Countries Covered
The directory covers Asia-Pacific, North America, Europe, and other regions. Actual route availability is based on the subscription list shown after sign-in.
The route directory is organized by region, city, and connection method. Temporary speed-test figures are not shown; choose based on distance, route type, the target service region, and actual connection results.
The directory covers Asia-Pacific, North America, Europe, and other regions. Actual route availability is based on the subscription list shown after sign-in.
A single region may offer multiple connection methods, allowing you to balance path quality, use case, and connection cost.
One account can cover desktop computers, mobile devices, and Linux environments, reducing repeated setup when moving between platforms.
The table below highlights representative regions from the coverage directory and illustrates city distribution and route types. Streaming results can also be affected by account region, content licensing, device cache, and the target service’s policies, so confirm access after connecting.
| Country or Region | City | Route Type | Streaming |
|---|---|---|---|
| Asia-Pacific | |||
| Hong Kong | Hong Kong | IEPL Dedicated Line | Supported |
| Singapore | Singapore | IEPL Dedicated Line | Supported |
| Japan | Tokyo | Relay | Supported |
| Japan | Osaka | Direct | Depends on Service Region |
| South Korea | Seoul | Relay | Supported |
| Taiwan, China | Taipei | Direct | Depends on Service Region |
| Malaysia | Kuala Lumpur | Direct | Confirm After Connecting |
| Thailand | Bangkok | Direct | Confirm After Connecting |
| North America | |||
| United States | Los Angeles | IEPL Dedicated Line | Supported |
| United States | San Jose | Relay | Supported |
| United States | New York | Direct | Depends on Service Region |
| Canada | Toronto | Direct | Confirm After Connecting |
| Europe | |||
| Germany | Frankfurt | IEPL Dedicated Line | Supported |
| United Kingdom | London | Relay | Supported |
| France | Paris | Direct | Depends on Service Region |
| Netherlands | Amsterdam | Direct | Depends on Service Region |
| Switzerland | Zurich | Direct | Confirm After Connecting |
| Italy | Milan | Direct | Confirm After Connecting |
| Spain | Madrid | Direct | Confirm After Connecting |
| Sweden | Stockholm | Direct | Confirm After Connecting |
| Other Regions | |||
| Australia | Sydney | Relay | Supported |
| United Arab Emirates | Dubai | Direct | Confirm After Connecting |
| South Africa | Johannesburg | Direct | Confirm After Connecting |
| Brazil | São Paulo | Direct | Depends on Service Region |
IEPL dedicated lines, relay routes, and direct routes are not simply ranked from fast to slow. Their differences mainly come from access methods, how cross-border segments are organized, path-control capabilities, and maintenance costs. The right choice depends on both the use case and the local network.
An IEPL dedicated line places the key transmission segment between the access side and the target region on a more controlled path. It reduces unpredictable detours across public networks and is better suited to sustained transfers, video meetings, longer work sessions, and tasks that demand greater path stability.
These routes generally cost more to build and maintain than ordinary paths, so selection should not focus only on the city name. If the target service is in North America, compare the corresponding dedicated lines first; for nearby regions, a closer relay route may be more suitable.
A relay route first connects to a nearby entry point or one with stronger interconnection, then reaches the target city through an intermediate link. Its value lies in avoiding poor direct paths between the local carrier and the distant exit while balancing coverage and maintenance costs.
A relay route is not automatically faster than a direct route. If the relay entry point is far from your current network, the extra path may increase latency. Select routes in the same region first, test page loading, continuous playback, and file transfers separately, then keep the more stable option for regular use.
A direct route connects the current network straight to an exit in the target region, with a clear structure and fewer intermediate steps. When local carrier interconnection is strong, direct routes suit web browsing, message syncing, light file access, and tasks that need a clearly defined exit region without complex path control.
Direct-route performance depends more on interconnection between the local carrier and the remote data center. Availability during the day does not mean performance will be identical at every hour, so do not rely on a single brief test. If pages load intermittently, long connections drop, or playback buffers, compare a relay or IEPL dedicated line in the same region.
Start with the target service rather than chasing the most distant exit. The target region, content, session length, and local network all shape the result. The methods below provide repeatable checks for common use cases.
For web browsing, document access, and messaging, start with a geographically closer region. A nearby exit usually means a shorter path and fewer failure points. If a site clearly serves content by region, switch to the corresponding country or region instead of keeping a distant exit permanently.
Check whether multiple pages open consecutively, login sessions remain stable, and images and scripts load completely. One page opening quickly does not prove that a route is suitable for daily use; consistency across repeated visits is more meaningful.
A streaming route should first match the content licensing region. Routes marked “Supported” are priority candidates, but platforms may also consider account region, payment details, device cache, and their own policies. After connecting, reopen the app and check the content catalog actually available.
If the home page opens but playback stops, change the route type within the same region. If the cache has not refreshed, fully quit the app before connecting to a new exit. Frequent cross-region switching can mix recommendations and login states; once a working region is confirmed, keep using it for a continuous period.
AI Tools often involve persistent sessions, file uploads, and long responses. Check whether login persists, responses complete, and uploads finish without interruption. A nearby relay suits regular conversations, while an IEPL dedicated line in the target service region can support longer work sessions.
Avoid repeatedly changing exit regions within the same session. A region change may prompt the service to recheck your login or invalidate an upload in progress. If switching is necessary, save the current content, stop the task, and connect to the new server.
For gaming, the route exit should be close to the game server’s region, not merely close to the content region a player has in mind. Confirm the game region first, then compare dedicated and relay routes in that region. Direct routes suit networks with strong local interconnection; relays help where the direct path takes an obvious detour.
Switch before entering a match, and avoid changing the exit during a connection. Testing should include matchmaking, movement synchronization, and a longer session—not just the login screen. If web access is normal but game performance is unstable, the two services need different paths, so keep a separate gaming route.
Remote desktops, meetings, code repositories, and cloud documents depend more on sustained connections. Prefer an IEPL dedicated line or stable relay near the target work system, and avoid switching during meetings or transfers. If team services span regions, save the corresponding route for each work stage.
Work-use checks should cover login, file reading, file submission, and long connections. Opening only the login page is not enough to confirm availability. For business access policies, also confirm that the exit region matches team rules to avoid repeated account checks after regional changes.
Route selection needs repeatable steps. Judging only by a single load speed can be distorted by cache and the target site’s temporary state; a fixed comparison process makes it easier to find a server suited to the current network.
Choose a region based on the website, streaming catalog, AI service, game region, or work system. If the target has no regional requirement, start with a nearby exit and do not change the region and route type at the same time.
After connecting, close old pages or the app and reopen them. This reduces interference from old connections, cached data, and sessions. For services that require login, first confirm that the account remains in a normal state.
For browsing, open several pages in succession; for streaming, start actual playback; for AI, complete a conversation and upload; for work, read and submit a file. Real tasks reveal route suitability better than a brief test.
When results are poor, first switch within the same region from direct to relay or IEPL dedicated line. Keeping the target region unchanged helps distinguish a route-method issue from a region-selection issue.
6KVPN supports Windows, macOS, iOS, Android, and Linux, with no device limit. Different devices can use the route directory from the same subscription, but operating-system network stacks, sleep policies, and app caches can produce different results.
Windows and macOS are useful for comparing routes. After switching, confirm that the client shows a connected state, then reopen the browser or target app. If the connection behaves abnormally after waking from sleep, disconnect the current route and reconnect instead of rapidly switching across several regions.
iOS and Android may adjust background connections during screen lock, power-saving mode, and network changes. After switching between mobile data and Wi-Fi, confirm the route status again. If a streaming app retains old cache data, fully quit it before testing a new exit region.
Linux is often used for development, remote terminals, and persistent tasks. Fix the server before starting a transfer or remote session, and avoid changing the exit during the task. If command-line access works but a graphical app does not, check the app proxy settings and system connection status separately.
No device limit does not mean every device must use the same exit. Keep a work computer near the target system, use a nearby region on mobile devices, and choose the content region for streaming devices. Assigning routes by purpose is easier to maintain than putting every device on a distant exit.
The server count indicates coverage breadth; actual results depend on the match between the target region, route type, and current network. One fixed route will not suit every task, so a clear selection order is more reliable.
When there is no regional requirement, choose a nearby exit. When content, game-region, or work-region requirements apply, prioritize the target region. Distance is only a first filter and should not replace testing with a real task.
Sustained sessions, complete playback, file submissions, and remote connections are more informative than opening one page once. Recheck important tasks during normal usage hours and keep a backup route in the same region.
Keep the region unchanged while switching, then compare direct, relay, and IEPL dedicated lines in sequence. This makes clear whether the difference comes from route organization rather than a change in target region.