Proven Track Record

From Drawing to Reality

Explore how our engineering team tackles complex stamping challenges. We don't just make parts; we optimize designs for manufacturability and performance.

Automotive Structural Bracket Blueprint
CAD Drawing
Automotive Structural Bracket Final Part
Final Part
Automotive

Automotive Structural Bracket

The Challenge

A Tier-1 supplier needed a complex mounting bracket with strict flatness requirements (0.05mm) and high tensile strength. Previous suppliers failed to maintain the bend angles during mass production.

Our Solution

We designed a 12-stage progressive die with active bending compensation. We also switched the material to a high-strength low-alloy (HSLA) steel and implemented in-line optical inspection.

The Result

Zero defects over 500,000 parts delivered. The customer saved 15% on material costs due to our optimized nesting layout.

Material
HSLA Steel 350
Tolerance
±0.05mm
Volume
500k/year
Deep Drawn Sensor Housing Blueprint
CAD Drawing
Deep Drawn Sensor Housing Final Part
Final Part
Medical Devices

Deep Drawn Sensor Housing

The Challenge

A medical device manufacturer required a seamless, hermetically sealable sensor housing. The wall thickness had to be uniform (0.5mm ±0.02mm) to ensure consistent sensor sensitivity.

Our Solution

We utilized our deep drawing expertise to produce the part in a single piece, eliminating the risk of weld leaks. We used 304L stainless steel and a multi-stage redraw process to prevent thinning.

The Result

Passed 100% helium leak testing. The seamless design improved sensor accuracy by 20% compared to the previous welded assembly.

Material
SS 304L
Wall Thickness
0.50mm
Finish
Electropolished
High-Current Copper Busbar Blueprint
CAD Drawing
High-Current Copper Busbar Final Part
Final Part
Renewable Energy

High-Current Copper Busbar

The Challenge

A solar inverter company needed a complex copper busbar with multiple bends and punched holes. The challenge was to maintain conductivity while achieving tight geometric tolerances for assembly.

Our Solution

We used C11000 ETP copper and designed a die with special coating to prevent copper buildup (galling). We also added a post-stamping tin plating process for corrosion resistance.

The Result

Improved electrical conductivity by maintaining surface integrity. The precise bending allowed for automated robotic assembly at the customer's plant.

Material
Copper C11000
Conductivity
100% IACS
Plating
Matte Tin

Have a Similar Challenge?

Our engineers are ready to review your drawings and propose a manufacturing solution that ensures quality and reduces cost.