Architectural & engineered Tensile Membrane Structure provides great freeform design & flexibility.

TE MEMBRANE (TEM) continues in the creation of breathtaking membrane architecture. Known for its complete package of innovative concept design development, experience engineering capability, supreme attention to details and exceptional project management to complete within Time and Budget.

Tensile Fabric Structure specialist in designs, engineers, manufactures, installs and maintains some renowned venues and most inspiring tensile fabric design.

TE MEMBRANE (TEM) is one of the foremost company in the field of Tensile Membrane Structure. With combined more than 15 years personal experience and working with international company. Our objective exploiting modern fabric design technology and associated structural engineering techniques in line with the nature.

Lightweight Structure enable dramatic architectural elements by offering variety in form with translucency, clear span and softness to match to any new and old architectural building.

TE MEMBRANE (TEM) provides a perfect opportunity to showcase your BRAND and increase visual impact with instant notability. Make you a market leader in your field.

TE Membrane provides international standard in the field of Tensile Fabric Structure. Bringing expert’s in experiences, skills, expertise and upmost commitment to uncompromising quality.

TE MEMBRANE (TEM) value engineering and design requires less structural steel to support the tensile roof, thus enabling large spans of column-free space to be covered. This is why TE Membrane (TEM) services is preferred and popular in large span roof such as sports facilities and music theaters.

The high translucency gives diffused interior lighting that reduces the need for costly artificial lighting.

High level engineering finite element method, the nodal stresses are calculated through equilibrium equations related to stiffness.

Once the nodal deformations are obtained using the stress/strain relationships, compatibility is approximated for the entire structural model to a pre-set tolerance are used that approximate the average stiffness throughout the life of the membrane.

Wind loads are the main consideration for membrane structures. In order to resist these loads, the membrane must have sufficient tensioning and curvature.

While wind tunnel test may be necessary for larger and more complex structures to determine loading
distributions.

In areas of colder climate, snow and snow drift loads can also be substantial. Snow drift loads can be analyzed by the Finite Area Method, where the snow
drift is modeled as a thin layer of particles moving with a mass flux related to the wind
velocity.

The self-weight of the membrane is usually negligible, but often included in the analysis. Rain loads are considered since water will be
designed to shed rapidly to avoid ponding.

The mechanical properties of most importance to the designer are the tensile strength,
which measures the force required to rupture the material, tear strength, which is the
resistance to propagate an existing tear, and elastic properties, such as stiffness, which is
the relationship between the modulus of elasticity and the area of the cross section of
fibers.

These properties are measured through a number of tests including, but not
limited to the Strip Tensile, Grab Tensile, Biaxial Tensile, Seam Tensile Strength,
Trapezoidal Tear, Tongue Tear, Adhesion and the Abrasion Resistance Test.