Golf Balls TRIZ Cases

A golf ball antenna layer uses conductive materials with fluidity to absorb impact forces and maintain structural integrity.

A golf ball with a highly neutralized intermediate layer and specific cover hardness maintains rebound.

Segmented envelope layers with controlled hardness gradients balance flight performance and impact feel for low head speed golfers.

Thermoplastic polyurethane ionomer compositions form golf ball layers using sulfonate polyols and quaternary ammonium counterions.

An automated alignment system uses photonic sensors and motors to position a marked golf ball, reducing manual aiming time.

High oil polybutadiene rubber lowers golf ball compression and velocity while maintaining processing ease.

Segmenting the outer layers with specific hardness ratios resolves the trade-off between driver distance and short iron control.

Segmented core layers resolve the contradiction between high initial velocity and soft impact feel, enabling better distance for amateur players.

Combining polyurethane with styrene resin creates a cover material that maintains scuff resistance while improving controllability on approach shots.

Distinct hue zones on dimples and lands prevent player confusion while maintaining cover durability.

Polyurethane foam inner core incorporates nanoclay particles to improve mechanical strength and resiliency.

A golf ball core with a hardness gradient reduces spin rate on driver shots, extending flight distance through local quality variation.

A multi-layer golf ball core uses a thermoplastic intermediate layer between thermoset rubber layers to balance compression and durability.

A golf ball core material uses zinc methacrylate and zinc oxide in a rubber composition to achieve high durability and resilience.

Non-uniform core hardness balances soft feel with durability to cracking, solving the trade-off between impact comfort and structural reliability.

A two-cycle compression molding process shapes concave shells and cures a solid core using controlled temperature and pressure.

A golf ball paint layer uses polyurethane and silicone compounds to create a water-repellent surface with high contact angles.

Segmenting the core with a softer polyamide outer layer resolves the trade-off between initial velocity and feel.

A golf ball cover resin composition combines polyurethane with specific elastomers to enhance controllability and scuff resistance.

Segmented hardness in the outer core reduces injury risk during indoor practice while maintaining driving distance.

Carbon nanotubes separate graphene layers in a polybutadiene matrix, preventing agglomeration while increasing mean time to fail under repeated impact.

A multi-layer golf ball core uses a hardness gradient to replace the casing layer.

A replaceable striking pad protects the club head from impact damage and abrasion while allowing consistent ball contact on hard surfaces.

Segmented cores with opposing hardness gradients overcome crosslinked structure limits to enable varied compression and spin characteristics.

Tessellating irregular polyhedral domains packs dimples uniformly across the golf ball surface, resolving poor coverage and minimizing visible parting lines.

A golf ball resin composition uses saturated and unsaturated fatty acids to tune mechanical properties.

Square dipyramid dimple pattern arranges varying diameters across triangular sections to achieve high surface coverage while maintaining aerodynamic symmetry.

Specific Shore C hardness gradients in the core reduce spin rate on full shots while maintaining short game controllability.

A thermoplastic resin composition incorporates a fluorene skeleton compound to enhance melt flow rate and injection moldability.

Specific gravity below 1.0 g/cc reduces actual flight distance while aerodynamic coefficients maintain the perceived trajectory of standard high CoR balls.

A golf ball cover layer combines ionomer resin with polyrotaxane to balance shot feeling and resilience.

Intercalated clay nanocomposite in polyolefin covers resolves durability versus control trade-offs while eliminating separate barrier layers.

Directional dimple texturing reduces drag below 0.27 and lift above 0.24, resolving the trade-off between low Reynolds number efficiency and flight symmetry.

Roughness on the outermost coating layer suppresses pop-up by shifting separation points, extending flight distance.

Tessellating irregular polyhedron domains onto the surface minimizes parting line visibility while preserving high-order rotational symmetry.

A golf ball core with a hardness gradient from center to envelope layer enhances resilience and flight distance by suppressing spin during driver impact.

A polyurethane golf ball cover uses specific shear loss modulus and hardness distribution to enhance spin rates on approach shots.

A golf ball and tee setting device uses trigger-operated arms to engage and place equipment from a standing position.

A golf ball cover uses a controlled blend of highly neutralized acid polymers to ensure material uniformity.

An intermediate core layer blends functionalized nanostructures with conductive nanoshelled structures to improve durability against club face impact.

A golf ball cover blends cyclic olefin polymers with ionomers to balance high coefficient of restitution against improved processability.

A thermoplastic resin composition incorporating a fluorene skeleton compound enhances melt flow rate for golf ball covers.

Multi-layer golf ball core features polygonal lands and orthogonal annular grooves to expand surface area.

Segmented core and envelope layers with specific hardness gradients resolve performance trade-offs between high and low head-speed impact deformation.

Opposing hardness gradients in the inner and outer core layers resolve the trade-off between manufacturing simplicity and versatile performance options.

A polyurethane-acrylic resin composition enhances golf ball performance by adjusting material hardness and rebound resilience.