Transparent Antistatic Material Sourcing and Selection

For transparent antistatic material sourcing, formulation validation, trial-batch material and production introduction, Clearastatic provides systematic support from material samples to molded parts.

Transparent antistatic modified material pellets and samples

Project Overview

A material project starts by confirming clarity, antistatic level, haze, toughness and processing stability at the source. Clearastatic helps customers reduce the risks of material replacement and production introduction.

Clearastatic's patented products include transparent antistatic ABS and PMMA, with ongoing development of transparent antistatic PC, PE, PP and related materials for a wide range of transparent parts. For customers with independent production capability, Clearastatic can provide guidance on material selection, process windows, drying conditions, molding parameters and key processing points to help transfer material performance into stable production.

Performance Metrics

Performance Advantages

Material data is organized in the same order as the test report so purchasing, R&D and engineering teams can compare grade, test condition, method, value and unit.

Grade

ABS transparent antistatic material

DGK-ABS KJD890TM

DGK-ABS KJD890TM Basic Information
Product Name ABS composite
Grade DGK-ABS KJD890TM
Material Properties Ultra-high clarity, permanent antistatic
Color High clarity
Sample State Pellets
Processing Method Injection molding
DGK-ABS KJD890TM Performance Data
Property Test Condition Test Method Test Value Unit
Mechanical Properties
Flexural Strength 2mm/min GB/T9341-2008 57 MPa
Flexural Modulus 2mm/min GB/T9341-2008 1612 MPa
Tensile Strength 50mm/min GB/T1040-2006 39 MPa
Yield Strength 50mm/min GB/T1040-2006 40.3 MPa
Elongation at Break 50mm/min GB/T1040-2006 35.8 %
Charpy Notched Impact Strength 23℃ GB/T1043.1-2008 10.5 KJ/m2
Charpy Unnotched Impact Strength 23℃ GB/T1043.1-2008 86 KJ/m2
Izod Notched Impact Strength 23℃ GB/T1843-2000 12.3 KJ/m2
Other Properties
Melt Flow Rate 220℃/10kg GB/T3682-2000 48 g/10min
Density Not specified GB/T1033-1986 1.118 g/cm3
Heat Deflection Temperature 0.45MPa GB/T1633-2000 85
Surface Resistance Not specified GB/T1401-2002 10^8-10^10 Ω·cm
DGK-ABS KJD890TM injection-molding process
Drying temperature 85 C
Drying time 4-5 hours
Injection temperature 195-210 C
Mold temperature 70 C

Conclusion: The above values and molding process are typical laboratory values for reference only. They may be adjusted according to different machines, molds and product requirements, and are not a guarantee for quality specifications or any other use.

Grade

PMMA transparent antistatic material

DGK-PMMA KJD890TM

DGK-PMMA KJD890TM Basic Information
Product Name PMMA composite
Grade DGK-PMMA KJD890TM
Material Properties High clarity, permanent antistatic
Color High clarity
Sample State Pellets
Processing Method Injection molding
DGK-PMMA KJD890TM Performance Data
Property Test Condition Test Method Test Value Unit
Mechanical Properties
Flexural Strength 2mm/min GB/T9341-2008 75.3 MPa
Flexural Modulus 2mm/min GB/T9341-2008 1891 MPa
Tensile Strength 50mm/min GB/T1040-2006 59.4 MPa
Elongation at Break 50mm/min GB/T1040-2006 22 %
Charpy Notched Impact Strength 23℃ GB/T1843-2000 4.0 KJ/m2
Charpy Unnotched Impact Strength 23℃ GB/T1843-2000 21.8 KJ/m2
Izod Notched Impact Strength 23℃ GB/T1843-2000 5.3 KJ/m2
Other Properties
Melt Flow Rate 230℃/3.8kg GB/T3682-2000 9.3 g/10min
Density Not specified GB/T1033-1986 1.154 g/cm3
Heat Deflection Temperature 0.45MPa GB/T1634-2000 95
Surface Resistance Not specified GB/T1401-2002 10^9-10^11 Ω·cm
DGK-PMMA KJD890TM injection-molding process
Drying temperature 90 C
Drying time 4-5 hours
Injection temperature 195-215 C
Mold temperature 90 C

Conclusion: The above values and molding process are typical laboratory values for reference only. They may be adjusted according to different machines, molds and product requirements, and are not a guarantee for quality specifications or any other use.

Transparent antistatic ABS and PMMA injection-molded sample comparison

Customization is available for color, clarity, antistatic level, base resin and production process.

01

Measurable Metrics

  • Clarity / haze
  • Surface Resistance
  • Notched Impact
  • Dimensional Assembly
02

Testing and Validation Path

  • Sample testing
  • Trial-batch retesting
  • Molded-part evaluation
  • Batch inspection
03

Engineering Deliverables

  • Material Recommendation
  • Formulation Limits
  • Tooling DFM points
  • Molding Window Records
04

Collaborative Engineering Team

  • Materials Engineer
  • Tooling Engineer
  • Injection Molding Engineer
  • Quality Validation
Request Free Samples

Quotation Plan

Transparent Antistatic Material Quotation Plan

Material quotation depends on base resin, target resistance level, clarity, color and molding route. ABS and PMMA can reference the common grades below; other transparent antistatic materials such as PC, PP and PE need project-specific evaluation.

ABS transparent antistatic material

ABS 10th-power grade

DGK-ABS KJD890TM is suitable for transparent antistatic ABS material requirements targeting a 10th-power resistance grade.

CNY 45/kg

ABS transparent antistatic material

ABS 9th-power grade

DGK-ABS KJD890TM is suitable for transparent antistatic ABS material requirements targeting a 9th-power resistance grade.

CNY 46/kg

PMMA transparent antistatic material

PMMA 10th-power grade

DGK-PMMA KJD890TM is suitable for transparent antistatic PMMA material requirements targeting a 10th-power resistance grade.

CNY 65/kg

PMMA transparent antistatic material

PMMA 9th-power grade

DGK-PMMA KJD890TM is suitable for transparent antistatic PMMA material requirements targeting a 9th-power resistance grade.

CNY 67/kg

Other transparent antistatic materials

Other materials such as PC, PP and PE

PC, PP, PE and other transparent or translucent base resins need separate evaluation by clarity, antistatic level, temperature resistance, toughness and molding route.

Project-specific evaluation

Sample validation

Material samples

ABS and PMMA samples can be tested first; samples for other materials are confirmed by base resin, color, stock availability and project requirements.

Free samples or project-specific confirmation

FAQ

FAQ

Common questions about transparent antistatic material selection, sample testing and trial-batch validation.

Are transparent antistatic, anti-static clear plastic, static dissipative clear plastic and ESD-safe transparent plastic the same?

They are related search terms, but the engineering meaning should be confirmed by data. For most projects, the key is whether the transparent material reaches the required surface-resistance range, keeps enough clarity and haze control, and remains stable after molding, wiping or storage.

Clearastatic keeps transparent antistatic material as the main wording, while also describing suitable projects as anti-static clear plastic, static dissipative clear plastic or ESD-safe transparent plastic when the application context calls for it.

What products mainly use transparent antistatic materials?

They are mainly used in products that require clear visibility while also controlling static, dust attraction or powder adhesion, such as chip trays, IC handling boxes, equipment observation windows, machine-vision protective covers, automotive instrument covers, medical equipment transparent parts, laboratory supplies and clear packaging containers.

Different applications have different requirements for antistatic level, transparency, impact resistance and chemical resistance, so the material solution will also differ.

Which transparent antistatic materials are currently mature?

The more mature intrinsic transparent antistatic solutions are mainly:

  • Transparent antistatic ABS: 10⁸-10¹⁰ Ω
  • Transparent antistatic PMMA: 10⁹-10¹⁰ Ω

ABS is more suitable for impact-resistant and structural parts, while PMMA is more suitable for high transparency and scratch resistance.

If the project specifies PC, PP or PE, the solution needs to be evaluated separately according to transparency, antistatic level, processing method and use environment.

Why can transparent antistatic materials not be judged only by resistance power?

Because lower resistance does not automatically mean the material is more suitable.

Real projects also need to consider transparency, haze, wall thickness, impact performance, scratch resistance, water resistance, chemical resistance and molding process.

For example, ABS has better impact resistance but may fog after long water exposure. PMMA has better transparency and scratch resistance but weaker impact resistance.

Can PC, PP and PE be made transparent antistatic?

They can be evaluated, but they should not be understood directly as the same mature solution as ABS or PMMA.

If the project must use PC, PP or PE, first confirm the target resistance, transparency, product thickness, processing method and use environment.

Some projects may use material modification, while others may require surface treatment or another technical route, so validation must be done for the specific product.

What practical problems can transparent antistatic materials solve?

They mainly solve common issues of ordinary transparent plastics:

  • Static dust attraction
  • Powder or fine-particle adhesion to walls
  • Electrostatic risk for precision electronic components
  • Dust accumulation on clear windows
  • Difficulty combining visibility and antistatic function in one product

The value of transparent antistatic materials is therefore not just that a resistance value can be measured, but that they deliver visibility + static control + product function together.

Why should the final validation use actual products instead of only material samples?

After injection molding, extrusion or other processing, final performance can still be affected by wall thickness, temperature, shear, flow distance, mold structure and processing parameters.

For formal projects, the final confirmation should include surface resistance, transparency, haze, appearance, dimensions and stability under the real use environment on actual molded parts.

Material samples are for preliminary selection; actual parts are the final basis for judgment.