COUNTRY COVERAGE
100+
Country coverage describes the range of available exit locations. Before connecting, confirm where the target service is based, then choose a route from a nearby or specified region.
ROUTE DIRECTORY
VPNQG offers 100+ countries and 170+ routes. This page lists representative city exits, access methods, and streaming support by region, explaining the differences between IEPL, transit, and direct paths without using latency, load, or online-user counts as route-selection criteria.
COUNTRY COVERAGE
100+
Country coverage describes the range of available exit locations. Before connecting, confirm where the target service is based, then choose a route from a nearby or specified region.
ROUTE INVENTORY
170+
The route inventory includes IEPL dedicated lines, transit, and direct connections. Each type serves different link costs, path-control needs, and destination-access tasks.
DEVICE POLICY
Unlimited devices
Windows, macOS, iOS, Android, and Linux are supported. You can choose different regional exits on different devices based on their intended use.
REGION INDEX
The table below shows representative regions from the coverage directory to illustrate city distribution and route combinations; it is not a complete inventory snapshot. “Streaming” means the region is configured for the corresponding access use. Available libraries, account regions, and content rights are still determined by the platform. Route types may change during network maintenance; check the available options in the user panel before connecting.
| Country/Region | City | Route Type | Streaming |
|---|---|---|---|
| Asia-Pacific | |||
| Hong Kong, China | Hong Kong | IEPL dedicated line | Supported |
| Singapore | Singapore | IEPL dedicated line | Supported |
| Japan | Tokyo | Transit | Supported |
| Japan | Osaka | Direct | Choose by destination |
| South Korea | Seoul | Transit | Supported |
| Australia | Sydney | Direct | Choose by destination |
| North America | |||
| United States | Los Angeles | IEPL dedicated line | Supported |
| United States | San Jose | Transit | Supported |
| United States | Seattle | Direct | Choose by destination |
| United States | New York | Direct | Supported |
| Canada | Vancouver | Transit | Supported |
| Canada | Toronto | Direct | Choose by destination |
| Europe | |||
| United Kingdom | London | Transit | Supported |
| Germany | Frankfurt | IEPL dedicated line | Supported |
| France | Paris | Transit | Supported |
| Netherlands | Amsterdam | Direct | Choose by destination |
| Switzerland | Zurich | Direct | Choose by destination |
| Italy | Milan | Direct | Choose by destination |
| Other Regions | |||
| Brazil | São Paulo | Transit | Supported |
| Argentina | Buenos Aires | Direct | Choose by destination |
| United Arab Emirates | Dubai | Transit | Supported |
| Israel | Tel Aviv | Direct | Choose by destination |
| South Africa | Johannesburg | Direct | Choose by destination |
| Türkiye | Istanbul | Transit | Supported |
ROUTE TYPES
Route names are not a speed ranking. IEPL dedicated lines, transit, and direct connections describe access paths and traffic-management methods, not guaranteed results for every network environment. Consider the local carrier, target region, session duration, and fallback path if the first option fails.
IEPL dedicated lines emphasize controlled access and cross-border transmission paths. Compared with routes that leave path selection entirely to the public network, dedicated lines make it easier to manage the link between entry and exit points. They suit sustained transfers, remote collaboration, long meetings, and work that is sensitive to path fluctuations.
These routes require greater network resources and maintenance, with stricter capacity management. Their value lies mainly in path control, not in guaranteeing identical performance for every website. If the target service is slow or the local wireless network is congested, changing route types alone cannot replace troubleshooting on the device side.
A transit route first sends the connection to an entry point better suited to the current access environment, then forwards it through the transit network to the target exit. Its core benefit is separating local access from the remote exit, so users are not limited to a single direct path. For cross-region access, streaming-region selection, and commonly used international websites, transit usually offers a more flexible combination of exits.
Transit adds a routing layer, so its resource cost is generally between dedicated lines and direct connections. Do not judge only by the exit city; consider whether the entry point suits the current network. If one exit offers multiple entry points, test them separately and verify page loading, video startup, and file transfers with real tasks.
A direct route travels from the current access network straight to the target exit, with a clear path structure and fewer routing steps. It suits everyday browsing, short queries, destinations with a clearly defined region, and situations where the local network has a good path to the target area. It can also serve as a backup exit alongside dedicated or transit routes.
Direct connections rely more heavily on the public network’s routing at the time of use. Different carriers, regions, and even time periods may use different paths, so distance between cities alone cannot predict the result. Costs are relatively straightforward, but for long-distance or cross-carrier connections, keep a transit route available as a fallback.
WORKLOAD ROUTING
Set the destination first, then choose the region and route type. Keeping every application on one exit is not always sensible: web searches, video playback, AI tools, gaming, and remote work have different requirements for region, path continuity, and account environment.
For everyday access to international websites, start with a geographically nearby exit and confirm that the target page loads normally. If a direct route meets your needs, there is no reason to add a transit hop. If page assets load incompletely, connections repeatedly restart, or downloads are interrupted, switch to a transit or IEPL dedicated line in the same region.
Browsing often involves several domains at once. A main page loading successfully does not mean that the domains serving images, scripts, or sign-in verification use the same regional policy. Evaluate a route by completing a full task, not simply by checking whether the homepage appears.
For streaming, first choose an exit based on the content’s region. When an account, content library, and target region are linked, consistency of the exit region is usually more important than city distance. After connecting, open the content details page and then play it to confirm that the account region, content rights, and exit location work together.
Streaming platforms may change how they identify regions. “Supported” in the table means the region is configured for the relevant use; it does not mean that every account or title has the same rights. If an app retains an old regional cache, fully close it first, then connect to the target exit and reopen the app.
AI tools often involve continuous steps such as sign-in, model requests, file uploads, and long sessions. Prefer a region where the target service is available and keep the exit stable throughout a session. Frequent region changes may trigger another sign-in or interrupt uploads and long responses.
If a region offers both a dedicated line and transit, start with transit for a compatibility check, then decide whether to switch to an IEPL dedicated line based on session continuity. Browser extensions, system proxies, and client rules should not override one another, or requests may leave through different exits.
For gaming, choose an exit based on the region of the game server rather than relying only on the account-store region. Sign-in, matchmaking, and the actual game server may be in different cities, so a route suitable for sign-in may not suit a full match. After connecting, enter a real matchmaking session and observe input response, visual synchronization, and connection continuity.
When a region offers multiple route types, compare continuity throughout a complete match first. Background downloads, cloud-drive sync, and system updates consume local network resources; pause them before testing. If the wireless signal is unstable, fix the local connection before evaluating the international route.
Remote desktops, online meetings, code repositories, and enterprise systems place greater value on session continuity. Prefer a route with a clear target region and minimal switching, and prepare a backup entry point in the same region for important work. Do not switch exits repeatedly during a file upload or meeting just because conditions change briefly.
Enterprise systems may trigger additional verification when the region or exit changes. Before starting work, check sign-in, file read/write access, and meeting connectivity. If you need to access services in different regions at the same time, choose separate exits on different devices. VPNQG supports Windows, macOS, iOS, Android, and Linux, with unlimited devices.
SELECTION METHOD
Effective route selection is not about finding one permanently “fastest server.” It is about evaluating the target region, entry network, route type, and actual task together. The following method applies to browsing, streaming, AI tools, and work connections.
First determine which region the website, app, content library, or remote system requires. When the regional requirement is clear, match it first; when it is not, start with a nearby exit.
For ordinary browsing, test a direct route first; for persistent sessions, compare transit with an IEPL dedicated line. Route names describe path structure only, so validate the final choice with a real task.
Do not judge a route only by the homepage. Sign in, open content, upload a file, join a meeting, or establish the actual session to confirm that the entire workflow remains continuous.
Keep the backup route in the same target region whenever possible, changing only the entry point or route type. This reduces changes to the account region and makes it easier to tell whether an issue comes from the access path or the target service.
ROUTE OPERATIONS
International routes are affected by local access, carrier routing, target-platform policies, and device configuration. A consistent troubleshooting order makes the cause easier to identify than repeatedly switching regions at random.
When a connection fails, first confirm that the local network can reach commonly used services, then check that the client has imported a valid subscription. Wireless signal problems, system sleep, conflicting proxy rules, and background updates can all resemble route failures. If every region fails at once, check the device and local network before changing cities one by one.
When the target service requires a fixed region, first switch between direct, transit, and IEPL dedicated lines within that region. This keeps the exit region consistent and minimizes changes to the account environment. Choose another target region only after confirming that the entire current region is unsuitable for the task.
Once a file upload, remote meeting, long AI session, or online collaboration task begins, keep the current exit whenever possible. Switching deliberately re-establishes the connection and may force the task to be retried. For important operations, choose the route before starting rather than changing it mid-task.
When different applications need different regions, split tasks by device or client rules. Keep the work device on a work exit and use a content-region exit on the viewing device to reduce frequent switching. Devices are unlimited, but each device should still have a clearly defined purpose and target exit.
COVERAGE VIEW
Coverage is organized around access targets. Common regions can serve as everyday entry points, while distant regions are intended for target content, enterprise systems, or regional services. Sign in to the user panel to obtain your current subscription and client configuration.