a. Pain Points: Equipment is prone to collision during operation, resulting in fuselage damage and high energy consumption. b. Material: EPP (density 30–40 kg/m³) + EPO composite application c. Core Function: Withstands 1.5m drop without damage, absorbs 80% of impact energy; achieves over 30% weight reduction compared to traditional plastic parts, lowering motion energy consumption. d. Application Scenarios: Industrial handling robots, service robot fuselages, shell protection for special operation robots. e. Image: Installation diagram of robot EPP anti-collision strips

a. Pain Points: Motion vibration causes joint wear, and jitter occurs on poor road conditions. b. Material: High-rebound EPP (40–50 kg/m³) c. Core Benefit: Attenuates 5–2000Hz vibration, reduces joint wear, and improves motion accuracy. d. Application Scenarios: AGV robot joints, service robot traveling wheels, tracks for outdoor inspection robots. e. Image: Close-up of EPP cushion pad for robot joints.

a. Pain Points: Electronic control modules are sensitive to short circuits, vibration, and temperature fluctuations. Material: Flame-retardant MPPE + EPE cushion inner liner b. Core Benefits: Flame-retardant and insulation properties prevent short circuits; auxiliary heat dissipation ensures stable operation from -40°C to 110°C; absorbs vibration to protect components from damage. c. Application Scenarios: Industrial robot electronic control boxes, main control modules for smart devices d. Diagram: Exploded view of control box with MPPE filling + EPE inner liner

a. Pain Points: High risk of thermal runaway, vulnerable to impact damage during operation. b. Material: MPPE thermal insulation layer + EPP cushion bracket c. Core Benefits: Delays thermal runaway propagation for over 60 seconds; absorbs impact to prevent cell damage; ensures safe operation in humid environments. d. Application Scenarios: Robot power battery packs, smart wearable battery compartments e. Diagram: Battery pack protection structure schematic

a. Pain Points: Precision components such as sensors and cameras are vulnerable to scratches and vibration. b. Material: EPE composite foam + custom EPO parts. c. Core Benefits: Soft fit to prevent scratches, custom shape for precise support, with moisture-proof and dust-proof performance. d. Application Scenarios: Robot vision sensors, precision transmission components e. Image: Actual shot of EPE protective inner tray for sensors.

a. Pain Points: Prone to collision during long-distance transportation, equipment performance is affected by environmental changes. b. Material: EPE inner tray + EPS outer packaging + EPP fixing brackets. c. Core Benefits: Adaptable to environments from -30°C to 60°C, full-dimensional cushioning for collision prevention, with thermal insulation and moisture resistance. d. Application Scenarios: Complete robot transportation, precision component turnover. e. Image: Actual shot of complete robot transportation packaging.

a. Pain Points: Equipment is prone to aging from outdoor sun and rain exposure; performance degrades in low-temperature environments. b. Material: EPO structural parts + EPS thermal insulation layer. c. Core Benefits: No aging after 5 years of outdoor service; thermal insulation maintains stable operating temperature of the equipment. d. Application Scenarios: Outdoor inspection robots, low-temperature operation robots. e. Image: Actual shot of EPO structural parts for outdoor robots.

a. Pain Points: Medical and food scenarios have strict requirements for environmental protection and odor-free performance. b. Material: 100% recyclable EPP + low-VOC EPE. c. Core Benefits: Odor-free, free of harmful substances, recyclable, and compliant with cleanroom standards. d. Application Scenarios: Medical service robots, food industry handling robots, cleanroom AGVs. e. Image: Actual shot of EPP inner liner for medical robots.