Prior experience with coreless filament winding led to the fabrication concept of winding the chair as planar elements to ensure high tension and fiber-fiber interaction, which is critical for ensuring that increased cross-sectional thickness is achieved. Thus, the chair was discretized into two kinds of different parts: bending sheets that would serve as the chair surface, and curved profiles that would provide shape and structure. The elastica curve of the chair profiles was form-found using bending lines in Kangaroo Physics in accordance to the desired height and length of the chair and the angle of the surfaces. Once the form-finding was completed, the fiber layout of the profile had to be generated. Different fiber layouts were tested for resulting structural performance of the chair profile using the FEM plugin Karamba. The fiber layouts were modeled as lines and then converted to beams. The structural simulation provided crucial feedback for the design and fabrication. Most notably, increasing the thickness of some of the beam members in critical regions was necessary in order to increase the buckling load. The fiber layout of the profile was copied and translated in the transversal direction four times to model the width of the chair with its five profiles. This completed the modeling of the chair. The final step of the simulation was to execute a FEM analysis of the entire chair in SOFiSTiK. The results were considered satisfactory for fabrication to commence.