AI智能摘要
本文介绍了基于雨云宁波地区服务器,使用Docker部署Headscale 0.26.1与HeadPlane 0.6.0的私有化组网方案。涵盖docker-compose安装、服务配置、域名与IP设置、TLS证书申请及反向代理配置。通过创建用户和预授权密钥实现设备接入,并支持MagicDNS、ACL策略及自建DERP节点优化连接。最终通过NGINX反向代理实现HTTPS访问HeadPlane控制台,完成对Tailscale兼容网络的可视化管理。
— 此摘要由AI分析文章内容生成,仅供参考。
本次使用的云服务商 雨云 宁波地区
Docker安装Headscale
首先先安装docker-compose
apt update
apt upgrade -y
apt install docker-compose
配置Headscale以及HeadPlane(仿Tailscale前端控制面板),文件位于/opt/headscale/docker-compose.yaml
version: '3'
services:
headscale:
image: headscale/headscale:0.26.1
container_name: headscale
command: serve
restart: unless-stopped
volumes:
- /opt/headscale/config:/etc/headscale/
- /opt/headscale/data:/var/lib/headscale/
network_mode: host
headplane:
image: ghcr.nju.edu.cn/tale/headplane:0.6.0
container_name: headplane
restart: unless-stopped
ports:
- "8091:3000"
volumes:
- /opt/headscale/headplane/config.yaml:/etc/headplane/config.yaml
# Headplane stores its data in this directory
- /opt/headscale/headplane/headplane-data:/var/lib/headplane
# If you are using the Docker integration, mount the Docker socket
- /var/run/docker.sock:/var/run/docker.sock:ro
创建以下目录和文件后拉取一下镜像
torch /opt/headscale/config/config.yaml
touch /opt/headscale/config/extra-records.json
touch /opt/headscale/headplane/config.yaml
cd /opt/headscale
docker-compose up -d
然后配置/opt/headscale/config/config.yaml,务必修改“你的域名”和“你的IP”两个地方,其余可根据自己的需求修改
---
# headscale will look for a configuration file named `config.yaml` (or `config.json`) in the following order:
#
# - `/etc/headscale`
# - `~/.headscale`
# - current working directory
# The url clients will connect to.
# Typically this will be a domain like:
#
# https://myheadscale.example.com:443
#
server_url: https://你的域名:443
# Address to listen to / bind to on the server
#
# For production:
# listen_addr: 0.0.0.0:8080
listen_addr: 0.0.0.0:8080
# Address to listen to /metrics and /debug, you may want
# to keep this endpoint private to your internal network
metrics_listen_addr: 0.0.0.0:9090
# Address to listen for gRPC.
# gRPC is used for controlling a headscale server
# remotely with the CLI
# Note: Remote access _only_ works if you have
# valid certificates.
#
# For production:
# grpc_listen_addr: 0.0.0.0:50443
grpc_listen_addr: 0.0.0.0:50443
# Allow the gRPC admin interface to run in INSECURE
# mode. This is not recommended as the traffic will
# be unencrypted. Only enable if you know what you
# are doing.
grpc_allow_insecure: false
# The Noise section includes specific configuration for the
# TS2021 Noise protocol
noise:
# The Noise private key is used to encrypt the traffic between headscale and
# Tailscale clients when using the new Noise-based protocol. A missing key
# will be automatically generated.
private_key_path: /var/lib/headscale/noise_private.key
# List of IP prefixes to allocate tailaddresses from.
# Each prefix consists of either an IPv4 or IPv6 address,
# and the associated prefix length, delimited by a slash.
# It must be within IP ranges supported by the Tailscale
# client - i.e., subnets of 100.64.0.0/10 and fd7a:115c:a1e0::/48.
# See below:
# IPv6: https://github.com/tailscale/tailscale/blob/22ebb25e833264f58d7c3f534a8b166894a89536/net/tsaddr/tsaddr.go#LL81C52-L81C71
# IPv4: https://github.com/tailscale/tailscale/blob/22ebb25e833264f58d7c3f534a8b166894a89536/net/tsaddr/tsaddr.go#L33
# Any other range is NOT supported, and it will cause unexpected issues.
prefixes:
v4: 100.17.0.0/10
v6: fd7a:115c:a1e0::/48
# Strategy used for allocation of IPs to nodes, available options:
# - sequential (default): assigns the next free IP from the previous given IP.
# - random: assigns the next free IP from a pseudo-random IP generator (crypto/rand).
allocation: sequential
# DERP is a relay system that Tailscale uses when a direct
# connection cannot be established.
# https://tailscale.com/blog/how-tailscale-works/#encrypted-tcp-relays-derp
#
# headscale needs a list of DERP servers that can be presented
# to the clients.
derp:
server:
# If enabled, runs the embedded DERP server and merges it into the rest of the DERP config
# The Headscale server_url defined above MUST be using https, DERP requires TLS to be in place
enabled: true
# Region ID to use for the embedded DERP server.
# The local DERP prevails if the region ID collides with other region ID coming from
# the regular DERP config.
region_id: 999
# Region code and name are displayed in the Tailscale UI to identify a DERP region
region_code: "headscale"
region_name: "Headscale Embedded DERP"
# Listens over UDP at the configured address for STUN connections - to help with NAT traversal.
# When the embedded DERP server is enabled stun_listen_addr MUST be defined.
#
# For more details on how this works, check this great article: https://tailscale.com/blog/how-tailscale-works/
stun_listen_addr: "0.0.0.0:3478"
# Private key used to encrypt the traffic between headscale DERP and
# Tailscale clients. A missing key will be automatically generated.
private_key_path: /var/lib/headscale/derp_server_private.key
# This flag can be used, so the DERP map entry for the embedded DERP server is not written automatically,
# it enables the creation of your very own DERP map entry using a locally available file with the parameter DERP.paths
# If you enable the DERP server and set this to false, it is required to add the DERP server to the DERP map using DERP.paths
automatically_add_embedded_derp_region: true
# For better connection stability (especially when using an Exit-Node and DNS is not working),
# it is possible to optionally add the public IPv4 and IPv6 address to the Derp-Map using:
ipv4: 你的IP
# List of externally available DERP maps encoded in JSON
urls:
- https://controlplane.tailscale.com/derpmap/default
# Locally available DERP map files encoded in YAML
#
# This option is mostly interesting for people hosting
# their own DERP servers:
# https://tailscale.com/kb/1118/custom-derp-servers/
#
# paths:
# - /etc/headscale/derp-example.yaml
#paths: ["/etc/headscale/derp.yaml"]
# If enabled, a worker will be set up to periodically
# refresh the given sources and update the derpmap
# will be set up.
auto_update_enabled: true
# How often should we check for DERP updates?
update_frequency: 24h
# Disables the automatic check for headscale updates on startup
disable_check_updates: false
# Time before an inactive ephemeral node is deleted?
ephemeral_node_inactivity_timeout: 30m
database:
# Database type. Available options: sqlite, postgres
# Please note that using Postgres is highly discouraged as it is only supported for legacy reasons.
# All new development, testing and optimisations are done with SQLite in mind.
type: sqlite
# Enable debug mode. This setting requires the log.level to be set to "debug" or "trace".
debug: false
# GORM configuration settings.
gorm:
# Enable prepared statements.
prepare_stmt: true
# Enable parameterized queries.
parameterized_queries: true
# Skip logging "record not found" errors.
skip_err_record_not_found: true
# Threshold for slow queries in milliseconds.
slow_threshold: 1000
# SQLite config
sqlite:
path: /var/lib/headscale/db.sqlite
# Enable WAL mode for SQLite. This is recommended for production environments.
# https://www.sqlite.org/wal.html
write_ahead_log: true
# Maximum number of WAL file frames before the WAL file is automatically checkpointed.
# https://www.sqlite.org/c3ref/wal_autocheckpoint.html
# Set to 0 to disable automatic checkpointing.
wal_autocheckpoint: 1000
# # Postgres config
# Please note that using Postgres is highly discouraged as it is only supported for legacy reasons.
# See database.type for more information.
# postgres:
# # If using a Unix socket to connect to Postgres, set the socket path in the 'host' field and leave 'port' blank.
# host: localhost
# port: 5432
# name: headscale
# user: foo
# pass: bar
# max_open_conns: 10
# max_idle_conns: 10
# conn_max_idle_time_secs: 3600
# # If other 'sslmode' is required instead of 'require(true)' and 'disabled(false)', set the 'sslmode' you need
# # in the 'ssl' field. Refers to https://www.postgresql.org/docs/current/libpq-ssl.html Table 34.1.
# ssl: false
### TLS configuration
#
## Let's encrypt / ACME
#
# headscale supports automatically requesting and setting up
# TLS for a domain with Let's Encrypt.
#
# URL to ACME directory
acme_url: https://acme-v02.api.letsencrypt.org/directory
# Email to register with ACME provider
acme_email: ""
# Domain name to request a TLS certificate for:
tls_letsencrypt_hostname: ""
# Path to store certificates and metadata needed by
# letsencrypt
# For production:
tls_letsencrypt_cache_dir: /var/lib/headscale/cache
# Type of ACME challenge to use, currently supported types:
# HTTP-01 or TLS-ALPN-01
# See: docs/ref/tls.md for more information
tls_letsencrypt_challenge_type: HTTP-01
# When HTTP-01 challenge is chosen, letsencrypt must set up a
# verification endpoint, and it will be listening on:
# :http = port 80
tls_letsencrypt_listen: ":http"
## Use already defined certificates:
tls_cert_path: ""
tls_key_path: ""
log:
# Output formatting for logs: text or json
format: text
level: info
## Policy
# headscale supports Tailscale's ACL policies.
# Please have a look to their KB to better
# understand the concepts: https://tailscale.com/kb/1018/acls/
policy:
# The mode can be "file" or "database" that defines
# where the ACL policies are stored and read from.
mode: database
# If the mode is set to "file", the path to a
# HuJSON file containing ACL policies.
#path: "/etc/headscale/acl.hujson"
## DNS
#
# headscale supports Tailscale's DNS configuration and MagicDNS.
# Please have a look to their KB to better understand the concepts:
#
# - https://tailscale.com/kb/1054/dns/
# - https://tailscale.com/kb/1081/magicdns/
# - https://tailscale.com/blog/2021-09-private-dns-with-magicdns/
#
# Please note that for the DNS configuration to have any effect,
# clients must have the `--accept-dns=true` option enabled. This is the
# default for the Tailscale client. This option is enabled by default
# in the Tailscale client.
#
# Setting _any_ of the configuration and `--accept-dns=true` on the
# clients will integrate with the DNS manager on the client or
# overwrite /etc/resolv.conf.
# https://tailscale.com/kb/1235/resolv-conf
#
# If you want stop Headscale from managing the DNS configuration
# all the fields under `dns` should be set to empty values.
dns:
# Whether to use [MagicDNS](https://tailscale.com/kb/1081/magicdns/).
magic_dns: true
# Defines the base domain to create the hostnames for MagicDNS.
# This domain _must_ be different from the server_url domain.
# `base_domain` must be a FQDN, without the trailing dot.
# The FQDN of the hosts will be
# `hostname.base_domain` (e.g., _myhost.example.com_).
base_domain: ts.net
# Whether to use the local DNS settings of a node (default) or override the
# local DNS settings and force the use of Headscale's DNS configuration.
override_local_dns: false
# List of DNS servers to expose to clients.
nameservers:
#global:
# - 1.1.1.1
# - 1.0.0.1
# - 2606:4700:4700::1111
# - 2606:4700:4700::1001
# NextDNS (see https://tailscale.com/kb/1218/nextdns/).
# "abc123" is example NextDNS ID, replace with yours.
# - https://dns.nextdns.io/abc123
# Split DNS (see https://tailscale.com/kb/1054/dns/),
# a map of domains and which DNS server to use for each.
#split:
# {}
# foo.bar.com:
# - 1.1.1.1
# darp.headscale.net:
# - 1.1.1.1
# - 8.8.8.8
# Set custom DNS search domains. With MagicDNS enabled,
# your tailnet base_domain is always the first search domain.
#search_domains: []
# Extra DNS records
# so far only A and AAAA records are supported (on the tailscale side)
# See: docs/ref/dns.md
#extra_records: []
# - name: "grafana.myvpn.example.com"
# type: "A"
# value: "100.64.0.3"
#
# # you can also put it in one line
# - { name: "prometheus.myvpn.example.com", type: "A", value: "100.64.0.3" }
#
# Alternatively, extra DNS records can be loaded from a JSON file.
# Headscale processes this file on each change.
extra_records_path: /etc/headscale/extra-records.json
# Unix socket used for the CLI to connect without authentication
# Note: for production you will want to set this to something like:
unix_socket: /var/run/headscale/headscale.sock
unix_socket_permission: "0770"
#
# headscale supports experimental OpenID connect support,
# it is still being tested and might have some bugs, please
# help us test it.
# OpenID Connect
# oidc:
# only_start_if_oidc_is_available: true
# issuer: "https://your-oidc.issuer.com/path"
# client_id: "your-oidc-client-id"
# client_secret: "your-oidc-client-secret"
# # Alternatively, set `client_secret_path` to read the secret from the file.
# # It resolves environment variables, making integration to systemd's
# # `LoadCredential` straightforward:
# client_secret_path: "${CREDENTIALS_DIRECTORY}/oidc_client_secret"
# # client_secret and client_secret_path are mutually exclusive.
#
# # The amount of time from a node is authenticated with OpenID until it
# # expires and needs to reauthenticate.
# # Setting the value to "0" will mean no expiry.
# expiry: 180d
#
# # Use the expiry from the token received from OpenID when the user logged
# # in, this will typically lead to frequent need to reauthenticate and should
# # only been enabled if you know what you are doing.
# # Note: enabling this will cause `oidc.expiry` to be ignored.
# use_expiry_from_token: false
#
# # Customize the scopes used in the OIDC flow, defaults to "openid", "profile" and "email" and add custom query
# # parameters to the Authorize Endpoint request. Scopes default to "openid", "profile" and "email".
#
# scope: ["openid", "profile", "email", "custom"]
# extra_params:
# domain_hint: example.com
#
# # List allowed principal domains and/or users. If an authenticated user's domain is not in this list, the
# # authentication request will be rejected.
#
# allowed_domains:
# - example.com
# # Note: Groups from keycloak have a leading '/'
# allowed_groups:
# - /headscale
# allowed_users:
# - alice@example.com
#
# # Optional: PKCE (Proof Key for Code Exchange) configuration
# # PKCE adds an additional layer of security to the OAuth 2.0 authorization code flow
# # by preventing authorization code interception attacks
# # See https://datatracker.ietf.org/doc/html/rfc7636
# pkce:
# # Enable or disable PKCE support (default: false)
# enabled: false
# # PKCE method to use:
# # - plain: Use plain code verifier
# # - S256: Use SHA256 hashed code verifier (default, recommended)
# method: S256
#
# # Map legacy users from pre-0.24.0 versions of headscale to the new OIDC users
# # by taking the username from the legacy user and matching it with the username
# # provided by the OIDC. This is useful when migrating from legacy users to OIDC
# # to force them using the unique identifier from the OIDC and to give them a
# # proper display name and picture if available.
# # Note that this will only work if the username from the legacy user is the same
# # and there is a possibility for account takeover should a username have changed
# # with the provider.
# # When this feature is disabled, it will cause all new logins to be created as new users.
# # Note this option will be removed in the future and should be set to false
# # on all new installations, or when all users have logged in with OIDC once.
# map_legacy_users: false
# Logtail configuration
# Logtail is Tailscales logging and auditing infrastructure, it allows the control panel
# to instruct tailscale nodes to log their activity to a remote server.
logtail:
# Enable logtail for this headscales clients.
# As there is currently no support for overriding the log server in headscale, this is
# disabled by default. Enabling this will make your clients send logs to Tailscale Inc.
enabled: false
# Enabling this option makes devices prefer a random port for WireGuard traffic over the
# default static port 41641. This option is intended as a workaround for some buggy
# firewall devices. See https://tailscale.com/kb/1181/firewalls/ for more information.
randomize_client_port: true
配置Headscale
Headscale 控制示例
docker exec -it headscale \
headscale preauthkeys --help
创建用户,(注意用户下面可以放很多设备,这里的是用户名不是设备名
docker exec -it headscale \
headscale users create 你的英文名
创建一个属于第一个用户的长达十年的密钥用于设备认证
docker exec -it headscale \
headscale preauthkeys create --user 1 --reusable --expiration 10y
创建apikey用于前端的认证
docker exec -it headscale \
headscale apikeys create
配置HeadPlane
配置 /opt/headscale/headplane/config.yaml,需要配置如下字段
- server: cookie_secret
- headscale: url
- integration: pre_authkey
# Configuration for the Headplane server and web application
server:
host: "0.0.0.0"
port: 3000
# The secret used to encode and decode web sessions
# Ensure that this is exactly 32 characters long
cookie_secret: "随机生成一个32位的密码"
# Should the cookies only work over HTTPS?
# Set to false if running via HTTP without a proxy
# (I recommend this is true in production)
cookie_secure: true
# Headscale specific settings to allow Headplane to talk
# to Headscale and access deep integration features
headscale:
# The URL to your Headscale instance
# (All API requests are routed through this URL)
# (THIS IS NOT the gRPC endpoint, but the HTTP endpoint)
#
# IMPORTANT: If you are using TLS this MUST be set to `https://`
url: "https://你的域名"
# If you use the TLS configuration in Headscale, and you are not using
# Let's Encrypt for your certificate, pass in the path to the certificate.
# (This has no effect `url` does not start with `https://`)
# tls_cert_path: "/var/lib/headplane/tls.crt"
# Optional, public URL if they differ
# This affects certain parts of the web UI
# public_url: "https://headscale.example.com"
# Path to the Headscale configuration file
# This is optional, but HIGHLY recommended for the best experience
# If this is read only, Headplane will show your configuration settings
# in the Web UI, but they cannot be changed.
config_path: "/etc/headscale/config.yaml"
# Headplane internally validates the Headscale configuration
# to ensure that it changes the configuration in a safe way.
# If you want to disable this validation, set this to false.
config_strict: true
# If you are using `dns.extra_records_path` in your Headscale
# configuration, you need to set this to the path for Headplane
# to be able to read the DNS records.
#
# Pass it in if using Docker and ensure that the file is both
# readable and writable to the Headplane process.
# When using this, Headplane will no longer need to automatically
# restart Headscale for DNS record changes.
# dns_records_path: "/var/lib/headplane/extra_records.json"
# Integration configurations for Headplane to interact with Headscale
integration:
agent:
# The Headplane agent allows retrieving information about nodes
# This allows the UI to display version, OS, and connectivity data
# You will see the Headplane agent in your Tailnet as a node when
# it connects.
enabled: true
# To connect to your Tailnet, you need to generate a pre-auth key
# This can be done via the web UI or through the `headscale` CLI.
pre_authkey: "刚刚在Headscale生成的apikey"
# Optionally change the name of the agent in the Tailnet.
# host_name: "headplane-agent"
# Configure different caching settings. By default, the agent will store
# caches in the path below for a maximum of 1 minute. If you want data
# to update faster, reduce the TTL, but this will increase the frequency
# of requests to Headscale.
# cache_ttl: 60
# cache_path: /var/lib/headplane/agent_cache.json
# Do not change this unless you are running a custom deployment.
# The work_dir represents where the agent will store its data to be able
# to automatically reauthenticate with your Tailnet. It needs to be
# writable by the user running the Headplane process.
# work_dir: "/var/lib/headplane/agent"
# Only one of these should be enabled at a time or you will get errors
# This does not include the agent integration (above), which can be enabled
# at the same time as any of these and is recommended for the best experience.
docker:
enabled: false
# By default we check for the presence of a container label (see the docs)
# to determine the container to signal when changes are made to DNS settings.
container_label: "me.tale.headplane.target=headscale"
# HOWEVER, you can fallback to a container name if you desire, but this is
# not recommended as its brittle and doesn't work with orchestrators that
# automatically assign container names.
#
# If `container_name` is set, it will override any label checks.
# container_name: "headscale"
# The path to the Docker socket (do not change this if you are unsure)
# Docker socket paths must start with unix:// or tcp:// and at the moment
# https connections are not supported.
socket: "unix:///var/run/docker.sock"
# Please refer to docs/integration/Kubernetes.md for more information
# on how to configure the Kubernetes integration. There are requirements in
# order to allow Headscale to be controlled by Headplane in a cluster.
kubernetes:
enabled: false
# Validates the manifest for the Pod to ensure all of the criteria
# are set correctly. Turn this off if you are having issues with
# shareProcessNamespace not being validated correctly.
validate_manifest: true
# This should be the name of the Pod running Headscale and Headplane.
# If this isn't static you should be using the Kubernetes Downward API
# to set this value (refer to docs/Integrated-Mode.md for more info).
pod_name: "headscale"
# Proc is the "Native" integration that only works when Headscale and
# Headplane are running outside of a container. There is no configuration,
# but you need to ensure that the Headplane process can terminate the
# Headscale process.
#
# (If they are both running under systemd as sudo, this will work).
proc:
enabled: false
# OIDC Configuration for simpler authentication
# (This is optional, but recommended for the best experience)
oidc:
issuer: "https://accounts.google.com"
client_id: "your-client-id"
# The client secret for the OIDC client
# Either this or `client_secret_path` must be set for OIDC to work
client_secret: "<your-client-secret>"
# You can alternatively set `client_secret_path` to read the secret from disk.
# The path specified can resolve environment variables, making integration
# with systemd's `LoadCredential` straightforward:
# client_secret_path: "${CREDENTIALS_DIRECTORY}/oidc_client_secret"
disable_api_key_login: false
token_endpoint_auth_method: "client_secret_post"
# If you are using OIDC, you need to generate an API key
# that can be used to authenticate other sessions when signing in.
#
# This can be done with `headscale apikeys create --expiration 999d`
headscale_api_key: "<your-headscale-api-key>"
# Optional, but highly recommended otherwise Headplane
# will attempt to automatically guess this from the issuer
#
# This should point to your publicly accessibly URL
# for your Headplane instance with /admin/oidc/callback
redirect_uri: "http://localhost:3000/admin/oidc/callback"
# Stores the users and their permissions for Headplane
# This is a path to a JSON file, default is specified below.
user_storage_file: "/var/lib/headplane/users.json"
重启一下容器,看一下logs没问题就跑起来了
配置反向代理
安装NGINX
apt install nginx
配置服务 /etc/nginx/conf.d/headscale.conf
server {
server_name 你的域名;
# Security / XSS Mitigation Headers
add_header X-Frame-Options "SAMEORIGIN";
add_header X-XSS-Protection "1; mode=block";
add_header X-Content-Type-Options "nosniff";
location /admin {
proxy_redirect off;
proxy_set_header Host $host;
proxy_set_header X-Real-IP $remote_addr;
proxy_set_header X-Forwarded-For $proxy_add_x_forwarded_for;
proxy_pass http://127.0.0.1:8091;
}
location / {
proxy_pass http://127.0.0.1:8080;
proxy_http_version 1.1;
proxy_set_header Upgrade $http_upgrade;
proxy_set_header Connection "upgrade";
proxy_set_header Host $host;
proxy_redirect http:// https://;
proxy_buffering off;
proxy_set_header X-Real-IP $remote_addr;
proxy_set_header X-Forwarded-For $proxy_add_x_forwarded_for;
proxy_set_header X-Forwarded-Proto $http_x_forwarded_proto;
add_header Strict-Transport-Security "max-age=15552000; includeSubDomains" always;
}
listen 443 ssl;
listen [::]:443 ssl;
ssl_certificate /root/.acme.sh/你的证书;
ssl_certificate_key /root/.acme.sh/你的证书密钥;
}
server {
if ($host = 你的域名) {
return 301 https://$host$request_uri;
} # managed by Certbot
listen 80;
listen [::]:80;
server_name 你的域名;
return 404;
}
应用配置
nginx -t
systemctl reload nginx
访问HeadPlane控制台
http://你的域名/damin,输入之前生成的apikey

使用预授权密钥认证设备
不管是Win端还是Linux端都是先在官网安装软件Download | Tailscale,然后在控制台输入
tailscale up --login-server https://你的域名 --authkey 生成的十年密钥
进阶配置
自建derp配置文件示例 /opt/headscale/config/derp.yaml
regions:
901:
regionid: 901
regioncode: cn-cd
regionname: 中国-成都
nodes:
- name: 1
regionid: 901
hostname: 221.0.0.0
ipv4: 221.0.0.0
stunport: 34788
stunonly: false
derpport: 64500
insecurefortests: true
自建derp的compose文件(注意Headscale端自带 不需要另外装derp 但必须启用https),首先先安装一个tailscale,然后通过预授权密钥登录,即可实现防偷
services:
derp:
image: ghcr.nju.edu.cn/yangchuansheng/ip_derper:latest
container_name: derp
restart: always
ports:
- "64500:64500"
- "64500:64500/udp"
- "34788:3478/udp" # 3478 为stun端口,如果不冲突请勿修改
volumes:
- /var/run/tailscale/tailscaled.sock:/var/run/tailscale/tailscaled.sock # 映射本地 tailscale 客户端验证连接,用来验证是否被偷
environment:
- DERP_ADDR=:64500 # 此处需要与上面的同步修改
- DERP_CERTS=/app/certs
- DERP_VERIFY_CLIENTS=true # 启动客户端验证,这是防偷的最重要的参数
Magic DNS自定义配置示例 /opt/headscale/config/extra-records.json
[
{
"name": "shattered-pc.ts.net",
"type": "A",
"value": "100.0.0.1"
},
{
"name": "dmj-server.ts.net",
"type": "A",
"value": "100.0.0.11"
}
]
ACL ? ?
未完待续~hh
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