When you’re specifying ESD workwear for an automotive team, it’s easy to focus on fabric performance, resistance measurements and technical standards. They’re essential, of course. But there’s another important consideration: the people who’ll be wearing the garments every day.
Think about a technician assembling sensitive vehicle electronics. They may spend hours seated at a workstation, making precise, repetitive movements. A colleague testing electronic control units could spend much of their shift standing, moving between equipment and reaching across work surfaces.
Both roles may require clothing that meets your workplace’s electrostatic discharge (ESD) requirements, but their practical needs are quite different.
That’s why we believe good ESD workwear design starts with understanding the wearer. Technical performance is non-negotiable, but the garment also needs to fit, feel comfortable and be suitable for the job.
Getting both right means thinking about the person and the specification together, from the outset.
Modern vehicles rely on sophisticated electronics, from sensors and control units to driver assistance systems and battery management technology.
These components can be sensitive to electrostatic discharge, which occurs when electrical charge transfers suddenly between objects. Even a discharge that’s too small for someone to notice can damage sensitive electronic components.
In automotive manufacturing, assembly and testing environments, ESD controls help protect those components during handling and production.
ESD workwear can form part of these arrangements. Depending on its intended purpose, clothing may incorporate conductive or static-dissipative materials to help control electrostatic charges associated with garments.
However, not every employee in an automotive business needs specialist ESD clothing. Requirements depend on the work being carried out and the controls established for that environment.
The IEC 61340-5-1:2024 standard sets out requirements for ESD control programmes covering the handling of sensitive electronic devices. Clothing may form part of a wider system involving personnel grounding, workstations, flooring and other protective measures.
For automotive businesses, the challenge is selecting garments that satisfy those technical requirements while remaining practical for the people wearing them.
That’s where understanding different roles becomes particularly valuable.
Within a single automotive manufacturing facility, employees may have very different working patterns.
Someone assembling electronic components might spend long periods seated at a workbench. Their clothing needs to allow comfortable movement through the arms and shoulders, with sleeves that maintain the intended coverage during repetitive tasks.
A quality control technician may alternate between seated testing, standing inspections and moving between workstations. Their garment needs to accommodate a wider range of movement without becoming restrictive or requiring constant adjustment.
Employees working in vehicle diagnostics may have different requirements again, depending on the equipment they handle and whether their role falls within the organisation’s ESD control arrangements.
These differences influence the design brief.
Sleeve length, cuff construction, garment proportions and fastening positions can all affect how clothing performs throughout the working day. Even the way a jacket sits when someone bends or reaches forward can make a difference.
At JSD, our uniform design process includes wearer interviews, observations and research into the demands of individual roles.
We look at what people actually do, how they move and what their clothing needs to accommodate.
That understanding helps establish which design details matter most, rather than expecting every wearer to adapt to a garment chosen primarily from a specification sheet.
Fit is one of the most important considerations in workwear design, particularly for employees whose roles involve precise or repetitive movements.
A jacket might fit perfectly when someone is standing still, but what happens when they sit at an assembly bench or reach forward repeatedly?
Does the fabric pull across the shoulders? Do the sleeves move out of position? Does the garment become uncomfortable after several hours?
These details matter for everyday comfort, but they can also influence how an ESD garment is worn.
Depending on the technical requirements, the clothing may need to maintain particular coverage or be fastened and grounded in a specified way.
The design must accommodate those requirements during normal working movements.
There’s also the question of different body shapes.
Two employees wearing the same labelled size may have different proportions. One might need additional sleeve length, while another needs more room through the shoulders or a different fit around the body.
A well-considered size range helps account for those differences.
Where appropriate, alternative fits and gender-neutral options can give employees greater choice. Individual requirements relating to temperature, fabric feel or sensitivity to seams and fastenings may also be relevant when developing the uniform brief.
For us, wearer-led design means looking beyond standard measurements to understand how garments need to work on different bodies.
The result should be clothing that people can wear correctly and comfortably while carrying out their duties.
A technical specification provides essential information about the materials and electrical properties required for ESD workwear.
But it cannot tell you everything about the finished garment.
A fabric may have suitable electrical properties, while the performance of the complete garment also depends on its construction, components and intended use.
For example, IEC 61340-4-9:2024 provides methods for measuring the electrical resistance of garments used in static-control applications.
The appropriate tests and acceptance criteria depend on the type of clothing and the requirements of the organisation’s ESD control programme.
These assessments establish technical suitability. They don’t tell you whether the jacket is comfortable when seated, whether the collar feels restrictive or whether the fit accommodates the movements of the job.
For automotive workwear, both forms of assessment are important.
A garment must meet the technical requirements established by the business, but there are still design decisions to make within those boundaries.
Fabric weight, garment cut, fastenings, fit and movement all influence the wearer’s experience.
And where changes to materials or construction are proposed, their effect on the garment’s required ESD performance needs to be assessed.
The strongest design briefs consider those practical details early, alongside the technical specification.
An automotive production facility may be temperature-controlled, but that doesn’t mean every employee experiences the environment in the same way.
A technician seated for much of their shift may have different comfort requirements from someone regularly moving between workstations and testing equipment.
Fabric weight, breathability, texture and freedom of movement all affect how clothing feels over several hours.
Personal comfort needs vary too.
Some employees may be sensitive to particular fabric textures or seams, while others may experience temperature fluctuations that influence their preference for garment weight and layering.
These considerations become particularly important when workwear is worn for extended periods.
Of course, specialist ESD clothing introduces technical boundaries. A fabric cannot simply be replaced because another option feels softer or lighter.
Any change needs to be assessed against the applicable performance requirements.
But understanding comfort requirements early gives designers the opportunity to explore suitable materials, garment construction and fit options within those boundaries.
It’s much easier to consider these details during development than to address widespread fit or comfort concerns after a uniform range has been introduced.
Some garment issues only become obvious when people start moving around in the clothing.
A fitting session can establish whether the size and proportions look right, but practical wearer trials provide a more complete picture.
For an automotive electronics assembly role, that might involve assessing how a jacket behaves during repeated reaching movements, how comfortable it feels when seated or whether particular seams cause irritation during extended wear.
For a testing technician, it may mean looking at how the garment accommodates walking, bending and moving between different working positions.
These observations provide useful feedback for garment development.
At JSD, wearer trials form part of our approach to creating uniform ranges that suit the people wearing them.
We use feedback to understand practical requirements and identify where adjustments to fit, proportions or garment details may be beneficial.
For ESD workwear, however, practical wearer testing and technical qualification are separate processes.
A garment being assessed for comfort and fit must not be treated as approved for use in an ESD-protected environment until the appropriate technical checks and authorisation have been completed.
Combining wearer feedback with the necessary technical evaluation helps organisations make more informed decisions about the clothing they select.
Rather than relying entirely on how a garment looks or what its specification says, they can understand how it performs in the context of the job.
Choosing the right garments is an important first step, but a successful automotive workwear programme also needs to be manageable over time.
Employees join the business, change roles and require replacement clothing. Sizes need to remain available, while garments must continue to meet the approved specification.
For specialist ESD clothing, care and maintenance deserve particular attention.
Cleaning methods, detergents and garment treatments should follow the manufacturer’s instructions, with any ongoing inspections or performance testing determined by the organisation’s ESD control programme.
Replacement garments also need to be technically suitable.
A jacket that looks identical to an approved garment may not have the same electrical properties if its materials or construction have changed.
That’s why consistency and replacement planning matter.
When we develop managed uniform programmes, we consider the practicalities beyond the initial delivery, including ordering, stock management, sizing and replenishment.
For automotive businesses with specialist clothing requirements, those processes need to support the technical controls established by the organisation.
The aim is to make it easier to provide suitable clothing for the right people as the workforce and its requirements change.
ESD workwear may be required for employees who handle sensitive electronic components in automotive manufacturing, assembly, testing or certain diagnostic activities.
This can include people working with electronic control units, sensors, circuit boards and other electrostatic-discharge-sensitive components.
However, not every automotive employee needs ESD clothing. The requirement depends on the tasks being performed and the controls specified by the organisation’s ESD control programme.
No. ESD workwear and electrical protective clothing serve different purposes.
ESD clothing used in electronics handling is primarily intended to help protect sensitive components from electrostatic damage.
Protective clothing and equipment used for high-voltage electrical work are intended to address hazards to the person carrying out the task and may be subject to separate safety standards.
Working on electric vehicles does not automatically mean an employee needs ESD clothing, and ESD clothing should not be treated as protection against electric shock or arc flash.
Anti-static clothing is a broad term for garments designed to reduce or control electrostatic charge.
ESD workwear used in electronics environments must be assessed against the requirements of the relevant ESD control programme.
A garment described as anti-static isn’t automatically suitable for every ESD-protected workplace. The intended application, electrical properties, test evidence and garment construction all need to be considered.
Grounding requirements depend on the garment type and how it forms part of the workplace’s ESD controls.
Some garments are designed to help control electrostatic fields associated with clothing, while groundable garment systems can form part of personnel grounding arrangements.
Your organisation’s ESD specialists should establish whether a particular garment needs to be grounded and how it must be worn and connected.
The best approach is to establish the technical requirements while also researching how employees work.
This means considering the movements involved in each role, different body shapes, garment coverage, temperature, fabric feel and how clothing behaves during a typical shift.
Wearer trials can help identify practical improvements, while technical evaluation confirms that the selected garments meet the necessary ESD requirements.
The specification tells you what your ESD workwear needs to achieve. Understanding the people wearing it helps you decide how to make that clothing suitable for their work.
In automotive environments, where employees can move between very different tasks and working conditions, both considerations matter.
At JSD, we believe good workwear design begins with a clear understanding of your people, their roles and the demands of their working environment.
We bring that understanding into garment development, fit considerations and the wider management of your uniform programme.
Whether you’re developing purpose-designed garments or exploring suitable existing options, involving wearers early helps create a more informed brief.
Because the right workwear needs to do more than meet a specification. It needs to work for the people wearing it.
Planning a specialist workwear programme for your automotive team?
We can help you explore wearer requirements, garment design and the practicalities of managing your uniform range, alongside the technical criteria established by your organisation.