An intricate bangle in 3d-printed stainless steel. This bilayer cellular structure contrasts a subdivided interior with a sparse, geometric exterior.

The design was inspired by the complex cellular patterns of nature. Part of the Cell Cycle collection, the bracelet was created through simulations of the physical forces in a cellular network. It is built up layer by layer in stainless steel using 3D printing and infused with bronze.

Inspired by the complex forms of radiolarians, where intricate pattern is integral to structure, these shapes derive from a simulation of spring meshes. We created interactive software to morph, twist, and subdivide each design, transforming a simple mesh to a complex patterned structure. Made to order in your size.

A fine network of vessels defines the surface of this crescent-shaped pendant which was inspired by how veins form in leaves. The densely interconnected structure is at once airy and strong.

It is a part of Hyphae, a collection of 3D printed artifacts constructed of rhizome-like networks. Inspired by the vein structures that carry fluids through organisms from the leaves of plants to our own circulatory systems, we created a simulation which uses physical growth principles to build sculptural, organic structures. Starting from an initial seed and a surface, we grow a hierarchical network where nodes constantly branch and merge.

Watch the video below to see the the form was created.

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If you are interested in purchasing the necklace with the chain, please buy from our website
nylon plastic version: http://n-e-r-v-o-u-s.com/shop/product.php?code=85
sterling silver version: http://n-e-r-v-o-u-s.com/shop/product.php?code=96
 
If you purchase directly from Shapeways it will not come with a chain.

this is size LARGE
size MEDIUM also available

don't know which size you need? check out our sizing guide

Inspired by the complex forms of radiolarians, where intricate pattern is integral to structure, these shapes derive from a simulation of spring meshes. We created interactive software to morph, twist, and subdivide each design, transforming a simple mesh to a complex patterned structure.

this piece is size MEDIUM
size LARGE also available
not sure which size you need? check out our sizing chart

An intricate, organic cuff from our Cell Cycle collection which was inspired by cellular forms. The C-shaped, flexible design fits close to the skin, is light-weight, and uses minimal material. The final product is built up layer by layer in durable nylon plastic using Selective Laser Sintering, a kind of 3D printing. Nylon is quite comfortable to wear because it is lightweight and flexible.

The design was formed in a simulation of spring meshes. We created interactive software to morph, twist, and subdivide each design, transforming a simple mesh to a complex patterned structure. In our work, we start with a natural inspiration and translate that into interactive software which we can use to generate an infinite variety of forms and patterns.

A large trumpet shaped ring with a slender band. A network of veins grows from the base of the ring, encircling your finger and then expanding upwards and outwards above your hand.

watch the video to see how it was created!

Hyphae is a collection of 3D printed artifacts constructed of rhizome-like networks. Inspired by the vein structures that carry fluids through organisms from the leaves of plants to our own circulatory systems, we created a simulation which uses physical growth principles to build sculptural, organic structures. Starting from an initial seed and a surface, we grow a hierarchical network where nodes constantly branch and merge. The densely interconnected structure is at once airy and strong.

 This 2in wide cuff is truly a bold accessory! It features a flexible C-shaped design that fits closely against the wrist. It was grown from 4 separate root points which gradually intertwined into a single network.

watch the video to see how it was created!

Hyphae is a collection of 3D printed artifacts constructed of rhizome-like networks. Inspired by the vein structures that carry fluids through organisms from the leaves of plants to our own circulatory systems, we created a simulation which uses physical growth principles to build sculptural, organic structures. Starting from an initial seed and a surface, we grow a hierarchical network where nodes constantly branch and merge. The densely interconnected structure is at once airy and strong.

a pair

Inspired by the complex forms of radiolarians, where intricate pattern is integral to structure, these shapes derive from a simulation of spring meshes. We created interactive software to morph, twist, and subdivide each design, transforming a simple mesh to a complex patterned structure.

size (inner circumference)
SMALL 7.2in / 18.2cm
MEDIUM 7.8in / 20cm, fits most
LARGE 8.5in / 21.5cm

click CREATE to select your size

Watch a video showing the software we created to design these pieces http://vimeo.com/10074976

Inspired by the complex forms of radiolarians, where intricate pattern is integral to structure, these shapes derive from a simulation of spring meshes. We created interactive software to morph, twist, and subdivide each design, transforming a simple mesh to a complex patterned structure.

size (inner circumference)
SMALL 7.2in / 18.2cm
MEDIUM 7.8in / 20cm, fits most
LARGE 8.5in / 21.5cm

click CREATE to select your size

Watch a video showing the software we created to design these pieces http://vimeo.com/10074976

A striking cellular cuff inspired by microscopic cellular structures and created using computer simulation and 3d-printing.

this bracelet is size MEDIUM
also available in size LARGE  

The C-shaped design fits close to the skin, is light-weight and uses minimal material. It was built up layer by layer from stainless steel powder using 3D printing and fused in a kiln. The two layer form of the cuff would be impossible to create by traditional manufacturing methods. Its outer surfaces have a smooth, polished finish which contrasts with the unpolished interior to create an intricate, 3-dimensional cuff.

It is a part of our Cell Cycle collection which was inspired by the intricate mineral forms of Radiolarians. The form is the result of a physics simulation of the forces in a cellular network of springs. Using our custom software, we created the Spiral Cuff by morphing, twisting, and subdividing; transforming a simple mesh to a complex patterned structure.

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this design optimized for printing in stainless steel but is also great in the "Strong & Flexible" family of materials

This 7" pendant lamp is covered by ridges and valleys that transmit different amounts of light when illuminated; they furnish a striking pattern whether the lamp is on or off.

We created the form by simulating a process where two chemicals diffuse across a surface and react with one another to form stable patterns. This process, reaction-diffusion, can be used to explain the intricate patterns found on the skin of many types of animals, from the spots of leopards to the radiating stripes of angelfish. Growing a pattern with different parameters can produce dramatically different results.

Here, we orchestrated a pattern that twists elegantly towards the base of the lamp where it terminates in a gentle spiral. Lines diverge and converge along the contours of the sphere, blanketing the surface in many deep grooves. We think the pattern recalls the forms of sand dunes and hard corals.

Only the shade portion of the lamp is shipped by shapeways. The light fixture can be purchased separately from us, email us at hello@n-e-r-v-o-u-s.com

Light Fixture The lamp comes with an eco-friendly 3-watt LED light fixture with three bright Cree LED's that will last for 6 years of continuous use. It is UL-listed and plugs into the wall.

Inspired by the complex forms of radiolarians, where intricate pattern is integral to structure, these shapes derive from a simulation of spring meshes. We created interactive software to morph, twist, and subdivide each design, transforming a simple mesh to a complex patterned structure.

Made to order in your size.

An organic 3d-printed lamp that projects incredible shadows. It can be used as a pendant or table lamp.

The seed lamp plays with reaction-diffusion at different scales to produce an organic effect. A simple sphere grows into a complex sculpted surface by layering reaction patterns at a micro and macro scale. The larger scale pattern creates the overall topography of the lamp while the smaller scale modulates the surface thickness to reveal a cellular texture when lit.

For this lamp, the patterns at both scales are cellular, however the surface is punctured only according to the disposition of the smaller scale. We were inspired by microscopic images of seeds where both the overall shape of the seed and the cells of which it is composed are visible.

Light Fixture
The lamp comes with an eco-friendly 3-watt LED light fixture with three bright Cree LED's that will last for 6 years of continuous use. It is UL-listed and plugs into the wall. The light fixture can be purchased separately from us, email us at hello@n-e-r-v-o-u-s.com

This 2in wide cuff is truly a bold accessory! It features a flexible C-shaped design that fits closely against the wrist. It was grown from 4 separate root points which gradually intertwined into a single network.

watch the video to see how it was created!

Hyphae is a collection of 3D printed artifacts constructed of rhizome-like networks. Inspired by the vein structures that carry fluids through organisms from the leaves of plants to our own circulatory systems, we created a simulation which uses physical growth principles to build sculptural, organic structures. Starting from an initial seed and a surface, we grow a hierarchical network where nodes constantly branch and merge. The densely interconnected structure is at once airy and strong.

this is size LARGE
size MEDIUM also available

Inspired by the complex forms of radiolarians, where intricate pattern is integral to structure, these shapes derive from a simulation of spring meshes enclosing an interstitial space. We created interactive software to morph, twist, and subdivide each design, transforming a simple mesh to a complex patterned structure.

The C-shaped, flexible design fits close to the skin, is light-weight, and uses minimal material.

A striking cellular cuff inspired by microscopic cellular structures and created using computer simulation and 3d-printing.

this bracelet is size LARGE
also available in size MEDIUM


The C-shaped design fits close to the skin, is light-weight and uses minimal material. It was built up layer by layer from stainless steel powder using 3D printing and fused in a kiln. The two layer form of the cuff would be impossible to create by traditional manufacturing methods. Its outer surfaces have a smooth, polished finish which contrasts with the unpolished interior to create an intricate, 3-dimensional cuff.

It is a part of our Cell Cycle collection which was inspired by the intricate mineral forms of Radiolarians. The form is the result of a physics simulation of the forces in a cellular network of springs. Using our custom software, we created the Spiral Cuff by morphing, twisting, and subdividing; transforming a simple mesh to a complex patterned structure.

--



this design optimized for printing in stainless steel but is also great in the "Strong & Flexible" family of materials
 

this is size MEDIUM
size LARGE is also available

Inspired by the complex forms of radiolarians, where intricate pattern is integral to structure, these shapes derive from a simulation of spring meshes enclosing an interstitial space. We created interactive software to morph, twist, and subdivide each design, transforming a simple mesh to a complex patterned structure.

The C-shaped, flexible design fits close to the skin, is light-weight, and uses minimal material.

A minimal bangle made of a single surface that twists in on itself like a vortex. When viewed from the front, the two sides of the bangle overlap to create a complex visual effect.

MATERIALS
we recommend ordering in stainless steel (first 2 photos), Silver (3rd photo), or Silver Glossy

SIZING
This design is a size MEDIUM. Sizes S, M and L are available at the links below

SMALL - inner diameter 57.9mm circumference 18.2cm
MEDIUM - inner diameter 63.7mm circumference 20cm fits most
LARGE - inner diameter 68.4mm circumference 21.5cm

A sterling silver bangle inspired by the complex cellular patterns of nature. Part of the Cell Cycle collection, the bracelet was created through simulations of the physical forces in a cellular network. It is built up layer by layer in wax using 3D printing and cast in sterling silver using lost wax casting. This form would be impossible to create by traditional manufacturing methods.

size SMALL

available in S M L
SMALL inner diameter 57.9mm circumference 18.2cm
MEDIUM inner diameter 63.7mm circumference 20cm fits most
LARGE inner diameter 68.4mm circumference 21.5cm

This video shows the software we created to design the cell cycle collection

A sterling silver bangle inspired by the complex cellular patterns of nature. Part of the Cell Cycle collection, the bracelet was created through simulations of the physical forces in a cellular network. It is built up layer by layer in wax using 3D printing and cast in sterling silver using lost wax casting. This form would be impossible to create by traditional manufacturing methods.

size MEDIUM

available in S M L
SMALL inner diameter 57.9mm circumference 18.2cm
MEDIUM inner diameter 63.7mm circumference 20cm fits most
LARGE inner diameter 68.4mm circumference 21.5cm

This video shows the software we created to design the cell cycle collection

A striking cellular cuff in stainless steel, inspired by microscopic cellular structures.

The C-shaped design fits close to the skin, is light-weight and uses minimal material. The two layer form of the cuff would be impossible to create by traditional manufacturing methods.

It is a part of our Cell Cycle collection which was inspired by the intricate mineral forms of Radiolarians. The form is the result of a physics simulation of the forces in a cellular network of springs. Using our custom software, we created this design by morphing, twisting, and subdividing; transforming a simple mesh to a complex patterned structure.