== 7. 不同数据类型测试 ====================
test7 := Map{"name": "7. 不同数据类型存储测试"}
// 字符串
that.Application.Cache(testPrefix+"type_string", "字符串值")
typeString := that.Application.Cache(testPrefix + "type_string").ToStr()
// 整数
that.Application.Cache(testPrefix+"type_int", 12345)
typeInt := that.Application.Cache(testPrefix + "type_int").ToInt()
// 浮点数
that.Application.Cache(testPrefix+"type_float", 3.14159)
typeFloat := that.Application.Cache(testPrefix + "type_float").ToFloat64()
// 布尔值
that.Application.Cache(testPrefix+"type_bool", true)
typeBoolData := that.Application.Cache(testPrefix + "type_bool").Data
typeBool := typeBoolData == true || typeBoolData == "true" || typeBoolData == 1.0
// Map
that.Application.Cache(testPrefix+"type_map", Map{"key": "value", "num": 100})
typeMap := that.Application.Cache(testPrefix + "type_map").ToMap()
// Slice
that.Application.Cache(testPrefix+"type_slice", Slice{1, 2, 3, "four", Map{"five": 5}})
typeSlice := that.Application.Cache(testPrefix + "type_slice").ToSlice()
test7["result"] = typeString == "字符串值" &&
typeInt == 12345 &&
typeFloat > 3.14 && typeFloat < 3.15 &&
typeBool == true &&
typeMap.GetString("key") == "value" &&
len(typeSlice) == 5
test7["string"] = typeString
test7["int"] = typeInt
test7["float"] = typeFloat
test7["bool"] = typeBool
test7["map"] = typeMap
test7["slice"] = typeSlice
tests = append(tests, test7)
// ==================== 8. 自定义超时时间测试 ====================
test8 := Map{"name": "8. 自定义超时时间参数测试"}
testKey8 := testPrefix + "custom_timeout"
// 设置 3600 秒(1小时)过期
that.Application.Cache(testKey8, "长期数据", 3600)
longTerm := that.Application.Cache(testKey8)
test8["result"] = longTerm.Data != nil
test8["value"] = longTerm.ToStr()
tests = append(tests, test8)
// ==================== 9. 查询缓存表状态 ====================
test9 := Map{"name": "9. 缓存表状态查询"}
// 查询新表记录数
prefix := that.Db.GetPrefix()
newTableName := prefix + "hotime_cache"
legacyTableName := prefix + "cached"
newCount := that.Db.Count(newTableName)
test9["new_table_count"] = newCount
test9["new_table_name"] = newTableName
// 尝试查询老表
legacyCount := int64(-1)
legacyExists := false
legacyData := that.Db.Query("SELECT COUNT(*) as cnt FROM `" + legacyTableName + "`")
if len(legacyData) > 0 {
legacyExists = true
legacyCount = legacyData[0].GetInt64("cnt")
}
test9["legacy_table_exists"] = legacyExists
test9["legacy_table_count"] = legacyCount
test9["legacy_table_name"] = legacyTableName
test9["result"] = newCount >= 0
tests = append(tests, test9)
// ==================== 清理测试数据 ====================
// 删除所有测试创建的缓存
that.Application.Cache(testPrefix+"*", nil)
result["tests"] = tests
result["success"] = true
result["cleanup"] = "已清理所有测试缓存数据"
return result
}
// testCacheCompatible 专门测试兼容模式 - 白盒测试
func testCacheCompatible(that *Context) Map {
result := Map{
"test_name": "兼容模式白盒测试",
"timestamp": time.Now().Format("2006-01-02 15:04:05"),
}
prefix := that.Db.GetPrefix()
newTableName := prefix + "hotime_cache"
legacyTableName := prefix + "cached"
tests := Slice{}
// ==================== 1. 查询当前模式 ====================
test1 := Map{"name": "1. 查询当前缓存模式"}
// 读取配置确认模式
cacheConfig := that.Application.Config.GetMap("cache")
dbConfig := cacheConfig.GetMap("db")
mode := dbConfig.GetString("mode")
if mode == "" {
mode = "默认(compatible)"
}
test1["mode"] = mode
test1["result"] = true
tests = append(tests, test1)
// ==================== 2. 查询老表数据 ====================
test2 := Map{"name": "2. 查询老表cached现有数据"}
legacyData := that.Db.Query("SELECT * FROM `" + legacyTableName + "` LIMIT 5")
test2["legacy_table"] = legacyTableName
test2["count"] = len(legacyData)
test2["data"] = legacyData
test2["result"] = true
tests = append(tests, test2)
// ==================== 3. 查询新表数据 ====================
test3 := Map{"name": "3. 查询新表hotime_cache现有数据"}
newData := that.Db.Query("SELECT * FROM `" + newTableName + "` LIMIT 5")
test3["new_table"] = newTableName
test3["count"] = len(newData)
test3["data"] = newData
test3["result"] = true
tests = append(tests, test3)
// ==================== 4. 测试老表回退读取 ====================
test4 := Map{"name": "4. 测试兼容模式老表回退读取"}
// 插入一条未过期的老表数据进行测试
testKey4 := "test_compat_fallback_" + ObjToStr(time.Now().UnixNano())
testValue4 := Map{"admin_id": 999, "admin_name": "测试老数据"}
testValueJson4, _ := json.Marshal(Map{"data": testValue4})
// 在老表插入未过期数据
that.Db.Insert(legacyTableName, Map{
"key": testKey4,
"value": string(testValueJson4),
"endtime": time.Now().Unix() + 3600, // 1小时后过期
"time": time.Now().UnixNano(),
})
test4["test_key"] = testKey4
// 确保新表没有这个 key
newExists := that.Db.Get(newTableName, "*", Map{"key": testKey4})
test4["key_in_new_table"] = newExists != nil
// 通过缓存 API 读取(应该回退到老表)
cacheValue := that.Application.Cache(testKey4)
test4["cache_api_result"] = cacheValue.Data
// 直接从老表读取确认
legacyValue := that.Db.Get(legacyTableName, "*", Map{"key": testKey4})
if legacyValue != nil {
test4["legacy_db_value"] = legacyValue.GetString("value")
test4["legacy_db_endtime"] = legacyValue.GetInt64("endtime")
test4["legacy_db_endtime_readable"] = time.Unix(legacyValue.GetInt64("endtime"), 0).Format("2006-01-02 15:04:05")
}
// 验证:新表没数据,但缓存API能读到老表数据
test4["result"] = newExists == nil && cacheValue.Data != nil
tests = append(tests, test4)
// ==================== 5. 测试写新删老 ====================
test5 := Map{"name": "5. 测试兼容模式写新删老"}
testKey5 := "test_compat_write_" + ObjToStr(time.Now().UnixNano())
testValue5 := "兼容模式测试数据"
// 先在老表插入一条数据
that.Db.Insert(legacyTableName, Map{
"key": testKey5,
"value": `{"data":"老表原始数据"}`,
"endtime": time.Now().Unix() + 3600, // 1小时后过期
"time": time.Now().UnixNano(),
})
// 确认老表有数据
legacyBefore := that.Db.Get(legacyTableName, "*", Map{"key": testKey5})
test5["step1_legacy_before"] = legacyBefore != nil
// 通过缓存 API 写入(应该写新表并删老表)
that.Application.Cache(testKey5, testValue5)
// 检查新表
newAfter := that.Db.Get(newTableName, "*", Map{"key": testKey5})
test5["step2_new_after"] = newAfter != nil
if newAfter != nil {
test5["new_value"] = newAfter.GetString("value")
}
// 检查老表(应该被删除)
legacyAfter := that.Db.Get(legacyTableName, "*", Map{"key": testKey5})
test5["step3_legacy_after_deleted"] = legacyAfter == nil
test5["result"] = legacyBefore != nil && newAfter != nil && legacyAfter == nil
tests = append(tests, test5)
// ==================== 6. 测试删除同时删两表 ====================
test6 := Map{"name": "6. 测试兼容模式删除(删除两表)"}
testKey6 := "test_compat_delete_" + ObjToStr(time.Now().UnixNano())
// 在老表插入
that.Db.Insert(legacyTableName, Map{
"key": testKey6,
"value": `{"data":"待删除老数据"}`,
"endtime": time.Now().Unix() + 3600,
"time": time.Now().UnixNano(),
})
// 在新表插入
that.Db.Insert(newTableName, Map{
"key": testKey6,
"value": `"待删除新数据"`,
"end_time": time.Now().Add(time.Hour).Format("2006-01-02 15:04:05"),
"state": 0,
"create_time": time.Now().Format("2006-01-02 15:04:05"),
"modify_time": time.Now().Format("2006-01-02 15:04:05"),
})
// 确认两表都有数据
test6["before_legacy"] = that.Db.Get(legacyTableName, "*", Map{"key": testKey6}) != nil
test6["before_new"] = that.Db.Get(newTableName, "*", Map{"key": testKey6}) != nil
// 通过缓存 API 删除
that.Application.Cache(testKey6, nil)
// 确认两表都被删除
test6["after_legacy_deleted"] = that.Db.Get(legacyTableName, "*", Map{"key": testKey6}) == nil
test6["after_new_deleted"] = that.Db.Get(newTableName, "*", Map{"key": testKey6}) == nil
test6["result"] = test6.GetBool("before_legacy") && test6.GetBool("before_new") &&
test6.GetBool("after_legacy_deleted") && test6.GetBool("after_new_deleted")
tests = append(tests, test6)
// ==================== 7. 清理测试数据 ====================
that.Db.Delete(newTableName, Map{"key[~]": "test_compat_%"})
that.Db.Delete(legacyTableName, Map{"key[~]": "test_compat_%"})
result["tests"] = tests
result["success"] = true
return result
}