Golf Clubs TRIZ Cases

An angled training wedge forces a steeper angle of attack by acting as a physical barrier, correcting improper chipping techniques like scooping.

Tungsten and polymer ports in a golf club head optimize center of gravity and moment of inertia to increase launch angle and reduce spin rate.

Keel-shaped sole rails control turf interaction while preserving discretionary mass and center of gravity positioning.

Modular adjustment members enable independent loft and face angle changes without altering center of gravity, reducing inventory complexity.

Nested shaft segments slide within each other to adjust length, resolving the trade-off between adaptability and structural complexity.

Segmented tungsten and steel weights optimize center of gravity and moment of inertia, reducing spin rates while elastic polymers dampen vibrations.

A modular hosel design with a through-head insert enables adjustable weight distribution in golf putter heads.

A golf club hosel insert with a shaft sleeve coupler set restricts rotation while enabling adjustable loft and lie angles.

Arcuate surfaces in the coupling mechanism constrain shaft rotation to minimize mass and aerodynamic drag during lie and loft angle adjustments.

Segmented sole sections reduce rotation moments to stabilize the club, preserving design freedom for weight distribution.

Segmenting the putter head into a main body and a removable aft member increases moment of inertia without adding overall weight.

Adjustable weight ports in a hollow golf club body shift the center of gravity to match specific swing styles.

Toe-side and heel-side reduced-rigidity portions on the face periphery allow large flexure while maintaining structural integrity.

Optimized concave geometry enables accurate sand filling during lost-wax casting, reducing flange thickness and lowering the center of gravity.

A golf club sole features a ridgeline with varying trailing surface inclination angles to concentrate ground resistance.

Segmented face regions and a cambered channel increase strike face deflection to boost ball speed while maintaining structural integrity against impact stress.

A magnesium striking surface insert absorbs vibration energy while tungsten weighting material maintains the clubhead mass, resolving flammability risks.

Segmented titanium face and steel rear portion resolve weight inertia tradeoffs by concentrating mass where needed.

Segmented hosel adapters provide precise lie angle customization without compromising structural strength or increasing inventory complexity.

Segmented construction replaces fixed multi-material designs, enabling customization of physical attributes to match individual golfer swing traits.

Segmenting the heat treatment process creates a peak aged striking face for hardness and an over aged body for compliance, resolving performance trade-offs.

Distinct fine groove orientations on a golf club head face improve water drainage and maintain spin rates in wet conditions.

Counterweights in the hollow encasing stabilize the club during swings, resolving balance issues that reduce precision.

An integrated tungsten weight member lowers the center of gravity while increasing moment of inertia to improve directional stability.

Graded sole curvature radii suppress flexure to resolve the trade-off between rigidity and head sitting stability.

A golf club head crown features a grid-form rib structure with additional heel-side ribs to manage internal stress and vibration.

Stackable keyed spacers and a bolted cap adjust golf club shaft length, eliminating damage to the original shaft and grip.

Segmented weight assemblies optimize moment of inertia while minimizing backspin through localized mass distribution in forward and rearward positions.

Segmenting the face plate support creates a gap that promotes deflection for improved rebound performance.

Optimizing face line radius between 0.01 and 0.10 mm with a 40 to 70 degree angle resolves the trade-off between spin performance and ball damage.

A golf club head uses a weighted insert and locking mechanism to adjust the center of gravity position within the cavity.

Adjustable golf club head weighting system secures weights via locating features and notches.

A golf club head uses a convexo-concave wall structure to reduce mass while maintaining structural rigidity.

A fairway wood club head uses a variable thickness striking face and keeled sole to resolve consistency trade-offs by optimizing weight distribution.

Oblique cantle sleeve cradles the hypothenar to eliminate ulnar nerve compression from perpendicular knobs.

Segmented face geometry with rounded edges and precise fine grooves suppresses back spin variation at different striking points.

A double-walled striking face uses a sliding inner wall to increase ball speed, resolving the contradiction between structural stability and dynamic deflection.

Segmented sole geometry with specific radii maintains loft and club head speed through rough conditions.

Segmented shaft sleeves and nested spacers customize club lengths to resolve inconsistent distance gapping between hybrids and irons.

Reverse camber soles increase energy transfer efficiency while maintaining the address position, resolving traditional outward camber trade-offs.

Segmented density sections in an iron golf club head optimize weight distribution for improved off-center hit forgiveness and ball speed.

A multi-material golf club head uses an internal ribbon support member to connect weights directly to a metallic frontal portion.

Internal weighted plugs in a hollow shaft adjust mass distribution without harming aerodynamics or bending properties.

Slidable weights on rails adjust the center of gravity in a golf club head, resolving complexity and aesthetic trade-offs.

A golf club head incorporates a recessed crown region to boost moment of inertia, avoiding undesirable acoustic characteristics from non-traditional shapes.

A golf club head features a polymeric intermediary sandwiched layer juxtaposed between the striking face and an internal support layer.