Golf Balls TRIZ Cases

Composite outer cover layer with fluorescent pigments and controlled titanium oxide maintains color vibrancy while preventing UV-induced discoloration.

Square dipyramid segmentation divides the surface into triangular sections with varied dimples, resolving symmetry versus coverage trade-offs.

Three-piece golf ball design with thermoplastic polyurethane cover and lanthanide catalyzed core.

Layered hardness profiles in a multi-piece golf ball suppress approach spin while maintaining driver distance.

Star-like dimple design with sloped floors generates counter-rotating vortices to enhance boundary layer turbulence.

A golf ball core establishes a controlled crosslinking density gradient between its surface and center, balancing durability with shot feel.

A multi-layer core golf ball uses a thermoplastic intermediate layer between thermoset rubber sections to enhance performance characteristics.

An intermediate layer blends polyamides with functional polymer modifiers to achieve high coefficient of restitution while preserving a soft shot feel.

Regional depth constraints in dimple profiles lower air resistance to extend carry distance.

A multi-layer golf ball design using interdependent volume and neutralization ratios across ionomeric layers to balance hardness and resilience.

Metal-particle inner core with ribbed outer surface fills gaps in the outer layer to create a hardness gradient.

Low frequency periodic functions define dimple perimeters to enhance packing efficiency and aerodynamic performance.

A golf ball casing layer blends high acid ionomer with grafted metallocene copolymer to create a flexible structural component.

A golf ball core with two distinct hardness regions reduces driver spin while maintaining short iron control.

A dual-core golf ball uses a plasticized thermoplastic outer layer over a foam or metal inner core to balance resiliency and feel.

Multi-faceted polygon dimples create protrusions that trip the boundary layer for turbulent flow.

Supercritical carbon dioxide expands the polymer matrix while leaching soluble powder removes internal voids, eliminating complex temperature control.

A golf ball core uses a water-releasing agent to establish a positive hardness gradient.

A golf ball uses a rubber elastic paint layer to increase friction with the club face.

Modified dimple patterns establish axial symmetry to eliminate inconsistent flight caused by equatorial parting lines.

Specific layer hardness relationships resolve the contradiction between flight reliability for high-speed players and deformation feel for low-speed golfers.

A golf ball core rubber composition utilizes a thioether antioxidant to establish a crosslinking density gradient.

A golf ball integrates an RFID tag with a high-hardness protection layer and a thermoplastic relaxation layer to shield the chip.

A golf ball core uses controlled crosslink density differences between surface and center to maintain rebound performance.

Embedding dyes via diffusion resolves uneven coloration and thermal degradation while eliminating expensive dispersing agents.

Differentiated coatings on dimple and land areas optimize spin rates and distance while resisting stains.

A multi-layer core golf ball combines thermoset and thermoplastic layers to balance low compression with high coefficient of restitution.

A golf ball dual core structure uses negative and positive hardness gradients to control resilience and feel.

A golf ball resin composition combines thermoplastic resins with specific copolymers to enhance structural resilience.

A dual-core golf ball combines a polyamide outer layer with an ionomer inner core to balance hardness and flexibility.

A rubber composition for golf ball cores uses specific co-crosslinking agents and lower alcohols to create a distinct hardness gradient within the core structure.

Segmented foam cores with hardness gradients resolve impact absorption versus rebound trade-offs for longer shots.

A golf ball core uses a cure-altering material coating on a polybutadiene preform to create a negative hardness gradient.

Silane groups on polybutadiene chains interact with inorganic particles to prevent agglomeration, enhancing modulus and hardness.

A golf ball cover uses a specific ionomer resin composition to achieve softness and moldability.

A mechanically hybridized golf ball layer uses interconnecting pores filled by a second composition to bond incompatible materials.

Segmented inner and outer core layers resolve the trade-off between spin control and initial velocity, increasing full-shot distance.

Thermoplastic composition with neutralized acid moieties and crosslinked elastomer lowers sound frequency while maintaining compression resilience.

Digital audio files simulate golf ball impact sounds, resolving subjective feel mismatches during selection.

Ultrasonic welding fuses molded golf ball half-shells to create uniform layers, resolving core shifting issues in injection molding.

Tessellating irregular polyhedral domains masks parting lines and resolves the trade-off between manufacturing precision and aerodynamic efficiency.

Segmented layers with optimized hardness resolve the trade-off between driver distance and short-game spin rate.

Segmenting the core into layers with varying hardness resolves the trade-off between durability and spin rate, enhancing playability for recreational users.

Oval dimples with controlled aspect ratios and cross-sectional areas resolve isotropy trade-offs to extend flight distance.