Deep Drawing Height · Material Ductility · Sheet Metal Drawability
Deep drawing height is not determined by die size alone. It is closely related to material ductility, sheet thickness, draw ratio, corner radius, lubrication, blank holder force, draw bead control and forming route. A part with good ductility and generous radius may be drawn deeper than a similar part made from a harder or less ductile material.
Changdong has demonstrated deep drawing experience up to 300 mm under suitable project conditions. For battery pack housing and similar drawn parts, typical project drawing heights are often around 110–140 mm, depending on material ductility, part geometry, radius design and tooling review. This article explains why drawing height must be reviewed together with material behavior before deep draw stamping die manufacturing.
View Deep Draw Stamping Die CapabilityDuctility Higher elongation usually supports deeper and more stable drawing | Radius Proper punch and die radius help reduce cracking and thinning | 110–140 mm Typical battery pack drawn part height range, subject to review | 300 mm Demonstrated drawing depth under suitable project conditions |
Material ductility affects deep drawing height because the sheet metal must stretch and flow into the die cavity without tearing. When the material has better elongation and stable flow behavior, it can usually tolerate deeper drawing and more complex geometry.
If the material has low ductility, high strength, poor surface condition or sharp part geometry, the risk of wall thinning, cracking and wrinkling increases. In that case, the die may need larger radii, improved lubrication, adjusted blank holder force, draw beads, restriking or multi-step drawing.
Deep drawing height is a combined result of material properties and tooling design. The same drawing height may be easy for one material but risky for another. This is why DFM and CAE should be completed before tooling is finalized.
| Factor | Effect on Drawing Height | Review Focus |
|---|---|---|
| Material ductility | Higher ductility generally allows better material flow and deeper drawing. | Material grade, elongation, work hardening behavior and surface condition. |
| Sheet thickness | Thickness affects forming load, wall thinning and wrinkle tendency. | Thickness tolerance, thinning risk, press capacity and blank holder condition. |
| Corner radius | Larger radii usually reduce cracking risk and improve material flow. | Punch radius, die radius, part radius and transition area design. |
| Blank holder force | Too little force can cause wrinkles; too much force can restrict flow and cause tearing. | Material flow balance, flange control, draw bead layout and trial feedback. |
| Forming route | Deep or difficult parts may need multi-step drawing, restriking or correction. | One-step vs multi-step drawing, trimming allowance and final shape validation. |
Buyers often ask whether a supplier can deep draw a certain height, such as 140 mm or 300 mm. The correct answer must include material and geometry review. A 140 mm battery pack housing with suitable material, generous radii and stable forming route may be feasible, while another 140 mm part with sharp corners or low ductility may need design adjustment.
For deep drawing die projects, Changdong reviews drawing height together with material ductility, thickness, radius, wall thinning risk, wrinkling risk, blank holder force and forming route before die manufacturing.
Different materials behave differently during deep drawing. The table below provides general engineering considerations. Final feasibility should always be confirmed by DFM review, CAE where required and press tryout validation.
| Material Group | Deep Drawing Behavior | Tooling Concern |
|---|---|---|
| Low carbon steel | Often suitable for deep drawing when elongation and thickness are appropriate. | Draw ratio, wrinkling, trimming allowance and surface condition. |
| Stainless steel | May have work hardening and galling risk during deep drawing. | Lubrication, surface treatment, radius design and forming load control. |
| Aluminum | Can be draw-friendly in some grades but sensitive to surface marks and cracking in sharp features. | Surface protection, radius, lubrication and wall thinning review. |
| Copper and brass | Can flow well in suitable grades, but may need attention to marks and dimensional stability. | Surface finish, lubrication, contact area and springback or distortion control. |
| High-strength steel | Usually more difficult for deep drawing because of higher forming load and lower formability. | CAE review, multi-step forming, larger radius, springback and cracking control. |
The following values describe Changdong's project experience and should be reviewed case by case. They are not universal guarantees for every material, thickness or geometry.
| Application | Drawing Height Reference | Condition |
|---|---|---|
| Battery pack housing and similar drawn parts | Around 110–140 mm in typical projects | Subject to material ductility, geometry, radius design and forming route |
| Deep drawing project experience | Up to 300 mm demonstrated drawing depth | Under suitable material, geometry, tooling and press conditions |
For application-specific battery pack tooling, visit Battery Pack Housing Deep Drawing Die.
| 1. Material Review Check material grade, elongation, work hardening and surface condition. | 2. Geometry Review Review drawing height, part size, radius, corner shape and flange design. | 3. DFM Review Check draw ratio, thinning, wrinkling, cracking and trimming requirements. | 4. CAE Review Use CAE where required to evaluate material flow and forming risk. | 5. Tryout Validation Confirm the final result through T0 sample inspection and die correction. |
| Deep Draw Stamping Die Main product page for deep drawing die capability. | Deep Drawing Die Design DFM, CAE, draw ratio and forming risk control. | Battery Pack Housing Deep Drawing Die Deep drawing die for battery pack housings around 110–140 mm height. | Deep Draw Metal Stamping Related process page for deep drawn parts. |
Deep drawing height is controlled by material ductility, sheet thickness, draw ratio, corner radius, blank holder force, lubrication, draw bead design and forming route.
Changdong has demonstrated deep drawing experience up to 300 mm under suitable project conditions. Battery pack housing and similar drawn parts often use 110–140 mm drawing height, depending on material and design review.
The company supports deep drawing projects with DFM, CAE, deep drawing die design, press tryout and sample validation. Actual drawing height should be confirmed by material, geometry and tooling review, not by depth value alone.
Send your drawing, 3D model, material grade, sheet thickness, drawing height, radius requirements and tolerance requirements. Changdong can review whether the drawing height is suitable for the selected material and recommend a practical deep drawing die route.
Email sales@chang-dong.comChangdong is good at making metal stamping dies up to 4.2 meters, also we produce small size metal stamping toolings. The company manages the complete stamping die program from the CAE Simulation, layout designs and stamping tooling designs, and finish the machining to tryout and home line tryout to your hands. Meanwhile, the company produces the prototyping parts and stamping parts range from 45-880T. The successful cases include: stamping tools of Leoni connectors, automotive stamping dies of PSA P8 & B618, metal stamping toolings of Cummins exhaust pipe assembly, automobile stamping dies of NISSAN H60B projects, and stamping tools of car audio system, Canon printers, refrigerators, ovens and washing machines and so on.If you need metal stamping dies ,stamping parts or metal prototypings,
Email to us: sales@chang-dong.com
Deep Drawing Height · Material Ductility · Sheet Metal Drawability
Deep drawing height is not determined by die size alone. It is closely related to material ductility, sheet thickness, draw ratio, corner radius, lubrication, blank holder force, draw bead control and forming route. A part with good ductility and generous radius may be drawn deeper than a similar part made from a harder or less ductile material.
Changdong has demonstrated deep drawing experience up to 300 mm under suitable project conditions. For battery pack housing and similar drawn parts, typical project drawing heights are often around 110–140 mm, depending on material ductility, part geometry, radius design and tooling review. This article explains why drawing height must be reviewed together with material behavior before deep draw stamping die manufacturing.
View Deep Draw Stamping Die CapabilityDuctility Higher elongation usually supports deeper and more stable drawing | Radius Proper punch and die radius help reduce cracking and thinning | 110–140 mm Typical battery pack drawn part height range, subject to review | 300 mm Demonstrated drawing depth under suitable project conditions |
Material ductility affects deep drawing height because the sheet metal must stretch and flow into the die cavity without tearing. When the material has better elongation and stable flow behavior, it can usually tolerate deeper drawing and more complex geometry.
If the material has low ductility, high strength, poor surface condition or sharp part geometry, the risk of wall thinning, cracking and wrinkling increases. In that case, the die may need larger radii, improved lubrication, adjusted blank holder force, draw beads, restriking or multi-step drawing.
Deep drawing height is a combined result of material properties and tooling design. The same drawing height may be easy for one material but risky for another. This is why DFM and CAE should be completed before tooling is finalized.
| Factor | Effect on Drawing Height | Review Focus |
|---|---|---|
| Material ductility | Higher ductility generally allows better material flow and deeper drawing. | Material grade, elongation, work hardening behavior and surface condition. |
| Sheet thickness | Thickness affects forming load, wall thinning and wrinkle tendency. | Thickness tolerance, thinning risk, press capacity and blank holder condition. |
| Corner radius | Larger radii usually reduce cracking risk and improve material flow. | Punch radius, die radius, part radius and transition area design. |
| Blank holder force | Too little force can cause wrinkles; too much force can restrict flow and cause tearing. | Material flow balance, flange control, draw bead layout and trial feedback. |
| Forming route | Deep or difficult parts may need multi-step drawing, restriking or correction. | One-step vs multi-step drawing, trimming allowance and final shape validation. |
Buyers often ask whether a supplier can deep draw a certain height, such as 140 mm or 300 mm. The correct answer must include material and geometry review. A 140 mm battery pack housing with suitable material, generous radii and stable forming route may be feasible, while another 140 mm part with sharp corners or low ductility may need design adjustment.
For deep drawing die projects, Changdong reviews drawing height together with material ductility, thickness, radius, wall thinning risk, wrinkling risk, blank holder force and forming route before die manufacturing.
Different materials behave differently during deep drawing. The table below provides general engineering considerations. Final feasibility should always be confirmed by DFM review, CAE where required and press tryout validation.
| Material Group | Deep Drawing Behavior | Tooling Concern |
|---|---|---|
| Low carbon steel | Often suitable for deep drawing when elongation and thickness are appropriate. | Draw ratio, wrinkling, trimming allowance and surface condition. |
| Stainless steel | May have work hardening and galling risk during deep drawing. | Lubrication, surface treatment, radius design and forming load control. |
| Aluminum | Can be draw-friendly in some grades but sensitive to surface marks and cracking in sharp features. | Surface protection, radius, lubrication and wall thinning review. |
| Copper and brass | Can flow well in suitable grades, but may need attention to marks and dimensional stability. | Surface finish, lubrication, contact area and springback or distortion control. |
| High-strength steel | Usually more difficult for deep drawing because of higher forming load and lower formability. | CAE review, multi-step forming, larger radius, springback and cracking control. |
The following values describe Changdong's project experience and should be reviewed case by case. They are not universal guarantees for every material, thickness or geometry.
| Application | Drawing Height Reference | Condition |
|---|---|---|
| Battery pack housing and similar drawn parts | Around 110–140 mm in typical projects | Subject to material ductility, geometry, radius design and forming route |
| Deep drawing project experience | Up to 300 mm demonstrated drawing depth | Under suitable material, geometry, tooling and press conditions |
For application-specific battery pack tooling, visit Battery Pack Housing Deep Drawing Die.
| 1. Material Review Check material grade, elongation, work hardening and surface condition. | 2. Geometry Review Review drawing height, part size, radius, corner shape and flange design. | 3. DFM Review Check draw ratio, thinning, wrinkling, cracking and trimming requirements. | 4. CAE Review Use CAE where required to evaluate material flow and forming risk. | 5. Tryout Validation Confirm the final result through T0 sample inspection and die correction. |
| Deep Draw Stamping Die Main product page for deep drawing die capability. | Deep Drawing Die Design DFM, CAE, draw ratio and forming risk control. | Battery Pack Housing Deep Drawing Die Deep drawing die for battery pack housings around 110–140 mm height. | Deep Draw Metal Stamping Related process page for deep drawn parts. |
Deep drawing height is controlled by material ductility, sheet thickness, draw ratio, corner radius, blank holder force, lubrication, draw bead design and forming route.
Changdong has demonstrated deep drawing experience up to 300 mm under suitable project conditions. Battery pack housing and similar drawn parts often use 110–140 mm drawing height, depending on material and design review.
The company supports deep drawing projects with DFM, CAE, deep drawing die design, press tryout and sample validation. Actual drawing height should be confirmed by material, geometry and tooling review, not by depth value alone.
Send your drawing, 3D model, material grade, sheet thickness, drawing height, radius requirements and tolerance requirements. Changdong can review whether the drawing height is suitable for the selected material and recommend a practical deep drawing die route.
Email sales@chang-dong.comDongguan Changdong Stamping Dies CO., LTD. © copyright Add：NO. 56-B, Fuming South Road, Dalang, Dongguan, P.R.C
E-mail: sales@chang-dong.com Tel: 0086-769-8106 1256 Mobile: 0086-189 2949 4380 Sales Manager: Ms. Alice Fax: 0086-769-8106 1926
Dongguan Changdong Tool & Die Co., Ltd. is a custom metal stamping die and stamped parts manufacturer founded in 2012. We support automotive, home appliance, electrical and industrial projects from DFM review and die design to press tryout, sample validation and metal stamping production.
Main capabilities: Stamping Dies | Progressive Die | Transfer Die | Prototype Die | Prototype Tooling | Stamping Parts | Custom Metal Stamping Parts
For new tooling or stamping projects, please send your 2D drawing, 3D model, material grade, sheet thickness, tolerance requirements, annual volume and sample target date through Contact Us.
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