Covers 100+ countries / 250+ routes. This page organizes representative exit locations by region, network topology, and use case to help you choose clearly for everyday browsing, streaming, AI tools, gaming, and remote work.
The directory highlights representative cities and route types to explain coverage and route selection. In actual use, check the routes currently available to your account in the client; route names and availability are determined by the user panel.
“Supports streaming” means the route is a candidate for streaming. Libraries, account regions, and platform detection rules may change, so check the target platform’s actual results after connecting.
VPNVF Representative Route Directory
Country / Region
City
Route type
Streaming support
Asia-Pacific
Japan
Tokyo
IEPL Dedicated Line
Supported
Japan
Osaka
Relay
Supported
Hong Kong, China
Hong Kong
IEPL Dedicated Line
Supported
Singapore
Singapore
Relay
Supported
Australia
Sydney
Direct
Supported
South Korea
Seoul
Relay
Supported
Taiwan, China
Taipei
Relay
Supported
Malaysia
Kuala Lumpur
Direct
Check by platform
Thailand
Bangkok
Direct
Check by platform
North America
United States
Los Angeles
Direct
Supported
United States
San Jose
Relay
Supported
United States
New York
Direct
Supported
Canada
Toronto
Direct
Supported
Canada
Vancouver
Relay
Supported
Mexico
Mexico City
Direct
Check by platform
Europe
United Kingdom
London
Relay
Supported
Germany
Frankfurt
IEPL Dedicated Line
Supported
France
Paris
Direct
Supported
Netherlands
Amsterdam
Relay
Supported
Sweden
Stockholm
Direct
Check by platform
Switzerland
Zurich
Direct
Check by platform
Other regions
Brazil
São Paulo
Direct
Supported
United Arab Emirates
Dubai
Relay
Check by platform
South Africa
Johannesburg
Direct
Check by platform
Distance is only a starting point for route selection, not the final answer. The same country may offer direct, relay, and dedicated-line entries, each with different paths, operating costs, and use cases. For everyday selection, first identify the target service’s region, then compare route topologies, and finally keep or change the route based on actual access results.
If your goal is simply to access international websites, starting with a geographically nearby route usually makes it easier to get a responsive connection. For region-specific content or business systems, match the target region first rather than choosing only the nearest city. The route list in the client is used for actual selection; this directory explains the differences between the options.
Route Topology
IEPL Dedicated Lines, Relay, and Direct Routes
Route types describe how data travels from the local access point to the exit region. The same city can support different topologies, each with different suitable tasks, cost structures, and failure patterns.
Stability first
IEPL Dedicated Line
An IEPL dedicated line places the main international link on a more controlled private transport path, reducing unpredictable detours across public networks. Its value is not a higher peak in a single speed test, but a more consistent path and a steadier experience during busy evening periods.
These routes typically cost more to build and maintain than ordinary paths, making them better suited to remote work, sustained meetings, cloud development environments, extended streaming, and tasks that require connection continuity. Match the exit region to the task: choose a Japan dedicated line for Japanese services, or a European exit for European business systems.
Best forTeamwork · Long sessions · Stable streaming
Path optimization
Relay Route
A relay route first connects to an intermediate node with suitable access quality, then forwards traffic to the target exit. By reorganizing the path, it can avoid major detours that may occur when the local network connects directly to a distant exit. More hops are not automatically better; the key is whether the intermediate access point matches your current network and target region.
These routes balance coverage and cost, making them suitable for web browsing, AI tools, routine downloads, and most streaming tasks. When a direct exit is unstable, switching to a relay in the same region is often more straightforward than repeatedly changing protocols. If the relay passes through a distant region, longer paths may affect interactive response times.
Best forEveryday browsing · AI tools · Routine streaming
Simple path
Direct Route
A direct route connects the current network to the target-region exit with fewer intermediate steps. When the local carrier’s route to that region is good, direct access provides a clear path and makes it easier to determine whether an issue lies with local access, the remote exit, or the target service.
Direct routes generally have a simpler cost structure and suit ordinary web access, temporary region changes, and tasks requiring a specific city exit. They are more sensitive to local network quality and public routing, so the same exit may perform differently on different networks. If stuttering continues, keep the region and switch to a relay or dedicated line.
Best forWeb access · Region switching · Basic connectivity
Selection Guide
Choose a route by use case
The selection process comes down to the target region, connection duration, and task type. Decide what you need to access first, then choose the appropriate exit; there is no need to force every app onto the same route.
Everyday browsing
Nearby region and simple path
Streaming
Region matching and sustained delivery
AI Tools
Fixed region and session continuity
Gaming
Target region and consistent routing
Remote work
Stable path and split-routing rules
Everyday browsing: start with a nearby exit
Web browsing involves many short connections, so smooth page loads often depend on initial response time and path stability. Start with a nearby Asia-Pacific relay or direct route and confirm that frequently used websites, search services, and file pages open normally. If a site requires a specific region, switch only that exit.
Browsing does not require a higher-cost route all the time. Establish a baseline with a direct route, then switch to a relay in the same city if pages repeatedly reload or connections drop. This helps distinguish a region issue from a topology issue.
Streaming: match the content region first
For streaming, start with the target platform’s content region rather than the route’s distance from your location. Choose a Japan exit for Japanese libraries and a United States exit for US content. “Supported” in the directory is only a candidate marker; account location, content licensing, and platform detection can still affect the final result.
After playback starts, check whether long transfers remain continuous. If buffering occurs frequently, switch from direct to relay or IEPL within the same region instead of changing both region and route type at once; otherwise, it is difficult to know what improved the result.
AI Tools: keep the exit region consistent
AI tools often involve continuous actions such as login, conversations, file uploads, and long-form generation. Frequently changing exit regions during a session may trigger account security checks or interrupt the current task. Choose a relay or dedicated line in a region supported by the target service and keep the same exit throughout a complete work session.
If the page opens but a generation task stops, first check whether the local network has switched, then try another route in the same region. The same principle applies to cloud development environments, online coding tools, and model consoles: regional consistency usually matters more than repeatedly trying different cities.
Gaming: place the exit near the target service region
Choose a gaming route around the region where the target service is located, rather than simply picking the nearest country. For a Japan-based target, compare different Japan topologies first; for a North American target, start with the relevant North American cities. A dedicated line or relay can improve some public-network detours, but cannot replace a stable local connection.
If in-game responses feel inconsistent after connecting, close background tasks that consume bandwidth, then compare routes in the same region. Change one variable at a time—for example, change only the route type without changing the protocol—to identify the best combination for the current network.
Remote work: prioritize split routing and continuity
Remote meetings, code repositories, cloud documents, and business systems often run at the same time, so switching routes can affect multiple connections. Send international business systems through a stable relay or IEPL dedicated line, keep local sites on direct access, and check the connection before important meetings or file synchronization begins.
Do not judge an office route only by how quickly one page opens. Also check login status, file transfers, and long-lived connections. For cross-region collaboration, create fixed rules for each business system to reduce omissions caused by manual switching.
Decision Process
Route switching and troubleshooting
Effective troubleshooting is not about clicking through different cities repeatedly. Change one condition at a time and record which step restores normal access.
A
Confirm the target region
First identify the region of the target website, content library, cloud service, or game service. If the region is wrong, a connection can work normally yet return different content or trigger additional account checks. Once the target region is clear, compare different routes within that region.
B
Keep the protocol unchanged
When comparing routes, keep the client and protocol settings unchanged and switch only the exit or topology. Changing several settings at once makes the results impossible to compare. After confirming which route type works better, adjust the protocol for the device and network environment.
C
Check local access
Wireless network changes, background synchronization, and local congestion can all affect connection performance. First confirm that local web access and connectivity are stable, then decide whether to change the international route. Reconnect after a mobile device switches between networks.
D
Change topology within the same region
When the target region is correct but access is inconsistent, first switch from direct to relay, or from relay to an IEPL dedicated line, within the same region. This preserves the regional condition and isolates the path organization, making the result easier to interpret.
A reusable route-selection order
Target service→Exit region→Route type→Actual access→Keep the result
This order works for browsing, streaming, AI tools, gaming, and office work. Match the region first, compare topologies next, and judge the result by whether the actual task completes continuously. The route directory provides the selection framework; the client shows the specific entries currently available to your account.
Coverage
Global coverage and client support
VPNVF covers 100+ countries / 250+ routes and supports Windows / macOS / iOS / Android / Linux. After signing in, get the client and subscription from the user panel.
JapanHong Kong, ChinaSingaporeAustraliaUnited StatesCanadaUnited KingdomGermanyFranceNetherlandsBrazilUnited Arab Emirates
100+
Countries covered
Choose an exit based on the target service region while balancing nearby access with remote business needs.
250+
Available routes
Direct, relay, and IEPL dedicated lines form a multi-layer route directory.
Unlimited devices
Device use
Use one account across multiple supported platforms and configure routes for the task at hand.
Choose a route by starting with the target region
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