With the development of controlled polymerizations, polymer chemists have enabled the synthesis of more and more complex materials. Bottlebrush polymers are branched polymers with high branching density all originating from a linear backbone and are an example of a material with complex architecture that is accessible via controlled polymerizations. The rigidity of bottlebrush polymers provides a unique way to generate spatially self-organizing materials and have gained much interest in the soft materials community. Thus far bottlebrush polymers have been limited to linear cylindrical shape. Here we present a methodology to construct non-cylindrical bottlebrushes by using a combination of controlled polymerizations to generate a gradient of arm lengths. We implement two orthogonal chemistries, one for arm synthesis and another for backbone synthesis, to generate conical bottlebrushes as a proof of principle. Detailed kinetic studies provide support for the control and specificity of our approach. This methodology results in a material with unprecedented topology and opens a new avenue for more complex materials.