Resin flooring can sometimes be more expensive in the short term than using other materials, this can be as a result of a potential increased cost of materials as well as the outlay for specialist trained resin contractors to install the product, but its durability alone makes it an extremely cost-effective option, as you won’t need to replace it for many years.

And, when you take into account other savings that you can generate as a result of selecting resin flooring, such as reduced maintenance, cleaning and energy costs, it makes sense that an investment now will continue to pay dividends in the long term too!

An extremely flat finish can be critical in the finished goods or raw materials warehousing area of an industrial facility, where racking aisles may be narrow and stacked high. A slight deviation in the floor level could spell disaster for forklift truck operators attempted to retrieve goods.

Epoxy, polyurethane and MMA resin floor systems have a self-smoothing property and, provided their installed by an experienced applicator, are capable of achieving SR1 flatness, making them ideally suited to warehouse spaces.

Their seamless application also means that there are no grout lines or breaks in the floor surface in the driveways of warehouse aisles.

Understanding the need for and importance of ESD compliant footwear is also critical in the performance of the ESD flooring chosen. Personnel grounding requires effective ESD footwear that is appropriate to the application, properly worn and in good repair.

Without the use of special ESD footwear – heel straps, toe straps, sole straps or ESD shoes – some static control floors do not prevent static from accumulating as people walk.

The type of footwear used in the space also affects charge generation. Shoes with PVC soles, for instance, generate more static than shoes with leather soles. Because of its triboelectric propensities, leather is naturally low charge generating; leather also absorbs moisture, which acts as a conductor to reduce static charges. However, the anti-static tendency of leather is not reliable; in lower humidity ranges, leather shoes are not always anti-static.

Demarcation and colour blocking across the floor space can be used in industrial workspaces to notify employees and visitors of workflows, warn of any potential risks, hazards or dangers as well as highlight safe walkways and / or areas that should remain clear and accessible.

Resins are also available in virtually an unlimited palette of RAL colours to complement any floor demarcation processes that you may have in place.

Slips and trips are one of the most common accidents that occur in the workplace, and one of the reasons for this can be unsuitable floor coverings. With a staff body to protect, it is important to consider this when choosing a floor finish, as well as the service criteria that a floor will be subject to.

For example, areas subject to either wet processes, frequent spillages or those that employ rigorous cleaning regimes such as steam cleaning or hot water wash downs should take particular care to ensure an anti-slip finish when replacing floor coverings or coatings.

Liquid-applied resin floor systems are great to custom build any safety features that you require from your floor within your workspace, surface profiles can be tailored to include quartz, aluminium oxide, glass spheres or silicon carbide in order to enhance the slip resistance profile of the floor finish.

Antistatic floor coatings create a preferred pathway for the flow of electricity to follow, keeping the electrical charge under control as the charge is drained to a suitable earthing point.

The floor coating contains conductive elements that transmit the electrical flow through the full thickness of the coating. It is then transmitted into through a copper earthing tape, onto which the resin floor finish is laid.

Think of the grounding point as a plug hole and the electrical charge as bath water. The water (electrical charge) drains over the resin anti-static floor and is removed via the plug hole (grounding point).

The rate at which an electrostatic charge is dispersed within and through the floor finish is controlled by the floor coating material’s electrical resistance, measured in ohms (Ω), and usually expressed in thousands (kilo-ohms or KΩ) or millions (mega-ohms or MΩ).

Conductive

Static conductive resin flooring is defined as having and electrical resistance of less than 1.0 × 10⁶ Ω (1 million ohms). These have a low electrical resistance, so electrons flow easily across the surface or through the bulk of these materials. Charges go to ground or to another conductive object that the material contacts or comes close to. Conductive materials have a surface resistivity less than 1 × 10⁵ Ω/sq, or a volume resistivity less than 1 × 10⁴ Ω-cm.

Dissipative

Static dissipative resin flooring is generally defined as having an electrical resistance of between 1.0 × 10⁶ Ω and 1.0 × 10⁹ Ω. For these materials, the charges flow through the material slowly and in a somewhat more controlled manner than with conductive materials. Dissipative materials have a surface resistivity equal to or greater than 1 × 10⁵ Ω/sq but less than 1 × 10¹⁰ Ω/sq or a volume resistivity equal to or greater than 1 × 10⁴ Ω-cm but less than 1 × 10¹¹ Ω-cm².

The main purpose of ESD control flooring is to help reduce possible electrostatic discharge (ESD), which accumulates as people walk, from causing damage.

Conductive elements such as carbon, graphite or metal-coated particles, distributed throughout the flooring system, give the ESD control floors electrical conductivity, and create an electrical pathway from the walking surface to ground.

Some, but not all, ESD control floors also prevent charge generation – i.e., static from accumulating as people walk. Thus, it’s critical to determine the type of footwear people will use in the space. When choosing an ESD control floor, always test for both electrical resistance and charge generation.

Resins are seamless in nature and don’t include joints or grout lines, which are susceptible to harbouring dirt, grease, bacteria and stains in general. Dust and dirt can simply be swept, mopped or hoovered away and the floor cleaned according to manufacturer’s guidelines based on the surface profile of the floor.

Resin flooring is also extremely strong and durable, meaning that it has an extended service life compared to other floor coverings. Installed properly, and with the correct maintenance, it can last for years without cracking or peeling, meaning that you won’t have to replace the floor or carry out repairs as frequently than you would if using other materials.

In scenarios where the slab is porous or the concrete has been newly laid, rising moisture can quickly impact the integrity of and negatively affect your ESD control flooring. Moisture can lead to cracking, bubbling, staining, and other physical changes to the floor, which in turn can alter the properties of your ESD floors and hinder their ability to prevent static build up.

Industrial and manufacturing spaces are often subject to heavy loads, equipment and machinery as well as the constant coming and going of rubber-wheeled forklift truck traffic and other punishing processes.

As a result, durability in a flooring material is often critical to avoid the risk of floor failure or the surface wearing far too soon and having the headache of having to replace it all over again!

Epoxy, polyurethane and MMA resin surfaces have a longer lifespan compared to most other flooring solutions. Resin creates a hard, fast bond that is much stronger than just concrete and is highly resistant and able to withstand impact and heavy-duty industrial wear and tear.

Resin also has the advantage of offering a degree of flexibility under stress; this property gives it durability under impact and thermal shock.

An Electrostatic Protected Area, also known as an EPA, is a designated area where static is controlled under strict regulations. In an EPA all surfaces, objects, people and ESD sensitive devices are kept at the same electrical potential.

This is achieved by using only groundable with an electrical resistance typically of less than 10⁹ ohms for the covering of surfaces and for the manufacture of containers and tools.

Electrostatic discharge (ESD) is the release of static electricity when two objects come into contact. Familiar examples of ESD include the shock we receive when we walk across a carpet and touch a metal doorknob and the static electricity we feel after drying clothes in a clothes dryer. A more extreme example of ESD is a lightning bolt. While most ESD events are harmless, it can be an expensive problem in many industrial environments.

ESD first requires a build-up of an electrostatic charge. This occurs when two different materials rub together. One of the materials becomes positively charged; the other becomes negatively charged. The positively charged material now has an electrostatic charge. When that charge comes into contact with the right material, it is transferred, and we have an ESD event.

The heat from the ESD event is extremely hot, although we do not feel it when we are shocked. However, when the charge is released onto an electronic device, the intense heat from the charge can melt or vaporise the tiny parts in the card causing the device to fail. Sometimes an ESD event can damage a device, but it continues to function. This is a called a latent defect, which is hard to detect and significantly shortens the life of the device.

ESD control flooring is especially important within industries where static can cause interference or damage to employees and/or equipment.

These can include electronic production and testing areas, data centres, computer chip manufacturing plants, laboratories, military bases, aerospace facilities, operating theatres and clean rooms.

Seamless epoxy resin ESD control can also be used in areas subject to fire and explosion risk, including flammable solvent and chemical stores.