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Kumiko Inspired Planter - Precision, Beauty, Function
Pot Diameter Opening
ColorBeige

Elevate your plant display with this Kumiko-Inspired 3D Printed Planter, where traditional craftsmanship meets modern design. This two-part planter features an intricately patterned outer pot and a functional inner pot with Kumiko-style drainage holes, seamlessly blending aesthetic elegance with smart functionality.

Crafted from eco-friendly PLA, the inner planter ensures optimal root health with precision-cut drainage holes that echo the iconic Kumiko patterns. Excess water flows into a small, recessed reservoir in the outer pot, keeping your plants well-drained while maintaining a clean, sculptural look.

Inspired by Kumiko, the centuries-old Japanese woodworking art, this piece celebrates geometry, patience, and harmony with nature. The delicate lattice pattern not only adds a refined, timeless touch but also honors the craftsmanship and philosophy behind this revered technique.

Product Highlights:

  • Two-piece design: outer decorative Kumiko pot & functional inner pot
  • Kumiko-pattern drainage holes allow water to drain cleanly into base recess
  • 3D printed with sustainable PLA filament
  • Designed to balance beauty, structure, and plant wellness
  • Ideal for orchids, tropical plants, or as a standout decorative piece

Infuse your space with precision-crafted tranquility—where tradition, innovation, and nature come together in one exquisite planter.

Please note: Plants are not included. This planter is intended for indoor use only.

Made in the USA.

Material: This planter is made from eco-friendly PLA (Polylactic Acid)—a biodegradable thermoplastic derived from renewable resources like corn starch and sugarcane. It’s environmentally conscious and compostable under the right conditions.

Color Options: Actual color may vary slightly due to screen settings and lighting. Each piece is made to order, and multicolor, dual-color, tri-color, and rainbow filament prints will vary in appearance based on filament positioning. Gradient effects will appear more pronounced on larger models.

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