Like many long-lasting, tried and tested materials, mastic asphalt is being re-imagined, modified and re-examined as a highly relevant building solution for today. 

In New Zealand, approximately 10% of the population relies on rainwater collected from roofs for their daily water needs. There are also an increasing number of projects looking for sustainable and cost-effective solutions to harvest rainwater as a reliable source for drinking water. The key to ensuring the safety and quality of water lies in proper collection, storage, adherence to regulatory standards, and the crucial step of effective filtration.

A look at the different types of producers statements and how these relate to belowground waterproofing.

In light of the recent surge in intense rain events, which were once considered rare but are now becoming more frequent, it has become imperative to address the design considerations for below-ground structures.

Preventing groundwater finding its way into your basement structure starts at the planning and designing stages of the project. Here is what you need to know to avoid this hard to fix problem.

This technical reference provides a detailed discussion of the water/soil compatibility test and its importance in the design of any below-grade waterproofing system.

Designing, planning and selecting the right membrane for the conditions of your site are key factors to achieve watertightness on tanking jobs.

Common problems with tanking basements that will have no drainage (hydrostatic) once the building is complete can be mitigated by implementing well-planned dewatering techniques during construction. 

We are often asked whether waterproofing membranes function as vapour barriers. The answer to this question is not as straightforward as with other waterproofing membranes. 

Continuing from my previous blog and the question of design, I look at considerations for ensuring an effective waterproofing solution.