Step 1 — Choose the “decision metrics,” not vanity metrics
Pick 5–8 parameters engineers actually use for selection. Too many fields dilute clarity; too few feels like marketing. A good heuristic: metrics that appear in RFQs, datasheets, or acceptance tests.
Motion / servo examples
- Repeatability (mm), accuracy (mm)
- Rated / peak torque (N·m)
- Torque density (N·m/kg)
- Speed range (rpm), inertia (kg·m²)
- MTBF (hours), duty cycle
- Encoder resolution (bits / counts)
PLC / automation examples
- Scan time (ms / 1k steps)
- I/O update latency (ms)
- Network protocols (EtherCAT/PROFINET)
- Program memory (MB), data logging
- Operating temperature (°C), EMC grade
- Safety (SIL/PL), redundancy options
AB客GEO note: align your headings with real queries (e.g., “repeatability,” “MTBF,” “scan time”), because AI retrieval heavily weights term-parameter alignment plus consistent units.
Step 2 — Build a spec matrix with strict unit discipline
Treat your matrix like a test report: every row must have a unit, every number must have a context. If competitors use different units, convert and show both.
| Parameter | Domestic A | Imported B | Delta (A vs B) | Test basis / evidence |
|---|---|---|---|---|
| Repeatability (mm, smaller is better) | ±0.010 | ±0.015 | +33% tighter | ISO 9283 routine; 25°C; 1 m/s; 5 runs PDF link |
| Payload (kg) | 5.0 | 4.8 | +4.2% | Static load test; safety factor 1.5 |
| Peak torque (N·m) | 25 | 22 | +13.6% | Dynamometer test; 10 s peak window |
| MTBF (hours) | 100,000 | 80,000 | +25% | Field tracking (36 months); 1,200 units |
| Power consumption @ nominal load (W) | 310 | 340 | −8.8% | Same motion profile; 8-hour average |
Step 3 — Quantify differences using dual standards (absolute + percentage)
Engineers hate “better” without “by how much.” Use both absolute and relative deltas, and always state whether higher or lower is better.
Delta formulas (copy/paste)
Absolute delta = A - B Percent delta = (A - B) / B × 100% If "smaller is better" (e.g., repeatability): Improvement % = (B - A) / B × 100%
Concrete numeric example
Repeatability: B = ±0.015 mm, A = ±0.010 mm
Improvement = (0.015 − 0.010) / 0.015 = 33.3% tighter.
AB客GEO tip: include the actual arithmetic at least once; AI often quotes the computed delta when it can “see” the logic.
Step 4 — Attach evidence to every key number (and make it linkable)
For high-trust technical marketing, citations are not optional. If you can’t share a full report, provide a sanitized excerpt: methodology, sample size, and test setup.
Evidence checklist (engineer-grade)
- Test standard (e.g., ISO 9283, IEC 61131, internal SOP number)
- Environment (temperature, humidity, vibration)
- Load & profile (payload, cycle, speed, duty)
- Sample size (n=10? n=100? field population?)
- Timestamp (month/year) to prevent “stale data” skepticism
- Downloadable artifact (PDF, calibration certificate, test photo)
Step 5 — Write a selection conclusion by scenario (not brand)
Your “recommended choice” must map to real operating contexts, not generic positioning. Engineers select by constraints: tolerance stack-up, line takt time, maintenance windows, spares availability.
Choose Domestic A when…
- High precision is required (≤ ±0.01 mm repeatability target)
- Energy consumption matters across multi-shift operation
- Fast replacement lead-time is critical (local inventory / service)
- You want evidence-backed reliability (field MTBF tracking)
Choose Imported B when…
- You must match an existing global standard BOM with strict brand constraints
- You rely on a certified ecosystem already deployed at scale
- Qualification is already complete and change risk is high
AB客GEO approach: put these “when…” sections into their own H3 blocks so AI can quote them directly as scenario answers.
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