
















Axiom
Fission Crave
Stable Fairway Driver
6.5 | 5 | -1 | 1
▌ Color accurate photos of every disc
▌ Discs ship inside collector bags in a box
▌ $6 flat rate shipping
▌ Free shipping over $75
▌ Most orders ship same day
The Crave
Axiom’s first Fission disc is here with the Fission Crave! As a reliable, straight-stable fairway driver, the Crave is a perfect candidate for the added GYRO line-locking of MVP's Fission technology. The already laser-like flights of the Crave have never been better. The Fission Crave is an ideal fairway driver for all arm speeds. Hit your lines with confidence with a Fission Crave!
The Crave provides controllable straight flights with a great feel and loads of dual-color style. Relative to MVP drivers, the Crave is like a seasoned Servo. The popular “worn workhorse-stable” vibe is achieved with subtle wing contours that also feel great in the hand.
Fission Microbubble Technology
Fission™ Microbubble Technology produces an ultralight core with evenly distributed and imperceptible weight reduction microbubbles. The ultralight core allows an even higher GYRO® overmold density relative to the core.
This produces an entirely new type of lightweight disc never before seen in the sport, and beyond the capability of any other manufacturer. Weight distribution, stability, and durability of prior “bubble” discs are all improved upon by Fission. Skeptics of prior light or bubble plastics are in for a surprise, as Fission brings advanced disc physics and true high-tech molding into the lightweight plastics arena.

Axiom Crave
Tech Specs
- Diameter: 21.1 cm
- Height: 1.4 cm
- Rim Width: 1.8 cm
- Rim Depth: 1.2 cm
- Bead: None
PDGA Approved: Mar 9, 2014

MVP Gyro Technology
MVP's GYRO® Overmold Technology is a design that is produced through a two-step molding process that allows the outer ring to be made with a denser, heavier material. The process of transferring mass away from the axis of rotation increases the disc’s moment of inertia. An enhanced gyroscopic effect will improve all aspects of a disc's flight.