Introduction
Preserving the charm and integrity of a Grade II listed building is both a responsibility and an art. When modern materials meet traditional craftsmanship, the results can be truly spectacular. Recently, we had the pleasure of working on such a project in Deansgate, Manchester, bringing new life to an old structure with a combination of stainless steel rib lath, hemp lime plaster, and superfine putty plaster from Ty Mawr. Here's a detailed account of the process and the unique materials used in this restoration.
The Challenge of Working with Listed Buildings
Grade II listed buildings hold historical significance and architectural interest. These buildings require careful handling to ensure that any renovations respect their original character and meet strict preservation guidelines. Our task was to update the interior plastering without compromising the building's historic integrity.
Step 1: Installing Stainless Steel Rib Lath
The first step in our renovation process was the installation of stainless steel rib lath. This modern material offers superior durability and resistance to corrosion, making it an ideal choice for a building that requires longevity. The rib lath was securely fixed to the walls using stainless steel screws and washers, ensuring a solid and stable base for the plaster. The use of stainless steel components is crucial in such environments, as they prevent rust and deterioration over time, maintaining the structural integrity of the plaster work.
Step 2: Applying the Hemp Lime Plaster
Once the rib lath was in place, the next step was to apply a floating coat of hemp lime plaster. Hemp lime is a sustainable material that provides excellent breathability and thermal insulation. This type of plaster is particularly suited to older buildings, as it allows the walls to 'breathe,' preventing issues related to moisture buildup which can lead to decay.
The application of hemp lime plaster involves careful mixing and layering to achieve a consistent and even coat. This process not only reinforces the structure but also contributes to the building’s environmental efficiency, aligning with modern sustainability practices while respecting traditional methods.
Step 3: Skimming with Superfine Putty Plaster from Ty Mawr
The final layer of our plastering process involved skimming with a superfine putty plaster supplied by Ty Mawr. This high-quality material is renowned for its smooth finish and exceptional workability. The superfine putty plaster provides a beautiful, polished surface that complements the historic character of the building while offering a durable and aesthetically pleasing finish.
Applying the putty plaster requires skill and precision to ensure a flawless finish. The result is a smooth, reflective surface that enhances the light within the space, highlighting the architectural details and adding to the overall ambiance of the building.
Step 4: Finishing Touches with Stainless Steel Angle Beads
To complete the restoration, we used stainless steel angle beads to form the arrises. These beads are essential for protecting the edges of the plasterwork from damage and wear. The use of stainless steel ensures that these critical areas remain robust and resistant to corrosion, providing long-term durability and maintaining the sharp, clean lines that are characteristic of high-quality plastering.
Conclusion
Renovating a Grade II listed building, particularly one located in the historic Deansgate area of Manchester, requires a careful balance of modern materials and traditional techniques. By using stainless steel rib lath, hemp lime plaster, and superfine putty plaster from Ty Mawr, we were able to enhance the building’s structural integrity and aesthetic appeal while preserving its historic character.
This project is a testament to the value of combining contemporary materials with age-old craftsmanship, ensuring that heritage buildings can be enjoyed by future generations while meeting today’s standards of sustainability and durability.
View the project https://www.instagram.com/p/C7qhQBPs3EC
