| Compression Springs | Automotive suspension, industrial machinery | Steel (AISI 1020, ASTM A227), 90 lb load capacity (▲ over 70 lb industry standard) | ▲ 28.5% higher load capacity than standard; cost-effective base material | Prone to corrosion in humid environments; requires protective coatings for harsh conditions |
| Torsion Springs | Door closers, tool mechanisms | Steel, 90 lb load capacity (▲▲ over 60 lb standard), dual load type compatibility | Handles both torsion and compression loads; versatile for multi-functional use | Requires precise installation to maintain performance; may fatigue under prolonged stress |
| Stainless Steel Springs | Marine equipment, medical devices | 302 Stainless Steel (ASTM A313), 90 lb load capacity (▲ corrosion resistance vs Base) | ▲ Corrosion-resistant in harsh environments; longer lifespan | Higher material cost increases price by 20-30% compared to steel variants |
| High Load Capacity Springs | Heavy machinery, industrial presses | 90 lb load capacity (▲▲ over 70 lb standard), conical design for stress distribution | ▲▲ 28.5% higher load capacity; durable under extreme pressure | Bulky design limits use in space-constrained applications |
| Multi-Function Springs | Hybrid systems (e.g., adjustable tools) | Dual functionality (compression/torsion), 90 lb load capacity | Reduces need for multiple components; space-efficient design | Complex engineering increases manufacturing complexity and cost |
| Corrosion-Resistant Springs | Chemical plants, outdoor machinery | Stainless Steel (ASTM A313), 90 lb load capacity (▲ corrosion resistance) | Maintains integrity in corrosive environments; low maintenance | Higher upfront cost; may require specialized installation tools |