<h2>About Slicelab</h2>
<p>Slicelab is a research and development design studio and consulting agency that bridges the gap between additive manufacturing and tangible product design. Rather than treating 3D printing as a prototyping shortcut, the studio treats it as a production method in its own right - one that permits geometries and material behaviours conventional manufacturing cannot achieve. Its stated remit is creating innovative design solutions at all scales.</p>
<h2>Computational Craftsmanship</h2>
<p>The studio's defining idea is what it calls computational craftsmanship: integrating digital precision with artistic judgement. Computational tools allow intricate, individually varied customisation, transforming standard designs into products that could not be economically produced by any other means.</p>
<p>This matters because additive manufacturing removes the traditional relationship between complexity and cost. A lattice with ten thousand unique cells costs no more to print than a solid block of the same volume, which makes fine-grained performance tuning economically viable for the first time.</p>
<h2>Core Capabilities</h2>
<ul>
<li><strong>Additive manufacturing design</strong> - designing specifically for the constraints and freedoms of 3D printing</li>
<li><strong>Computational and parametric design</strong> - algorithmic generation of complex geometry</li>
<li><strong>Lattice and structural optimisation</strong> - engineered internal structures tuned for stiffness, cushioning or breathability</li>
<li><strong>R&amp;D consulting</strong> - advising brands and manufacturers on adopting additive workflows</li>
<li><strong>Prototyping and product development</strong> - from concept through to manufacturable design</li>
<li><strong>AI-assisted design workflows</strong> - applied in recent footwear concepts</li>
</ul>
<h2>Application Areas</h2>
<h3>Sports Safety and Protective Equipment</h3>
<p>Slicelab develops bio-informed protective equipment with engineered internal structures that manage impact energy. Printed lattices can be tuned zone by zone across a single component - stiffer where load concentrates, softer where comfort matters - which foam padding cannot replicate.</p>
<h3>Wearables</h3>
<p>The studio designed a first-generation integrated health band balancing comfort, durability and seamless health monitoring, where the structure itself must accommodate sensors while remaining wearable for long periods.</p>
<h3>Footwear</h3>
<p>Concept footwear combines AI workflows with additive technology and forms drawn from nature, aimed at raising standards in design, sustainability and functionality simultaneously. Footwear is one of the most active commercial frontiers for 3D printing, where printed midsoles are already reaching mass production.</p>
<h2>Tailored Solutions Across Scales</h2>
<p>A data-driven approach and extensive research allow the studio to tailor designs from small objects through to large systems, maintaining performance and aesthetic quality regardless of scale. That range is unusual: most additive specialists work either at product scale or at architectural scale, rarely both.</p>
<h2>Sustainability</h2>
<p>Additive manufacturing offers meaningful sustainability advantages - material is added only where needed rather than cut away, parts can be produced closer to point of use, and lattice structures reduce material volume substantially. These considerations are explicit in the studio's footwear work.</p>
<h2>Market Position</h2>
<p>Slicelab operates at the intersection of design studio and technical consultancy, serving brands and manufacturers who want to adopt additive manufacturing but lack in-house computational design capability.</p>
<h2>Why AEC Teams Should Know Slicelab</h2>
<p>For anyone following digital fabrication, lattice structures or the industrialisation of 3D printing, Slicelab demonstrates how computational design translates additive technology into manufacturable products relevant across the built environment.</p>

Mountain Back - 3D printed Snowboard Binding

Slicelab is an R&D design studio bridging additive manufacturing and product design, using computational craftsmanship for lattices, wearables and footwear.

Slicelab | Additive Manufacturing Design Studio

Slicelab

Slicelab is an R&D design studio and consulting agency bridging additive manufacturing and tangible product design, using computational craftsmanship to create lattice structures, protective sports equipment, wearables and footwear at every scale.

A concrete exploration using 3D printed molds with a goal to see how delicate, detailed, and finite concrete can get while still being structurally rigid. Ultimately the focus was to create a piece of furniture that embodies an optimal balance of delicateness in form and strength in dentistry. Using 3D printing as a new way to realize concrete through its ability to make molds, we have been interested in pushing the concretes’ natural limitation through fine geometries.

Delicate Density

<h2><span class="s1"><strong>What Is Rhino 3D?</strong></span></h2>
<p class="p2">Rhino 3D, also known as Rhinoceros 3D, is a professional 3D modeling software developed by Robert McNeel &amp; Associates for architects, industrial designers, engineers, product designers, jewelry designers, and digital fabrication professionals. Unlike traditional CAD applications that primarily focus on drafting or Building Information Modeling (BIM), Rhino is built around precise <span class="s1"><strong>NURBS (Non-Uniform Rational B-Splines)</strong></span> geometry, allowing users to create highly accurate freeform surfaces and complex shapes without sacrificing modeling precision.</p>
<p class="p2">Rhino is widely recognized for its flexibility. It supports conceptual design, detailed modeling, visualization, analysis, rendering, and manufacturing workflows within a single environment. Whether you&rsquo;re designing a building fa&ccedil;ade, a consumer product, furniture, a yacht, or a complex parametric structure, Rhino provides the tools needed to transform ideas into production-ready geometry.</p>
<p class="p3">Unlike dedicated BIM platforms such as <span class="s1">⁠<a href="https://www.aecplustech.com/tools/revit"><span class="s2">Revit</span></a></span> or <span class="s1">⁠<a href="https://www.aecplustech.com/tools/archicad"><span class="s2">Archicad</span></a></span>, Rhino is primarily a geometry-driven modeling platform. However, thanks to its extensive plugin ecosystem and interoperability, it integrates well into modern AEC workflows and is commonly used during early-stage design, computational design, fa&ccedil;ade engineering, digital fabrication, and advanced geometry development.</p>
<hr>
<h2><span class="s1"><strong>What Is Rhino 3D Used For?</strong></span></h2>
<p class="p2">Rhino 3D is used for creating accurate 3D models that require flexibility beyond traditional CAD or BIM software. Because it is based on NURBS modeling instead of polygon-only geometry, designers can build smooth freeform surfaces with engineering-level precision.</p>
<p class="p4">Rhino is commonly used for:</p>
<ul>
<li>Architectural design</li>
<li>Conceptual building modeling</li>
<li>Computational design</li>
<li>Fa&ccedil;ade development</li>
<li>Industrial and product design</li>
<li>Furniture design</li>
<li>Jewelry design</li>
<li>Marine design</li>
<li>Reverse engineering</li>
<li>3D printing</li>
<li>CNC fabrication</li>
<li>Laser cutting workflows</li>
<li>Visualization and rendering</li>
</ul>
<p class="p3">Many architecture firms use Rhino during the conceptual design phase before moving project documentation into dedicated BIM platforms. Others continue using Rhino throughout the project for complex geometry, custom fa&ccedil;ades, parametric components, and fabrication-ready models that would be difficult to create in conventional BIM software.</p>
<hr>
<h2><span class="s1"><strong>Key Features</strong></span></h2>
<h3><span class="s1"><strong>Precise NURBS Modeling</strong></span></h3>
<p class="p2">One of Rhino&rsquo;s defining strengths is its NURBS-based modeling engine. Unlike polygon modeling applications that approximate curved geometry with meshes, Rhino creates mathematically accurate curves and surfaces suitable for design, engineering, manufacturing, and fabrication.</p>
<p class="p3">This makes Rhino particularly valuable for projects involving organic architecture, freeform structures, industrial products, and highly detailed fabrication models where precision is critical.</p>
<hr>
<h3><span class="s1"><strong>Flexible 3D Modeling Workflow</strong></span></h3>
<p class="p2">Rhino allows users to work with curves, solids, surfaces, meshes, and SubD geometry inside a single modeling environment. Designers can move quickly between conceptual sketches and highly detailed production models without changing software.</p>
<p class="p3">Unlike many specialized applications, Rhino does not force users into one predefined workflow. This flexibility has made it popular across multiple industries, from architecture and engineering to jewelry, automotive, and industrial product development.</p>
<hr>
<h3><span class="s1"><strong>Grasshopper Integration</strong></span></h3>
<p class="p2">One of Rhino&rsquo;s biggest advantages is its seamless integration with <span class="s1"><strong>Grasshopper</strong></span>, the visual programming environment used for computational and parametric design.</p>
<p class="p2">Grasshopper allows designers to build rule-based design systems instead of manually modeling every object. Parameters, algorithms, and mathematical relationships can generate complex geometries that automatically update when design inputs change.</p>
<p class="p3">Although Grasshopper is included with Rhino, it has grown into an extensive ecosystem with hundreds of plugins supporting structural analysis, environmental simulation, optimization, robotic fabrication, and generative design. Because of its importance, Grasshopper deserves its own dedicated guide rather than being covered in depth here.</p>
<hr>
<h3><span class="s1"><strong>Extensive Plugin Ecosystem</strong></span></h3>
<p class="p2">Rhino offers one of the largest plugin ecosystems in the design industry.</p>
<p class="p4">Popular extensions support:</p>
<ul>
<li>Rendering</li>
<li>Environmental analysis</li>
<li>Structural engineering</li>
<li>CFD simulation</li>
<li>Generative design</li>
<li>Fabrication</li>
<li>Robotics</li>
<li>CAM workflows</li>
<li>Reverse engineering</li>
<li>BIM interoperability</li>
</ul>
<p class="p3">This flexibility allows firms to customize Rhino around their own workflows rather than adapting their workflow to the software.</p>
<hr>
<h3><span class="s1"><strong>Interoperability</strong></span></h3>
<p class="p2">Rhino supports a wide range of industry-standard file formats, making it easy to collaborate with consultants using different software.</p>
<p class="p4">Supported formats include:</p>
<ul>
<li>DWG</li>
<li>DXF</li>
<li>STEP</li>
<li>IGES</li>
<li>SAT</li>
<li>STL</li>
<li>OBJ</li>
<li>FBX</li>
<li>IFC</li>
<li>3DM</li>
<li>SKP</li>
<li>Parasolid</li>
<li>3DS</li>
</ul>
<p class="p2">Rhino also integrates well with platforms such as <span class="s1">⁠<a href="https://www.aecplustech.com/tools/autocad"><span class="s2">AutoCAD</span></a></span>, <span class="s1">⁠<a href="https://www.aecplustech.com/tools/sketchup"><span class="s2">SketchUp</span></a></span>, and major BIM workflows through plugins and open exchange formats. This interoperability allows design teams to move geometry between conceptual design, documentation, analysis, visualization, and fabrication with relatively little friction.</p>
<p class="p2">More information about supported formats is available on the official Rhino website.</p>
<p class="p3"><a href="https://www.rhino3d.com/features/">https://www.rhino3d.com/features/</a></p>
<hr>
<h3><span class="s1"><strong>Rendering and Visualization</strong></span></h3>
<p class="p2">Rhino includes built-in rendering capabilities together with support for many third-party rendering engines.</p>
<p class="p4">Designers commonly use Rhino together with visualization tools for:</p>
<ul>
<li>Client presentations</li>
<li>Concept visualization</li>
<li>Architectural competitions</li>
<li>Product marketing</li>
<li>Design reviews</li>
</ul>
<p class="p3">Its compatibility with popular rendering plugins makes Rhino an excellent platform for producing high-quality visualizations without rebuilding project geometry.</p>
<hr>
<h3><span class="s1"><strong>Digital Fabrication</strong></span></h3>
<p class="p2">Rhino has become one of the industry&rsquo;s most widely used tools for digital fabrication.</p>
<p class="p4">Its accurate geometry makes it well suited for:</p>
<ul>
<li>CNC machining</li>
<li>Laser cutting</li>
<li>Waterjet cutting</li>
<li>3D printing</li>
<li>Robotic fabrication</li>
<li>Panelization</li>
<li>Complex fa&ccedil;ade fabrication</li>
</ul>
<p class="p3">This is one of the reasons Rhino remains extremely popular among architects working on complex buildings and custom building components.</p>
<hr>
<h2><span class="s1"><strong>Pricing &amp; Free Trial</strong></span></h2>
<p class="p2">Unlike many professional design applications that have moved entirely to subscriptions, Rhino continues to offer a perpetual commercial license.</p>
<p class="p2">A Rhino commercial license is purchased once and can continue to be used without recurring subscription fees. Major version upgrades are optional and typically offered at discounted upgrade pricing for existing customers.</p>
<p class="p4">Rhino also provides:</p>
<ul>
<li>Evaluation version</li>
<li>Educational licenses</li>
<li>Student pricing</li>
<li>Faculty licenses</li>
</ul>
<p class="p2">Current pricing, educational eligibility, licensing options, and trial availability can be found on the official Rhino licensing page.</p>
<p class="p3"><a href="https://www.rhino3d.com/buy/">https://www.rhino3d.com/buy/</a></p>
<hr>
<h2><span class="s1"><strong>Pros &amp; Cons</strong></span></h2>
<h3><span class="s1"><strong>Pros</strong></span></h3>
<ul>
<li>Industry-leading NURBS modeling</li>
<li>Excellent freeform geometry tools</li>
<li>Powerful Grasshopper integration</li>
<li>Huge plugin ecosystem</li>
<li>Strong interoperability</li>
<li>Perpetual licensing available</li>
<li>Cross-platform support for Windows and macOS</li>
<li>Widely used across architecture, engineering, product design, and fabrication</li>
</ul>
<h3><span class="s1"><strong>Cons</strong></span></h3>
<ul>
<li>Not a complete BIM platform by itself</li>
<li>Requires practice to master advanced modeling workflows</li>
<li>Large computational models can become demanding on hardware</li>
<li>Some advanced workflows depend on third-party plugins</li>
<li>Construction documentation capabilities are not as comprehensive as dedicated BIM software</li>
</ul>
<hr>
<h2><span class="s1"><strong>Best Alternatives</strong></span></h2>
<p class="p2">The best Rhino alternative depends on the type of project and design workflow.</p>
<p class="p3">For BIM documentation and multidisciplinary coordination, <span class="s1">⁠<a href="https://www.aecplustech.com/tools/revit"><span class="s2">Revit</span></a></span> and <span class="s1">⁠<a href="https://www.aecplustech.com/tools/archicad"><span class="s2">Archicad</span></a></span> are stronger choices. For conceptual architectural modeling, <span class="s1">⁠<a href="https://www.aecplustech.com/tools/sketchup"><span class="s2">SketchUp</span></a></span> offers a faster learning curve. Engineers and manufacturers may also compare Rhino with Fusion 360 or SolidWorks depending on their production requirements.</p>
<hr>
<h2><span class="s1"><strong>Who Should Use Rhino 3D?</strong></span></h2>
<p class="p2">Rhino 3D is best suited for architects, computational designers, fa&ccedil;ade consultants, industrial designers, engineers, product developers, digital fabrication specialists, and creative professionals who need precise freeform modeling rather than a documentation-first BIM workflow.</p>
<p class="p2">It is particularly valuable for organizations working with complex geometry, parametric design, fabrication, and advanced architectural forms. Firms that combine Rhino with BIM software can benefit from Rhino&rsquo;s modeling flexibility while continuing to use dedicated BIM platforms for documentation and project coordination.</p>
<p class="p2">For professionals whose work depends on accurate geometry, computational design, and an open ecosystem of plugins and integrations, Rhino 3D remains one of the most capable modeling platforms available today.</p>

Explore Rhino 3D pricing, features, free trial, and alternatives. Learn how Rhino 3D software supports architecture, design, engineering, and 3D modeling.

Rhino 3D Pricing, Features, Free Trial & Alternatives

Rhino 3D

What is Maya?<br /><br />Maya is professional 3D software for creating realistic characters and blockbuster-worthy effects.<br /><br />Bring believable characters to life with engaging animation tools.<br /><br />Shape 3D objects and scenes with intuitive modeling tools.<br /><br />Create realistic effects—from explosions to cloth simulation.

Maya

<h3>Grasshopper is part of Rhino, not a separate modeler</h3>
<p>Grasshopper is the graphical algorithm editor included with&nbsp;<a href="https://www.aecplustech.com/tools/rhino-3d">Rhino 3D</a>. McNeel describes it as a visual programming environment tightly integrated with Rhino&rsquo;s modeling tools. The definition controls logic and relationships; Rhino supplies the geometry kernel, viewport, document, object attributes, file exchange, and downstream modeling environment.</p>
<h3>A definition turns inputs into repeatable design logic</h3>
<p>Work is assembled from components with inputs and outputs connected by wires. Sliders, referenced Rhino objects, files, or other parameters feed operations that create geometry or transform data. When an input changes, dependent components recalculate and the Rhino viewport previews the result. Approved geometry can then be baked into the Rhino document for editing, annotation, exchange, or fabrication.</p>
<p>This feedback loop supports rapid iteration, but it does not make every model safely parametric. A useful definition exposes meaningful controls, groups related operations, names critical parameters, and separates temporary exploration from deliverable logic. A canvas that only its author can read becomes a project risk even when its final geometry looks correct.</p>
<h3>Data trees are the practical learning threshold</h3>
<p>Simple examples pass one item or one list between components. Production definitions often organize nested collections as data trees with paths, branches, and items. McNeel&rsquo;s&nbsp;<a href="https://developer.rhino3d.com/en/guides/grasshopper/gh-algorithms-and-data-structures/data-structures/">data-structure guide</a>&nbsp;distinguishes single items, lists, and trees because components behave differently as input structure changes. Unexpected grafting, flattening, matching, or path operations can produce plausible but incomplete geometry, so teams should test data structure explicitly rather than debug only the viewport.</p>
<h3>AEC value comes from repeatability, not unusual form alone</h3>
<p>Architects can test massing constraints, panelize envelopes, place repeated elements, calculate quantities, organize drawing geometry, or prepare fabrication data. Engineers and specialist consultants can connect geometry to discipline analysis through supported plugins. Fabricators can translate controlled parameters into part geometry, naming, or machine-oriented outputs.</p>
<p>The core application does not automatically provide every environmental, structural, optimization, or BIM capability. Those workflows may rely on plugins, custom scripts, external solvers, and project-specific validation. The author must still check units, tolerances, constructability, design criteria, and whether generated outputs remain traceable to the approved inputs.</p>
<h3>Revit integration can create native BIM elements</h3>
<p><a href="https://www.aecplustech.com/tools/revit">Revit</a>&nbsp;workflows are supported through&nbsp;<a href="https://www.rhino3d.com/en/features/rhino-inside-revit/">Rhino.Inside.Revit</a>, which loads Rhino and Grasshopper inside the Windows application. Revit-aware components can query, analyze, create, or modify document content and provide access to Rhino, Grasshopper, and Revit APIs. This is more capable than a simple geometry export, but native BIM quality still depends on category, type, level, parameter, hosting, and update decisions.</p>
<p>Teams should agree which system owns each element and how reruns are controlled. An interactive graph that modifies a live BIM document needs selection safeguards, transaction awareness, version testing, and a recovery plan. Rhino.Inside.Revit is Windows-only even though Rhino and Grasshopper also run on Mac.</p>
<h3>Plugins and scripting extend both reach and risk</h3>
<p>Rhino 8 supports RhinoCommon C# and CPython in Grasshopper on Windows and Mac. McNeel&rsquo;s&nbsp;<a href="https://developer.rhino3d.com/en/guides/grasshopper/">Grasshopper developer guides</a>&nbsp;cover algorithms, data trees, Python, C#, components, and plugin development. The Package Manager and food4Rhino ecosystem add specialist tools for analysis, fabrication, interoperability, optimization, and visualization.</p>
<p>Dependencies need the same control as other production software. Record plugin names and versions, approved download sources, operating-system support, license terms, and replacement options. Keep a clean test environment for upgrades, and avoid distributing a GH file without its dependency list, sample inputs, expected outputs, and author or maintainer.</p>
<h3>Pricing follows the Rhino license</h3>
<p>There is no separate current Grasshopper subscription or standalone price. It is included with Rhino 8, which McNeel sells through perpetual commercial and discounted educational licenses. Prices vary by region, currency, tax, license type, and reseller, so the&nbsp;<a href="https://www.rhino3d.com/sales/">official Rhino sales page</a>&nbsp;is the correct source for a current figure. Purchased licenses do not expire; upgrades to later major versions are optional purchases.</p>
<p>McNeel also provides a one-time 90-day full-version Rhino evaluation that includes Grasshopper. After 90 days, saving and plugins stop working unless a license is purchased. That evaluation is a better description of access than calling Grasshopper independently free.</p>
<h3>Windows and Mac are supported, but parity must be checked</h3>
<p>Grasshopper follows Rhino 8&rsquo;s desktop support. McNeel&rsquo;s&nbsp;<a href="https://www.rhino3d.com/8/system-requirements/">current requirements</a>&nbsp;cover Windows 10 or 11 and supported macOS releases, with at least 8 GB RAM recommended. Windows guidance also recommends an OpenGL 4.5-capable graphics card and 4 GB video memory. Computationally heavy definitions, large meshes, analysis solvers, and several linked applications can require substantially more capacity.</p>
<p>Plugin availability, UI behavior, file paths, scripting packages, and integrations may differ between operating systems. A team should validate the entire definition and dependency set on the target platform rather than treating Rhino compatibility as proof that every component will run identically.</p>
<h3>Best fit depends on how the logic will be maintained</h3>
<p>Grasshopper fits teams that repeatedly explore or generate geometry and can invest in computational-design standards. It is less suitable when a one-off manual edit is faster, when project partners cannot run the dependencies, or when no one owns the definition after handover. Alternatives include native Rhino modeling, scripting directly in Python or C#, BIM-platform automation, and other node-based environments.</p>
<p>For project use, review a definition like production code: document inputs and outputs, organize the canvas, control dependencies, test edge cases, compare generated results with design criteria, and archive a known working environment. The value is not the number of components; it is a reliable method that another team member can understand and rerun.</p>

Evaluate Grasshopper 3D for parametric design, visual programming, Rhino and Revit workflows, pricing, plugins, system requirements, and AEC use.

Delicate Density

Key Facts

Business Impact

Client Name

Location

Completion Year

Project Type

Tools Used in the Case Study

Rhino 3D

Maya

Grasshopper

User Experience

Why this tool/tech was selected

Challenges the Client Faced before

The previous method used

Time / Money saved & the Business Impact.

Customer Quote

Original Case Study

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