Benchmark manufactures and sells structural thermal break and PU Foam thermal break products.
Shipping available across North America with expedited options for fabrication and shipping available.
There are a variety of thermal break materials on the Canadian market.
STB-1 Structural Thermal Break – Proudly Canadian!
Fabreeka TIM Thermal Break – Made in the USA
Fabreeka TIM RF Thermal Break – Made in the USA
Most of the companies in North America who sell thermal breaks and structural thermal breaks do not manufacture these products themselves.
BMSSI is here to help you get the highest quality Structural Thermal Break material for your project, stocked in Canada at competitive prices! We maintain one of the largest and widest variety inventory of Structural Thermal Break materials in North America.
We proudly employ Canadian machine operators to manufacture, machine and deliver these products faster than anyone in Canada.
Applications:
- Steel to Steel
- Steel to Concrete
- Concrete to Concrete
- Steel to Timber
- Balconies
- Canopies
- Brise-soleil
- Roof Plant enclosures
- Façade Systems
- Balustrading
- Parapets
- Man-safe systems
- Staircases
- Building Maintenance Units
Mechanical properties of STB1 Structural Thermal Break:
| Mechanical Property | ASTM Test | Test Results |
|---|---|---|
| Compressive Strength: | ASTM D695 | 48,000 psi. |
| Compressive Modulus: | ASTM D695 | 400,670 psi. |
| Thermal Conductivity: | ASTM C518 | 1.8 BTU in/ hr/sf/ degree F. |
| Thermal Resistance (R value): | ASTM C518 | 0.60 |
| Shear Strength: | ASTM D732 | 15,000 psi. |
| Tensile Strength: | ASTM D638 | 11,000 psi. |
| Flexural Strength: | ASTM D790 | 25,000 psi. |
| Heat Release: | ASTM E1354 | rate 1.5kW/sf |
| Surface Burning Characteristics: | ASTM E84 | Â |
| a. Flame Spread: 25 | Â | Â |
| b. Smoke Developed: 120 | Â | Â |
The purpose of thermal break materials and systems (thermal breaks) is to reduce the impact of thermal bridging by preventing conductive heat flow through the thermal envelope. Thermal breaks keep the heat in and push the dew point out. They break the bridge.
Research has shown that thermal bridging can increase the whole-building conductive heat loss by more than 15%. The percentage is a function of the following variables: climate, building type, location and type
of the thermal bridges. The magnitude and quantity of the thermal bridging is a large factor. Some interface details increase the U value of a wall by 45% or more, other transition details increase the U value by only 5%.
The heat flow created by thermal bridging varies by the detail and the number of details. If the building design contains lots of poor or inefficient details, the contribution to overall heat loss through the envelope will be high.
To improve the energy efficiency of a building, we need to improve the efficiency of the thermal envelope.