| 1 |
Assess the booth structure |
Panel thickness, frame strength, insulation, sealing, doors, and floor design. |
Look for galvanized or corrosion-protected steel, rigid insulated panels, sealed joints, adjustable doors, and a load-rated floor suitable for the truck weight. |
Medium to high |
What are the panel specifications, frame coating method, floor load rating, and warranty coverage? |
Request drawings, material certificates, panel samples, and floor-load calculations. |
| 2 |
Match the booth size to vehicle workflow |
Internal length, width, height, clearance, door opening, and service access. |
Allow working clearance around the largest vehicle and room for spray-gun movement, masking, lighting, and safe operator access. |
Low to high |
Can the layout be customized for tractor units, rigid trucks, trailers, or buses? What is the maximum vehicle envelope? |
Measure the largest vehicle, turning path, ceiling height, and available installation footprint. |
| 3 |
Compare airflow and pressure control |
Airflow direction, air-change rate, fan capacity, pressure stability, and exhaust arrangement. |
A balanced airflow design should minimize turbulence, keep overspray away from the painted surface, and maintain stable slightly negative pressure where required by local regulations. |
High operating impact |
Will you provide airflow calculations, fan curves, pressure readings, and commissioning measurements? |
Review airflow diagrams and require documented testing after installation. |
| 4 |
Evaluate filtration and paint capture |
Intake filters, exhaust filters, filter area, access, replacement frequency, and disposal method. |
Choose accessible multi-stage filtration with pressure-drop monitoring and filters that are readily available in the destination country. |
Low purchase cost; recurring cost |
What filter grades are used, how often are they replaced, and are standard-size replacements available locally? |
Calculate annual filter consumption and verify local availability before ordering. |
| 5 |
Select the right heating and curing system |
Electric, gas, diesel, or indirect-fired heating; temperature range; heat-up time; energy efficiency. |
The system should provide even temperature distribution, stable controls, safe combustion isolation, and compatibility with local fuel and electrical standards. |
High capital and energy impact |
What fuel consumption, electrical load, temperature accuracy, and safety interlocks are included? |
Compare total energy cost using local electricity and fuel prices, not only equipment price. |
| 6 |
Check lighting quality |
Illuminance, color rendering, fixture protection, glare, and cleanability. |
Uniform LED lighting with a high color-rendering rating, protected fixtures, low glare, and sealed surfaces supports accurate defect inspection and color matching. |
Low to medium |
What measured light level will be achieved at vehicle-surface height, and how are fixtures protected from overspray? |
Ask for a lighting layout and verify actual illuminance during commissioning. |
| 7 |
Review controls and safety systems |
Control panel, emergency stops, door interlocks, fire protection, alarms, and hazardous-area requirements. |
Controls should be intuitive, clearly labeled, protected from overspray, and designed around applicable electrical, fire, and occupational-safety requirements. |
Medium to high |
Which safety components are included, and who is responsible for local approval and compliance documentation? |
Have a qualified local engineer review the design before purchase. |
| 8 |
Calculate the complete delivered cost |
Equipment price, packaging, freight, import duty, foundations, utilities, installation, testing, and training. |
For many truck booths, the delivered and installed project cost can be substantially higher than the quoted equipment price; compare like-for-like scope. |
Highest budget risk |
Is the quotation inclusive of export packing, spare parts, installation supervision, commissioning, and operator training? |
Build a landed-cost sheet and request a line-by-line commercial offer. |
| 9 |
Prioritize maintainability and spare parts |
Fan motors, belts, burners, sensors, filters, lamps, control components, access panels, and documentation. |
Common components, clear maintenance access, illustrated manuals, and documented preventive-maintenance intervals reduce downtime. |
Low purchase cost; high lifecycle value |
What is the spare-parts lead time, stock policy, technical response time, and remote troubleshooting process? |
Purchase a recommended two-year spare-parts kit for critical components. |
| 10 |
Measure supplier support and after-sales capability |
Engineering support, installation guidance, documentation, warranty, training, response time, and service coverage. |
A dependable supplier should provide approved drawings, installation instructions, commissioning support, multilingual documentation when needed, and clearly defined warranty terms. |
Directly affects downtime risk |
Who handles technical issues after delivery, what is the guaranteed response time, and which services are excluded from the warranty? |
Check references from comparable projects and include service obligations in the contract. |