Protocols & Routes
Technical Guide

Connection Layers: Protocols, Routes & Apps

Map the path each request takes

A cross-border request typically starts in an app, then passes through the system network interface, the client's proxy or virtual network interface, the local access network, the service ingress, the outbound network and finally the destination service. Whether app traffic enters the client depends on system proxy settings, routing rules and per-app settings. Whether the ingress is reachable depends on the access network and route; whether the destination responds also depends on the destination service itself. Calling all of this “server speed” hides important details: any part can fail, or every part can work as expected while the overall experience is still poor.

A protocol defines how the two ends authenticate, encapsulate and forward requests. A route describes the networks those requests actually traverse, while the client directs app traffic onto the right path. The same protocol can perform very differently on different routes, and the same route can behave differently with another client because of rules, DNS or background policies. Before comparing protocols, check that your subscription is up to date, the target app is routed through the client, and the region and route suit your needs. Otherwise, you may be comparing two configurations rather than the protocols themselves.

Proxy protocols, transport protocols and encryption layers

Shadowsocks, VMess, Trojan, VLESS, Hysteria2 and TUIC are not complete connection stacks by themselves. A proxy protocol may run over TCP or UDP and may be combined with TLS, WebSocket or another transport wrapper. TCP provides a reliable, ordered byte stream; UDP carries datagrams; TLS establishes an authenticated encrypted connection; and QUIC provides secure transport and reliable streams over UDP. Any performance comparison should specify both the proxy protocol and the transport used. Without that detail, even connections using the same protocol name may not be comparable.

Encryption and access permissions are separate concerns. Encryption protects data in transit, authentication determines who can use a service, and routing rules decide where traffic goes. VPNRT uses “military-grade encryption” as a core security claim, but that is not an algorithm name you can enter in a client, nor is it a substitute for certificate validation, account security or checking your configuration. When troubleshooting, check the specific implementation's authentication, certificate validation and key management. Don't infer a cipher suite from marketing language or assume it means a destination app will grant access.

Break the experience into observable stages

A slow page load may be caused by DNS resolution, connection setup, the encryption handshake, the first response or subsequent resource loading. Video buffering depends more on sustained transfer and the route from the exit to the media server. Interactive tools are more sensitive to delays on short requests, dropped connections and unstable uploads. Latency is the round-trip time for a request; bandwidth is transfer capacity; packet loss means data fails to arrive as expected; and jitter measures changes in latency. These metrics are related, but not interchangeable: a low-latency route can still get congested during a large download, and plenty of bandwidth doesn't guarantee a fast initial page load.

Global mode, rule mode and per-app proxy settings can help check where traffic goes, but they shouldn't be treated as permanent troubleshooting fixes. If switching temporarily to global mode restores access, review the original rules or DNS path. That doesn't mean every app should always use the same exit. Keep appropriate routes for payments, work intranets and local devices. After returning to rule mode, check how the target domain matches the rules to pinpoint the issue instead of masking a missing rule by proxying more traffic.

Check in this order: does the app send traffic through the client, does the connection reach the ingress, does the exit reach the destination, and does the destination accept the request? Find the failing layer before changing protocols.

When documenting an issue, note the target app, access network, selected region, protocol and transport, the stage where it failed, and a brief client error summary. Redact account details, subscription URLs and authentication fields before sharing diagnostics. Never post a full subscription publicly. If you're unsure how the protocol differs from the route, check the route type on the Servers page, then use the controlled comparison method below.

Stream-Based Protocols: Encapsulation & Encryption Trade-offs

What to consider with Shadowsocks and VMess

Shadowsocks is an encrypted proxy designed to forward traffic with a relatively straightforward wrapper. Common AEAD options provide confidentiality and integrity, but key derivation, replay protection and session behavior depend on the specific option and implementation. Shadowsocks isn't limited to TCP; check UDP forwarding support in both the client and server. Fewer outer layers can reduce processing overhead, but actual resource use still depends on the cryptographic implementation, hardware acceleration, data volume and concurrent connections. The name alone doesn't prove it's the most battery-efficient option.

VMess incorporates authentication and data encapsulation in its protocol design and may be deployed with different transport methods. Some implementations and configurations are sensitive to system time and authentication state, so if you see an authentication error, check automatic time synchronization, subscription integrity and client compatibility. Resource use also depends on the outer transport: a direct stream and a WebSocket-wrapped connection may have different overhead, and server load matters too. Record the full combination when comparing options; not all VMess connections perform the same way.

Where Trojan and VLESS differ

Trojan typically uses TLS for an outer secure connection, with authentication and proxy request forwarding inside it. Certificate validation, the server name and the system trust chain all affect whether a connection succeeds. A failed handshake doesn't necessarily mean the account is invalid; the cause could be an incorrect system clock, a name mismatch or a certificate chain issue. Check the error type, and never disable certificate validation just to get a connection through. TLS deployment and session reuse affect initial connection time, so using TLS alone neither guarantees speed nor explains a slow connection.

VLESS focuses on lightweight authentication and request encapsulation. By itself, it doesn't provide the same protection as fully encrypted transport, so its security must be understood in the context of the underlying and outer layers. “Lightweight” does not mean encryption is unnecessary, nor does it guarantee better speed than other protocols. The same proxy protocol can use different security and transport settings. Follow the subscription settings; don't remove encryption layers or change the server name. Choose based on whether the supplied combination works with your client and network, not just on the protocol field.

How outer wrappers can change performance

WebSocket can adapt proxy traffic to certain service deployments, but it adds handshake and frame-processing steps. Other HTTP-based wrappers can affect connection reuse, flow control and the behavior of intermediary devices. Adding a layer doesn't necessarily slow things down significantly or make a connection more stable; it addresses specific deployment constraints. For users, the key questions are whether the client handles the combination correctly and whether the ingress and exit routes are suitable. Changing the transport locally without server support usually just leaves the two ends unable to understand each other's data.

“TCP-based” doesn't mean “only suitable for web browsing.” Many video and file transfers already use reliable streams and can work well over a healthy TCP route. What matters is recovery from packet loss, keeping long-lived connections open, competition between concurrent requests and whether the app needs UDP. To check whether gaming or calls will work, verify that the required datagrams are forwarded correctly. A webpage loading successfully doesn't prove other apps will work too.

Start with combinations provided by the panel and explicitly supported by your client. If two candidate routes differ in region, ingress and exit, don't attribute every observed difference to the proxy protocol. Keep route type and test task as similar as possible, then compare connection success, page response and sustained transfer. A protocol carries data; it can't eliminate physical distance, exit congestion, destination rate limits or local network problems.

QUIC: Reliable Streams over UDP

What QUIC changes—and what it doesn't

QUIC provides encrypted transport, connection management and multiplexed streams over UDP. When an app uses a reliable stream, the transport still detects and recovers lost data; it doesn't simply discard anything that fails to arrive. QUIC can reduce the head-of-line blocking between streams caused by ordered delivery at the transport layer, but missing data can still hold up later delivery within an individual stream. All streams also share path capacity and congestion state. Multiplexing isn't unlimited parallelism, and it doesn't make requests immune to network congestion.

QUIC is designed to support connection migration, but keeping an app working as the access network changes also depends on the proxy implementation, client state, server policy and app behavior. This doesn't guarantee that every task will continue uninterrupted when switching networks. QUIC's handshake and connection reuse offer opportunities to optimize performance, but a first connection, a resumed connection and an established connection are different states. Comparing a warm connection with another option's cold start can make caching and session resumption look like inherent protocol advantages.

Hysteria2: Transport and congestion trade-offs

Hysteria2 is based on QUIC and handles reliable streams and datagram forwarding for proxy use. Its congestion control and bandwidth-related settings are important to how it performs; actual behavior depends on the client and server implementation. A bandwidth field in the configuration doesn't mean a higher value gives you more capacity. An overly aggressive estimate of the path can saturate the access network or intermediate queues, so downloads may continue while interactive traffic slows, uploads stall or packet loss increases. Lower the setting and retest to assess the cause instead of continuing to raise it.

Hysteria2 can be worth comparing on access networks with some packet loss, provided the UDP path is usable. The cause of the loss matters: random wireless interference, congestion drops and datagram filtering are different problems. If the network can't reliably carry the required UDP traffic, even a suitable protocol design may fail to connect. Conversely, if the handshake succeeds but large transfers misbehave, check fragmentation, path MTU, queues and congestion control. Don't lump every symptom together as UDP being unavailable.

When TUIC's datagram forwarding is a good fit

TUIC is also based on QUIC, combining authentication, connection reuse and proxy forwarding. Its reliable-stream and datagram capabilities need to be considered alongside the way the client delivers them: app datagrams can be carried through different mechanisms, with trade-offs in reliability, latency and overhead. The difference between TUIC and Hysteria2 can't be reduced to a fixed speed ranking; implementation choices, congestion control, access networks and server load all affect the result. In practice, check whether the intended task completes reliably and whether perceived wait times improve under the same conditions.

Because QUIC is implemented in user space, its resource use can vary with implementation optimizations, device performance and concurrent connections. It may improve the experience on some networks, but place a different processing load on low-power devices. During sustained transfers, encryption, data copying, loss recovery and datagram handling all use resources. Don't assume a newer transport stack uses less battery. Under similar tasks and network conditions, monitor heat, background activity and connection stability; desktop performance doesn't tell you how it will behave on mobile.

UDP is a transport method; QUIC is a transport protocol built on it. QUIC's reliable streams recover lost data, but QUIC can't increase path capacity or ensure that the current access network allows the required datagrams through.

If QUIC-based connections keep timing out, first check that your subscription is valid and your client supports the protocol, then retest on a different access network. If the same device works elsewhere, investigate the original network path; if it fails on every network, check the configuration and server status. Compare it with a stream-based option provided in the panel to help distinguish a UDP path issue from an account, DNS or client problem. Keep the error summary, and don't hide the cause by disabling security checks or guessing port settings.

Connection Costs: Handshakes, Reuse & Resource Use

Compare cold starts and sustained transfers separately

Setting up a connection can involve DNS resolution, a transport handshake to the ingress, encryption and authentication, proxy request forwarding, and a connection from the exit to the destination. Some steps can be reused or run in parallel; others must wait for earlier steps to finish. So when you say a protocol “connects fast,” specify which part you're measuring. A connectivity test in a client may probe only the ingress or a designated test address, not the destination used by a real app. It's useful for ruling out obviously poor options, but not enough on its own to pick the best choice for large files, video or long interactive sessions.

A cold start is a connection with no reusable session or relevant cache. A warm connection may benefit from an existing transport, DNS cache or resumed session. Both occur in real use, but shouldn't be mixed in the same results. Everyday browsing uses both new and reused connections; long video sessions rely more on sustained data transfer. During testing, compare the first page load just after connecting with later repeat actions, and note which state you observed. Keep the conditions consistent to tell whether a difference comes from handshake time, route quality or app caching.

The benefits and trade-offs of connection reuse

Connection reuse can reduce the cost of repeatedly setting up connections, but it may also force different tasks to share a transport bottleneck. If reliable data is carried over a single ordered stream, packet loss can hold up later content while recovery occurs. Transports that use separate streams can reduce some cross-stream blocking, but tasks still compete for bandwidth. Reuse isn't always better when left on; the right choice depends on the implementation, network and workload. Many short requests may benefit, while large downloads sharing a route with latency-sensitive tasks should be checked for fairness, not just total download volume.

Resource use isn't just processor load. A client also uses memory and processing time to maintain routing tables, DNS caches, connection state, rule matching and logs. TUN mode may add packet I/O and system-interface processing. Hardware support for encryption, the implementation and repeated background reconnections can all change the load. Even with the same protocol, different clients and rule sets can behave quite differently. Compare protocol and client choices separately rather than attributing the cost of complex rules to the transport protocol.

How to avoid misleading test results

When comparing connection setup, use the same device, access network and destination at roughly the same time, and keep the region and route type as similar as possible. Record the app action first, then the protocol and transport; don't assume in advance which should win. After switching routes, the destination connection may still use the old exit, so wait for the app to reconnect and verify where its traffic goes. Browser cache, app preloading and background sync can affect results. If needed, pause unrelated tasks, but don't change security settings or clear unrelated account data just for a test.

A brief processor spike doesn't mean high long-term resource use, and a one-time increase in memory doesn't necessarily indicate a leak. Check whether resource use falls after a task ends, whether the device stays active while idle, and whether the client repeatedly retries after a failed connection. If the load rises only with detailed logging enabled, restore the normal log level before comparing. If the device also heats up during direct connections, the app itself, media decoding or a system update may be more likely causes. A useful diagnosis explains the behavior instead of blaming one protocol for every device issue.

For a detailed testing method, including tools, timing and metrics, read How to Test VPN Speed. This guide doesn't provide unverified performance rankings or generalize one connection's results to other networks. A useful comparison records the task, conditions, observed stages and failure limits so the same method can be used again.

Route Design: Direct, Relayed & Dedicated Links

A region label tells only part of the story

A route's region label usually helps identify the exit location, but doesn't describe the full path. A connection may first reach a service ingress, travel via a relay or dedicated link to an exit, then reach its destination. An exit that is geographically closer may not have a shorter network path, because routing depends on connectivity and policies between networks. When choosing a route, consider ingress reachability, the cross-border segment and the path from the exit to the destination. A nearby ingress may be easier to reach even when the destination is far away, but the full request's round-trip time includes every segment.

A direct route generally means the client connects to the relevant service ingress without passing through an additional service relay. Its path is relatively straightforward, but quality depends on routing and interconnection between the access network and ingress. A relay sends traffic from the client to a more suitable ingress before forwarding it to the exit. This may improve a poor inter-network route, but it adds a forwarding step and another potential point of failure. Neither “fewer hops are always faster” nor “more hops are always more stable” holds true: an extra segment may provide better interconnection, while a shorter path may still use a congested public route.

Which part of the route does IEPL cover?

IEPL is a dedicated-link route type. To understand what it offers, check which part of the overall path it covers. A service label that says “dedicated line” doesn't mean every segment from your device to a destination website uses a dedicated link. Local Wi-Fi, home broadband, the path into the service and the network from the exit to the destination may still be bottlenecks. The value of a dedicated line depends on the routing and capacity management of the segment it covers; it isn't an absolute guarantee of stable performance for every app. Retest with the ingress, exit and peak-time conditions in mind.

VPNRT's route examples include Hong Kong IEPL, Singapore IEPL, a Japan relay, a direct US route, an Italy relay and a direct France route. These combinations illustrate how regions and route types differ; they don't provide fixed latency or bandwidth figures or confirm platform availability. Check the Servers page and your user panel for current routes and regions. Don't assume every protocol has an endpoint in every region, or that a country label guarantees a service will accept traffic from that exit.

What route diagnostics can and can't tell you

Traceroutes can offer clues about a route, but can't reveal every segment beyond a proxy. System tools may use the local default route, a client probe may test only the ingress, and the destination connection behind the proxy is a separate path. Intermediate devices may also limit diagnostic packets, so a hop can fail to respond while still forwarding app traffic normally. An asterisk or increased latency at an intermediate hop doesn't prove there's a fault there. Check the final destination and the real app behavior, and confirm whether the test traffic passes through the client. Don't mistake how control packets are handled for packet loss on the app's route.

If several exits are slow on the same access network, first check the local connection and any shared ingress. If one exit is slow through the same ingress, investigate that exit's path. If only one destination is affected, check the route from the exit to that destination and the destination service itself. Keep the target and task the same when switching routes to distinguish a regional difference from a change in workload. For a simpler guide to choosing routes by region, type and use, see How to Choose a VPN Route.

When putting together candidate routes, look for different path characteristics, not just different display names. Two entries with different names may share the same ingress and exit, so they may not provide meaningful alternatives. Options with different route designs are more useful for narrowing down an issue. Test candidates on the access networks you use regularly instead of just adding them to your favorites. Keep notes on what works for everyday interaction, sustained transfers and specific destinations so you can retest promptly if routes change.

Packet Loss & Peak-Time Congestion: Recovery and Troubleshooting

First, locate where the loss occurs

Packet loss can come from wireless interference, queues on access equipment, congestion on an intermediate link, server load, datagram-handling limits or destination-side policies. Reliable transports try to recover missing data, so users may see pauses rather than an obvious error. Real-time datagram apps may instead show choppy audio, visual glitches or delayed responses. Interpret both in the context of the task. A completed download doesn't prove there was no packet loss, and a poor call doesn't prove the proxy protocol failed; the app's own encoding and the service status matter too.

At peak times, demand on shared resources tends to increase. Congestion may occur on a home connection, between networks, at the service ingress or at the exit, and not necessarily in all of them at once. When queues build up, data still moves, but new requests have to wait. This can look like “the large download is still running, but the webpage won't respond.” Adding more concurrent tasks can make contention worse. Reduce unrelated transfers and see if interactive use improves, then compare other routes at a similar time. A single morning test can't tell you how things will perform in the evening.

Distinguishing queueing delays from an unreachable route

Congestion control adjusts sending behavior based on feedback from the path; it doesn't guarantee the link will always be fully utilized. TCP and different QUIC implementations may use different feedback, recovery and control strategies, but all face limited capacity. Overly aggressive settings can fill queues; overly conservative settings may underuse a healthy route. Keep the delivered settings by default, and don't raise bandwidth limits based on a speed test's momentary reading. If your client offers relevant settings, read the documentation and change just one at a time, checking whether both interactive use and sustained transfers improve.

Path MTU describes the largest packet size that can travel effectively along a route. Encapsulation adds headers, leaving less room for the original data. If the necessary feedback can't return along the path, small requests may succeed while larger transfers stall. But this symptom alone doesn't prove an MTU problem; destination rate limits, caching and server load can look similar. First check whether the client offers automatic handling or diagnostic details, then adjust settings according to its documentation. Don't apply one unverified fixed value to every device and network.

Follow a troubleshooting path instead of switching blindly

If you can't connect at all, identify whether the failure happens during DNS resolution, the connection to the ingress or the authentication handshake. For DNS errors, check DNS and the domain; for connection timeouts, check the access network and ingress; for authentication errors, check the subscription, system time and certificate details. If you can connect but sustained transfers stall, investigate loss recovery, congestion, MTU and exit capacity. If only one app has a problem, check its rules, cached connections and destination status. Following these branches avoids irrelevant changes and repeated reinstalls that don't address the cause.

For a fair local comparison, keep the device and destination the same. If Wi-Fi is unreliable but a wired or other access connection works, investigate the local wireless connection or access path. If several access networks show a problem only on one candidate route, there's more reason to look at that route. Don't directly compare protocol results from devices on different access networks. Also check for cloud sync and downloads on other devices, which may share the upload path and queue interactive requests and acknowledgments.

An unresponsive intermediate hop in a diagnostic tool doesn't mean app traffic is being lost there. Record the real app's result, ingress connectivity and access to the destination separately instead of drawing a conclusion from a single probe.

When reporting an issue, observations like “the page keeps waiting after opening,” “the handshake reports a certificate error” or “it works again after changing access networks” are more useful than “it's slow.” Include the route name, client platform, access type and a brief error summary, but redact authentication details. If you need further help, submit the details through a support ticket in the user panel; never post a full subscription publicly. After troubleshooting, restore any temporary mode or logging changes and retest the original task instead of just checking whether a status icon looks normal.

Mobile Battery Life: Background Activity, Reconnects & Routing

Battery use isn't an inherent property of a protocol name

Mobile battery use depends on wireless communication, encryption, app activity, the screen and the operating system's background management. A protocol is only one factor. Sustained downloads keep the wireless interface and processor active; frequent keepalives or retries can also extend active time. A protocol with a lower processing load on a desktop may not use less power on a mobile device because hardware, implementation and system scheduling differ. Compare similar tasks under similar network conditions instead of relying on a protocol battery ranking with no test setup.

Background connections need to balance availability and resource use. Frequent keepalives can increase wireless activity, while overly long intervals may let an intermediate network clear an idle connection, forcing it to be rebuilt when you return to the app. The right setting depends on the client, transport and access network; don't copy an unfamiliar configuration. If an app takes time to resume, first check whether the system paused the client, the network changed or the original connection expired. Blaming every background delay on the protocol can overlook the system component actually restricting traffic.

What to check on Android and Apple mobile devices

Android power-saving settings and background restrictions can affect how long a VPN service stays active. If the client works in the foreground but repeatedly disconnects after the screen locks, check whether the system allows it to run in the background as described by the app, and whether battery optimization is pausing it. Settings vary between devices, so check the labels on your system instead of following a menu path that may not exist. Grant necessary background access to the client rather than exempting every app. For setup and keeping a connection active, see Android VPN Setup Guide.

iOS manages network extensions separately from an app's foreground state. When the access network changes, the system reclaims resources or settings change, a network extension may re-establish its transport, and the destination app may also need to retry its request. If an app stops responding after returning to the foreground, first check the system VPN status, recent client errors and whether the app reconnected before changing protocols. Keeping the client screen awake indefinitely doesn't prove background behavior is working; it changes the test conditions and adds screen power use to the comparison.

Per-app proxy settings and network changes

Per-app proxy settings can limit which traffic goes through the proxy and reduce unnecessary processing, but any battery savings depend on the actual workload; turning them on won't necessarily make a noticeable difference. If the target app isn't included or related system components use a different route, you may see partially loaded screens, failed media or authentication redirects. Check how the app and domain rules fit together. Rule mode routes traffic by destination domain, while per-app mode selects apps; they operate at different points. A toggle's status alone doesn't tell you which exit the traffic ultimately uses.

When switching from Wi-Fi to a cellular network, the route, address and network restrictions may change. Even a transport that supports connection migration depends on whether the proxy implementation actually uses it, and an app may retain an expired connection. During testing, note the ingress status before and after the switch and when the destination recovers. Don't treat a brief recovery as proof of a service fault. If the issue occurs only when switching networks, compare a candidate route with a different transport type and check automatic reconnect behavior instead of changing the protocol, region and rules all at once.

VPNRT supports Windows / macOS / iOS / Android / Linux, with no limit on the number of devices connected at once. These are platform and account details, not a claim that every device behaves the same way or that every client offers the same per-app features. Get the client and subscription from the user panel. When comparing devices on the same account, keep background tasks and access networks consistent, and record system differences, app load and protocol behavior separately.

Choosing by Use Case: Options and Retest Notes

Define the task before choosing a protocol

Everyday web browsing depends on first response time, short requests and loading resources from multiple domains. Prioritize client compatibility, a reachable ingress and a suitable route to the destination. If a stream-based option already works reliably on your usual network, there's no need to switch just because another protocol is newer. If requests often block one another, compare connection reuse or a QUIC-based option while keeping the region and task similar. Judge whether the experience improves in practice, not which client setting sounds more advanced.

Streaming and large files depend more on sustained transfer and the route from the exit to the destination. Check playback, recovery after seeking and whether longer transfers finish without interruption, while separating app caching from genuine network improvements. Access to a service can also depend on region, account, content rights and how the exit is identified; protocol support doesn't guarantee a platform will work. For related information, see the Supported Services page, then check the destination service after connecting. This guide doesn't list platform availability without supporting facts or treat changing protocols as a way to obtain content rights.

What to consider for interactive apps, calls and developer tools

Interactive apps depend more on request latency and connection continuity; a route with high sustained throughput may still be a poor fit if it frequently stalls. Calls and other real-time services also depend on datagram forwarding, upload load and jitter. A working webpage proves only that some connections work. Developer tools may involve a sign-in page, API requests, code repositories and long-lived connections, which may not all follow the same rules. If some features fail, first check that all relevant requests take the intended route, then compare transport options instead of repeatedly switching based only on the main domain.

For networks with packet loss, QUIC-based options are worth comparing if the required UDP path is available and the device and client support the supplied configuration. On access networks that restrict datagrams or have unstable handshakes, compare a stream-based option provided in the panel. On resource-limited devices, prioritize a stable implementation, a manageable rule set and understandable background behavior. Change the protocol, region, route type and settings one at a time. Changing everything at once may restore access, but won't show what fixed the issue or help you reproduce the result.

Make comparison results useful for future tests

A retest record should include the task, access network, device platform, client mode, candidate region, route type, protocol and transport combination, and the stage where a problem occurred. For a successful task, note whether it was a cold start or an established connection. You don't need to assign a score; describe whether the first load was delayed, a sustained transfer stalled or the connection recovered after a network switch. These notes explain why you kept an option without turning it into a permanent ranking with no conditions. Retest whenever the route or client changes.

Record the comparison branches too: was only one destination affected, did the issue occur only on one access network, did another route work, or was there a specific authentication or certificate error? Reviewing these observations side by side can show whether to adjust a rule, check the local network or contact support. Share only the necessary summary, with subscription and authentication fields hidden. Once the connection works, return to the original task and verify it; passing a connectivity test doesn't mean every app issue is fixed.

A useful conclusion is specific: “On this access network and for this type of task, keep this protocol and route combination,” not “this protocol is faster everywhere, on every device and at every time.”

Keep plan and device choices separate from technical conclusions

Data needs affect plan selection, not conclusions about protocol performance. VPNRT monthly plans are ¥9.9/month for 60GB, ¥18/month for 250GB, and ¥28/month for 500GB. Data resets monthly on the activation date; mid-cycle upgrades are prorated based on the remaining days. Data add-ons are ¥158/300GB, ¥358/1000GB and ¥658/3000GB; they can be used until depleted and never expire. See the Plans page for full details. Don't infer a dedicated exit, a particular bandwidth or extra protocol access from a price tier; those differences aren't specified in the available facts.

VPNRT offers 90+ countries / 210+ routes, unlimited simultaneous devices, Alipay / WeChat / USDT payments and a 7-day no-questions-asked refund. No email address is required to create an account; just use a username and password. After setting up your account and subscription, import the supplied configuration using the Getting Started Guide, then use the layered approach in this guide to test your connection. Coverage and device policies provide options, but your choice should still be based on retesting the current route for your access network and task.