Mold Steel Quick Reference

Injection Mold Steel Selection Chart

Q: What is an injection mold steel selection chart used for?

An injection mold steel selection chart is a comparison and screening reference. It helps engineers compare steel families by supply condition, hardness route, relative wear resistance, corrosion resistance, polishability, typical use and key limitations before moving to a project-specific material specification.

Q: How do P20 / 718, H13 and stainless mold-steel routes differ?

P20- and 718-type steels are commonly associated with pre-hardened general-purpose tooling routes. H13 is a hardenable tool-steel route often reviewed where higher wear or local tooling duty matters. Stainless mold-steel routes place more emphasis on corrosion resistance and, depending on grade quality, polished cavity requirements. The final grade still depends on the actual project conditions.

Use this chart to compare common injection mold steels side by side, including P20, 718, NAK80, H13, S7 and stainless mold-steel routes. The table is intended as a quick engineering reference for hardness route, wear resistance, corrosion behavior, polishability, typical use and key limitations.

What This Chart Compares

Common mold-steel grades and typical supply or heat-treatment route.
Relative wear, corrosion and polishability characteristics.
Typical tooling applications and project conditions that deserve review.
Key limitations that should be checked before a steel callout is released.

Need the full decision process? This page is a comparison chart, not a complete mold-steel selection procedure. For failure-mode analysis, resin effects, component duty, corrosion, polishability, heat treatment and repair strategy, see how to choose injection mold steel .

Injection mold steel selection chart comparing P20 718 NAK80 H13 S7 and stainless mold steel routes — **Quick comparison:** review mold steels by hardness route, wear, corrosion, polishability, typical use and key limitations before moving into detailed selection.

Page boundary: this page is a steel-comparison and reference tool. It does not replace the complete injection mold steel selection guide, a project-specific steel specification, supplier material data or the approved heat-treatment condition.

Chart Usage

How to Use This Mold Steel Comparison Chart

Use the chart as a quick comparison reference before RFQ review, steel purchase or tooling specification release. Start with the actual supplier grade and project conditions, then compare the relevant hardness route, wear behavior, corrosion resistance, polishability and known limitations.

1. Confirm the Exact Steel Designation

Do not rely only on a generic family name or assumed equivalence. Confirm the supplier designation, specification, supply condition and any customer-controlled material requirement before release.

2. Check the Hardness Route

Distinguish pre-hardened supply conditions from steels that require later heat treatment. Final hardness should follow the approved material, component function and project specification rather than a universal chart value.

3. Compare the Dominant Tooling Risk

Use the wear, corrosion and polishability columns to identify which steel families deserve closer review. A single chart rating should not be treated as the complete reason for choosing a grade.

4. Read the Limitation Column Before Release

The limitation column is as important as the typical-use column. Repairability, finish requirements, local wear, corrosion exposure and supplier-specific conditions can change the final decision.

Useful Inputs Before Comparing Mold Steels

Supplier Steel Grade Supply Condition Resin Grade Filler / Reinforcement Corrosion Exposure Surface Finish Requirement Wear-Critical Features Repair Requirement Production Lifecycle

Reference rule: hardness values and performance labels in the chart should be treated as typical engineering references, not automatic purchase specifications. Actual material condition can vary by supplier grade, heat-treatment route, section size and customer requirement.

Page-use boundary: this chart helps compare steel options; it does not replace a project specification or supplier datasheet. For recording the final approved mold requirements, use the injection mold specification sheet template .

Reading the Chart

How to Read the Mold Steel Comparison Chart

The chart below compares common mold steels across several engineering characteristics. Use the ratings as relative screening references, then verify the exact supplier grade, condition and project requirements before releasing a final steel specification.

Hardness Route

Check whether the steel is normally supplied in a pre-hardened condition or requires a later hardening route. The chart may show a typical reference range, but the final hardness should follow the actual grade, heat treatment and approved component requirement.

Wear Resistance

Use the wear column to compare relative suitability where abrasion, repeated contact or localized tooling wear may matter. Wear should still be evaluated together with resin reinforcement, feature geometry and the location of the exposed mold component.

Corrosion Resistance

Review corrosion behavior when the resin, additives, moisture, process environment or maintenance conditions can expose tooling surfaces to corrosive attack. A higher chart rating does not replace grade-specific corrosion data.

Polishability & Surface Demand

Use this column to screen steels for cosmetic or high-polish surfaces. Final polish capability also depends on steel cleanliness, supplier quality, heat treatment, machining history, repair areas and the required surface specification.

Toughness, Repair & Key Limitations

Read the limitation column before treating any grade as a default. Toughness, weld-repair behavior, local impact loading, dimensional stability and maintenance strategy can change whether a steel is appropriate for a specific mold component.

Decision boundary: this section explains how to interpret the comparison chart; it does not prescribe one steel grade for a resin or mold type. For the complete decision process covering failure mode, resin behavior, component duty, heat treatment, repair strategy and lifecycle requirements, use the complete injection mold steel selection guide .

Main Comparison Matrix

Compare Common Injection Mold Steels Side by Side

Compare common mold steels by supply and hardness route, relative wear behavior, corrosion resistance, polishability, typical review use and key limitations. These values are screening references; the exact supplier grade and approved condition remain the controlling specification.

Important designation note: similar mold-steel families should not automatically be treated as exact equivalents. In particular, AISI 420-type stainless mold steel, DIN 1.2083 and DIN 1.2316 should be verified by the actual supplier specification rather than grouped under one interchangeable designation.

Injection mold steel comparison chart for P20 718 NAK80 H13 S7 420 type 1.2083 and 1.2316 mold steels — Side-by-side mold steel screening by hardness route, wear, corrosion, polishability, typical use and limitations.

Steel / Designation	Typical Supply / Hardness Route	Typical Hardness Reference	Wear	Corrosion	Polishability	Typical Review Use	Key Limitation
P20 / 1.2311 Common pre-hardened mold-steel route	Usually supplied pre-hardened; additional hardening is not normally the primary route for general mold use.	Common supplier conditions are often around the upper-20s to low-30s HRC; verify the purchased grade.	Moderate for general, lower-abrasion molding conditions.	Low relative to stainless mold-steel routes.	General-purpose ; actual finish capability depends on steel cleanliness and supplier quality.	General cavity, core or mold-component review where severe wear, corrosion or premium polish is not the dominant requirement.	Not a default choice for strongly abrasive, corrosion-sensitive or demanding mirror-polish conditions.
718 / 1.2738-type P20-family pre-hardened mold steel with improved through-section use	Generally supplied pre-hardened and commonly reviewed for larger mold sections where hardness uniformity matters.	Often supplied in the low-to-mid 30 HRC range; actual condition is supplier and grade dependent.	Moderate for general mold service.	Low compared with stainless mold steels.	Good general polishability when the grade and material quality are suitable.	Larger cavity or core blocks and general-purpose molds where a pre-hardened route and through-section consistency are useful.	Abrasive fillers, corrosion-sensitive resins and demanding optical polish may require a different steel route.
NAK80 Pre-hardened precipitation-hardening mold steel	Supplied pre-hardened; normally used without a conventional final through-hardening step.	Common supplier conditions are typically around the upper-30s to low-40s HRC; verify the exact supplier datasheet.	Moderate ; not normally treated as the primary severe-abrasion route.	Moderate-to-low ; it is not a stainless substitute.	Strong for polished and cosmetic mold surfaces when material and finishing controls are appropriate.	Cosmetic cavities, polished surfaces and applications where a stable pre-hardened machining route is useful.	Severe abrasion, aggressive corrosion exposure or impact-loaded tooling may justify another steel family.
H13 / 1.2344 Hot-work tool steel	Normally machined in a softer condition and subsequently hardened and tempered to the approved component requirement.	Mold applications commonly use hardened conditions around the high-40s to low-50s HRC, subject to supplier and heat-treatment specification.	High relative to common pre-hardened mold-steel routes.	Moderate-to-low ; not a stainless corrosion-control solution.	Good , but premium cosmetic or optical requirements need grade-specific review.	Wear-sensitive inserts, gates, shut-offs and selected tooling components where higher hardness and wear resistance are required.	Heat-treatment distortion, EDM condition, toughness and repair strategy must be controlled for the actual component.
S7 Shock-resistant tool steel	Usually hardened and tempered after machining according to the component's impact and toughness requirement.	Final hardness varies with toughness requirements and heat-treatment route; use the approved supplier and component specification.	Good where impact resistance and edge toughness matter.	Low relative to stainless tooling routes.	Functional rather than a default premium mirror-polish choice.	Impact-loaded inserts, shut-offs and tooling features where toughness or resistance to chipping is a dominant concern.	Not the natural first choice when corrosion resistance or premium polishability dominates the requirement.
420-type / 1.2083 Martensitic stainless mold-steel route; verify exact equivalence	Generally hardened and tempered after machining; exact treatment depends on the selected grade and required component condition.	Common mold applications use hardened conditions in the upper-40s to low-50s HRC range, depending on grade and treatment.	Moderate-to-high depending on grade and hardness condition.	High compared with common non-stainless mold steels.	Strong for polished or corrosion-sensitive cavity surfaces when the steel quality supports the required finish.	Corrosion-sensitive tooling, polished cavity surfaces and projects where stainless mold-steel behavior is an important review factor.	Actual polishability, corrosion resistance and repair behavior vary by grade, metallurgy and treatment; do not treat all 420-type grades as identical.
1.2316 Corrosion-resistant chromium-moly mold steel	Supplied or heat treated according to the selected commercial grade and final mold-component requirement.	Hardness condition varies materially by supplier route and end use; confirm the purchased specification rather than applying a universal value.	Moderate to grade-dependent.	High relative to common non-stainless pre-hardened steels.	Good where corrosion resistance and controlled cavity finish are both important.	Corrosion-sensitive mold components and applications where a corrosion-resistant mold-steel route is required.	Do not automatically treat 1.2316 as interchangeable with AISI 420 or 1.2083; chemistry, condition and supplier specification must be verified.

On mobile, swipe horizontally to compare all steel properties.

Hardness note: hardness ranges are intentionally shown as approximate engineering references. Supplier grade, section size, heat-treatment route and project specification control the final condition.

Comparison note: relative labels such as low, moderate, high or strong are screening comparisons only. They are not guaranteed material-property ratings or substitutes for supplier technical data.

When abrasion is the main concern: if reinforced resin creates localized wear at gates, runners, shut-offs or replaceable tooling components, review the injection mold steel wear guide for wear-zone and insert strategy.

Reference boundary: this chart is for comparative engineering review. It is not a final steel purchase specification, guaranteed hardness requirement, material equivalence certificate or component-level tooling release document. Always verify the selected supplier grade, chemistry, supply condition, heat-treatment requirement and customer specification before release.

Application Screening

Quick Application Matrix for Mold Steel Review

Use this matrix to identify which steel route deserves closer review for a given project condition. It is intentionally a screening tool—not a rule that assigns one steel grade automatically to each resin, mold type or component.

Project Condition	Steel Route to Review	Why It Deserves Review	What Still Needs Verification
General molding with lower abrasion and limited corrosion exposure	Pre-hardened general-purpose mold-steel route	Can simplify machining and tool construction where severe wear, corrosion or premium surface demands are not dominant.	Verify supplier grade, required finish, local component loading, lifecycle expectation and any customer-controlled material callout.
Glass-, mineral- or carbon-fiber reinforced resin with abrasive exposure	Hardened or localized wear-resistant route	Reinforcement can increase local abrasion at gates, flow restrictions, shut-offs and other concentrated wear regions.	Confirm the actual wear zone, filler formulation, geometry and whether local hardened or replaceable tooling is more practical than upgrading the entire mold.
Corrosion-sensitive resin, additive or tooling environment	Corrosion-resistant stainless mold-steel route	Corrosion resistance may become more important where resin chemistry, decomposition products, moisture or maintenance conditions attack exposed tooling surfaces.	Verify the exact resin grade, supplier steel chemistry, required hardness condition, polish demand and maintenance environment.
High-polish, transparent or appearance-critical cavity surface	Polish-grade or high-cleanliness mold-steel route	Metallurgical cleanliness, polishing response and surface stability become more important where cosmetic approval or optical appearance is critical.	Verify steel quality, supplier route, heat treatment, repair history, machining condition and the actual required surface specification.
Impact-loaded shut-off, insert or mechanically stressed tooling feature	Toughness-focused tool-steel route	Chipping resistance and toughness may matter more than maximum hardness where repeated impact, edge loading or mechanical shock is present.	Confirm geometry, contact condition, heat-treatment route, hardness target, support condition and repair strategy.
Sliding or repeatedly contacting mold interface	Compatible wear-pair and surface-engineering route	Galling, scoring and seizure depend on more than one steel grade; hardness pairing, surface condition, lubrication and clearance also matter.	Verify both contacting materials, surface treatment, lubrication, load, motion, clearance and maintenance approach.

On mobile, swipe horizontally to review all application columns.

Compare Routes Before Grades First identify whether the project is primarily general-purpose, wear-driven, corrosion-driven, polish-driven or toughness-driven.

Local Risk Can Override Mold-Wide Logic A gate, shut-off, insert or sliding interface may need a different approach from the surrounding cavity or mold structure.

Verify the Actual Supplier Grade Similar steel families can differ in chemistry, cleanliness, hardness condition, heat-treatment response and polishability.

Application boundary: this matrix identifies steel routes that deserve engineering review. It does not assign a mandatory grade to a resin, cavity, insert, slide or production program. Final material selection should follow the actual supplier specification and approved project requirements.

Resin Risk Cross-Check

Cross-Check Resin Risk Before Finalizing the Steel Reference

Resin family alone should not assign the mold steel grade, but it can reveal which tooling risks deserve closer review. Use this section to cross-check abrasion, corrosion, surface demand and resin-specific processing exposure before a steel reference becomes a final project specification.

Resin Check 01

Reinforcement and Abrasion

Glass, mineral and carbon-fiber reinforcement can increase abrasive tooling exposure, especially around gates, restrictions, shut-offs and other localized high-flow features.

Resin Check 02

Corrosion-Sensitive Formulations

Some resin systems, additives or decomposition products can increase corrosion risk under particular processing, venting, moisture and maintenance conditions.

Resin Check 03

Transparent and Cosmetic Materials

Clear or appearance-critical molded parts place more emphasis on steel cleanliness, surface condition, polishing response and stability after machining or repair.

Resin Check 04

High-Performance Processing Conditions

High-temperature or demanding polymers can change the tooling environment, but processing temperature alone should not be converted into an automatic mold-steel grade rule.

Resin / Program Condition	Main Tooling Risk to Review	Chart Property to Recheck	What Still Needs Verification
Unfilled general-purpose resin	General tooling suitability, surface requirement and lifecycle fit	Hardness route, polishability and key limitations	Confirm the exact commercial grade, geometry, finish requirement and whether local wear or corrosion conditions are actually absent.
Glass-, mineral- or carbon-fiber reinforced resin	Localized abrasion at gates, flow restrictions, shut-offs and selected cavity or core features	Wear resistance and local tooling strategy	Verify filler type, loading, flow path, wear-zone location and whether replaceable or localized hardened tooling is required.
Corrosion-sensitive resin or additive system	Corrosion at exposed cavity surfaces, vents, inserts or other affected mold regions	Corrosion resistance, hardness route and limitation notes	Verify the exact resin formulation, processing environment, supplier steel grade and maintenance requirement.
Transparent, glossy or appearance-critical resin program	Surface defects, polish stability and visible repair sensitivity	Polishability and material-quality notes	Confirm the actual surface specification, steel cleanliness, supplier route, machining history and repair condition.
High-temperature or high-performance polymer	Combined thermal, wear, corrosion and processing exposure	Full chart comparison rather than one-property selection	Verify the exact supplier resin grade and separate temperature requirement from abrasion, corrosion, surface and component-duty risks.

On mobile, swipe horizontally to review all resin-risk columns.

Resin-mapping boundary: this section identifies resin-related tooling risks that should be cross-checked against the comparison chart. It does not assign a mandatory steel grade to ABS, PP, PC, PMMA, PVC, PPS, reinforced PA or any other resin family.

Engineering Boundary

What This Mold Steel Chart Can — and Cannot — Decide

Use the chart to compare steel routes and identify where further review is needed. Do not treat the chart as a final tool-life, component-design or material-release decision.

What the Chart Can Help You Compare

Pre-hardened, hardened and corrosion-resistant mold-steel routes.
Relative wear, corrosion and polishability characteristics.
Typical engineering uses and key limitations.
Whether a steel callout deserves additional technical review.

What the Chart Cannot Determine by Itself

Final component-level grade or mandatory hardness requirement.
Tool life, maintenance interval or guaranteed wear performance.
Gate, shut-off, cooling, venting or moving-component design adequacy.
Supplier-grade equivalence without material-specific verification.

Is the remaining question about mold architecture? Review the injection mold design decision guide before steel cut when gates, shut-offs, actions or tool architecture still affect the material decision.

Is the uncertainty actually in the resin? Review the injection molding material selection guide before converting uncertain resin behavior into a tooling requirement.

Engineering principle: a different or higher-grade steel does not automatically correct a design, process, maintenance or repair problem. Use the chart to compare material routes, then resolve the remaining project-specific risk through the appropriate engineering review.

Component-Level Cross-Check

Why One Mold Does Not Always Use One Steel Strategy

The main comparison chart describes steel families, but mold components operate under different local conditions. Recheck the chart by component duty before applying one mold-wide material callout.

Mold Area	Main Local Duty	Chart Property to Recheck	Risk of One Mold-Wide Callout
Cavity / Core	Surface quality, resin exposure and dimensional support	Wear, corrosion, polishability and hardness route	Local inserts or surface-critical regions may need different requirements.
Gate / Shut-Off / Local Insert	Concentrated abrasion, sealing contact and replaceability	Wear resistance, toughness and limitation notes	A general cavity material may not address a localized wear or service-critical zone.
Slide / Lifter / Moving Pair	Sliding contact, friction, impact and repeated motion	Toughness, hardness route and service condition	Material alone does not resolve galling, clearance or lubrication requirements.
Ejector System	Repeated sliding, clearance retention and molded-part contact	Wear, surface condition and maintenance needs	Ejection components should not automatically inherit the cavity specification.
Mold Base / Structural Plate	Support, rigidity, flatness and dimensional stability	Supply condition and structural suitability	Cavity-grade material can add cost without solving the actual structural requirement.

On mobile, swipe horizontally to review all component-level columns.

Component-level principle: use the chart to understand material characteristics, then recheck local duty. A specific component may require a different material, hardness, treatment or replaceability strategy from the mold-wide baseline.

Scope boundary: this section does not prescribe steel grades for cavities, slides, ejectors or structural plates. It only explains why one chart result should not automatically be applied to the entire mold.

Release & Supplier Verification

Before Steel Purchase: Specification & Supplier Verification

A comparison chart can narrow the steel route, but the final purchase decision still requires the exact grade, material condition, component scope, project-specific requirements and supporting evidence to be confirmed before the tooling specification is released.

Check 01

Grade Identity

Confirm the supplier designation, material standard and approved commercial grade rather than relying on assumed equivalence.

Check 02

Supply & Hardness Condition

Record the supplied condition and whether later heat treatment or another approved final condition is required.

Check 03

Component Scope

Identify exactly which cavity, core, insert, slide or other mold component the callout applies to.

Check 04

Project Requirements

Define relevant resin, wear, corrosion, surface, treatment and repair requirements separately from the base steel name.

Check 05

Evidence & Approval

Confirm which material certificate, treatment record or customer approval is required before release.

Verification Field	What to Record or Confirm	Release Question	Risk if Unclear
Steel Grade	Exact supplier grade, applicable standard and approved commercial designation	Does the material being purchased match the steel route actually reviewed?	Similar steel families may be treated as equivalent when they are not.
Supply / Hardness Condition	Pre-hardened, annealed or other supplied condition, plus any required later treatment	Is the delivered condition compatible with machining and the approved final component requirement?	Supplier and buyer may interpret the same steel designation differently.
Component Scope	Drawing, BOM or mold specification identifying where the callout applies	Is it clear which mold components use this material and which do not?	One mold-wide callout may be copied to components with different local duty.
Additional Requirements	Resin and filler context, surface target, treatment, repair restriction or replacement requirement	Have project-specific requirements been documented separately from the steel name?	The base steel may be correct while the actual tooling condition remains undefined.
Evidence / Approval	Material certificate, project-required treatment record or agreed customer approval	Is the required evidence defined before steel purchase and machining?	Verification may be requested too late to resolve a material or treatment mismatch efficiently.

On mobile, swipe horizontally to review all release and verification fields.

Need to document the final mold requirements? Use the injection mold specification sheet template to record the approved steel callout, condition, component scope, treatment requirements and repair rules.

Still unsure which steel route fits the project? Use the DFM and engineering review service before the tooling specification or steel purchase is released.

Scope boundary: this combined checklist supports specification release and supplier verification. It is not a heat-treatment procedure, PPAP checklist, FAI procedure, maintenance plan or tooling-validation document.

Downloadable Reference

Download the Mold Steel Selection Chart

Keep a compact comparison reference for RFQ review, supplier discussion and mold-specification checks without reopening the full technical guide.

Injection mold steel selection chart PDF preview for RFQ and specification review — Printable mold-steel comparison reference for RFQ and specification review.

What the PDF Includes

Side-by-side comparison of common injection mold steel families.
Typical supply and hardness-route reference.
Relative wear, corrosion and polishability comparison.
Typical review use and key limitation for each steel route.
Notes for checking supplier grade and project-specific requirements.

RFQ Review Compare supplier steel callouts and identify questions before quote alignment.

Steel Purchase Cross-check designation, supply condition and required verification before PO release.

Specification Review Use the chart as a quick reference while final mold requirements are documented.

Reference note: the PDF is a comparison aid, not a final steel specification, equivalence certificate, heat-treatment instruction or component-level material release document.

Download Mold Steel Selection Chart PDF RFQ & Specification Reference

Ready to turn the comparison into an approved project record? Use the injection mold specification sheet template to document the final steel callout, condition, component scope and project-specific requirements.

Quick Reference FAQ

Injection Mold Steel Selection Chart FAQ

Short answers to common questions about using mold-steel comparison data during RFQ, specification and supplier review.

What is an injection mold steel selection chart used for?

An injection mold steel selection chart is a comparison and screening reference. It helps engineers compare steel families by supply condition, hardness route, relative wear resistance, corrosion resistance, polishability, typical use and key limitations before moving to a project-specific material specification.

Are the hardness values in the chart final purchase specifications?

No. Hardness ranges in a comparison chart should be treated as typical engineering references. The final requirement depends on the exact supplier grade, supply condition, heat-treatment route, component geometry and approved project specification.

How do P20 / 718, H13 and stainless mold-steel routes differ?

P20- and 718-type steels are commonly associated with pre-hardened general-purpose tooling routes. H13 is a hardenable tool-steel route often reviewed where higher wear or local tooling duty matters. Stainless mold-steel routes place more emphasis on corrosion resistance and, depending on grade quality, polished cavity requirements. The final grade still depends on the actual project conditions.

Are AISI 420, DIN 1.2083 and DIN 1.2316 the same mold steel?

They should not be treated as automatically interchangeable. AISI 420-type steels, DIN 1.2083 and DIN 1.2316 can all appear in corrosion-resistant mold-steel discussions, but their chemistry, supplier variants, supply condition, hardness response and polishability can differ. Verify the actual supplier specification before using any cross-reference as a purchase callout.

Can one injection mold use the same steel for every component?

Sometimes a common baseline material is practical, but it should not be assumed automatically. Cavities, local inserts, gates, shut-offs, moving interfaces, ejector components and structural plates can have different wear, corrosion, polish, toughness and service requirements.

Does a harder or more expensive mold steel always perform better?

No. A higher-hardness or more expensive steel can still be a poor fit if the dominant requirement is different. Mold performance also depends on component duty, heat treatment, geometry, surface condition, corrosion exposure, repair strategy and maintenance. The chart should therefore be used to compare trade-offs rather than rank steels from “best” to “worst.”

FAQ scope: these answers explain how to use the comparison chart. They do not replace a complete mold-steel selection procedure, supplier datasheet or project-specific tooling specification.

Project-Specific Review

Need Help Confirming the Mold Steel Route?

If the comparison chart does not fully resolve your project, send the CAD or 2D drawing, resin grade and key tooling requirements. We can review the steel direction together with the relevant wear, corrosion, surface and component-duty risks before tooling release.

Part & Tooling Data CAD, 2D drawing and any available tooling or mold specification.

Resin & Surface Data Resin grade, reinforcement, cosmetic or polish requirements and corrosion concerns.

Project Priorities Wear-sensitive features, repair restrictions, lifecycle expectations and other critical tooling requirements.

Request a DFM & Mold Steel Review

Use the review to clarify unresolved steel-route questions before RFQ alignment, mold specification release or steel purchase.

Request Free DFM Review →

NDA available on request Engineering files used for RFQ and DFM review

Review scope: project-specific recommendations depend on the supplied drawing, resin information, tool design and agreed requirements. The comparison chart itself remains a reference tool rather than a final material release.