Marker

Frequently Asked Questions

• What Marker bindings are best for all-mountain, freeride, and touring skiing?

  Choose by activity and DIN range: the Griffon (DIN 4–13) is a go-to all-mountain/freeride binding for aggressive resort skiing, the Baron series (higher DIN range) suits big freeride and heavier skiers, and lightweight Marker touring or tech-compatible models prioritize uphill efficiency. Also match brake width to your ski waist and consider weight—Squire is a lighter entry-level option (~1 kg), while pro-level bindings like the Jester Pro are beefier for powerful skiers.
• Which boot soles and brake widths work with Marker bindings like the Griffon, Squire, and Baron?

  Marker bindings accept common sole standards—ISO 5355 alpine, many GripWalk soles, and select touring-compatible platforms; models with Sole.ID or Power Width simplify sole and brake accommodation on some units. Choose a brake width that is equal to or slightly wider than your ski waist (typical Marker options: ~90mm for narrow piste skis, ~110mm for all-mountain, ~130mm for powder/freeride).
• How does the Marker Griffon compare to the Jester (including Jester Pro) in release behavior, weight, and target skier?

  The Griffon is a lightweight, all-mountain/freeride binding (DIN 4–13) tuned for versatile performance and ease of entry, while the Jester line—especially Jester Pro—is built for higher-power skiers with a stiffer heel and beefier components to handle higher release settings. Expect the Jester Pro to be heavier and more robust (Jester Pro ~1.2 kg per pair) and better suited for aggressive charging and park/freeride use, whereas the Griffon prioritizes a balance of weight, reliability, and playfulness.
• What Marker technologies reduce unwanted pre-releases and improve power transmission?

  Marker uses features like the Triple Pivot toe for consistent lateral retention, an AFD (anti-friction device) gliding plate to prevent sticking during release, low stack-height and frameless toe designs for better ski-snow feedback, and progressive-energy-absorption geometry that improves release predictability under torsion. Together these systems aim to balance secure retention with reliable, consistent release under both vertical and lateral loads.