{"id":1626,"date":"2026-01-24T08:42:15","date_gmt":"2026-01-24T00:42:15","guid":{"rendered":"https:\/\/sridrone.com\/how-should-i-evaluate-the-breakpoint-resume-performance-when-purchasing-an-agricultural-drone\/"},"modified":"2026-01-24T08:42:15","modified_gmt":"2026-01-24T00:42:15","slug":"how-should-i-evaluate-the-breakpoint-resume-performance-when-purchasing-an-agricultural-drone","status":"publish","type":"post","link":"https:\/\/sridrone.com\/de\/how-should-i-evaluate-the-breakpoint-resume-performance-when-purchasing-an-agricultural-drone\/","title":{"rendered":"Wie bewerte ich die Leistung der Wiederaufnahme des Haltepunkts beim Kauf einer Agrardrohne?"},"content":{"rendered":"

\n \"Farmers\n<\/p>\n

When we test new flight controllers in Xi’an, we see how frustrating a lost mission path can be. A drone that forgets its exact spot wastes your time, money, and chemicals.<\/p>\n

Evaluate breakpoint resume performance by testing positional accuracy using RTK-enabled GPS to ensure less than 10cm deviation. Verify that the drone stores coordinates in non-volatile memory during battery swaps and automatically adjusts the resumption point to prevent spray gaps or dangerous chemical overlaps.<\/strong><\/p>\n

Let\u2019s look at the specific technical features that ensure a seamless return to work.<\/p>\n

How does RTK technology affect the accuracy of my drone's breakpoint resume function?<\/h2>\n

Our engineers integrate Real-Time Kinematic modules because standard GPS drifts too much. Kinematik in Echtzeit<\/a> 1<\/a><\/sup> Kinematik in Echtzeit<\/a> 2<\/a><\/sup> Without precision, your drone might resume three meters away from where it stopped, ruining your field data.<\/p>\n

RTK technology improves breakpoint resume accuracy from meters to centimeters, typically achieving sub-10cm precision. This ensures the drone returns to the exact longitude and latitude of the pause, eliminating untreated strips in your field and ensuring uniform crop coverage despite wind or signal interference.<\/strong><\/p>\n

\"White<\/p>\n

When we discuss accuracy in agricultural drones, we are comparing two very different standards: standard GNSS and RTK Standard-GNSS<\/a> 3<\/a><\/sup> Standard-GNSS<\/a> 4<\/a><\/sup> (Real-Time Kinematic). Understanding this difference is critical for evaluating breakpoint resume performance.<\/p>\n

Standard GPS vs. RTK Precision<\/h3>\n

A standard GPS module, like the one in a smartphone or a basic drone, has a margin of error ranging from 2 to 5 meters. In an open field, this might seem small. However, if a drone pauses a spray mission to refill its tank and relies on standard GPS to return, that 2-meter error is significant. The drone might resume spraying 2 meters to the left or right of the original breakpoint.<\/p>\n

This creates "skips" (untreated rows where pests can survive) or "overlaps" (double-dosed rows that can burn the crop). By contrast, the RTK systems we install use a base station to correct satellite signals RTK-Systeme<\/a> 5<\/a><\/sup> in real-time. This correction brings the margin of error down to under 10 centimeters. When you command the drone to resume, it hits the exact nozzle shut-off point, almost like it never left.<\/p>\n

The Impact of Environmental Factors<\/h3>\n

Accuracy is not just about the hardware; it is about how the hardware handles the environment. Agricultural fields often have wind gusts or tree lines that interfere with signals.<\/p>\n