Golf Balls TRIZ Cases

A golf ball fitting analysis system calculates composite fit values by correlating golfer inputs with pre-profiled ball data for precise recommendations.

Hardened polybutadiene rubber in core grooves reduces spin rate without lowering ball rebound, increasing driver shot distance.

A golf ball with a foam inner core and thermoset outer layer balances specific gravity and hardness gradients to enhance resiliency.

A five-layer golf ball structure with graded hardness reduces driver spin rates while maintaining straight trajectory.

Segmenting the core with a plasticized polyester elastomer outer layer balances high initial velocity from the inner rubber with enhanced spin control.

Thermoplastic inner core and thermoset outer core layer create distinct hardness gradients for customized golf ball performance.

Replacing polyurethane foam with silicone elastomer prevents thermal degradation during molding, preserving core stiffness and durability.

A multi-piece golf ball uses distinct highly neutralized resin layers to control spin rate while maintaining a soft feel at impact.

A golf ball stamp uses a flat elastic rubber plate to transfer ink onto curved surfaces.

Distinct primary indicia on a golf ball guide alignment and force application, resolving the trade-off between putting accuracy and visual complexity.

Non-circular dimples bridge circular patterns via recessed lands, increasing coverage beyond 75% limits to reduce drag and extend flight distance.

A golf ball cover uses a polyurea and aromatic vinyl elastomer blend to enhance controllability.

Dispersing ultra-high molecular weight polyethylene powder into a polyurea intermediate layer for multi-layered golf balls.

Segmenting dimple surfaces with concentric grooves balances visual distinctiveness against aerodynamic performance by maintaining turbulent boundary layers.

Thermoplastic inner core and thermoset outer core create a positive hardness gradient for tailored compression.

Axially symmetric modified dimples counteract equatorial asymmetry for consistent flight.

A golf ball resin composition with controlled bending stiffness and rebound resilience enhances flight performance.

Low frequency periodic dimple shapes improve aerodynamic performance by reducing drag and enhancing turbulence management while increasing surface coverage.

A thermoplastic golf ball core uses a plasticizer solution to create a negative hardness gradient from the outer surface to the geometric center.

Segmented core and cover layers with controlled hardness increase initial ball speed while reducing spin.

Segmented core layers optimize hardness gradients to improve performance while managing manufacturing precision constraints.

Logo depressions inset into the golf ball cover enhance air flow characteristics, resolving aerodynamic optimization while maintaining spherical symmetry.

Metal-containing inner core raises specific gravity for spin control while outer layer maintains weight compliance.

Tetrazine rubber composition joins core layers directly, eliminating bonding equipment while maintaining uniform shape and high rebound.

Dispersing discrete crosslinked rubber particles in a thermoplastic matrix resolves the contradiction between rebound performance and manufacturing complexity.

Styrene ionomers optimize hardness and durability in golf ball covers without sacrificing processability or increasing brittleness.

A golf ball dimple profile combines a conical top portion with a polynomial bottom section to define independent edge angle and chord depth parameters.

A multi-layer golf ball core uses thermoset and thermoplastic materials to create specific hardness gradients.

A colored golf ball uses a fluorescent dye in its surface paint layer to enhance visibility while maintaining an elegant appearance.

A thermoplastic polyester elastomer core layer uses high molecular weight polyol to boost rebound resilience.

A golf ball core with a negative hardness gradient enhances resiliency and distance.

Segmented core and cover layers with controlled thickness differentials reduce spin rates and enhance durability for low head speed impacts.

Non-circular dimple shapes defined by superposed curves resolve packing efficiency limits to reduce drag and enhance lift.

Replacing circular arcs with cycloid curves simplifies dimple characteristic determination, resolving optimization complexity to improve aerodynamic stability.

A four-piece golf ball design uses distinct mantle hardness ranges to optimize coefficient of restitution and shot feel.

Neutralizing acid groups via ion exchange creates a hardness gradient in the core, resolving the trade-off between low compression and impact durability.

A multi-layer golf ball design optimizes coefficient of restitution and compressive deformation across incident velocities to balance distance and impact feel.

Polyurethane urea elastomer composition eliminates plasticizer migration to prevent hardness increase and injury risk in lacrosse balls.

A multi-layered golf ball core combines a foamed inner center with non-foamed thermoset rubber layers to improve resiliency.

An epoxy adhesive layer with controlled gel fraction prevents breakage between mid layer and cover.

Strategic alignment of nested layers with varying translucency and opacity generates complex color appearances that enhance golfer hand-eye coordination.

Axially symmetric modified dimple groups compensate for molding parting lines to ensure consistent flight performance.

Segmented dual-core and multi-layer cover design resolves coefficient of restitution versus hardness trade-off for enhanced durability.

An ultralight aerogel composite core resolves the resilience versus durability trade-off in traditional rubber cores while extending flight distance.

A golf ball with specific dimple volume and methacrylic acid core composition reduces maximum flight height on driver shots.

A golf ball core rubber composition uses a specific co-crosslinking agent and organic peroxide ratio to create a hardness gradient.