A golf club head features a visually distinct hitting region boundary line created by angular offsets or surface finish differences on the peripheral region.
A golf club head flexure alters compliance to enhance energy transfer.
A golf club shifts shaft mass to the grip using a weight adjustment member.
Segmenting the hosel into a minimal component assembly reduces weight below 10 grams, shifting the center of gravity rearward to maximize moment of inertia.
A golf club head connecting part links the face back surface to the head body.
A putter head uses a detachable weight assembly to customize mass distribution.
A universal tip plug housing accepts standard plugs in both shaft ends.
Segmented counterweight blocks slide into a main shell sole and lock via screws, resolving the trade-off between structural strength and ease of adjustment.
A golf iron sole slot houses a weighted insert to adjust center of gravity, improving ball speed and backspin while managing device complexity.
Opposing sloped sidewalls on the putter grip enable square shoulder alignment for left- and right-handed golfers without mechanical adjustment.
Radial ribs channel impact loads across the crown, reducing maximum stress by 36% while maintaining lightweight stiffness.
A variable thickness striking wall with a thickened central region redistributes discretionary mass in iron-type golf club heads.
A multi-material golf club head face member combines a stiff striking surface with a flexible crown region to improve energy transfer.
A hollow golf club head distributes mass to optimize moment of inertia around an inclined axis for enhanced kinetic energy transfer.
Segmented apertures filled with distinct materials resolve the trade-off between structural strength and customizable acoustic feedback.
A hosel hole cover secures via rotational engagement to optimize the sole surface area.
A golf putting training apparatus uses horizontal and vertical components to maintain putter alignment during the swing.
A support extension creates a lower cavity in an iron club head, lowering the center of gravity to improve forgiveness.
Adjustable weight ports resolve the trade-off between precise center of gravity control and adaptability for different swing types.
A golf club faceplate with continuously variable wall thickness maximizes ball exit velocities through localized structural optimization.
Integrally formed weight ports in the sole accept removable inserts to customize swing weight, reducing side-spin from off-center hits.
Stiffening members extend through an elevated weight bar within a hollow cavity to reduce face stress.
A fluid-filled bladder inside a golf club head cavity adjusts mass position to correct swing flaws and improve ball flight accuracy.
Segmented hosel splines and screw fasteners allow consumer assembly, resolving the trade-off between customization and ease of operation.
Adjustable tension cable connects crown and sole sections to stiffen the striking face, reducing stress during impact without adding mass.
Concentrating mass at the butt end offsets increased swing weight from longer clubs, maintaining feel while boosting head speed.
Differentiating face groove depth and pitch by loft category stabilizes backspin consistency under diverse hitting conditions.
A golf club head deflection feature positions a voided insert behind the face to maximize energy transfer during impact.
A golf club shaft uses tip-end partial layers of low elastic carbon fiber to enhance impact strength while maintaining moderate rigidity.
Zoned surface roughness normalizes spin variability across impact positions, improving distance and accuracy.
A golf club head uses a polymeric insert and reversible weight to shift the center of gravity.
A sliding shaft mechanism adjusts golf club length within a hidden grip assembly, resolving the trade-off between adaptability and device complexity.
Segmented sole geometry relieves peak stress in the forward region, enabling reduced face thickness for improved energy transfer.
Discontinuous fiber composites in golf club heads enable strategic discretionary mass placement to optimize moment of inertia and center of gravity.
Ceramic golf iron face injection molding creates micro-edges on groove profiles to resolve manufacturing precision limits of conventional metals.
Segmented visual guide portions on a golf club head create a mental image of ball size relative to the hole.
Cap lip design collects excess adhesive within recesses to prevent visible leakage from the tuning port.
Redistributing weight portions along a D-shaped loop adjusts the center of gravity and moment of inertia, accommodating various golf swing types.
A putter head combines a segmented ball striking face body member with an exposed polymeric material to adjust weight and balance properties.
Curved support structures connect unsupported club head portions to improve impact acoustics.
Asymmetric thin parts on the face compensate for toe-down variations, maintaining consistent ball-hitting positions during off-center hits.
Segmented face thickness and internal void structures resolve the trade-off between structural strength and coefficient of restitution for improved ball speed.
A golf club head face member features a sole-side thin area that bends upon ball impact to enhance rebound performance.
Adjustable peripheral target stand corrects casting motion and maintains power angle, eliminating safety risks from real ball practice.
A reverse-tapered hosel hole secures a sleeve within a golf club shaft tip without screws.
Multilayer prepreg winding secures torsional rigidity in golf club shafts while reducing ply count and weight.
Contrasting color lines on the club face improve measurement precision for ball-to-hole alignment without increasing structural complexity.
A golf club head uses a sleeve and screw to connect the shaft, providing precise rotational regulation.
Adjusting static loft and shaft length across iron clubs produces consistent ground roll distances, resolving unpredictable shot control.