The Textured Totem of Growth.
Organic, tactile, and surprisingly soft in appearance, Harvest is a 3D-printed planter that challenges the rigid reputation of digital fabrication. The NANGS studio has engineered a complex "woven-path" geometry that perfectly simulates the heavy, interlaced fibers of a traditional burlap sack. Featuring realistic cinched pleats and a weighted "slumped" base, it brings a warm, rustic aesthetic to a high-tech medium.
This piece is designed for the modern home that values the "handmade" feel but requires the industrial durability of high-grade polymers.
Design Features:
Simulated Fiber Matrix: The exterior surface is printed with a rhythmic, multi-directional grain that mimics the coarse weave of jute, providing a natural, matte-finish look.
Organic Folding Geometry: The "cinched" waist and base folds are calculated to provide structural stability while maintaining the relaxed silhouette of a soft textile.
Durable Moisture-Lock Interior: Unlike real fabric, the interior is a solid, non-porous wall, ensuring that water is contained and that the "weave" remains pristine and easy to clean.
Warm Earth-Tone Finish: Rendered in a soft, sun-bleached ochre, the planter serves as a neutral yet vibrant foundation for lush green foliage like the Monstera adansonii.
"Gather your greenery. Let Harvest provide a rustic, technical home for your botanical collection."
Harvest | Designer Planters | 3D Printed Home Decor
All artifacts are fabricated to order in our studio to ensure the highest resolution quality. Orders are typically processed and dispatched within 3–5 business days. You will receive a tracking number as soon as your shipment is initiated.
Please read our full shipping & delivery policy to know more about delivery rates and timelines.
We take pride in the structural integrity of our artifacts. If your item arrives damaged or with a fabrication defect, please contact the us within 48 hours of delivery for a resolution.
Please read our full refund policy to know more about eligibility and process requirements.

