For an efficient and affordable heating option, consider installing invisible infrared electric heating film under your laminate or engineered wood floors.
Easy to install and highly effective, infrared electric underfloor heating is becoming a popular choice among homeowners — especially as energy costs continue to rise.
In this guide, we’ll explain the benefits, the installation process, and why infrared heating film works so well with laminate and engineered floors.
Infrared underfloor electric film is a modern, energy-efficient technology designed to deliver consistent and even heat.
Unlike traditional systems that heat the air, infrared heating warms objects and surfaces directly.
At the core of the system are thin, carbon-based layers that emit infrared heat when electricity flows through them.
As a result, the film is easy to install under many types of flooring, making it an excellent solution for contemporary homes.
Infrared heating is highly energy-efficient.
While regular heating systems can lose up to 30% of their heat to the air, infrared heating transfers heat directly to objects.
Consequently, it heats faster and retains warmth longer, reducing energy consumption and lowering utility bills.
Infrared underfloor systems ensure consistent warmth across the entire room — without cold spots.
Thanks to the even heat output, you’ll enjoy a uniformly warm and comfortable space.
Installing underfloor heating means you can eliminate bulky radiators and heaters.
Therefore, your home maintains a clean, uncluttered appearance while staying efficiently heated.
Infrared heating films are ultra-thin and easy to install.
In most cases, you won’t need extra screeding or major construction work.
The floor height stays virtually unchanged, making installation straightforward.
Infrared heating produces fewer carbon emissions than traditional systems.
Moreover, it operates silently, with no moving parts — offering a greener and more durable heating option.
One of the standout advantages of infrared heating film is the ease of installation.
Here’s a step-by-step guide to getting it right:
Ensure the subfloor is clean, dry, and level before you begin.
Install a thermal insulation layer to prevent heat loss and boost system efficiency.
Typically, a thin, reflective insulation board is ideal for this purpose.
Unroll the heating film across the prepared area.
Measure and cut it according to room dimensions, ensuring no overlaps.
Maintain a small 5 cm gap from the walls.
Follow the manufacturer's wiring instructions carefully.
Connect the film to a thermostat and your home's electrical system.
For safety reasons, a qualified electrician should complete all electrical connections.
Once the heating film and wiring are securely in place, you can install your flooring directly over the film.
Always follow the floor manufacturer’s guidelines for installing over underfloor heating.
Before installing the final floor covering, test the system.
This step ensures the heating film works properly and heats evenly across the surface.
Infrared heating films are ideal for laminate and engineered wood floors.
They operate at lower, consistent temperatures, protecting sensitive flooring materials from thermal stress.
Imagine walking barefoot on a warm floor during winter.
By installing underfloor heating, you enhance daily comfort and add luxury to any room.
Unlike forced-air systems, infrared heating doesn’t circulate dust or allergens.
Thus, it’s an excellent choice for allergy sufferers and anyone wanting a cleaner, healthier home environment.
Infrared systems are not only energy-efficient but also easy to control via thermostats and smart apps.
Consequently, you can heat rooms more precisely, reduce energy wastage, and lower your energy bills.
Using iHelios underfloor heating film under your laminate or engineered floors brings warmth, comfort, and efficiency to your home.
With benefits like energy savings, simple installation, and eco-friendly operation, it's easy to see why infrared underfloor heating is growing in popularity.
Whether you’re upgrading a living room, bedroom, or kitchen, iHelios provides a smart, modern heating solution — without clutter or compromise.
Radiant barriers and reflective insulation are two different insulation materials that are often confused. While both help improve energy efficiency, they work in different ways. This article will explain the key differences between radiant barriers and reflective insulation, their purposes, how they work, and when to use each.
A radiant barrier is a thin sheet or foil layer that reflects radiant heat rather than absorbing it. It is placed in buildings to reduce heat transfer between surfaces.
Radiant barriers are commonly made of aluminum but can also be made of other reflective materials. They usually have a shiny side that faces an open air space where it can reflect radiant heat.
Radiant barriers work by reflecting radiant heat rather than absorbing it. Radiant heat travels in a straight line and can be reflected away.
On hot sunny days, radiant heat from the sun hits the roof and ceiling. Some of this heat is absorbed and transferred into the attic space. The rest is radiated down to the attic floor.
A radiant barrier placed on the underside of the roof rafters or on top of the attic floor reflects this radiant heat back up into the attic rather than letting it transfer down into the rooms below. This reduces heat gain and cooling costs.
[Radiant Heat Transfer Diagram]
Radiant barriers are effective because they have a highly reflective surface (usually 97% or more reflectivity). Common materials for radiant barriers include aluminum foil, aluminum-coated paper, or aluminum-coated plastic films.
Reflective insulation, also known as reflectix, is a type of insulation made up of layers of aluminum foil with various spacers between them. The multiple layers help reflect radiant heat and reduce conductive heat flow.
With competitive price and timely delivery, Mufeng sincerely hope to be your supplier and partner.
Reflective insulation is commonly used for duct insulation, wall insulation, underfloor insulation, and more. It comes in rolls or sheets of various widths with an R-value around R-5 to R-10.
Reflective insulation works by slowing conductive, convective, and radiant heat transfer. The reflective layers reflect radiant heat while the air spaces resist conductive and convective heat flow.
The alternating layers of reflective material and air spaces act as a thermal barrier. As heat tries to conduct through the material, it hits a reflective layer and is reflected back rather than passing through the insulation.
This dramatically slows the rate of heat transfer and improves the insulation's effectiveness compared to just having a solid sheet of insulation. The more layers and air spaces, the higher the R-value.
While both radiant barriers and reflective insulation involve reflective foils or metallic coatings, there are some key differences:
Here are some of the most common materials used for radiant barriers:
When choosing a radiant barrier, aluminum foils with over 97% emissivity (reflectiveness) are recommended.
Reflective insulation is typically made up of the following materials:
The more layers of aluminum foil and air spaces in reflective insulation, the higher the R-value it provides. Adding more layers can increase thermal resistance.
Here are some of the most common uses for radiant barriers:
Radiant barriers work best when there is an adjoining air space where the foil can reflect heat back rather than absorbing it. They also need to face an open area or adjoining cavity - they will not work if both sides are touching other surfaces.
Reflective insulation can be used anywhere that standard insulation would be used, including:
It provides thermal resistance wherever it is installed. The reflective layers slow down all forms of heat transfer through the material.
Radiant barriers on their own have a very low R-value, typically around R-2 or less. They are not meant to insulate or provide thermal resistance like traditional insulation materials.
Instead, they create a highly reflective surface that blocks radiant heat transfer. This can reduce heat flow between surfaces by up to 97% depending on the material.
However, when combined with air spaces and standard insulation, they can significantly improve the overall R-value of the total assembly and reduce heat flow.
Reflective insulation is tested and rated using R-values based on the number of foil layers and spacing. Typical R-values range from:
The more layers and air spaces, the higher the reflective insulation's R-value. Multi-layer insulation with enclosed air spaces provides better insulation than just foil by itself.
Yes, radiant barriers and reflective insulation can be used together to boost energy efficiency.
Some common ways they are combined include:
When layered together properly, they can provide an R-value and block radiant, conductive, and convective heat flow. This provides better insulation performance than using either product alone.
There is no definitive answer on whether radiant barriers or reflective insulation are "better" - they each have advantages in certain applications. Some key points:
In many cases, a combination of both radiant barrier and reflective insulation products may provide the optimal heat flow reduction. An analysis of each building, climate, and application need is recommended to determine which is the best solution. Consulting with qualified insulation contractors is advised.
Pros:
Cons:
Pros:
Cons:
To summarize, radiant barriers and reflective insulation both provide energy efficiency benefits through their use of reflective foil surfaces to block radiant heat transfer. However, key differences exist between these two products in terms of structure, installation, applications, and effectiveness.
Radiant barriers are single sheets placed facing air spaces to reflect solar radiation and heat. Reflective insulation uses multiple layers and air spaces to create a thermal barrier that resists conductive, convective, and radiant heat flow.
Understanding these differences allows builders and homeowners to select the right solution for their specific insulation needs and climate conditions. With proper installation, both can be valuable tools for improving building energy performance.
For more Underfloor Reflective Filminformation, please contact us. We will provide professional answers.