
Underlying logic for automatic residential IP switching
Many people are used to manually changing proxies when they need to use different IP addresses continuously. However, manual operation is both time-consuming and error-prone, especially in scenarios where precise switching is required. The core of the automatic switching technology isTrigger IP changes through program pre-set rulesFor example, automatically changing residential IPs based on frequency of visits, response rate, or specific triggers.
Take ipipgo's practice as an example, its API system has a built-in intelligent switching algorithm. When the system detects that the response time of the current IP exceeds 800ms, it will automatically call the next available IP. this mechanism not only avoids manual intervention, but also ensures business continuity. Especially when using web automation tools, automatic switching can effectively circumvent access frequency restrictions.
Real-world application scenarios for API scheduling
Truly intelligent scheduling is not simply rotating IPs, it'sDynamic allocation of resources based on business needs. Three typical application scenarios are shared here:
| Scene Type | prescription | ipipgo adapted features |
|---|---|---|
| High Frequency Data Acquisition | Setting up automatic IP switching every 5 requests | Request counter + automatic API switching |
| Multi-territory operational testing | Switching IPs in geographic coordinate order | LBS location-based scheduling interface |
| Long-cycle mandate implementation | Timer triggered IP replacement | Timed switching API interface |
When using ipipgo's API in practice, you can set up theThe failure_retry parameterRealize automatic retry for exceptions. When encountering connection timeout or CAPTCHA interception, the system will automatically switch to a new IP to continue the task within 0.5 seconds, this feature is particularly useful in the crawler project.
The secret to seamless connectivity
Many users have encountered problems with IP switching resulting in session interruptions. A truly seamless connection requires two things:session holdrespond in singingstate synchronization. ipipgo provides a solution when switching IPs:
- Create new IP tunnel 10 seconds earlier
- Keep the old connection until the data transfer is complete
- Automatic migration of cookies and sessions
Through this "bridge" mechanism, users will not lose their login status or have their form submission interrupted even if the IP is switched in the background during web operations. Test data shows that this method can reduce the connection interruption rate to below 0.3%.
Practical questions and answers
Q: How to avoid IP being recognized by the target website?
A: It is recommended to turn on ipipgo's at the same timetraffic obfuscation patternrespond in singingRequest interval randomizationFunction. Setting the request interval to a random value of 1.5-3.5 seconds, together with the real browser fingerprint of the residential IP, can significantly reduce the probability of identification.
Q: Does automatic switching affect access speed?
A: Using ipipgo's intelligent routing function, the system will test the response speed of each IP in advance. When the delay of the main IP exceeds the threshold, the standby IP has already completed the warm-up preparation, and the actual response time difference of the switching process is within 200ms.
Q: Is there a limit to the frequency of API calls?
A: ipipgo uses an elastic frequency mechanism that automatically expands the API channel during peak business hours. Tested single account can support up to 150 times / second scheduling requests, fully meet the needs of enterprise-level applications.
By reasonably configuring ipipgo's residential IP services, users can realize truly intelligent scheduling. Its 90 million+ real residential IP pool, together with intelligent routing algorithms, provides a stable and reliable network environment solution for automation services.

