Golf Balls TRIZ Cases

Segmenting the core into hard ionomer and soft polyamide layers balances initial velocity against harsh feel to improve spin control.

Hardened equatorial cover regions reduce driver spin rates while polar softness preserves approach shot control.

Segmented layers with optimized specific gravity balance high initial velocity against soft impact feel for professional play.

Optimized core compression and dimple volume balance spin rates with kinetic energy retention for improved controllability.

A multi-layer golf ball uses interrelated volume and percent neutralization ratios across ionomeric layers to achieve unique playing characteristics.

Plasma reformed nano bismuth in the polybutadiene core densifies the structure to improve carry distance while maintaining fracture strength.

A cycloalkene rubber ionomer resin polyamide blend provides a hardness gradient that balances scuff resistance with a soft feel.

Tessellating irregular polyhedral domains minimizes parting line visibility while maintaining aerodynamic symmetry.

Segmenting the core into foam and solid layers optimizes mass distribution to balance flight distance against spin control.

A golf ball core uses metal salt hydration water to improve rubber workability and kneadability during molding.

Stellated polygon dimples and coordinated color grooves create a unique visual appearance on the golf ball surface.

A golf ball with a partial mid layer between core and cover provides customizable impact feel.

A golf ball core uses a thermoplastic inner layer and a thermoset outer layer to establish distinct hardness gradients across the structure.

A multilayer golf ball uses a hardness gradient across its core and covers to optimize spin control.

A golf ball resin composition uses binary and ternary copolymers with fatty acid salts to enable injection molding.

Thermoplastic inner core paired with thermoset outer core delivers enhanced carry distance and feel while maintaining durability.

Segmented core and cover layers resolve the contradiction between distance reduction and soft impact feel by controlling deflection under load.

A two-piece golf ball combines a high-deformation core with a thin cover to deliver soft impact feel.

Multi-diameter dimples disturb air flow to generate turbulence, resolving the trade-off between high occupation ratio and controlled diameter variation.

Targeted asymmetric dimple patterns compensate for equatorial parting lines to ensure consistent flight performance regardless of orientation.

A golf ball core uses a fatty acid metal salt co-crosslinking agent to modify rubber composition resilience.

Segmenting a single layer core into distinct hardness zones resolves the trade-off between control and distance while simplifying manufacturing.

A golf swing training device uses a low-density, resiliently deformable ball that decelerates via air resistance for safe, accurate practice.

Conical-spherical dimples resolve manufacturing complexity by allowing independent control of edge angle and depth for improved aerodynamic performance.

Segmented layers with specific hardness profiles reduce driver spin rates while maintaining scuff resistance on the polyurethane cover.

Segmented dual core structure resolves thermoset crosslinking limits by combining thermoplastic gradient control with thermoset strength.

A multilayer golf ball design with controlled specific gravity standard deviation and cover hardness.

Vertex-connected land parts maintain uniform gaps between high-density dimples, reducing air resistance and increasing flight distance.

Interrelated volume and neutralization ratios in ionomeric layers resolve the hardness trade-off while maintaining impact resistance.

A coating-free golf ball cover uses an ionomer matrix with embedded additives to maintain surface properties.

A multi-piece golf ball with a rubber core and polyurethane intermediate layer uses specific hardness profiles to optimize flight performance.

Three parallel colored lines on a golf ball surface enable precise visual alignment of the club head, resolving accuracy trade-offs in putting mechanics.

A thin ionomer moisture vapor barrier layer protects golf ball cores from humidity absorption.

Toroid-sphere intersection defines dimple geometry to resolve the trade-off between complex manufacturing and superior flight performance.

A golf ball core uses organic peroxide thermal decomposition to create a controlled foamed region within the rubber composition.

Controlled crosslinking in the outermost thermoplastic polyurethane layer resolves the trade-off between scuff resistance and injection molding productivity.

Non-circular dimple plan shapes defined by periodic functions enhance packing efficiency and resolve aerodynamic optimization limits of circular patterns.

Segmented layers with specific hardness ratios resolve the trade-off between low spin rates on full shots and soft impact feel for amateur golfers.

A golf ball core uses zinc salts of unsaturated carboxylic acids to optimize hardness distribution, reducing driver spin rate while maintaining resilience.

Optimizing the core hardness profile from center to surface lowers spin rates and enhances scuff resistance for amateur golfers.

Segmenting the golf ball into distinct layers resolves the contradiction between high spin rates on approach shots and flight distance on driver shots.

Nitrogen-based heteroaryl peptizers modify unsaturated polymer compositions to control PGA compression and Shore D hardness in golf ball cores.

Segmenting the core and cover resolves the feel versus durability trade-off for low swing speeds.

Dual-layer core structure balances weight reduction against resiliency loss to maximize initial ball speed.

Optimizing core hardness profiles and layer thicknesses in multi-piece golf balls to enhance initial velocity and impact feel.