Electrostatic control compliance is essential for electronics manufacturing, cleanroom production, and precision assembly environments.
This page provides officially designed ESD compliance badges for ESD equipment supplier,distributors, partners, and industry publications. These badges may be embedded on your website when referencing ESDBest products or compliance resources.
All badges are aligned with international electrostatic discharge (ESD) control standards including:
ANSI/ESD S20.20
IEC 61340-5-1
EN 16350
CE PPE Directives
EPA control requirements




Products designed in accordance with ANSI/ESD S20.20 control program requirements.
Products manufactured and specified in accordance with ANSI/ESD S20.20 electrostatic control program requirements for EPA environments.
Grounding accessories
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Designed to meet IEC 61340-5-1 electrostatic protection requirements for handling electronic components.

Surface resistance tested within the dissipative range recommended for electronics manufacturing environments.
Point-to-point and surface resistance tested in accordance with international electrostatic control standards.


Suitable for controlled cleanroom environments requiring both particle and static control.

Complies with applicable European personal protective equipment directives where required.


Third-party laboratory testing conducted to verify resistance and performance standards.


Designed for use inside Electrostatic Protected Areas (EPA) requiring controlled discharge pathways.
To maintain integrity and compliance accuracy:
Badges must not be modified.
The embedded link must remain active.
Badges may only be used when referencing ESDBest products or compliance resources.
Misuse of certification marks without actual compliance documentation is prohibited.
If you require custom badge sizing or partner co-branding, contact our technical team.
Electrostatic discharge can damage electronic components at voltages undetectable to humans.
Displaying recognized compliance indicators helps:
Improve audit readiness
Demonstrate control program alignment
Increase customer trust
Support distributor credibility
Enhance search engine authority
These badges indicate alignment with relevant standards. For formal third-party certification documentation, please request test reports.
Yes, authorized partners and distributors may embed these badges when linking to relevant product or compliance pages.
No. Audit documentation and resistance testing logs remain required under ANSI/ESD S20.20 programs.
ESD Compliance Badges | ANSI S20.20 • IEC 61340 Certified Supplier
Download and embed official ESD compliance badges including ANSI/ESD S20.20, IEC 61340-5-1, CE, SGS and EPA approved indicators for electronics manufacturing environments.
For bulk orders, quotes, or product guidance, get in touch with our expert team:
Email: sales2@esdbest.com
Phone: +86 137 1427 2599
Antistatic: reduces tribocharging (less static generation).
ESD dissipative / conductive: provides a predictable resistance path so charge bleeds safely.
In real procurement specs, you’ll often see wide acceptable ranges (examples like 10³–10⁹ Ω appear in commercial specs).
For cleanroom/ESD seating programs, requirements are often written as point-to-point / point-to-ground resistance targets (program-defined), not marketing terms.
1) Compliance evidence
Ask the supplier what ESD control framework they design for (many buyers reference ANSI/ESD S20.20 or IEC 61340-5-1 in their programs).
Ask for test methods used for seating verification (e.g., resistance measurements per program procedures).
2) Electrical path design (the hidden failure point)
Seat/back material + base + casters/glides + floor determine the real discharge path.
If you use casters, confirm they are conductive/non-marking and spec’d for your floor type (vinyl/epoxy/ESD tile). Castors are sold as separate ESD accessories in many catalogs, which tells you they’re a critical system component—not an afterthought.
3) Options & configurability (reduce SKU chaos)
A strong supplier can configure:
seat height range (office vs high/industrial)
foot ring / footrest
ESD castors vs glides
PU seat (easy clean) vs fabric/vinyl
armrests (fixed/adjustable)
cleanroom-compatible upholstery and cleaning compatibility
4) Production & QC
Request a simple QC pack:
incoming material batch tracking (fabric/PU/vinyl)
resistance checks by lot
caster resistance verification
assembly torque checks (base, gas lift)
cleaning/chemical resistance guidance (esp. cleanroom)
Include these lines in your RFQ:
Application: EPA electronics assembly / lab / cleanroom class (if applicable)
Seating type: office chair / industrial high chair / stool
Floor type: ESD epoxy / ESD tile / vinyl / laminate
Target resistance: (your program-defined RTG/RTT)
Upholstery: PU / vinyl / fabric (cleanroom wipe-down requirement?)
Mobility: conductive castors (pin size?) or glides
Options: armrests / foot ring / ESD chain (if used)
Documentation: test reports, conformity statement, warranty, lead time
They swap in standard nylon casters (kills grounding path).
They claim “antistatic” but can’t provide any electrical verification method.
They ignore floor compatibility (carpet vs ESD tile requires different caster approach).
Product overview: /esd-chair/
Cleanroom models: /cleanroom-esd-chair/
Alternative seating: /esd-stool/
Antistatic: reduces tribocharging (less static generation).
ESD dissipative / conductive: provides a predictable resistance path so charge bleeds safely.
In real procurement specs, you’ll often see wide acceptable ranges (examples like 10³–10⁹ Ω appear in commercial specs).
For cleanroom/ESD seating programs, requirements are often written as point-to-point / point-to-ground resistance targets (program-defined), not marketing terms.
1) Compliance evidence
Ask the supplier what ESD control framework they design for (many buyers reference ANSI/ESD S20.20 or IEC 61340-5-1 in their programs).
Ask for test methods used for seating verification (e.g., resistance measurements per program procedures).
2) Electrical path design (the hidden failure point)
Seat/back material + base + casters/glides + floor determine the real discharge path.
If you use casters, confirm they are conductive/non-marking and spec’d for your floor type (vinyl/epoxy/ESD tile). Castors are sold as separate ESD accessories in many catalogs, which tells you they’re a critical system component—not an afterthought.
3) Options & configurability (reduce SKU chaos)
A strong supplier can configure:
seat height range (office vs high/industrial)
foot ring / footrest
ESD castors vs glides
PU seat (easy clean) vs fabric/vinyl
armrests (fixed/adjustable)
cleanroom-compatible upholstery and cleaning compatibility
4) Production & QC
Request a simple QC pack:
incoming material batch tracking (fabric/PU/vinyl)
resistance checks by lot
caster resistance verification
assembly torque checks (base, gas lift)
cleaning/chemical resistance guidance (esp. cleanroom)
Include these lines in your RFQ:
Application: EPA electronics assembly / lab / cleanroom class (if applicable)
Seating type: office chair / industrial high chair / stool
Floor type: ESD epoxy / ESD tile / vinyl / laminate
Target resistance: (your program-defined RTG/RTT)
Upholstery: PU / vinyl / fabric (cleanroom wipe-down requirement?)
Mobility: conductive castors (pin size?) or glides
Options: armrests / foot ring / ESD chain (if used)
Documentation: test reports, conformity statement, warranty, lead time
They swap in standard nylon casters (kills grounding path).
They claim “antistatic” but can’t provide any electrical verification method.
They ignore floor compatibility (carpet vs ESD tile requires different caster approach).
Product overview: /esd-chair/
Cleanroom models: /cleanroom-esd-chair/
Alternative seating: /esd-stool/