A golf club head face insert support structure defines a rear member contour with an apex point and undercut region to distribute mass effectively.
A golf club head uses a variable thickness face profile and stiffening ribs to control the coefficient of restitution.
Radial ribs radiating from a common point distribute impact stress evenly, reducing crown maximum stress by 36% compared to parallel rib designs.
A golf club head uses an interference fit between a hosel neck and body cavity to join modular components.
A removable weight member uses a spring clip to secure mass to the club head body.
Apparatus uses guide rail and visual markers to correct stroke alignment, resolving the contradiction between practice time and accuracy improvement.
Composite filler materials adjust mass distribution within golf club head cavities to optimize ball speed and spin characteristics.
Internal airflow vents create suction to extend ball contact time while reducing aerodynamic drag during the swing.
A golf club head features a compression channel with a flexible insert that exerts response force upon impact to enhance energy transfer.
Segmented cap and slug components prevent torque-induced disengagement while concealing mass elements for aesthetic appeal.
A golf club head rear cavity uses segmented undercut portions to lower the center of gravity and enhance perimeter weighting.
Segmented sleeve components enable golfer customization without professional bending, resolving structural integrity trade-offs.
Radial fan ribs reinforce the golf club crown, reducing maximum stress by 36% compared to parallel rib designs that fail under point impacts.
Nested filler materials in a golf club head optimize the center of gravity and moment of inertia while maintaining structural integrity of a thin face portion.
A truss member mechanically couples the sole and top line of a perimeter weighted golf club head to tune vibration frequencies.
A golf putter head incorporates a removable weight system secured by a tool-operated locking mechanism for precise balance customization.
An adjustable keel member manipulates face angle orientation on a wood-type golf club head, resolving variability across lie angles.
Localized face grooves with varying toe and heel area occupancies enhance corner flexibility, suppressing shot carry reduction on off-center impacts.
Perimeter modification zones with aerodynamic features reduce drag while maintaining off-center hit performance and U.S.G.A. compliance.
A variable length golf club shaft uses a notch-and-screw mechanism to slide and secure grip support segments for quick physical length changes.
A golf club head sole channel allows a sliding weight to move and fix at any location along the path.
A golf club weight member utilizes lateral forces and a spring feature to secure within a mount, maximizing peripheral mass for improved moment of inertia.
An adjustable hosel assembly uses tubular pieces and indexing features to orient the shaft sleeve.
Variable thickness faceplates and low weight pads resolve structural integrity versus flexure trade-offs for better ball speed.
Adjustable weight ports in a composite sole allow external repositioning of mass to reduce side-spin and improve ball flight robustness.
A golf club head positions a weight bar within the rear cavity to bridge the sole and adjust the center of gravity without contacting the face component.
Alternating protruding and recessed portions with varying heights on the face portion enable precise spin control across different swing speeds.
A co-forged golf club head encases weight adjustment portions within a pre-form billet to create a monolithic multi-material structure.
A golf club head combines a metallic front body with a non-metallic rear body to maintain structural integrity.
Sole recesses house weight members internally to lower the center of gravity, preventing ground catch interference from protruding components.
Fiber-reinforced resin layers achieve uniform strength distribution in a lightweight golf club shaft.
A golf club head with a sliding weight retainer adjusts center of gravity to resolve performance stability trade-offs.
A fairway wood head uses thin crown geometry and specific mass distribution to position the center of gravity for improved ball speed.
Dynamic mass repositioning increases club head speed while maintaining stability at impact.
Crown-to-faceplate and sole-to-faceplate bridges manage characteristic time, improving ball travel distance for low swing speeds.
Varying face part lower edge curvature radii by loft angle resolves visual incongruity between clubs while preserving functional versatility.
A golf club head uses toe-side and heel-side high-density weights to increase moment of inertia while maintaining a low sweet spot height.
Variable-depth intersecting grooves normalize ball speed to correct trajectory and provide forgiveness during off-center impacts.
Solid titanium rods connect the crown and sole to minimize striking face stress, allowing thinner faces that improve ball speed without adding significant mass.
Segmented weight ports in golf club heads allow dynamic center of gravity positioning to resolve adaptability versus complexity trade-offs.
Nesting sensors inside the club head reduces structural complexity while maintaining measurement precision of swing characteristics.
Strategic crown and sole stress reducing features reduce peak face stress by 25% while increasing face deflection over 11%.
Segmented surface roughness and multi-pass milling reduce manufacturing dispersion while maintaining USGA compliance limits.
Magnesium hosel inserts reduce local mass to optimize weight distribution and swing weight.
Optimized shaft bending and precise mass distribution stabilize swing dynamics while increasing head speed.
Raised cap structures absorb steel shaft impacts, preventing soft elastomer rupture during repeated bag storage.
Segmenting the face back surface with a groove creates clearance at the peripheral edge, distributing CT values to enhance rebound performance.
A flexible panel attaches to a golf club head to generate aerodynamic drag, eliminating the need for heavy independent training tools.