we demonstrate that the soft diodes can be incorporated into this design. While continuous functionality despite strain can be achieved using the hook geometry, we opted to design a circuit that will indicate when a specific strain is surpassed. In wearable devices, this can identify movements that result in high risk for injury. In this example, we can power a LED that has been incorporated into the extrusion printed strain stiffening circuit. By using the traditional trapezoid shaped diodes, the LED remains powered after the stiffening behavior begins, but loses power at the strain where the diode components become separated. This process is entirely reversible, and the LED becomes illuminated again when the strain is reduced. This is a pioneering demonstration of how soft electronics need not only be composed of soft materials with desirable bulk properties, but functional geometries can be applied to bestow advanced mechanical properties, like strain stiffening. Not only is this an early example of a soft device that exhibits both advanced electronic properties and advanced mechanical properties, the highlighted method a method, multi-material extrusion 3D printing, has lowered the barrier to further iterations and implementations.