Asia-Pacific
Japan, Singapore, South Korea, Hong Kong, China, and nearby regions.
KvVPN provides cross-border network acceleration across 90+ countries and 200+ routes. Start with your destination, then choose a route based on the application, network path, and exit region.
Japan, Singapore, South Korea, Hong Kong, China, and nearby regions.
Major network exchange regions in the United States and Canada.
The United Kingdom, Germany, France, the Netherlands, and nearby regions.
Exit locations in Oceania, South America, the Middle East, South Asia, and Africa.
ROUTE DIRECTORY
Use the table below to check exit regions, available cities, network paths, and streaming use cases. Routes are not ranked by decorative speed figures; choose based on your destination, application, and current network conditions.
How to read it: Start with the country or region, then check the city and compare route types. The streaming column identifies potential exits for relevant content services; actual access still depends on account region, provider policies, and local network conditions.
| Country / Region | City | Route Type | Streaming |
|---|---|---|---|
| APAC · Asia-Pacific | |||
| Japan | Tokyo | IEPL Dedicated | Supported |
| Japan | Osaka | Transit | Supported |
| Singapore | Singapore | IEPL Dedicated | Supported |
| South Korea | Seoul | Transit | Supported |
| Hong Kong, China | Hong Kong | IEPL Dedicated | Supported |
| Taiwan, China | Taipei | Transit | Supported |
| Malaysia | Kuala Lumpur | Direct | Content-region dependent |
| Thailand | Bangkok | Direct | Content-region dependent |
| NORTH AMERICA · North America | |||
| United States | Los Angeles | IEPL Dedicated | Supported |
| United States | San Jose | Transit | Supported |
| United States | New York | Direct | Supported |
| Canada | Toronto | Transit | Supported |
| Canada | Vancouver | Direct | Content-region dependent |
| EUROPE · Europe | |||
| United Kingdom | London | IEPL Dedicated | Supported |
| Germany | Frankfurt | Transit | Supported |
| France | Paris | Transit | Supported |
| Netherlands | Amsterdam | Direct | Content-region dependent |
| Switzerland | Zurich | Direct | Content-region dependent |
| OTHER REGIONS · Other Regions | |||
| Australia | Sydney | Transit | Supported |
| New Zealand | Auckland | Direct | Content-region dependent |
| Brazil | São Paulo | Direct | Content-region dependent |
| United Arab Emirates | Dubai | Transit | Content-region dependent |
| India | Mumbai | Direct | Content-region dependent |
| South Africa | Johannesburg | Direct | Content-region dependent |
ROUTE TYPES
IEPL dedicated, transit, and direct routes are not simply higher or lower tiers. They use different entry, forwarding, and exit structures, with different strengths across network conditions and use cases.
IEPL dedicated routes organize the entry and exit through a more clearly defined cross-border path, reducing unpredictable detours across the public internet. Their value is not a single momentary speed figure, but a more concentrated path that can deliver a more consistent connection when network conditions fluctuate. For sustained transfers, long meetings, remote desktops, cloud development environments, and important work sessions, a dedicated route is usually a strong first candidate.
These routes generally involve higher network resource and maintenance costs than ordinary paths, making them better suited to tasks where continuity matters. For briefly opening a webpage or reading a small amount of content, there is no need to default mechanically to a dedicated route; a nearby transit or direct route may provide a simpler path. Choose based on task importance and local network performance, rather than treating the route name as the only answer.
key: Sustained tasks → value: Prioritize a fixed path
A transit route first connects to a suitable regional entry point, then uses an intermediate network to reach the target exit. This can avoid an unsuitable direct path between the local network and a distant destination while offering more flexible entry options across carriers. For distant regions, a transit structure can often provide a steadier path than a purely direct connection, making it suitable for everyday browsing, content research, streaming access, and routine cloud services.
Transit performance depends on the combined behavior of the entry, forwarding segment, and exit. The same destination can perform differently with different entry points. If pages respond slowly, content stops loading, or connections repeatedly retry, first switch to another transit entry in the same region instead of moving immediately to a more distant country. Keep the exit region unchanged while comparing so you can tell whether the issue is the route path or the target service's regional policy.
key: Distant destinations → value: Optimize the path in segments
A direct route connects the current network straight to an exit in the target region, with fewer intermediate forwarding layers and a clearer structure. When the underlying path from the local network to the target region is favorable, direct routes suit web reading, file downloads, quick lookups, and tasks with a specific exit-region requirement. They also provide a diagnostic baseline: if direct and transit routes show the same issue, the cause may be the local network, target website, or account region rather than the route structure alone.
Direct routes are more sensitive to changes in public-network paths. When the distance is long, many regions are crossed, or the local carrier's routing is unstable, connection quality can vary with conditions. In that case, switch to a transit or dedicated route for the same destination instead of jumping between unrelated regions. The priority is always to match the exit to the target service and keep test conditions as consistent as possible.
key: Light access → value: Take the simplest direct path
USE CASE INDEX
The same route will not produce identical results for every task. Identify what you are accessing first, then choose the exit region and route type; this is more effective than switching randomly.
For everyday websites, research, and routine downloads, start with an exit that is geographically closer. Proximity does not guarantee higher speed, but it often reduces path complexity. Try an Asia-Pacific transit or direct route first; if the target site is clearly intended for North America or Europe, switch to the corresponding region. Judge browsing routes by consistent page response and continuous image and file loading rather than chasing short-lived changes.
Content services typically determine availability using the exit region, account location, and content licensing together. First identify the content region you need, then choose a corresponding exit marked as supported in the table. If the page opens but the catalog does not match, check the account region and app cache before changing to another route in the same region; switching regions directly can make the conditions harder to assess. For continuous playback, connection stability matters most, so compare transit and IEPL dedicated routes first.
Web sessions, code completion, and file processing in AI tools often run for extended periods, so an interruption may require the context to reload. Prefer a stable exit within a region supported by the target service, and keep the same route throughout a work session. If sign-in and actual use behave differently, check the account region, browser session, and route exit separately. For cloud development or sustained generation tasks, compare IEPL dedicated and transit routes first.
For gaming, place the exit near the target game-server region rather than near the game publisher's website. Login, updates, and live play may use different network entry points, so use the match-server region as the primary selection criterion. When the connection is unstable, keep the destination unchanged and compare direct, transit, and dedicated routes in sequence, watching for consistent input response. Do not change the game region, route region, and local network at the same time, or it will be difficult to identify what caused the change.
Remote desktops, code repositories, enterprise consoles, and online meetings prioritize session continuity. Keep the exit as close as practical to the region hosting the business system, and consider an IEPL dedicated route or a stable transit route for important work. Before joining a long meeting or starting file synchronization, complete sign-in and check basic page access; avoid changing routes once the session is established. If an enterprise system restricts exit regions, follow your organization's access requirements.
LOOKUP WORKFLOW
Route troubleshooting requires comparable conditions. If the destination, route type, and application state all change at once, the result cannot be attributed accurately.
First identify the region hosting the target website, content service, or business system. While searching routes, keep the country or region unchanged and compare only cities and route types within it. This prevents the exit region from affecting content catalogs, account verification, or service visibility.
Use the same device, network, and application when comparing routes. Browsers and standalone clients may use different caches or network settings, and mixed tests magnify the error. When an application behaves unexpectedly, end the old connection first, establish the route again, and refresh the session.
For the same destination, compare transit and direct routes first; add an IEPL dedicated route for sustained tasks. Focus on continuous page response, session stability, and uninterrupted file transfer—not a decorative metric captured at one moment.
Once you find a route suited to the current task, keep the connection until the task is complete. Frequent exit changes may cause a website to reassess your region and can interrupt an active login, upload, meeting, or cloud process. Search again by destination when starting a new task.
SERVICE SCOPE
The route directory addresses exit selection; a complete connection also includes the account, client, local network, and target service. KvVPN supports Windows / macOS / iOS / Android / Linux with unlimited simultaneous devices. Families or individuals can use the same subscription across multiple devices, but each device should still use a route suited to its current network conditions.
No email address is required for registration; a username and password are enough. After getting started, access client downloads and subscription details from the user panel. The panel provides a single client entry point, keeping device platforms, account status, and route configuration together.
Coverage includes 90+ countries / 200+ routes. This range offers more destination choices, but it does not mean every task should use a more distant exit. A nearby exit, matching region, and suitable path structure are usually more meaningful than simply expanding the number of hops. For content-region issues, first confirm that the exit matches the target region; for continuity issues, compare route types next.
KvVPN plans support Alipay / WeChat Pay / USDT and include a 30-day money-back guarantee. Select routes using your real devices and usual network, confirm that your regular destinations, applications, and platforms meet your needs, then decide how to use the service long term.