Air Barrier Continuity

Achieving Effective Air Barrier Continuity in Building Envelopes

Air barrier continuity ensures a properly sealed and uninterrupted building envelope, mitigating air leakage. Discover the significance of materials, installation techniques, and quality control to enhance energy efficiency, indoor comfort, and air quality.

Air barrier continuity refers to the uninterrupted and sealed construction of the building envelope to prevent the uncontrolled movement of air into or out of the building. It involves ensuring a continuous and properly sealed air barrier throughout the entire building enclosure, including walls, roofs, floors, windows, doors, and penetrations.

The purpose of achieving air barrier continuity is to maintain the desired indoor air quality, enhance energy efficiency, and improve occupant comfort. By preventing air leakage through gaps, cracks, and openings in the building envelope, the air barrier acts as a barrier against the infiltration of outdoor air, as well as the exfiltration of conditioned air from the interior.

To ensure air barrier continuity, it is crucial to consider the design, material selection, installation techniques, and proper detailing of the building envelope. This may involve using appropriate air barrier materials such as membranes, sealants, tapes, or spray foams, as well as meticulous workmanship to achieve tight seals at all transitions, joints, and penetrations.

Regular inspections, testing, and quality control measures are often employed to verify the effectiveness of the air barrier continuity and identify any areas of concern that require attention. Addressing air barrier discontinuities helps improve the overall energy performance of the building, reduce air leakage-related issues, and enhance the comfort and health of occupants.

On-Site Energy Generation

On-site energy generation involves producing power at the location where it’s consumed. Explore how on-site energy generation works, its benefits in reducing energy costs and carbon footprint, and its role in creating sustainable and resilient energy solutions for homes, businesses, and industries.

Positive Pressure Test

The Positive Pressure Test, also referred to as a pressurisation test, evaluates a building’s airtightness by increasing the interior pressure. Discover how this test identifies air leakage, measures energy loss, and guides improvements in energy efficiency and indoor comfort.

Standardised Leakage Area (SLA)

The standardised leakage area (SLA) quantifies the airtightness of buildings, facilitating energy efficiency evaluations. Explore its calculation, significance in building assessments, and measures to reduce SLA for improved building performance.

Building Tightness Limit (BTL)

The Building Tightness Limit (BTL) is key to energy efficiency and occupant comfort. Discover its significance, testing methods, and benefits. Enhance energy performance by maintaining proper building tightness.