Solid Balls TRIZ Cases

Ash residue from combusted golf ball waste supplies metal compounds for new components, reducing raw material demand while improving bonding and weight consistency.

Dynamic diene-dienophile crosslinks improve golf ball layer adhesion and shear durability while allowing thermo-reversible recycling.

A terpene resin, EPDM rubber, and a water releasing agent create a hard-to-soft golf ball core that cuts spin while resisting impact cracks.

Perpendicular X-ray imaging and edge detection measure multi-layer golf ball concentricity accurately without rotation distortion or parallax.

An internal lattice of struts and hubs spreads impact stress and reinforces hole areas, helping hollow pickleballs resist cracking and last longer.

A radially graded core hardness profile balances low full-shot spin, short-game control, and repeated-impact durability in a golf ball.

Automated shuttles route and orient golf balls across printing and offloading stations to handle varied markings at high throughput.

A club-mounted light excites a phosphorescent surface to show swing path and ball contact, then fades quickly for clear repeat strokes.

A multi-part golf ball marking combines branding and alignment cues to guide putter face setup, improve putting accuracy, and preserve visual appeal.

A softer center and harder outer core tune golf ball spin and control while reducing shot dispersion across player skill levels.

A two-TPE golf ball cover blend improves shear durability and resilience while preserving the processability of thermoplastic polyurethane.

A dual-material inner marking lets radar-tracked golf balls stay visually unchanged while enabling x-ray verification and automated sorting.

A recessed elastic grip ring improves finger friction during bowl release while avoiding contact interference with other bowls.

A perimeter-wrapped sighting aid improves golf ball alignment while maintaining durability and compliance with Rules of Golf.

Converging line segments on the ball guide putter alignment and distance estimation, helping golfers reduce putting direction errors.

Polyaziridine crosslinking bonds carboxyl casing and nucleophile cover layers to resist shear-driven delamination in multi-layer golf balls.

A silica-polyurethane delusterant blend in a two-part urethane coating keeps a matte finish while preserving friction for approach shot spin.

A graded core, tuned cover modulus, and resilient paint film balance driver distance with approach spin while improving wear and bunker stain resistance.

Thermo-reversible Diels-Alder crosslinks improve golf ball layer adhesion and shear durability while enabling recyclability and lower-cost manufacturing.

Impact-responsive color-shift material in a golf ball cover or coating reveals strike location against an alignment mark for immediate swing feedback.

Interconnected shuttle tracks route golf balls through orienting, printing, and offloading stations to raise throughput without manual handling delays.

A sound-dampening outer layer surrounds a hollow plastic pickleball to reduce paddle-impact noise while preserving gameplay performance.

Vanadium dioxide nanoparticles in golf ball polymer layers screen UV light while preserving visible transmission, durability, and play characteristics.

Flexure-shaped lattices help golf club faceplates store impact energy through linear and torsional bending for higher ball speed.

Specific core compositions create a 5–40 Shore A hardness gradient to tailor spin, compression, and feel for different players.

Low polyurethane cover flowability complicates molding; olefin acid copolymers improve moldability while preserving abrasion resistance.

Infrared curing creates a harder golf ball core skin than center, supporting lower driver spin while retaining impact durability.

A blend of two thermoplastic elastomers improves golf ball layer shear durability and resilience while retaining TPU processability.

Contrasting cover colors and seams improve visibility while giving golfers clearer putting alignment and roll feedback.

Controlled hardening, water release, and complexing tailor the core gradient for reduced spin, consistent control, and improved feel.

Material removal replaces pad printing to improve alignment and durability for elongated golf ball markings.

A raised-texture sphere uses paired curved bumps to increase drag and friction, producing larger breaking-ball flight changes.

Segmented characters around the golf ball perimeter use wrap and surface coverage equations for durable alignment.

Blending ionomers with thermoplastic polyurethane and ABS polymers yields high mechanical strength and scuff resistance without additional coating layers.

Distinct color regions on a fluorescent golf ball improve orientation detection by creating high visual contrast against adverse weather backgrounds.

Diphenylamine additive modifies polybutadiene crosslinking to enhance resilience and hardness in golf ball cores.

A golf ball cover uses fluorescent pigment with a cumulative median size of 2.5 μm or more to reduce surface area per unit volume.

A lacrosse training ball uses a sand and rubber pellet filler to absorb impact energy through deformation.

A single layer golf ball core creates a positive hardness gradient from center to surface, eliminating lamination costs while improving green control.

Fatty acid salts plasticize the polymer network to lower core surface hardness while maintaining a rigid center.

A vinyl halide polymer film combines barium sulfate and calcium carbonate fillers to enhance flexibility, density, and thermal stability.

Ionomer resin composition blends polyethylene and organic peroxide to resolve durability resilience trade-offs.

A golf ball design balances core hardness differences with dimple volume constraints to control aerodynamic forces.

A polyamide resin composition with white pigment and inorganic fillers provides high surface reflectance.

Cyanostar macrocycles isolate fluorescent dyes in a small-molecule ionic lattice, preventing fluorescence quenching while maintaining brightness and durability.

Incorporating ferrous powder into the golf ball core enables magnetic retrieval from hazards, reducing time loss while maintaining USGA compliance.

Integrated brush device maintains ink moisture within a golf ball scriber, preventing premature drying and misplacement of the marking tool.

A golf ball core composition uses a water releasing agent to create a tailored hardness gradient, resolving spin rate versus feel trade-offs.

Crosslinked fluorescent microspheres replace migratory stabilizers in golf ball layers, preventing UV degradation while maintaining hue consistency.

A multi-piece golf ball employs a core hardness gradient and layered structure to lower driver spin rates while maintaining durability against cracking.

A golf ball core with a radial hardness gradient reduces maximum flight height on iron shots, limiting wind susceptibility and improving shot precision.

Syndiotactic polybutadiene rubber with alpha,beta-unsaturated carboxylic acid co-crosslinking agents maintains low rebound across temperature variations.