# 项目服务部署指南 本项目依赖于 `PostgreSQL` 数据库和 `Redis Stack Server`(包含 `Redisearch` 等模块)部署文档将使用 `Docker` 容器化技术部署这两个依赖服务 ## 前提条件 1. 已安装 `Docker` 2. 下载相关容器镜像 3. 确保主机的 `5432` 端口(`Postgres`)和 `6379` 端口(`Redis`)未被占用 ### 1\. 部署 PostgreSQL 数据库 使用官方的 `postgres:13.16` 镜像,并设置默认的用户、密码和端口 #### 1.1 部署命令 运行以下命令启动 `PostgreSQL` 容器 ```bash docker run --name postgres \ -e POSTGRES_USER=postgres \ -e POSTGRES_PASSWORD=coslight \ -p 5432:5432 \ -d postgres:13.16 ``` #### 1.2 连接信息 | 参数 | 值 | 说明 | | :--- | :--- | :--- | | **容器名称** | `postgres` | 容器名 | | **镜像版本** | `postgres:13.16` | 镜像名 | | **主机端口** | `5432` | 外部应用连接使用的端口 | | **用户名** | `postgres` | 默认超级用户 | | **密码** | `coslight` | 配置的密码 | #### 1.3 状态检查 要确认容器是否正在运行,请执行 ```bash # 检查容器启动状态 docker ps -a |grep postgres # 检查容器启动日志信息 docker logs postgres ``` #### 1.4 初始化异步任务表 `PostgreSQL` 启动后执行以下建表语句,创建异步任务系统所需的两张表: ```sql -- ========================================== -- 表: async_task -- 说明: 存储异步任务的生命周期跟踪信息 -- ========================================== CREATE TABLE IF NOT EXISTS async_task ( task_id UUID PRIMARY KEY DEFAULT gen_random_uuid(), task_type VARCHAR(50) NOT NULL, status VARCHAR(20) NOT NULL, params JSONB, created_at BIGINT NOT NULL, finished_at BIGINT, started_at BIGINT, execution_time BIGINT, progress INTEGER, retry_count INTEGER DEFAULT 0, max_retry_count INTEGER DEFAULT 3, next_retry_time BIGINT, retry_delay INTEGER DEFAULT 5000, priority INTEGER DEFAULT 5, queue_name VARCHAR(100) DEFAULT 'default', worker_id VARCHAR(50), failure_reason TEXT, stack_trace TEXT, created_by VARCHAR(100) ); CREATE INDEX IF NOT EXISTS idx_async_task_task_type ON async_task(task_type); CREATE INDEX IF NOT EXISTS idx_async_task_status ON async_task(status); CREATE INDEX IF NOT EXISTS idx_async_task_created_at ON async_task(created_at); CREATE INDEX IF NOT EXISTS idx_async_task_finished_at ON async_task(finished_at); CREATE INDEX IF NOT EXISTS idx_async_task_started_at ON async_task(started_at); CREATE INDEX IF NOT EXISTS idx_async_task_next_retry_time ON async_task(next_retry_time); CREATE INDEX IF NOT EXISTS idx_async_task_priority ON async_task(priority); CREATE INDEX IF NOT EXISTS idx_async_task_status_retry ON async_task(status, next_retry_time) WHERE status = 'FAILED' AND next_retry_time IS NOT NULL; -- ========================================== -- 表: async_task_result -- 说明: 存储异步任务的执行结果 -- ========================================== CREATE TABLE IF NOT EXISTS async_task_result ( task_id UUID PRIMARY KEY, result JSONB, error_code INTEGER, error_message TEXT, error_detail JSONB, execution_time BIGINT NOT NULL DEFAULT 0, memory_usage BIGINT, cpu_usage DOUBLE PRECISION, retry_count INTEGER DEFAULT 0, completed_at BIGINT NOT NULL ); COMMENT ON TABLE async_task IS '异步任务生命周期跟踪表'; COMMENT ON TABLE async_task_result IS '异步任务执行结果表'; ``` ### 2\. 部署 Redis Stack Server 我们将使用 `redis/redis-stack-server:latest` 镜像该镜像内置了 `Redisearch` 模块,用于 `ModelRT` 项目中补全功能 #### 2.1 部署命令 运行以下命令启动 `Redis Stack Server` 容器 ```bash docker run --name redis -p 6379:6379 \ -d redis/redis-stack-server:latest ``` #### 2.2 连接信息 | 参数 | 值 | 说明 | | :--- | :--- | :--- | | **容器名称** | `redis` | 容器名 | | **镜像版本** | `redis/redis-stack-server:latest` | 镜像名 | | **主机端口** | `6379` | 外部应用连接使用的端口 | | **地址** | `localhost:6379` | | | **密码** | **无** | 默认未设置密码 | > **注意:** 生产环境中建议使用 `-e REDIS_PASSWORD=` 参数来设置 `Redis` 访问密码 #### 2.3 状态检查 要确认容器是否正在运行,请执行 ```bash # 检查容器启动状态 docker ps -a |grep redis # 检查容器启动日志信息 docker logs redis ``` #### 2.4 数据注入 测试数据注入 ##### 2.4.1 Postgres数据注入 ```SQL insert into public.grid(id,tagname,name,description,op,ts) VALUES (1, 'grid1', '网格1', '测试网格1', -1,CURRENT_TIMESTAMP); insert into public.zone(id,grid_id,tagname,name,description,op,ts) VALUES (1, 1,'zone1', '区域1_1', '测试区域1_1', -1,CURRENT_TIMESTAMP); insert into public.station(id,zone_id,tagname,name,description,is_local,op,ts) VALUES (1, 1,'station1', '站1_1_1', '测试站1_1_1', true, -1,CURRENT_TIMESTAMP), (2, 1, 'station2', '站1_1_2', '测试站1_1_2', false, -1, CURRENT_TIMESTAMP); INSERT INTO public.topologic(flag, uuid_from, uuid_to, context, description, op, ts) VALUES (1, '00000000-0000-0000-0000-000000000000', '70c190f2-8a60-42a9-b143-ec5f87e0aa6b', '{}', '', 1, CURRENT_TIMESTAMP), (1, '70c190f2-8a60-42a9-b143-ec5f87e0aa6b', '10f155cf-bd27-4557-85b2-d126b6e2657f', '{}', '', 1, CURRENT_TIMESTAMP), (1, '70c190f2-8a60-42a9-b143-ec5f87e0aa6b', 'e32bc0be-67f4-4d79-a5da-eaa40a5bd77d', '{}', '', 1, CURRENT_TIMESTAMP), (1, '70c190f2-8a60-42a9-b143-ec5f87e0aa6b', '70c190f2-8a75-42a9-b166-ec5f87e0aa6b', '{}', '', 1, CURRENT_TIMESTAMP), (1, 'e32bc0be-67f4-4d79-a5da-eaa40a5bd77d', '70c200f2-8a75-42a9-c166-bf5f87e0aa6b', '{}', '', 1, CURRENT_TIMESTAMP), (1, 'e32bc0be-67f4-4d79-a5da-eaa40a5bd77d', '968dd6e6-faec-4f78-b58a-d6e68426b09e', '{}', '', 1, CURRENT_TIMESTAMP), (1, 'e32bc0be-67f4-4d79-a5da-eaa40a5bd77d', '968dd6e6-faec-4f78-b58a-d6e68426b08e', '{}', '', 1, CURRENT_TIMESTAMP); INSERT INTO public.bay (bay_uuid, name, tag, type, unom, fla, capacity, description, in_service, state, grid, zone, station, business, context, from_uuids, to_uuids, dev_protect, dev_fault_record, dev_status, dev_dyn_sense, dev_instruct, dev_etc, components, op, ts) VALUES ( '18e71a24-694a-43fa-93a7-c4d02a27d1bc', '', '', '', -1, -1, -1, '', false, -1, '', '', '', '{}', '{}', '[]', '[]', '[]', '[]', '[]', '[]', '[]', '[]', ARRAY['968dd6e6-faec-4f78-b58a-d6e68426b09e', '968dd6e6-faec-4f78-b58a-d6e68426b08e']::uuid[], -1, CURRENT_TIMESTAMP ); INSERT INTO public.component (global_uuid, nspath, tag, name, model_name, description, grid, zone, station, station_id, type, in_service, state, status, connection, label, context, op, ts) VALUES ( '968dd6e6-faec-4f78-b58a-d6e68426b09e', 'ns1', 'tag1', 'component1', 'bus_1', '', 'grid1', 'zone1', 'station1', 1, -1, true, -1, -1, '{}', '{}', '{}', -1, CURRENT_TIMESTAMP ), ( '968dd6e6-faec-4f78-b58a-d6e68426b08e', 'ns2', 'tag2', 'component2', 'bus_1', '', 'grid1', 'zone1', 'station1', 1, -1, true, -1, -1, '{}', '{}', '{}', -1, CURRENT_TIMESTAMP ), ( '968dd6e6-faec-4f78-b58a-d6e88426b09e', 'ns3', 'tag3', 'component3', 'bus_1', '', 'grid1', 'zone1', 'station2', 2, -1, true, -1, -1, '{}', '{}', '{}', -1, CURRENT_TIMESTAMP ), ( '70c190f2-8a60-42a9-b143-ec5f87e0aa6b', 'ns4', 'tag4', 'component4', 'bus_1', '', 'grid1', 'zone1', 'station1', 1, -1, true, -1, -1, '{}', '{}', '{}', -1, CURRENT_TIMESTAMP ), ( '10f155cf-bd27-4557-85b2-d126b6e2657f', 'ns5', 'tag5', 'component5', 'bus_1', '', 'grid1', 'zone1', 'station1', 1, -1, true, -1, -1, '{}', '{}', '{}', -1, CURRENT_TIMESTAMP ), ( 'e32bc0be-67f4-4d79-a5da-eaa40a5bd77d', 'ns6', 'tag6', 'component6', 'bus_1', '', 'grid1', 'zone1', 'station1', 1, -1, true, -1, -1, '{}', '{}', '{}', -1, CURRENT_TIMESTAMP ), ( '70c190f2-8a75-42a9-b166-ec5f87e0aa6b', 'ns7', 'tag7', 'component7', 'bus_1', '', 'grid1', 'zone1', 'station1', 1, -1, true, -1, -1, '{}', '{}', '{}', -1, CURRENT_TIMESTAMP ), ( '70c200f2-8a75-42a9-c166-bf5f87e0aa6b', 'ns8', 'tag8', 'component8', 'bus_1', '', 'grid1', 'zone1', 'station1', 1, -1, true, -1, -1, '{}', '{}', '{}', -1, CURRENT_TIMESTAMP ); INSERT INTO public.measurement (id, tag, name, type, size, data_source, event_plan, bay_uuid, component_uuid, op, ts) VALUES (3, 'I11_C_rms', '45母甲侧互连电流C相1', -1, 200, '{"type": 1, "io_address": {"device": "ssu001", "channel": "TM1", "station": "001"}}', '{"cause": {"up": 55.0, "down": 45.0}, "action": {"command": "warning", "parameters": ["I段母线甲侧互连电流C相1"]}, "enable": true}', '18e71a24-694a-43fa-93a7-c4d02a27d1bc', '968dd6e6-faec-4f78-b58a-d6e68426b09e', -1, CURRENT_TIMESTAMP), (4, 'I11_B_rms', '45母甲侧互连电流B相1', -1, 300, '{"type": 1, "io_address": {"device": "ssu001", "channel": "TM2", "station": "001"}}', '{"cause": {"upup": 65, "downdown": 35}, "action": {"command": "warning", "parameters": ["I段母线甲侧互连电流B相1"]}, "enable": true}', '18e71a24-694a-43fa-93a7-c4d02a27d1bc', '968dd6e6-faec-4f78-b58a-d6e68426b09e', -1, CURRENT_TIMESTAMP), (5, 'I11_A_rms', '45母甲侧互连电流A相1', -1, 300, '{"type": 1, "io_address": {"device": "ssu001", "channel": "TM3", "station": "001"}}', '{"cause": {"up": 55, "down": 45, "upup": 65, "downdown": 35}, "action": {"command": "warning", "parameters": ["I段母线甲侧互连电流A相1"]}, "enable": true}', '18e71a24-694a-43fa-93a7-c4d02a27d1bc', '968dd6e6-faec-4f78-b58a-d6e68426b09e', -1, CURRENT_TIMESTAMP); INSERT INTO public.project_manager (id, name, tag, meta_model, group_name, link_type, check_state, is_public, op, ts ) VALUES (1, 'component', 'component', '', 'component', 0, '{"checkState": [{"name": "global_uuid", "type": "UUID", "checked": 1, "isVisible": 1, "defaultValue": "", "lengthPrecision": -1}, {"name": "nspath", "type": "VARCHAR(32)", "checked": 1, "isVisible": 1, "defaultValue": "", "lengthPrecision": 32}, {"name": "tag", "type": "VARCHAR(32)", "checked": 1, "isVisible": 1, "defaultValue": "null", "lengthPrecision": 32}, {"name": "name", "type": "VARCHAR(64)", "checked": 1, "isVisible": 1, "defaultValue": "null", "lengthPrecision": 64}, {"name": "description", "type": "VARCHAR(512)", "checked": 1, "isVisible": 1, "defaultValue": "", "lengthPrecision": 512}, {"name": "station", "type": "VARCHAR(64)", "checked": 1, "isVisible": 1, "defaultValue": "null", "lengthPrecision": 64}, {"name": "zone", "type": "VARCHAR(64)", "checked": 1, "isVisible": 1, "defaultValue": "null", "lengthPrecision": 64}, {"name": "grid", "type": "VARCHAR(64)", "checked": 1, "isVisible": 1, "defaultValue": "null", "lengthPrecision": 64}, {"name": "type", "type": "INTEGER", "checked": 1, "isVisible": 0, "defaultValue": "0", "lengthPrecision": -1}, {"name": "in_service", "type": "SMALLINT", "checked": 1, "isVisible": 1, "defaultValue": "0", "lengthPrecision": -1}, {"name": "state", "type": "INTEGER", "checked": 1, "isVisible": 1, "defaultValue": "0", "lengthPrecision": -1}, {"name": "connection", "type": "JSONB", "checked": 1, "isVisible": 1, "defaultValue": "{}", "lengthPrecision": -1}, {"name": "label", "type": "JSONB", "checked": 1, "isVisible": 1, "defaultValue": "{}", "lengthPrecision": -1}, {"name": "context", "type": "JSONB", "checked": 1, "isVisible": 0, "defaultValue": "{}", "lengthPrecision": -1}, {"name": "op", "type": "INTEGER", "checked": 1, "isVisible": 0, "defaultValue": "-1", "lengthPrecision": -1}, {"name": "ts", "type": "TIMESTAMP", "checked": 1, "isVisible": 0, "defaultValue": "null", "lengthPrecision": -1}, {"name": "model_name", "type": "VARCHAR(64)", "checked": 1, "isVisible": 0, "defaultValue": "null", "lengthPrecision": 64}, {"name": "status", "type": "SMALLINT", "checked": 1, "isVisible": 0, "defaultValue": "null", "lengthPrecision": -1}]}', TRUE, -1, CURRENT_TIMESTAMP ), (2, 'bus_bus_1_base_extend', 'bus_1', 'bus', 'base_extend', 0, '{"checkState": [{"name": "bus_num", "type": "INTEGER", "checked": 1, "isVisible": 0, "defaultValue": "1", "lengthPrecision": -1}, {"name": "unom_kv", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "null", "lengthPrecision": -1}]}', FALSE, -1, CURRENT_TIMESTAMP ), (3, 'bus_bus_1_model', 'bus_1', 'bus', 'model', 0, '{"checkState": [{"name": "ui_percent", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "100", "lengthPrecision": -1}, {"name": "ui_kv", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "35", "lengthPrecision": -1}, {"name": "ui_pa", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "0", "lengthPrecision": -1}, {"name": "stability_rated_current", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "1000", "lengthPrecision": -1}, {"name": "stability_dynamic_steady_current", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "40", "lengthPrecision": -1}, {"name": "load_adjustment_min", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "100", "lengthPrecision": -1}, {"name": "load_adjustment_max", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "100", "lengthPrecision": -1}, {"name": "bus_type", "type": "VARCHAR(10)", "checked": 1, "isVisible": 1, "defaultValue": "PQ母线", "lengthPrecision": 10}, {"name": "csc_s3_max", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "0", "lengthPrecision": -1}, {"name": "csc_s3_min", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "0", "lengthPrecision": -1}, {"name": "csc_i3_max", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "0", "lengthPrecision": -1}, {"name": "csc_i3_min", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "0", "lengthPrecision": -1}, {"name": "csc_z3s_max", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "0.05", "lengthPrecision": -1}, {"name": "csc_z3s_min", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "0.1", "lengthPrecision": -1}, {"name": "csc_s1_max", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "0", "lengthPrecision": -1}, {"name": "csc_s1_min", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "0", "lengthPrecision": -1}, {"name": "csc_i1_max", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "0", "lengthPrecision": -1}, {"name": "csc_i1_min", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "0", "lengthPrecision": -1}, {"name": "csc_z1s_max", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "0.05", "lengthPrecision": -1}, {"name": "csc_z1s_min", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "0.1", "lengthPrecision": -1}, {"name": "csc_base_voltage", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "37", "lengthPrecision": -1}, {"name": "csc_base_capacity", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "100", "lengthPrecision": -1}]}', FALSE, -1, CURRENT_TIMESTAMP ), (4, 'bus_bus_1_stable', 'bus_1', 'bus', 'stable', 0, '{"checkState": [{"name": "uvpw_threshold_percent", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "95", "lengthPrecision": -1}, {"name": "uvpw_runtime", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "10", "lengthPrecision": -1}, {"name": "uvw_threshold_percent", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "90", "lengthPrecision": -1}, {"name": "uvw_runtime", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "10", "lengthPrecision": -1}, {"name": "ovpw_threshold_percent", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "105", "lengthPrecision": -1}, {"name": "ovpw_runtime", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "60", "lengthPrecision": -1}, {"name": "ovw_threshold_percent", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "110", "lengthPrecision": -1}, {"name": "ovw_runtime", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "10", "lengthPrecision": -1}, {"name": "umargin_pmax", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "0", "lengthPrecision": -1}, {"name": "umargin_qmax", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "0", "lengthPrecision": -1}, {"name": "umargin_ulim", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "90", "lengthPrecision": -1}, {"name": "umargin_plim_percent", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "15", "lengthPrecision": -1}, {"name": "umargin_qlim_percent", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "15", "lengthPrecision": -1}, {"name": "umargin_ulim_percent", "type": "DOUBLE PRECISION", "checked": 1, "isVisible": 1, "defaultValue": "15", "lengthPrecision": -1}]}', FALSE, -1, CURRENT_TIMESTAMP); INSERT INTO public.bus_bus_1_stable (id, global_uuid, attribute_group, uvpw_threshold_percent, uvpw_runtime, uvw_threshold_percent, uvw_runtime, ovpw_threshold_percent, ovpw_runtime, ovw_threshold_percent, ovw_runtime, umargin_pmax, umargin_qmax, umargin_ulim, umargin_plim_percent, umargin_qlim_percent, umargin_ulim_percent ) VALUES ( 1, '968dd6e6-faec-4f78-b58a-d6e68426b08e', 'stable', 95, 10, 90, 10, 105, 60, 110, 10, 0, 0, 90, 15, 15, 15 ); INSERT INTO public.bus_bus_1_model (id, global_uuid, attribute_group, ui_percent, ui_kv, ui_pa, stability_rated_current, stability_dynamic_steady_current, load_adjustment_min, load_adjustment_max, bus_type, csc_s3_max, csc_s3_min, csc_i3_max, csc_i3_min, csc_z3s_max, csc_z3s_min, csc_s1_max, csc_s1_min, csc_i1_max, csc_i1_min, csc_z1s_max, csc_z1s_min, csc_base_voltage, csc_base_capacity ) VALUES ( 1, '968dd6e6-faec-4f78-b58a-d6e68426b08e', 'model', 100, 35, 0, 1000, 40, 100, 100, 'PQ母线', 0, 0, 0, 0, 0.05, 0.1, 0, 0, 0, 0, 0.05, 0.1, 37, 100 ); INSERT INTO public.bus_bus_1_base_extend (id, global_uuid, attribute_group, bus_num, unom_kv ) VALUES ( 1, '968dd6e6-faec-4f78-b58a-d6e68426b08e', 'base_extend', 1, NULL ); ``` ##### 2.4.2 Redis数据注入 Redis数据脚本 ```shell deploy/redis-test-data/measurments-recommend/measurement_injection.go ``` 运行脚本向 Reids 导入数据 ```shell go run deploy/redis-test-data/measurments-recommend/measurement_injection.go ``` ### 3\. 启动 ModelRT 服务 #### 3.1 配置服务配置文件 以下表格为配置文件参数说明表 | 类别 | 参数名 | 作用描述 | 示例值 | | :--- | :--- | :--- | :--- | | **Postgres** | `host` | PostgreSQL 数据库服务器的 `IP` 地址或域名。 | `"192.168.1.101"` | | | `port` | PostgreSQL 数据库服务器的端口号。 | `5432` | | | `database` | 连接的数据库名称。 | `"demo"` | | | `user` | 连接数据库所使用的用户名。 | `"postgres"` | | | `password` | 连接数据库所使用的密码。 | `"coslight"` | | **Kafka** | `servers` | Kafka 集群的 `Bootstrap Server` 地址列表(通常是 `host:port` 形式,多个地址用逗号分隔)。 | `"localhost:9092"` | | | `port` | Kafka 服务器的端口号。 | `9092` | | | `group_id` | 消费者组 `ID`,用于标识和管理一组相关的消费者。 | `"modelRT"` | | | `topic` | Kafka 消息的主题名称。 | `""` | | | `auto_offset_reset` | 消费者首次启动或 `Offset` 无效时,从哪个位置开始消费(如 `earliest` 或 `latest`)。 | `"earliest"` | | | `enable_auto_commit` | 是否自动提交 `Offset`。设为 `false` 通常用于手动控制 `Offset` 提交。 | `"false"` | | | `read_message_time_duration` | 读取消息时的超时或等待时间。 | `”0.5s"` | | **Logger (Zap)** | `mode` | 日志模式,通常为 `development`(开发)或 `production`(生产)。影响日志格式。 | `"development"` | | | `level` | 最低日志级别(如 `debug`, `info`, `warn`, `error`)。 | `"debug"` | | | `filepath` | 日志文件的输出路径和名称格式(`%s` 会被替换为日期等)。 | `"/Users/douxu/Workspace/coslight/modelRT/modelRT-%s.log"` | | | `maxsize` | 单个日志文件最大大小(单位:`MB`)。 | `1` | | | `maxbackups` | 保留旧日志文件的最大个数。 | `5` | | | `maxage` | 保留旧日志文件的最大天数。 | `30` | | | `compress` | 是否压缩备份的日志文件。 | `false` | | **Ants Pool** | `parse_concurrent_quantity` | 用于解析任务的协程池最大并发数量。 | `10` | | | `rtd_receive_concurrent_quantity` | 用于实时数据接收任务的协程池最大并发数量。 | `10` | | **Locker Redis** | `addr` | 分布式锁服务所使用的 `Redis` 地址。 | `"127.0.0.1:6379"` | | | `password` | `Locker Redis` 的密码。 | `""` | | | `db` | `Locker Redis` 使用的数据库编号。 | `1` | | | `poolsize` | `Locker Redis` 连接池的最大连接数。 | `50` | | | `timeout` | `Locker Redis` 连接操作的超时时间(单位:毫秒)。 | `10` | | **Storage Redis** | `addr` | 数据存储服务所使用的 `Redis` 地址(例如 `Redisearch`)。 | `"127.0.0.1:6379"` | | | `password` | `Storage Redis` 的密码。 | `""` | | | `db` | `Storage Redis` 使用的数据库编号。 | `0` | | | `poolsize` | `Storage Redis` 连接池的最大连接数。 | `50` | | | `timeout` | `Storage Redis` 连接操作的超时时间(单位:毫秒)。 | `10` | | **Base Config** | `grid_id` | 项目所操作的默认电网 `ID`。 | `1` | | | `zone_id` | 项目所操作的默认区域 `ID`。 | `1` | | | `station_id` | 项目所操作的默认变电站 `ID`。 | `1` | | **Service Config** | `service_name` | 服务名称,用于日志、监控等标识。 | `"modelRT"` | | | `secret_key` | 服务内部使用的秘钥,用于签名或认证。 | `"modelrt_key"` | | **DataRT API** | `host` | 外部 `DataRT` 服务的主机地址。 | `"http://127.0.0.1"` | | | `port` | `DataRT` 服务的端口号。 | `8888` | | | `polling_api` | 轮询数据的 `API` 路径。 | `"datart/getPointData"` | | | `polling_api_method` | 调用该 `API` 使用的 `HTTP` 方法。 | `"GET"` | #### 3.2 编译 ModelRT 服务 ```bash go build -o model-rt main.go ``` #### 3.3 启动服务 使用编译好的二进制文件进行启动 ```bash ./model-rt ``` #### 3.4 检测服务启动日志 在发现控制台输出如下信息`starting ModelRT server` 后即代表服务启动成功 ### 4\. 部署基础依赖(Kubernetes) Redis 和 RabbitMQ 部署在 Minikube 中,YAML 文件位于 `deploy/k8s/`。RabbitMQ 启用双向 TLS(mTLS),客户端以 X.509 证书的 CN 字段作为用户名进行认证。 #### 4.1 部署 Redis ```bash kubectl apply -f deploy/k8s/redis-deployment.yaml kubectl apply -f deploy/k8s/redis-service.yaml ``` | 参数 | 值 | 说明 | | :--- | :--- | :--- | | **镜像** | `redis/redis-stack-server:latest` | 内置 Redisearch 模块 | | **NodePort** | `30001` | 集群外访问端口 | #### 4.2 RabbitMQ TLS 证书生成 RabbitMQ 配置为仅允许 TLS 连接(`listeners.tcp = none`),所有客户端须持有由同一 CA 签发的证书。 ##### 4.2.1 生成根 CA ```bash # 克隆 tls-gen 工具 git clone https://github.com/rabbitmq/tls-gen.git cd tls-gen/basic # 生成根 CA(结果在 result/ 目录) make CN=rabbitmq-server # ca_certificate.pem 和 ca_key.pem 生成于 result/ ``` ##### 4.2.2 生成服务器证书 服务器证书需包含 SAN(Subject Alternative Name),使其同时匹配集群内 DNS 和 Minikube IP。 创建 `server.cnf`: ```text [req] distinguished_name = req_distinguished_name prompt = no [req_distinguished_name] C = CN ST = Beijing L = Beijing O = coslight CN = rabbitmq-server [v3_server] keyUsage = critical, digitalSignature, keyEncipherment extendedKeyUsage = serverAuth, clientAuth subjectAltName = @alt_names [alt_names] DNS.1 = rabbitmq-server DNS.2 = rabbitmq-service.default.svc.cluster.local DNS.3 = localhost IP.1 = 192.168.49.2 IP.2 = 127.0.0.1 ``` 生成证书: ```bash # 将 ca_certificate.pem 和 ca_key.pem(即 cakey.pem)放在当前目录 openssl genrsa -out server_key.pem 2048 openssl req -new -key server_key.pem -out server_cert.csr -config server.cnf openssl x509 -req -in server_cert.csr \ -CA ca_certificate.pem -CAkey cakey.pem -CAcreateserial \ -out server_certificate.pem -days 730 -sha256 \ -extfile server.cnf -extensions v3_server rm server_cert.csr ``` ##### 4.2.3 生成 ModelRT 客户端证书 CN 必须与 RabbitMQ 中注册的用户名一致(`modelrt-client`)。 创建 `modelrt.cnf`: ```text [req] distinguished_name = req_distinguished_name prompt = no [req_distinguished_name] C = CN ST = Beijing L = Beijing O = coslight CN = modelrt-client [v3_client] keyUsage = critical, digitalSignature, keyEncipherment extendedKeyUsage = clientAuth ``` 生成证书: ```bash openssl genrsa -out modelrt_client_key.pem 2048 openssl req -new -key modelrt_client_key.pem \ -out modelrt_client.csr -config modelrt.cnf openssl x509 -req -in modelrt_client.csr \ -CA ca_certificate.pem -CAkey cakey.pem -CAcreateserial \ -out modelrt_client_cert.pem -days 365 \ -extensions v3_client -extfile modelrt.cnf rm modelrt_client.csr ``` ##### 4.2.4 生成 EventRT 客户端证书 创建 `eventrt.cnf`(CN 改为 `eventrt-client`): ```text [req] distinguished_name = req_distinguished_name prompt = no [req_distinguished_name] C = CN ST = Beijing L = Beijing O = coslight CN = eventrt-client [v3_client] keyUsage = critical, digitalSignature, keyEncipherment extendedKeyUsage = clientAuth ``` 生成证书: ```bash openssl genrsa -out eventrt_client_key.pem 2048 openssl req -new -key eventrt_client_key.pem \ -out eventrt_client.csr -config eventrt.cnf openssl x509 -req -in eventrt_client.csr \ -CA ca_certificate.pem -CAkey cakey.pem -CAcreateserial \ -out eventrt_client_cert.pem -days 365 \ -extensions v3_client -extfile eventrt.cnf rm eventrt_client.csr ``` ##### 4.2.5 验证证书 ```bash # 验证服务器证书 openssl verify -CAfile ca_certificate.pem server_certificate.pem # 验证客户端证书 openssl verify -CAfile ca_certificate.pem modelrt_client_cert.pem openssl verify -CAfile ca_certificate.pem eventrt_client_cert.pem # 查看证书详情(确认 CN 和 SAN) openssl x509 -in server_certificate.pem -noout -subject -ext subjectAltName openssl x509 -in modelrt_client_cert.pem -noout -subject openssl x509 -in eventrt_client_cert.pem -noout -subject ``` #### 4.3 部署 RabbitMQ ##### 4.3.1 创建证书 Secret 将服务器端三个证书文件打包为 K8s Secret(在证书文件所在目录执行): ```bash kubectl create secret generic rabbitmq-certs \ --from-file=ca_certificate.pem=./ca_certificate.pem \ --from-file=server_certificate.pem=./server_certificate.pem \ --from-file=server_key.pem=./server_key.pem ``` ##### 4.3.2 部署 ```bash kubectl apply -f deploy/k8s/rabbitmq-secret.yaml kubectl apply -f deploy/k8s/rabbitmq-config.yaml kubectl apply -f deploy/k8s/rabbitmq-users-config.yaml kubectl apply -f deploy/k8s/rabbitmq-deployment.yaml kubectl apply -f deploy/k8s/rabbitmq-service.yaml ``` ##### 4.3.3 端口汇总 | 端口 | NodePort | 说明 | | :--- | :--- | :--- | | `5671` | `30671` | AMQP over TLS(客户端连接) | | `5672` | `30672` | AMQP 明文(内部备用,生产禁用) | | `15671` | `31671` | Management UI over TLS | | `15672` | `31672` | Management UI 明文(内部备用) | ##### 4.3.4 用户与权限说明 用户定义在 `rabbitmq-users-config.yaml` 的 `definitions.json` 中,通过 `load_definitions` 启动时自动加载: | 用户 | 认证方式 | 权限 | 说明 | | :--- | :--- | :--- | :--- | | `coslight` | 密码 | administrator | 管理员,密码在 rabbitmq-secret.yaml | | `modelrt-client` | X.509 证书(CN) | configure/read/write | ModelRT 服务专用 | | `eventrt-client` | X.509 证书(CN) | configure/read/write | EventRT 服务专用 | | `web-client` | X.509 证书(CN) | read/write | Web 客户端 | > **注意:** 证书认证用户的 `password_hash` 留空;RabbitMQ 通过 `ssl_cert_login_from = common_name` 将证书 CN 映射为用户名。 #### 4.4 部署 PostgreSQL ```bash kubectl apply -f deploy/k8s/pg-configmap.yaml kubectl apply -f deploy/k8s/pg-pvc.yaml kubectl apply -f deploy/k8s/pg-statefulset.yaml kubectl apply -f deploy/k8s/pg-service.yaml ``` | 参数 | 值 | 说明 | | :--- | :--- | :--- | | **镜像** | `postgres:13.16` | PostgreSQL 13.16 | | **NodePort** | `30432` | 集群外访问端口 | | **数据库** | `demo` | ConfigMap 中 `POSTGRES_DB` | | **用户名** | `postgres` | ConfigMap 中 `POSTGRES_USER` | | **密码** | `coslight` | ConfigMap `postgres-config` 中配置,生产环境迁移至 Secret | | **存储** | `6Gi` | PVC `postgres-data` | | **CPU** | `100m` 请求 / `500m` 上限 | StatefulSet `resources` 字段 | | **内存** | `256Mi` 请求 / `512Mi` 上限 | StatefulSet `resources` 字段 | > **注意:** 密码当前以明文形式存储在 `pg-configmap.yaml` 中,生产环境应将其迁移至 K8s Secret,并通过环境变量注入容器,避免将明文密码提交至版本库。 ##### 4.4.1 等待 Pod 就绪 ```bash kubectl wait --for=condition=ready pod -l app=postgres --timeout=120s ``` ##### 4.4.2 连接验证 ```bash # 快速检查 PostgreSQL 是否接受连接 kubectl exec -it $(kubectl get pod -l app=postgres -o jsonpath='{.items[0].metadata.name}') \ -- pg_isready -U postgres -d demo # 进入 psql 执行简单查询确认数据库可用 kubectl exec -it $(kubectl get pod -l app=postgres -o jsonpath='{.items[0].metadata.name}') \ -- psql -U postgres -d demo -c "SELECT current_database(), version();" # 列出所有数据库(确认 demo 库已创建) kubectl exec -it $(kubectl get pod -l app=postgres -o jsonpath='{.items[0].metadata.name}') \ -- psql -U postgres -c "\l" ``` ##### 4.4.3 初始化异步任务表 PostgreSQL 就绪后执行 1.4 节的建表 SQL,可通过以下方式进入容器执行: ```bash # 交互式 psql kubectl exec -it $(kubectl get pod -l app=postgres -o jsonpath='{.items[0].metadata.name}') \ -- psql -U postgres -d demo # 或将 SQL 文件通过管道一次性执行 kubectl exec -i $(kubectl get pod -l app=postgres -o jsonpath='{.items[0].metadata.name}') \ -- psql -U postgres -d demo < /path/to/init.sql ``` ##### 4.4.4 状态检查 ```bash kubectl get pods -l app=postgres kubectl logs -l app=postgres --tail=30 ``` ##### 4.4.5 清理 ```bash kubectl delete -f deploy/k8s/pg-service.yaml \ -f deploy/k8s/pg-statefulset.yaml \ -f deploy/k8s/pg-pvc.yaml \ -f deploy/k8s/pg-configmap.yaml ``` ### 5\. 部署 ModelRT(Kubernetes) 所有资源部署在 `default` 命名空间,YAML 文件位于 `deploy/k8s/`。 #### 5.1 构建并推送镜像 镜像采用三阶段构建,最终基于 `scratch`: | 阶段 | 基础镜像 | 作用 | | :--- | :--- | :--- | | **builder** | `golang:1.26-alpine` | 编译 Go 二进制(`CGO_ENABLED=0`,`-trimpath -ldflags="-s -w"`) | | **certs** | `alpine:3.21` | 提取 CA 证书、时区数据及非 root 用户定义(UID 默认 `1000`) | | **runtime** | `scratch` | 仅含可执行文件与运行时依赖,无 shell、无包管理器 | **方式一:从源码构建并加载** ```bash # 在项目根目录执行(默认运行用户 UID=1000) docker build -f deploy/dockerfile/modelrt.Dockerfile -t coslight/modelrt:latest . # 自定义运行用户 UID docker build -f deploy/dockerfile/modelrt.Dockerfile \ --build-arg USER_ID=2000 \ -t coslight/modelrt:latest . # 加载到 Minikube(无需私有仓库) minikube image load coslight/modelrt:latest ``` **方式二:直接加载已有本地镜像** Ubuntu 宿主机上已存在构建好的镜像(如 `modelrt:v1`)时,无需重新构建,直接导入 Minikube: ```bash # 确认本地镜像存在 docker images modelrt:v1 # 加载到 Minikube minikube image load modelrt:v1 # 验证镜像已进入 Minikube 缓存 minikube image ls | grep modelrt ``` > **注意:** `deploy/k8s/modelrt-deployment.yaml` 中的 `image` 字段需与加载的镜像名称一致,并将 `imagePullPolicy` 设为 `Never`,防止 Minikube 尝试从远端拉取。 #### 5.1.1 镜像冒烟测试 ```bash # 查看镜像大小(scratch 镜像预期 ≤ 25 MB) docker images coslight/modelrt:latest # 检查镜像元信息(确认 User、Cmd、架构) docker inspect coslight/modelrt:latest # 验证二进制可执行(无 config 时程序报错退出属预期行为,说明镜像构建正常) docker run --rm coslight/modelrt:latest # 挂载示例配置做完整启动验证(Ctrl+C 退出) docker run --rm \ -v "$(pwd)/configs/config.example.yaml:/app/configs/config.yaml" \ -p 8080:8080 \ coslight/modelrt:latest ``` > **注意:** `scratch` 镜像不含 shell,无法使用 `docker exec` 进入容器调试;如需排查问题,可临时将最终阶段改为 `alpine` 进行本地调试,确认后再切回 `scratch`。 #### 5.2 创建客户端证书 Secret 在 RabbitMQ TLS 证书生成完成后(见 4.2),进入证书文件所在目录执行: ```bash sh deploy/k8s/modelrt-certs-secret.sh ``` 该脚本等价于: ```bash kubectl create secret generic modelrt-certs \ --from-file=ca_certificate.pem=./ca_certificate.pem \ --from-file=modelrt_client_cert.pem=./modelrt_client_cert.pem \ --from-file=modelrt_client_key.pem=./modelrt_client_key.pem ``` #### 5.3 部署 ```bash kubectl apply -f deploy/k8s/modelrt-secret.yaml kubectl apply -f deploy/k8s/modelrt-configmap.yaml kubectl apply -f deploy/k8s/modelrt-deployment.yaml kubectl apply -f deploy/k8s/modelrt-service.yaml ``` #### 5.4 配置说明 | 配置项 | 方式 | 说明 | | :--- | :--- | :--- | | `postgres.password` | Secret `modelrt-secret` | 不写入 ConfigMap | | `service.secret_key` | Secret `modelrt-secret` | 不写入 ConfigMap | | RabbitMQ 客户端证书 | Secret `modelrt-certs` | 挂载至 `/app/configs/certs/` | | `config.yaml` 其余配置 | ConfigMap `modelrt-config` | 所有 host 已替换为 K8s service 名 | | `K8S_NAMESPACE` / `K8S_NODE_NAME` | Downward API | 注入至日志全局字段 | > **注意:** `modelrt-configmap.yaml` 中 `postgres.password` 和 `service.secret_key` 留空,实际值由容器启动时的环境变量 `POSTGRES_PASSWORD` / `SERVICE_SECRET_KEY` 注入,应用需读取这两个环境变量覆盖 config 中的空值。若应用当前仅读取文件配置,可直接将值填入 `modelrt-secret.yaml` 并在 ConfigMap 中引用,或在 ConfigMap 中直接填写。 #### 5.5 状态检查 ```bash # 查看 Pod 状态 kubectl get pods -l app=modelrt # 查看启动日志 kubectl logs -l app=modelrt --tail=50 # 查看 Service kubectl get svc modelrt-service ``` #### 5.6 端口汇总 | NodePort | 说明 | | :--- | :--- | | `30080` | ModelRT HTTP API,SSH 隧道本地端口 `8080` | #### 5.7 清理 ```bash kubectl delete -f deploy/k8s/modelrt-service.yaml \ -f deploy/k8s/modelrt-deployment.yaml \ -f deploy/k8s/modelrt-configmap.yaml \ -f deploy/k8s/modelrt-secret.yaml kubectl delete secret modelrt-certs ``` ### 6\. 部署可观测性栈(Kubernetes) 在 `Kubernetes` 集群中部署 `Jaeger`(链路追踪)+ `Loki + Promtail + Grafana`(日志可视化)。所有资源部署在 `default` 命名空间,`YAML` 文件位于 `deploy/k8s/`。 #### 6.1 部署 Jaeger ```bash kubectl apply -f deploy/k8s/jaeger-deployment.yaml kubectl apply -f deploy/k8s/jaeger-service.yaml ``` #### 6.2 部署 Loki ```bash kubectl apply -f deploy/k8s/loki-configmap.yaml kubectl apply -f deploy/k8s/loki-pvc.yaml kubectl apply -f deploy/k8s/loki-deployment.yaml kubectl apply -f deploy/k8s/loki-service.yaml ``` #### 6.3 部署 Promtail ```bash kubectl apply -f deploy/k8s/promtail-rbac.yaml kubectl apply -f deploy/k8s/promtail-configmap.yaml kubectl apply -f deploy/k8s/promtail-daemonset.yaml ``` #### 6.4 部署 Grafana ```bash kubectl apply -f deploy/k8s/grafana-configmap.yaml kubectl apply -f deploy/k8s/grafana-deployment.yaml kubectl apply -f deploy/k8s/grafana-service.yaml ``` #### 6.5 一键部署 ```bash kubectl apply -f deploy/k8s/jaeger-deployment.yaml \ -f deploy/k8s/jaeger-service.yaml \ -f deploy/k8s/loki-configmap.yaml \ -f deploy/k8s/loki-pvc.yaml \ -f deploy/k8s/loki-deployment.yaml \ -f deploy/k8s/loki-service.yaml \ -f deploy/k8s/promtail-rbac.yaml \ -f deploy/k8s/promtail-configmap.yaml \ -f deploy/k8s/promtail-daemonset.yaml \ -f deploy/k8s/grafana-configmap.yaml \ -f deploy/k8s/grafana-deployment.yaml \ -f deploy/k8s/grafana-service.yaml ``` #### 6.6 状态检查 ```bash # 查看所有 Pod 状态 kubectl get pods # 查看所有 Service 及 NodePort kubectl get svc ``` #### 6.7 端口汇总 | 服务 | NodePort | 访问地址 | 说明 | | :--- | :--- | :--- | :--- | | **Jaeger UI** | `31686` | `http://:31686` | 链路追踪查询界面 | | **Loki** | `31100` | `http://:31100` | 日志 HTTP API | | **Grafana** | `31000` | `http://:31000` | 可视化界面,账号 `admin / coslight` | | **OTLP gRPC** | `31317` | `:31317` | ModelRT OTel 上报地址(gRPC) | | **OTLP HTTP** | `31318` | `http://:31318` | ModelRT OTel 上报地址(HTTP) | #### 6.8 清理 ```bash kubectl delete -f deploy/k8s/ ``` ### 7\. Mac 本地访问(SSH 隧道) `ModelRT / EventRT` 在 `Mac` 本地运行时,依赖的 `RabbitMQ`、`Redis`、`Jaeger`、`Loki`、`Grafana` 均部署在 `Ubuntu` 宿主机(`192.168.1.101`)上的 `Minikube`(`192.168.49.2`)中。由于 `Minikube` 网络不直接对外暴露,需通过 `SSH` 本地端口转发建立访问隧道。 #### 7.1 网络拓扑 ``` text Mac 本地端口 ──SSH隧道──▶ Ubuntu 宿主机 (192.168.1.101) ──▶ Minikube NodePort (192.168.49.2) ``` #### 7.2 建立隧道 ```bash ssh -L 5432:192.168.49.2:30432 \ -L 5671:192.168.49.2:30671 \ -L 15671:192.168.49.2:31671 \ -L 6379:192.168.49.2:30001 \ -L 4318:192.168.49.2:31318 \ -L 16686:192.168.49.2:31686 \ -L 3100:192.168.49.2:31100 \ -L 3000:192.168.49.2:31000 \ douxu@192.168.1.101 ``` 如需后台静默运行(不占用终端): ```bash ssh -fN \ -L 5432:192.168.49.2:30432 \ -L 5671:192.168.49.2:30671 \ -L 15671:192.168.49.2:31671 \ -L 6379:192.168.49.2:30001 \ -L 4318:192.168.49.2:31318 \ -L 16686:192.168.49.2:31686 \ -L 3100:192.168.49.2:31100 \ -L 3000:192.168.49.2:31000 \ douxu@192.168.1.101 ``` #### 7.3 端口映射说明 | Mac 本地端口 | Minikube NodePort | 服务 | 说明 | | :--- | :--- | :--- | :--- | | `5432` | `30432` | PostgreSQL | 数据库连接 `localhost:5432` | | `5671` | `30671` | RabbitMQ AMQP | ModelRT / EventRT 消息队列连接 | | `15671` | `31671` | RabbitMQ Management | RabbitMQ 管理界面 `http://localhost:15671` | | `6379` | `30001` | Redis | 分布式锁 / 数据存储 | | `4318` | `31318` | OTLP HTTP | OTel Trace 上报(Jaeger Collector) | | `16686` | `31686` | Jaeger UI | 链路追踪查询 `http://localhost:16686` | | `3100` | `31100` | Loki | 日志查询 API | | `3000` | `31000` | Grafana | 可视化界面 `http://localhost:3000` | > **注意:** 隧道建立后,本地配置文件中所有服务地址均填 `localhost:<本地端口>`,无需修改即可在 `Mac` 上直接运行服务。 #### 7.4 关闭隧道 前台运行时直接 `Ctrl+C`;后台运行时查找并终止进程: ```bash # 找到 ssh 隧道进程 ps aux | grep "ssh -fN" # 终止(替换为实际 PID) kill ``` ### 8\. 后续操作(停止与清理) #### 8.1 本地 Docker 部署清理 适用于第 1、2 节使用 `docker run` 启动的 PostgreSQL 和 Redis 容器。 ```bash # 停止容器 docker stop postgres redis # 删除容器(容器内数据将同步丢失) docker rm postgres redis ``` #### 8.2 本地运行清理 适用于第 3 节以 `go run` 或编译后二进制方式在本地启动的 ModelRT 服务。 前台运行时直接 `Ctrl+C` 终止;后台运行时查找并终止进程: ```bash # 终止 go run 启动的进程 pkill -f "go run main.go" # 或终止编译后的二进制进程 pkill model-rt ``` #### 8.3 K8s(Minikube) 部署清理 适用于第 4、5、6 节在 Minikube 中部署的所有资源。 ##### 8.3.1 分服务清理 **仅停止(缩容至 0,PVC 数据保留)** 将所有 Deployment 和 StatefulSet 缩容至 0 副本,Pod 停止运行但持久卷数据不删除,之后可直接缩容回 1 恢复服务。 ```bash # 停止所有 Deployment(Redis / RabbitMQ / ModelRT / Jaeger / Loki / Grafana) kubectl scale deployment --all --replicas=0 # 停止所有 StatefulSet(PostgreSQL,PVC 数据保留) kubectl scale statefulset --all --replicas=0 ``` 恢复时: ```bash kubectl scale deployment --all --replicas=1 kubectl scale statefulset --all --replicas=1 ``` > **注意:** DaemonSet(Promtail)无法通过 `scale` 停止,如需停用可手动删除其资源:`kubectl delete -f deploy/k8s/promtail-daemonset.yaml`。 --- **永久清理(删除所有资源,包含 PVC,数据不可恢复)** 按部署顺序反向删除各服务资源: ```bash # 可观测性栈(Grafana / Promtail / Loki / Jaeger) kubectl delete -f deploy/k8s/grafana-service.yaml \ -f deploy/k8s/grafana-deployment.yaml \ -f deploy/k8s/grafana-configmap.yaml \ -f deploy/k8s/promtail-daemonset.yaml \ -f deploy/k8s/promtail-configmap.yaml \ -f deploy/k8s/promtail-rbac.yaml \ -f deploy/k8s/loki-service.yaml \ -f deploy/k8s/loki-deployment.yaml \ -f deploy/k8s/loki-pvc.yaml \ -f deploy/k8s/loki-configmap.yaml \ -f deploy/k8s/jaeger-service.yaml \ -f deploy/k8s/jaeger-deployment.yaml # ModelRT 应用 kubectl delete -f deploy/k8s/modelrt-service.yaml \ -f deploy/k8s/modelrt-deployment.yaml \ -f deploy/k8s/modelrt-configmap.yaml \ -f deploy/k8s/modelrt-secret.yaml kubectl delete secret modelrt-certs # PostgreSQL kubectl delete -f deploy/k8s/pg-service.yaml \ -f deploy/k8s/pg-statefulset.yaml \ -f deploy/k8s/pg-pvc.yaml \ -f deploy/k8s/pg-configmap.yaml # RabbitMQ kubectl delete -f deploy/k8s/rabbitmq-service.yaml \ -f deploy/k8s/rabbitmq-deployment.yaml \ -f deploy/k8s/rabbitmq-users-config.yaml \ -f deploy/k8s/rabbitmq-config.yaml \ -f deploy/k8s/rabbitmq-secret.yaml kubectl delete secret rabbitmq-certs # Redis kubectl delete -f deploy/k8s/redis-service.yaml \ -f deploy/k8s/redis-deployment.yaml ``` ##### 8.3.2 一键清理 > **注意:** 此操作会删除 `deploy/k8s/` 下所有 YAML 对应的 K8s 资源,包括 PVC,**持久化数据将永久丢失**,请确认后执行。 ```bash kubectl delete -f deploy/k8s/ kubectl delete secret rabbitmq-certs modelrt-certs ```