Golf Balls TRIZ Cases

Dual radius dimples decouple depth from volume, reducing drag and increasing carry distance while maintaining symmetry.

A golf ball substrate uses a catalytic coating to deposit a metallic film, creating strong chemical bonds between the metal and polymer layers.

Metallic acrylate cured epoxy layers balance hardness and softness to improve spin control without sacrificing impact durability.

Graphene reinforcement in polymer mantles increases mean time to fail under impact while maintaining compression retention.

Primary dimples with annular tubular portions partition the surface area to reduce air resistance while maintaining spherical symmetry for compliant flight.

A golf ball cover uses a polyurethane or polyurea resin blended with styrenic material to manage spin rates.

Linear-edged dimples on a geodesic polyhedron surface reduce excessive lift force, extending flight distance for weak players.

A three-layer golf ball cover uses a non-ionomeric intermediate layer to resolve manufacturing cost trade-offs while maintaining performance.

Segmenting the core into a foam inner layer and thermoset outer shell prevents thermal degradation of the foam during manufacturing.

Polymerized substituted imidazolium liquid ionomer disperses fillers in golf ball cores, preventing aggregation that compromises resiliency.

Multi-level retractable pins evacuate trapped air to prevent surface defects on thermoplastic polyurethane covers.

A curved flying knife cross-sections extrudate into concave preforms that match cup-shaped half-shell contours.

Peripheral portions matching dimple contours disturb incoming air flow to reduce resistance, addressing suboptimal flight distance caused by uneven airflow.

Multi-layer golf ball design with specific hardness ratios suppresses excessive spin on middle iron shots to increase flight distance.

Radial channels in golf ball dimples alter air flow patterns to delay separation, reducing pressure drag while maintaining manufacturing simplicity.

Curved contour connecting parts guide airflow to balance lift and drag, improving carry distance under low spin conditions.

Surface roughness on the outermost layer shifts air separation points rearward, reducing drag and preventing pop-up during middle iron shots.

Irregular polyhedral domains tessellate across a golf ball surface to create uniform dimple arrangements.

A multi-layer golf ball design featuring a hard intermediate layer between a soft center and flexible outer cover.

A golf ball core uses a water vapor barrier layer to achieve uniform hardness distribution during heat molding.

A polyurea composition formed from modified Jeffamine aminocrotonates improves mechanical properties for golf ball layers.

Graded layer hardness reduces driver spin and increases approach shot spin for better distance and control.

Segmented core layers with controlled hardness balance rebound and spin, resolving the trade-off between distance and feel on impact.

Segmented multi-layer core golf ball combines thermoset rubber and neutralized polymers to improve spin rate while managing manufacturing precision constraints.

A six-piece golf ball design uses layered mantle structures to balance spin characteristics across different shot types.

Plasticized thermoplastic cores resolve the durability versus feel trade-off by combining ionomer toughness with elastomer softness.

Through holes in the inner core allow outer material flow to maintain concentricity and prevent shifting.

Asymmetric hemisphere dimples counterbalance the equatorial parting line to restore flight symmetry and consistent performance.

Low frequency periodic functions define non-circular dimple plan shapes to enhance packing efficiency and resolve aerodynamic trade-offs.

Multi-layer core golf ball with thermoset and thermoplastic layers achieves a positive hardness gradient to improve durability.

Mixing a graphene masterbatch with polybutadiene eliminates solvent use and ultrasonication, ensuring uniform dispersion while preserving compression retention.

Bessel function modes define golf ball dimple surfaces, creating turbulent boundary layers that reduce aerodynamic drag.

High molecular weight polysiloxane prevents surface migration to maintain paint adhesion and UV properties in TPU golf ball covers.

Asymmetric irregular domains tessellate to optimize turbulence generation and resolve the trade-off between aerodynamic efficiency and symmetry.

Pyramid-based dimple patterns with dissimilar segment parameters resolve flight accuracy issues caused by symmetrical designs.

Incorporating graphene into the polybutadiene core improves compression retention and mean time to fail under repeated impact.

Asymmetric hemispherical cups with tapered walls enable concentric compression molding of large soft golf ball cores.

A dual-core construction combines a dense rubber center for rebound velocity with a soft polyurethane foam shell to improve shot accuracy.

A golf ball rubber composition uses a co-crosslinking agent to achieve optimal crosslinking density.

Segmenting the cover into distinct material layers resolves the trade-off between solid construction manufacturing complexity and wound ball spin performance.

A golf ball with a metal-filled inner core and thermoplastic outer layer creates distinct hardness gradients to control spin and resiliency.

A dual-core golf ball uses a polybutadiene rubber and ionomer resin blend to enhance resiliency and durability.

Segmented layer velocity profiles in a multi-piece golf ball resolve the trade-off between driving distance and approach shot controllability.

A golf ball resin composition incorporating metal ion-neutralized binary copolymers to enhance material properties.