China’s premium EV space moves fast—sometimes dizzyingly so—and the zeekr 001 has become a reference point I keep coming back to. It’s that long-roof shooting brake that quietly upended expectations around range, charging speeds, and chassis tuning. To be honest, I didn’t expect such a polished blend of performance and practicality this early in the cycle.
Trends first: 800V-capable architectures, cell-to-pack (CTP) designs, and high-nickel or LFP chemistries are maturing fast. The zeekr 001, built on Geely’s SEA platform, leans into this with big-battery options (including CATL’s Qilin pack on select trims), over-the-air software, and fast DC charging. Many customers say it feels “European” in ride and cabin finish, but with the efficiency we’ve come to expect from China’s supply chain muscle.
| Platform | SEA (Scalable Electric Architecture) |
| Battery options | ≈100–140 kWh (NCM; Qilin on select trims); real-world range varies |
| Range (CLTC) | ≈546–1,000+ km, depending on pack and drivetrain |
| Drivetrain | RWD or AWD; up to ≈400 kW peak |
| 0–100 km/h | ≈3.8–6.9 s (trim-dependent) |
| DC fast charging | Up to ≈200–360 kW; 10–80% ≈15–30 min |
| Safety | Meets GB/T EV safety; pack ingress ≈IP67; ISO 26262-based development |
Actually, on the road, what stands out is calibration: pedal mapping and damping that don’t scream “prototype,” which, surprisingly, some rivals still do.
School runs and long highway slogs are the easy bits; the zeekr 001 shines when you pile in luggage and still want composure. Options I’d tick: adaptive air suspension, heat pump for cold climates, and the higher-rate DC charging module if your corridor supports it. Many owners report the cabin NVH as “quieter than expected,” while a few note software UX quirks that, to be fair, tend to be smoothed out via OTAs.
One Hangzhou corporate fleet told me their first-year TCO for a 001-based pool dropped ≈15% versus their outgoing ICE crossovers, mainly on energy and maintenance. Uptime was high—north of 99%—after they standardized DC charging windows. Sure, sample size matters, but it tracks with what we see across high-utilization EVs.
| Model | Battery chem. | Range ≈ (CLTC/WLTP) | Peak DC kW | 0–100 km/h ≈ |
|---|---|---|---|---|
| zeekr 001 | NCM | 546–1,000+ km (CLTC) | 200–360 | 3.8–6.9 s |
| GAC Aion Y | LFP | ≈510 km (CLTC) | 100–150 | ≈8–9 s |
| Tesla Model Y | LFP/NCA | ≈455–533 km (WLTP) | 170–250 | ≈3.7–6.9 s |
| BYD Seal | LFP (Blade) | ≈550–700 km (CLTC) | 150–230 | ≈3.8–7.5 s |
Values are indicative; trim, conditions, and test cycles differ. Real-world use may vary.
China-market vehicles carry CCC; battery transport follows UN 38.3; safety aligns with GB/T 18384 and 31467 series, with export variants pursuing ECE R100. Software and OTA security increasingly reference UN R155/R156. That’s the boring stuff, I guess, but it matters for residual value and fleet approvals.