8 Steps in the Deep Drawing Operation

Wondering how to transform a metal sheet into one of your functional products? Deep drawing operation is the key, it elaborately forms the metal into high-precision components, essential for various industries.

With years of experience in the metal fabrication industry, my insights into deep drawing are grounded in firsthand implementation and continuous adaptation of advanced techniques.

The deep drawing operation is not just about shaping metal; it’s an art that combines technology and precision to transform a flat sheet into a detailed, 3-dimensional object.

In this guide, we’ll discover the detailed steps involved in deep drawing, from material selection to the final inspection. You’ll learn how each stage guarantees the structural integrity and quality of the final product.

Read on to master deep drawing!

Step#1 Preparation of the Workpiece

To begin the deep drawing process, preparing the workpiece properly is essential for ensuring the quality and accuracy of the final product. Here are the critical steps involved in preparing the workpiece:

  • Material Selection: The choice of material significantly affects the outcome of the deep drawing process. Some examples of the metals used are aluminum, stainless steel, and brass.
  • Sheet Thickness: Determining the thickness of the metal sheet is crucial, as it must withstand the drawing process without tearing. Here’s the interesting part, the thickness also impacts the final depth that can be achieved.
  • Surface Inspection: The surface of the metal sheet is inspected for any imperfections such as scratches. Flaws on the surface can lead to defects in the parts and are often addressed through polishing.
  • Cutting to Size: The metal sheet is cut into blanks, the pieces that will be formed in the deep drawing process. Precision in cutting certifies the blanks are the correct size for the dies used, minimizing waste.

Step#2 Tooling and Die Setup

Following the preparation of the workpiece, the next phase is setting up the tooling and die. This step allows the machinery to be perfectly aligned to produce accurate results. Here are the essential steps involved:

  • Die Selection: The appropriate die is selected based on the material and the specific part design. As if that’s not enough, each die is created to accommodate different metal thicknesses and complexity of the draw.
  • Die Installation: The selected die is then securely installed into the press. It must be perfectly aligned for a smooth deep drawing process, which could lead to structural integrity of the drawn part.
  • Clearance Check: Proper clearance between the die components is checked to prevent any overlapping during operation. Adequate clearance allows the drawing process to proceed without any mechanical hindrances.
  • Testing Setup: A test run is often conducted to confirm the setup’s accuracy. This test helps identify any potential issues with the die setup that could affect the quality of the final product.

Step#3 Placement of the Blank

Once the tooling and die are correctly set up, the next step is the placement of the blank. Proper placement lets the metal form accurately without any misalignments. Here are the crucial details for placing the blank:

  • Centering the Blank: The blank is carefully centered on the die for a uniform distribution of pressure during the deep drawing process. Misalignment can lead to potential tearing of the metal.
  • Securing the Blank: It’s essential to secure the blank in place to prevent it from shifting when the drawing process begins. This is typically achieved using clamps or magnetic holders that keep the blank stationary.
  • Verification: Once the blank is placed, a verification step is taken to guarantee everything is set correctly. Here’s why that’s important, this includes checking the alignment and the security of the blank on the die.
  • Adjustments if Needed: If any misalignments or unsecured parts are noted, adjustments are made before the actual deep drawing begins. This proactive step is crucial to prevent defects and reduce waste.

Step#4 Applying Lubrication

After properly positioning the blank, the next essential step is applying lubrication. This process is crucial for reducing friction between the die and the blank. Here are the step-by-step details for this phase:

  • Choosing the Lubricant: According to Fortune Business Insights, the lubricants market is now valued at $120.97 and is still growing. Beska highlights the importance of selecting the appropriate lubricant, it should be compatible with the material of the blank and suitable for the process.
  • Applying Evenly: The lubricant needs to be applied evenly across the entire surface of the blank. This can be done with brushes or cloths, or through automated sprayers that secure consistent coverage.
  • Checking Coverage: Once applied, it’s important to inspect the blank to see if the lubricant covers all areas. Any missed spots can lead to higher friction areas, which might compromise the drawing process.
  • Adjusting Quantity: The amount of lubricant applied should be sufficient to create a thin film without causing excess. Here’s the bottom line, over-application can lead to slippage and under-application might not fully reduce friction.

Here is a table summarizing the impact of adjusting the quantity of lubricant on machine performance:

Lubricant Quantity Effects on Machine Performance
Sufficient Optimally reduces friction, enhances durability
Excessive Causes slippage, attracts dirt, may degrade components
Insufficient Fails to reduce friction adequately, increases wear and tear
Precisely measured Maximizes efficiency, extends machine life
Poorly estimated Leads to inconsistent performance and potential damage


Step#5 Clamping the Blank

After the blank is properly lubricated, securing it in place with clamps is the next step in the deep drawing process. Here are the step-by-step details for clamping the blank:

  • Positioning the Clamps: Clamps should be positioned strategically around the perimeter of the blank to provide balanced pressure. The exact placement depends on the design of the die and the shape of the final product.
  • Applying Pressure: The pressure applied by the clamps must be sufficient to hold the blank firmly in place but not so high that it can damage the material. This balance is crucial for maintaining the integrity of the metal during the drawing process.
  • Final Checks: Before proceeding with the drawing, a final check is necessary to see if all clamps are properly tightened and positioned. So what’s my point? Any adjustments needed should be made at this stage to avoid defects in the drawn part.

Step#6 Redrawing and Intermediate Annealing

Following the secure clamping of the blank, the next phases are redrawing and intermediate annealing. It is done to achieve the desired depth and mechanical properties in drawn parts. Below are the steps involved:

  • Initial Redrawing: This involves pulling the partially drawn part through a smaller die to refine its shape and increase its depth. This process is carefully monitored to avoid strain hardening too early.
  • Heat Treatment: After the initial redraw, the part undergoes an intermediate annealing process. Amazing, isn’t it? This heat treatment relieves stresses built up in the material during redrawing and restores ductility.
  • Cooling Phase: Post annealing, the part is allowed to cool down gradually under controlled conditions to prevent any new stresses from forming. This cooling must be done evenly to secure the material properties.
  • Further Redrawing: Depending on the final specifications, the part may undergo additional redrawing steps. Each cycle progressively shapes the part to its final dimensions, requiring careful handling to maintain precision.

Step#7 Finalizing the Draw

After multiple cycles of redrawing and annealing, the following step is finalizing the draw. Let’s explore the essential steps involved:

  • Final Shaping: The shaping is conducted to achieve the final shape and dimensions of the part. This involves using a die that closely matches the final design specifications to secure accuracy.
  • Trimming Edges: Excess material from the edges of the drawn part is trimmed off. This step is necessary for achieving the precise dimensions and smooth edges required for the component.


  • Stress Relief: A final stress-relief annealing may be performed if required, especially for parts that have undergone extensive deformation. Let me clarify that this process helps to stabilize the metal’s properties before it moves to the finishing process.
  • Surface Smoothing: Any imperfections on the surface of the part are smoothed out. This may involve sanding to enhance the appearance and certify that the surface is ready for any coating or further finishing.

Step#8 Inspection and Finishing Touches

Once the final draw is complete, the component undergoes thorough inspection and finishing touches to guarantee it is ready for delivery. Here are the crucial processes involved:

  • Dimensional Inspection: Each part is measured against the technical drawings to verify its dimensions. For example, instruments like calipers, or coordinate measuring machines (CMM) are used to secure accuracy.
  • Surface Inspection: The surface of the part is inspected for any defects such as scratches or irregularities. Beska certifies this step is conducted to see if the appearance and functionality meet strict quality standards.
  • Final Cleaning: Parts are cleaned to remove any lubricants or dust accumulated during the manufacturing process. This cleaning certifies the part is pristine and ready for any surface treatments or painting.
  • Applying Coatings: Depending on the end use of the part, various coatings such as paint or anti-rust treatments might be applied. And on top of that, these coatings enhance the part’s resistance to corrosion and wear.


Deep drawing is an essential manufacturing process that transforms flat metal sheets into complex 3-dimensional components. Beska’s deep drawing operation leverages state-of-the-art technology and extensive expertise to offer high-quality outcomes. Our approach is designed to handle the difficulties of deep drawing while maintaining firm quality standards.

This guide provides a clear overview of the steps involved in the deep drawing process, highlighting how each phase contributes to the success of the final product. At Beska, we pride ourselves on delivering precision-engineered parts that meet and exceed customer expectations. For more details on our capabilities or to discuss your project needs, please contact us directly.

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