Change in Floor Slab Waterproofing Implementation

The diploma thesis addresses the change in floor slab waterproofing implementation and the transition to the Xypex waterproofing system, which is an alternative to bituminous waterproofing. The results show that the Xypex system shortens implementation time, reduces the need for additional waterproofing protection and enables self-healing of minor cracks in concrete, which contributes to improved watertightness and structural durability. Its use leads to greater resistance of the structure to environmental influences, which reduces the need for repairs and extends the service life of structures.

Solution and Method

The diploma thesis addresses the change in floor slab waterproofing implementation and the transition to the Xypex waterproofing system, which is an alternative to bituminous waterproofing. It focuses on comparing both systems in terms of implementation, costs, durability and long-term maintenance. Classical waterproofing methods, such as bituminous waterproofing, often require additional protection and are sensitive to mechanical damage and material ageing, which increases the need for remediation.

With technological advancement and material improvement, solutions are being developed that enable better durability and efficiency. The research employed time, cost and technical analyses based on actual data from a construction project.

Results

The results show that the Xypex system shortens implementation time, reduces the need for additional waterproofing protection and enables self-healing of minor cracks in concrete, which contributes to improved watertightness and structural durability. Its use leads to greater resistance of the structure to environmental influences, which reduces the need for repairs and extends the service life of structures. Although the initial investment costs for the Xypex system are higher, the longevity and resistance of the material reduce the need for remediation, which brings long-term savings.

An additional advantage of this system is lower sensitivity to weather influences, as waterproofing can be carried out regardless of external conditions, which enables greater flexibility in work implementation. The diploma thesis also touched upon the use of artificial intelligence for modelling waterproofing systems, which enables better predictions of material efficiency and optimisation of waterproofing technology selection in the design phase. With the help of artificial intelligence, analyses of various scenarios can be carried out, which enables better decision-making in the early design phases and reduction of remediation costs.

Such an approach contributes to more efficient planning and improvement of waterproofing solution quality. The integration of artificial intelligence in construction is an important step towards greater accuracy and more rational use of resources, which affects the course of a construction project and increases the reliability of results. It also reduces the use of less environmentally friendly materials, such as bituminous coatings, and extends the service life of structures, which contributes to sustainable development of construction and better utilisation of natural resources.

It enables sustainability-oriented construction that follows ecological standards and reduces negative environmental impacts.