PATH TYPES
Route Type Is Not a Speed Ranking
IEPL, transit, and direct connections describe how data travels, not a fixed order of quality. Results vary with the entry network, target region, time of day, and application connection method.
PATH A
IEPL
IEPL
IEPL places key cross-border segments on a relatively independent transmission path, reducing unpredictable detours on public networks. It is better suited to tasks that require consistent connectivity, such as extended remote work, sustained video calls, longer file transfers, and web applications that need to maintain a stable session.
Dedicated-route infrastructure generally costs more to build and maintain than standard entry routes, so it suits situations where stability comes first. That does not mean every destination should always use IEPL: if the target service is closer to another transit entry point, or your local network works better with a particular entry, a transit route may be the better choice.
PATH B
RELAY
Transit Routes
A transit route first connects to an access point better suited to the current entry network, then travels from that point to the target region. Its main role is to adjust the path and avoid excessive detours when the local network connects directly to a remote destination. For everyday browsing, streaming, AI tool web apps, and cross-region work, transit routes often balance path stability with regional coverage.
Transit adds a routing layer and requires ongoing coordination between entry and exit points, placing its cost between dedicated and ordinary direct routes. When choosing, do not look only at the city name; check the entry type and exit region as well. Two entries with similar city names may use different transmission paths.
PATH C
DIRECT
Direct Routes
A direct route connects the current network straight to a server in the target region without a dedicated transit entry point. Its path is simple and flexible to expand, making it suitable for web browsing, research, temporary region changes, and tasks with a clear country-specific exit requirement but moderate continuity needs.
Direct performance depends more heavily on the public path between the local carrier network and the remote data center. Long intercontinental distances, route changes, or shifts in the usage environment may cause fluctuations. Resource costs are generally lower than IEPL, making direct routes useful for extending regional coverage and serving as backups to primary routes.
How to Read Route Names
Route names usually describe both a region and a path type. The region indicates where the final exit is located; the path type explains how the connection reaches it. Choosing Japan, Tokyo, IEPL emphasizes a Japanese exit and a dedicated path. Choosing United States, San Jose, Transit emphasizes the combination of a transit entry and a US exit. Comparing country names alone misses the path information that most affects the connection.
The same task can have a primary and a backup route. Choose a primary entry that is nearby, stable, and compatible with the application; use another path in the same region as a backup, or a nearby region permitted by the target service. If a local path changes, switch the current route and reconnect instead of changing every client setting.