Tensioned membrane structures offer versatile shapes while effectively supporting loads and maintaining a sleek appearance. This is one reason why tensioned membrane architecture is often perceived as having a striking aesthetic appeal.

Only architecture that expresses structural logic correctly possesses strong persuasiveness and expressiveness, which reveals the essence of tensioned membrane structures. For tensioned membrane structures, any additional supports or decorations are superfluous; their structure is inherently their form. In other words, forms that do not align with the structure are impossible, as such films are either flimsy or lack stability. The beauty of tensioned membrane structures lies in the harmonious blend of 'force' and 'form.'

The basic components of a tensile membrane structure typically include: the membrane material, cables, and the supporting structure (masts, arches, or other rigid components). The membrane material, an emerging building material, is widely recognized as the "sixth building material" following bricks, stones, concrete, steel, and wood. The membrane material itself withstands little compression and has poor bending resistance, so appropriate pre-tension must be introduced to ensure the normal operation of the membrane structure. Additionally, another important condition for the normal operation of the membrane structure is the formation of an inverse surface. Traditional structures must increase resistance to reduce structural deformation; in contrast, membrane structures disperse loads by changing shape, thereby achieving a small increase in internal forces. When a membrane structure deforms near its equilibrium position, two restoring forces can be generated: one due to geometric deformation and the other due to material strain. Generally, geometric stiffness is much greater than elastic stiffness, so to achieve good stiffness for each membrane panel, it is advisable to form a negative Gaussian surface, i.e., creating "high points" and "low points" diagonally. The "high points" are typically provided by the masts, which is why some literature also refers to tensile membrane structures as suspended membrane structures.

The design core of F tensile membrane structure architecture lies in controlling the boundary conditions of the structure and the geometric shape of the supporting structure, thereby determining the membrane surface form that meets the design requirements.

Tensioned membrane structure architectural design is a multi-disciplinary coordination process compared to conventional building design.