a. Challenge: Operational collisions lead to structural damage and high energy consumption b. Material Selection: EPP (30–40 kg/m³) + EPO composite application c. Core Benefits: Withstands 1.5 m drop without damage; absorbs 80% of impact energy; reduces weight by 30%+ vs conventional plastics, lowering energy consumption d. Applications: Industrial handling robots, service robot housings, and protective shells for special-purpose robots e. Image: EPP impact bumper installed on robot body

a. Challenge: Vibration accelerates joint wear and reduces motion stability on uneven terrain b. Material Selection: High-resilience EPP (40–50 kg/m³) c. Core Benefits: Damps vibration across 5–2000 Hz, reduces joint wear, and improves motion precision d. Applications: AGV robot joints, service robot wheels, and outdoor inspection robot tracks e. Image: EPP damping pad for robotic joint

a. Challenge: Control modules are sensitive to short circuits, vibration, and temperature fluctuations b. Material Selection: Flame-retardant MPPE + EPE cushioning inserts c. Core Benefits: Electrical insulation and flame resistance prevent short circuits; stable operation from -40°C to 110°C; vibration absorption protects components d. Applications: Industrial robot control cabinets and intelligent device control modules e. Image: MPPE-filled control box with EPE internal structure

a. Challenge: Thermal runaway risk and impact damage during operation b. Material Selection: MPPE thermal insulation layer + EPP structural support c. Core Benefits: Delays thermal propagation ≥60s; absorbs impact to protect cells; ensures stable performance in humid environments d. Applications: Robot power battery packs and smart wearable battery compartments e. Image: Battery pack protection structure diagram

a. Challenge: Sensors and cameras are vulnerable to scratches and vibration b. Material Selection: EPE composite foam + custom EPO inserts c. Core Benefits: Soft cushioning prevents surface damage; custom molding ensures precise fit; moisture and dust resistance d. Applications: Robotic vision sensors and precision transmission components e. Image: EPE protective insert for sensor packaging

a. Challenge: Transport vibration and environmental changes affect equipment safety b. Material Selection: EPE inner tray + EPS outer shell + EPP structural support c. Core Benefits: Adapts to -30°C to 60°C; full-range cushioning; thermal insulation and moisture resistance d. Applications: Whole robot transportation and precision component logistics e. Image: Robot transport packaging system

a. Challenge: Sun, rain, and low temperatures cause aging and performance degradation b. Material Selection: EPO structural components + EPS insulation layer c. Core Benefits: Stable outdoor performance up to 5 years; thermal stability under extreme conditions d. Applications: Outdoor inspection robots and low-temperature operation robots e. Image: EPO structural components on outdoor robot

a. Challenge: Medical and food environments require non-toxic, odor-free materials b. Material Selection: Recyclable EPP + low-VOC EPE c. Core Benefits: Odor-free and non-toxic; fully recyclable; compliant with clean environment standards d. Applications: Medical service robots, food logistics robots, and cleanroom AGVs e. Image: EPP interior lining for medical robot