Elegant Sunflower Pearl Necklace 3D Model

Description

Bring the brilliance of summer into your next jewelry masterpiece with this Sunflower Pearl Necklace 3D model — where classic floral elegance meets precise digital craftsmanship.

Inspired by the radiant geometry of sunflowers, this pendant design captures the timeless harmony of pearls and diamonds. At the heart sits a 10.5mm natural pearl, surrounded by 51 round brilliant-cut diamonds totaling 0.78ct. Each diamond petal is delicately prong-set to form a layered bloom that radiates from the center with luxurious symmetry.

With a diameter of 23.06mm and thickness of 11.55mm, this design features a two-tier floral halo—an inner circle of petite petals embraced by a larger outer layer, giving your creation a sculptural sense of depth and refinement. The model includes JCD, 3DM, and STL formats, ensuring compatibility with professional jewelry CAD workflows.

Perfect for jewelers who want to create fine pendants or centerpiece necklaces that embody elegance and light, this model streamlines your design process while maintaining artisan-grade precision.

✨ Key Features

• Design Style: Sunflower-inspired floral halo with pearl core

• Dimensions: 23.06mm diameter × 11.55mm thickness × 24.24mm height

• Center Gem: 10.5mm pearl

• Diamonds: 51 round brilliant-cut stones, total weight 0.78ct

• Formats Included: JCD / 3DM / STL

• Ideal For: Necklace pendants, bridal jewelry, luxury collections

Designing intricate floral jewelry takes countless hours of modeling and refinement—time that could be spent creating your next collection or client presentation.

Every curve, every petal, every gemstone seat demands perfection. Rebuilding these elements manually not only slows production but risks inconsistency between pieces.

With this Sunflower Pearl Necklace 3D jewelry model, you can start from a flawless digital foundation. Designed with exact proportions, gemstone mapping, and ready-to-render detail, it lets you focus on what matters most—crafting beauty, not battling complexity.