Wavy walls and roofs cut peak corner wind pressure by up to 60% on wind-tunnel house models

Over a wavy surface, the paper's explanation goes, the wind skips along and breaks into a series of smaller swirls in place of one big vortex ^[9]. That disruption can keep high suction peaks from forming ^[9]. The relief lands at corners and edges, where damaging forces typically concentrate ^[7].

"Changing a building's shape can significantly reduce the intensity of wind forces it has to withstand," said Pedro Fernández-Cabán, a Florida State University civil engineer and co-author of the study ^[12][14]. In a statement he went further: "These nonconventional building shapes reduce the damage from worst-case severe weather scenarios" ^[16]. The team's own caveat is narrower. The researchers say the study focused specifically on wind pressure on the models' surfaces ^[10].

The thing this doesn't tell you is how much less of a real house a hurricane would tear off, or what a wavy house costs to build. Peak pressure on a 3D-printed model is a measured load ^[3]. Damage depends on how a full-size roof and its connections respond to that load.

The low-cost case comes from PopSci's framing. The magazine sets the wavy design against rounded corners, sloped walls and reinforced construction, and says those are often expensive or impractical for developers looking to cut costs ^[17]. It also calls designs like these surprisingly simple ^[18]. Simple geometry still has to be framed and roofed. Whether waves 2 feet deep across walls and roof cost less than reinforcing a flat box would take a builder's estimate to settle ^[15].

Until that estimate exists, I'd treat wavy walls as a promising answer to corner suction on scale models ^[6], and the cheapness as PopSci's expectation ^[18].