The best way to speed up Midjourney is not to look for a node labeled “AI-only,” but to keep Discord’s persistent connection, command API, image delivery, and web access on one stable route with a consistent egress. Opening the Discord homepage does not prove the full image-generation workflow is working. If the message channel keeps reconnecting or image domains are not routed correctly, commands may receive no response, job status may stall, or results may fail to load.

Midjourney can be used on the web, but it remains closely tied to Discord’s interactive ecosystem. When users submit commands in Discord, the client must maintain a real-time message connection while requesting APIs and loading image assets. This is not a single webpage download, but a set of network requests with different durations and destination domains. When evaluating a route, prioritize connection continuity, consistent routing, and complete traffic rules rather than a one-time peak speed test.

Why Midjourney needs more connection stability than ordinary websites

Ordinary webpages can usually be reloaded after a failed request, and some static content may be cached by the browser. Discord’s core interactions depend on a persistent message channel. The desktop client or browser establishes a long-lived WebSocket connection through the Gateway to receive channel messages, job progress, and interaction states. Sending commands, clicking buttons, and retrieving account data use standard API requests, while the final images often load from separate content-delivery domains.

This means that even with enough bandwidth, packet loss, jitter, or frequent connection migration can cause the WebSocket to reconnect repeatedly. The interface may still appear open during a reconnect, but new messages will arrive late. If traffic rules cover only Discord’s main domain and omit API and image domains, text may work while images remain blank.

Connection layer Primary purpose Symptoms What to check
Discord Gateway Maintain real-time messages and state synchronization Repeated reconnects, delayed messages, and out-of-sync interaction states Persistent connection stability, packet loss, and route changes
API requests Send commands and load channel and account data Failed command submissions, unresponsive buttons, or partial page errors Domain routing, TLS handshake, and consistent egress
Image assets Load previews and generated results Text is visible but images are blank, or thumbnails keep loading Whether content-delivery domains use the same routing policy
Midjourney web app Browse creations, manage jobs, and use web features Login redirect loops or incomplete page components Browser cache, cookies, and egress region changes

Therefore, “the webpage opens” only proves that some requests are reachable. A more meaningful test is to log in on one node, enter a channel, send a normal command, wait for the status to update, and open the generated image. Do not switch nodes repeatedly during testing, or it will be difficult to tell whether the problem comes from the route itself or a session refresh triggered by a changed egress.

Bottom line: For Midjourney, prioritize routes with stable persistent connections and complete traffic coverage. Peak bandwidth affects how smoothly large images load, but it cannot replace stability.

How to troubleshoot generation disconnects and failed image loads

Start with the symptoms instead of repeatedly changing protocols. A protocol name only describes the transport method between the client and node; it cannot independently prove upstream route quality. If switching between Shadowsocks, VMess, Trojan, VLESS, Hysteria2, or TUIC improves the symptoms, the transport may simply suit the current network better—or you may have connected to a different entry or exit.

Keep the current node and client configuration, then check each item below in order. Retest after every step, and avoid changing too many settings at once so the actual cause remains identifiable.

  1. Check whether Discord stays online. Watch for repeated connecting messages and confirm that new channel messages appear normally. If you must refresh manually to see updates, suspect an unstable persistent connection first.
  2. Separate command submission from result loading. If the command appears in the channel but the image will not open, check image domains and traffic rules. If the command itself cannot be submitted, inspect the API request path and current egress.
  3. Temporarily test with a global proxy. If global mode works but rule mode fails, the problem is usually an omitted rule rather than a completely unusable node. Add the missing rules after testing; there is no need to keep global mode enabled permanently.
  4. Keep the egress region consistent. Switching regions frequently during login, authorization, and use can make the browser session and the egress observed by the service change. Fix one working region for the full test to get a more reliable result.
  5. Check the local DNS path. If domain resolution still happens directly through the local network while the connection goes through a remote node, the results may not match, may be polluted, or may expose a DNS leak. Relevant domains should use remote resolution consistent with the proxy policy.
  6. Rule out client-side state. Reload the configuration after updating the subscription, close duplicate proxy processes, and check whether another tool has taken over the system proxy. Conflicts are also common when a desktop client and browser extension manage traffic at the same time.

How to choose between direct, relay, and IEPL private routes

Route types describe the broad path from the local entry point to an overseas egress. A direct route connects to an overseas node from the local network, keeping the path simple, but cross-border public-network congestion and carrier routing changes affect quality more directly. A relay route first connects to a nearby entry point and is then forwarded through the provider’s network to the egress. This can improve public-network paths in some regions, but results depend on entry quality, forwarding links, and egress load.

IEPL private routes use dedicated transport resources across the cross-border segment and are generally better suited to scenarios that prioritize evening stability, persistent connections, and responsive interaction. This does not mean every segment avoids the public network, nor that fluctuations cannot occur on any local network. The end-to-end paths from the user to the entry point and from the egress to the target service still matter. Treat IEPL as a route structure that reduces uncertainty across the cross-border segment, not as a label that proves quality by itself.

Route type Path characteristics Best suited for Main trade-offs
Direct Direct connection from the local network to an overseas egress Stable network conditions, short browsing sessions, and backup connectivity More exposed to cross-border public-network congestion and routing changes
Relay Connect to a nearby entry point first, then forward to an overseas egress Everyday Discord interaction, image loading, and general AI tool access Quality depends on the entry point, forwarding path, and egress working together
IEPL Dedicated transport resources across the cross-border segment Continuous image generation, persistent-connection-sensitive workflows, and stability-focused use The local access path and the final path to the target service still need checking

For practical testing, start with a nearby egress region as a baseline. Shorter physical distance often helps reduce round-trip time, but it is not absolute. If a nearby direct route reconnects frequently during your usual hours, test a relay or IEPL route in the same region. If the route is stable and only image downloads are somewhat slow, there may be no need to pursue a more complex path.

Region selection should also account for egress consistency. The Midjourney web app, Discord login, and payment pages may use different domains. If the rules send these requests to different countries or regions, the account session may require reauthorization and the webpage may redirect unexpectedly. For AI tools, a fixed egress is often more practical than constantly searching for the lowest-latency node.

Route selection: For light use, start by testing a nearby relay. When keeping Discord online for long periods or processing images continuously, compare IEPL with a high-quality relay in the same region. Direct routes are a simple option or backup path when local network conditions are good.

How proxy protocols affect Discord persistent connections

Shadowsocks, VMess, Trojan, and VLESS are commonly used with TCP-based transport combinations and can also be paired with other transports through configuration. Their performance depends not only on the protocol name, but also on the encryption implementation, transport layer, entry quality, client core, and server configuration. The same protocol name does not mean two routes share the same routing or stability.

Hysteria2 and TUIC use QUIC-based approaches and may recover more flexibly than unsuitable TCP-over-TCP combinations on networks with some packet loss or fluctuation. However, some corporate, public, or routed networks restrict UDP. In that case, the client may fail to connect or work inconsistently. Prepare a working TCP-based configuration for comparison rather than assuming one protocol is faster on every network.

For the Discord Gateway, what matters is whether the connection can stay up over time. A protocol handshake may complete quickly, but repeated disconnections after a period of use still make it unsuitable for image-generation workflows. During testing, keep Discord running in the foreground or background and watch message synchronization and image loading instead of relying only on the client panel saying “Connected.”

How to configure subscription links, clients, and traffic rules

A subscription link is the client’s entry point for retrieving node lists and connection parameters. After import, the client converts the remote configuration into selectable nodes. Support for rule sets, DNS, system proxies, and virtual network interface modes varies by client, so the same subscription may behave differently across platforms.

Windows and macOS desktop clients usually let you choose between system proxy and virtual network interface modes. A system proxy mainly takes over apps that follow the operating system’s proxy settings. Virtual network interface mode covers more traffic and is better for desktop programs that ignore system proxies, but local LAN access, development environments, and other network tools may require compatibility checks. For the Midjourney web app in a browser, a system proxy is usually sufficient. If the Discord desktop app does not use the proxy as expected, check virtual network interface mode.

Android and iOS clients usually take over traffic through the system-provided VPN interface. Mobile operating systems restrict background activity, so persistent connections may pause and reconnect after a network change or when power-saving mode starts. If mobile Discord often reconnects briefly after returning to the foreground, check background permissions and recent network changes before judging node quality.

Linux environments depend more heavily on the specific client and desktop network stack. Some clients configure only an environment proxy, while others provide transparent proxying or a virtual network interface. Command-line tools, browsers, and Discord clients may read different proxy settings, so confirm each traffic entry point individually. Setting a browser proxy alone does not automatically cover other terminal programs.

Organize traffic rules around domains and application needs rather than listing only one main-site domain. Discord’s real-time connections, APIs, and content delivery should use a consistent policy, and the Midjourney web app and its static assets should be included as well. After updating the rules, refresh the subscription and reload the client, then restart the relevant applications so old connections do not continue using the previous egress.

AI and Discord routing checklist
├─ Discord main site and login requests: Proxy
├─ Gateway real-time connection: Proxy
├─ Discord API requests: Proxy
├─ Images and attachment assets: Proxy
├─ Midjourney web app and static assets: Proxy
├─ DNS resolution: Keep consistent with the proxy egress
└─ Local LAN resources: Connect directly as needed

The structure above is a troubleshooting checklist, not configuration syntax that can be pasted into every client. Rule formats, domain sets, and policy-group names differ between clients. Before importing third-party rules, verify their source and update method. If the client already has a maintained rule set, add missing entries to the existing policy first rather than letting multiple rule sets overwrite one another.

Why DNS leaks and inconsistent egress regions affect access

DNS resolves domain names into reachable addresses. If application traffic goes through an overseas node while domains are resolved directly by the local network, the paths become inconsistent. The result may be more than a privacy concern: content-delivery systems may return addresses unsuitable for the current egress, or some domains may be affected by the local resolution environment.

A safer approach is to resolve proxied domains through the proxy side or a remote DNS service protected by the client, while keeping local domains and LAN devices on direct local resolution. When virtual network interface mode is enabled, also check whether another DNS tool is taking control in parallel. Multiple programs changing resolution settings at once can leave the client panel looking normal while the browser and desktop apps receive different results.

Inconsistent egress regions often result from overly granular rules. For example, the Discord Gateway may use one region, image assets another, and the Midjourney web app a third route. This may save some traffic locally, but it increases session drift and troubleshooting difficulty. For AI tools that require login state and continuous interaction, first send related requests through the same policy group, then optimize further after stability is confirmed.

Choose the final route plan by use case

If you mainly browse creations on the web, the route only needs stable coverage for login, page APIs, and image assets; a nearby relay is usually a good starting point. If you frequently submit commands in Discord and wait for job updates, give the Gateway persistent connection higher priority and choose a relay or IEPL route that rarely reconnects during your usual hours.

If text interaction works but large images load slowly, compare content-delivery paths through different egresses in the same region instead of immediately changing every protocol. If no images display at all, first use global mode to check for missing traffic rules. Only if global mode also fails should you continue checking the node egress, DNS, client core, or local network restrictions.

For mobile work, also account for network changes. Switching between Wi-Fi and cellular networks usually requires existing connections to be rebuilt. A brief reconnect does not necessarily indicate a route failure. If disconnections remain frequent while the network is unchanged, then consider changing the node or protocol. In desktop environments, focus on ruling out duplicate control by browser extensions, the system proxy, and virtual network interfaces.

Keep one primary route and one backup route with a different path. Ideally, the backup should not share exactly the same entry point and upstream path as the primary, so it can provide a useful comparison when a local routing issue occurs. Change only one variable per test: switch the node first, then the route type, and adjust the protocol and DNS last. This order is more likely to reveal a stable combination than random switching.

Final recommendation: Configure Midjourney acceleration around stable persistent connections, complete routing for related domains, and consistent DNS and egress. Establish a baseline with a nearby relay, compare IEPL when continuous interaction is unstable, and choose the protocol according to whether the current network handles TCP or UDP more reliably.