Tensile architecture involves the use of tensioned elements, such as cables and membranes, to create lightweight and visually striking structures. Our expertise lies in designing and constructing innovative tensile structures for various applications.
Tensile Design and Construct specializes in the design and construction of custom tensile structures. Our services include concept development, engineering, fabrication, and installation, ensuring a comprehensive solution for our clients.
We operate in Australia and New Zealand, delivering our expertise in tensile architecture to clients across various industries.
We undertake a wide range of projects, including but not limited to educational barriers, green facades, catenary lighting, and infrastructure barriers. Our team is equipped to handle diverse architectural challenges.
The timeline varies based on the complexity and scale of the project. We work closely with our clients to establish realistic timelines and ensure timely project delivery.
Yes, tensile architecture is often more sustainable than traditional construction methods. The lightweight nature of tensile structures reduces material usage, and the flexibility allows for creative, energy-efficient designs. Coupled with this the stainless steel that we use is made with 70% recycled content and fabricated with 90-100% solar power.
Our tensile structures are engineered to meet stringent safety standards. We conduct thorough assessments to ensure the durability and resilience of our designs, making them suitable for various weather conditions.
To request a quote or consultation, please contact us through our website. Our team will respond promptly to discuss your project and provide the information you need.
Regular maintenance is essential for the longevity of your tensile structure. This may include inspecting tensioning elements and addressing any minor repairs. Our team can provide specific maintenance guidelines based on your structure’s materials.
The frequency of maintenance depends on factors such as environmental conditions and the type of structure. In general, we recommend scheduled inspections at least once a year to ensure optimal performance.
Environmental factors such as extreme weather conditions, pollution, and UV exposure can impact the maintenance needs of a tensile structure. Our designs take these factors into account to minimize maintenance requirements.
Yes, most damages to tensile structures can be repaired. It’s important to address any issues promptly to prevent further damage. Our team can assess the extent of the damage and recommend appropriate repair solutions.
Tensile structures often require specific maintenance products to ensure the longevity and appearance of your structure. Our team can provide guidance on suitable maintenance products and methods.
The lifespan of a tensile structure varies based on factors such as material quality, environmental conditions, and maintenance practices. Our team can provide information on the expected lifespan of your specific structure.
While basic maintenance can be performed by the owner, we recommend periodic professional inspections to identify potential issues early and ensure that the structure continues to meet safety and performance standards.
To schedule maintenance or address any concerns, please contact our maintenance team through our website. Timely maintenance helps preserve the aesthetic and structural qualities of your tensile structure.
Stainless steel has favourable fire-resistant properties, and its fire rating can be influenced by factors such as grade, thickness, and application. In Australia, the fire performance of materials, including stainless steel, is governed by the National Construction Code (NCC) and relevant Australian Standards.
Stainless steel exhibits excellent fire resistance due to its low thermal conductivity and high melting point. It does not easily deform or lose structural integrity at high temperatures, making it a reliable choice in fire-prone environments.
The fire performance of stainless steel is regulated by standards such as AS/NZS 1170.0 – Structural Design Actions, which outlines the requirements for structural design, and AS 4100 – Steel Structures, which provides guidelines for the design and construction of steel structures.
