3D Modeling Services Precision Geometry for Furniture Industry
From concept to production-ready For 3d Modeling Services we create high-quality assets for product visualization, architecture & eCommerce.
Professional 3D Modeling Services
From napkin sketch to production-ready mesh we build 3D models that survive manufacturing tolerances, rendering pipelines, and real-world physics. Polygonal, NURBS, parametric, and sculpted.
- 12+ Modeling Disciplines
- 98% First-Pass Accuracy
- 48h Average Turnaround
- 20+ File Format Outputs
What We Do At Render Furniture
Not Every 3D Model Is Built Equal
The Problem with Generic 3d Modeling Services
Most 3d Modeling Services hand you a mesh and call it done. They don’t consider where that model is going. Whether it needs to survive a CNC machining process, sustain 60fps inside a game engine, carry UV maps that hold up at 4K, or produce photorealistic renders without baked-in lighting errors.
A product model built for marketing photography has completely different topology requirements from the same product modeled for injection mold simulation. An architectural visualization model requires entirely different edge-flow logic from a character mesh going into a real-time game engine. These are not stylistic differences they are technical fundamentals that determine whether your model actually works downstream.
We build for destinations, not just appearances. Every geometry decision we make is informed by where the file ends up, who touches it next, and what technical environment it has to survive.
What Separates Production-Grade 3D Models
The difference between a functional 3D model and a professional production-grade model lies in decisions that are invisible until something breaks. Clean topology meaning edge loops that follow the object’s natural stress lines, quads instead of n-gons, poles placed away from deformation zones matters enormously for animation rigs, subdivision, and boolean operations downstream.
Proper UV unwrapping means textures sit on surfaces without stretching, seams hide in natural folds, and texture density stays consistent across the object. Correct normals mean your object shades predictably under any lighting rig. Scale accuracy matters for fabrication outputs. Pivot placement matters for mechanical assemblies. These are the invisible craft decisions that separate professionals from amateurs.
– Clean quad-dominant topology with strategic edge loops for subdivision and deformation
– Consistent polygon density matched to the model’s visual priority and rendering resolution
– UV islands packed efficiently to maximize texel density and minimize seam visibility
– Accurate real-world scaling for fabrication-bound or simulation-bound models
– Logical naming conventions, layer organization, and metadata for pipeline compatibility
– Correct surface normal and no overlapping geometry or non-manifold edges
– File delivery in every format your pipeline requires not just the one we prefer
How We Scope Every Project
Before a single vertex is placed, we need to understand the technical destination of your model. That conversation determines the tools, topology strategy, polygon budget, and file format. There is no single “3D modeling process” there is the right process for your specific deliverable, and that’s what we identify together before work begins.
We start with a brief that captures reference imagery, dimensional data or engineering drawings, intended software pipeline, output resolution or fabrication tolerance, and deadline. We return a scope document with polygon estimates, software selection rationale, and a delivery checklist. This becomes the contract that governs quality.
Our 3d Modeling Services
Product & Industrial 3D Modeling
Hard-surface modeling for manufactured goods, consumer electronics, medical devices, and industrial components. Built to exact tolerances, optimized for both photorealistic rendering and downstream fabrication. Every curve, chamfer, and fillet placed with engineering intent.
Specializations: NURBS, Parametric, Hard Surface, CAD-to-CG, Key shot-Ready
Architectural 3D Modeling
Building exteriors, interiors, site plans, and structural components modeled at accurate scale for visualization, BIM workflows, or VR walkthroughs. Includes LOD management for real-time environments and high-poly assets for still rendering.
Specializations: BIM, Revit-Compatible, LOD Management, VR-Ready, Site Context
Character & Creature Modeling
Organic character meshes built for rigging, skinning, and animation. Topology follows anatomical deformation patterns. Delivered with clean edge loops around all joint zones, proper shoulder topology, and facial loops optimized for blend shape performance.
Specializations: Rig-Ready, Blend Shapes, Sculpt Retopo, Game-Res, Film-Res
Game Asset Modeling
Real-time assets with controlled polygon budgets, baked normal maps from high-poly sources, and PBR-ready UV layouts. From hero props at 10k triangles to environment tile sets and modular kit-bash libraries designed for fast level construction.
Specializations: PBR Workflow, LOD Chains, Normal Baking, Unity Ready, Unreal Ready
Medical & Scientific Visualization
Anatomical models derived from CT/MRI DICOM data, molecular structures, surgical device models, and pharmaceutical packaging. Built for educational animation, surgical planning, or device approval documentation. Accuracy is clinical, not cosmetic.
Specializations: DICOM Input, Anatomical Accuracy, Device Models, FDA Documentation
3D Printing & Fabrication Models
Print-ready geometry built watertight with correct wall thicknesses, no non-manifold edges, and tolerances calibrated for your material and process. FDM, SLA, SLS, or metal sintering. We deliver STL, OBJ, and STEP for both prototyping and production runs.
Specializations: Watertight Mesh, STL/STEP, FDM/SLA/SLS, Wall Thickness, Tolerance Design
The Different Types Of 3D Modeling And When Each One Applies
3D modeling is not a single discipline. It is a family of related but technically distinct workflows, each optimized for a different category of output. Choosing the wrong type for your project doesn’t just produce inferior results it can make the downstream pipeline unusable. Here is a complete breakdown of every major 3D modeling type, what it produces, and where it belongs.
Polygonal Modeling
Polygonal modeling is the foundational method for entertainment, game development, and real-time applications. You work with a mesh of flat polygon faces typically quads or triangles connected by vertices and edges.
The geometry is approximated: a sphere isn’t mathematically perfect, it’s a subdivision of flat faces that reads as round at sufficient polygon count.
This method is used because polygonal meshes are what rendering engines, game engines, and animation rigs natively consume. They’re fast to process, easy to UV unwrap, and straightforward to texture. The trade off is that extremely fine curvature requires more polygons, and the model can show faceting artifacts at low resolution. Subdivision surfaces solve part of this you build at a low cage and let the renderer subdivide to smoothness.
Best for: game assets, film characters, architectural visualization props, product renders, environmental objects, and any output where the mesh will be rendered rather than machined.
NURBS Modeling
NURBS — Non-Uniform Rational B-Splines is a mathematical representation of curves and surfaces defined by control points and parametric equations rather than polygon grids.
A NURBS surface is analytically smooth: a cylinder is a perfect cylinder regardless of how closely you zoom in. There’s no polygon count, because there are no polygons.
This makes NURBS the standard for industrial design, automotive modeling, and precision manufacturing. When you need to export to CNC machining, injection mold tooling, or toleranced engineering drawings, NURBS geometry provides the accuracy that polygonal meshes cannot. Major tools include Rhino, CATIA, SolidWorks, NX, and Alias.
Best for: consumer products, automotive surfaces, medical devices, aerospace components, furniture, and anything going to fabrication or requiring Class A surfacing quality.
Parametric and CAD Modeling
Parametric modeling goes a step further than NURBS by making geometry driven by numerical parameters and constraint relationships. Change the wall thickness parameter and every downstream feature updates automatically. This is the world of engineering CAD: SolidWorks, Fusion 360, CATIA, Creo, and FreeCAD.
Parametric models carry design intent. They have feature trees, assembly constraints, and technical drawings derived directly from the 3D data. They’re used whenever a product needs to be revised, manufactured to tolerance, or passed between engineering disciplines. Converting parametric CAD to polygon mesh for visualization is a common service. It requires careful tessellation to preserve surface quality.
Best for: anything manufactured, tooled, injection molded, CNC machined, sheet metal fabricated, or submitted for patent documentation.
Digital Sculpting
Sculpting approaches 3D modeling the way a physical sculptor would with pressure-sensitive brushes that push, pull, inflate, crease, and smooth geometry in a fluid, intuitive way. Tools like ZBrush, Mudbox, and Blender’s sculpt mode can handle meshes with millions of polygons, capturing surface details like skin pores, fabric weave, rock erosion, and bark texture that would be impossibly tedious to model with polygon-by-polygon techniques.
Sculpted models are almost always too dense for direct use in rendering or games. a character sculpt might be 10–40 million polygons. The workflow typically includes retopology: manually drawing a clean, low-polygon mesh on top of the sculpt, then baking the sculpt’s surface detail into normal maps and displacement maps that the clean mesh can use.
Best for: characters, creatures, organic objects, hero props with high surface detail, concept sculpts, and any form where artistic nuance matters more than mathematical precision.
Procedural Modeling
Procedural modeling generates geometry algorithmically from rules and parameters rather than through manual construction. Houdini is the dominant tool here. You build node graphs that describe how geometry should be constructed terrain generators, building facade rules, tree growth simulations, crowd systems, destruction effects. Change one upstream parameter and the entire downstream geometry regenerates.
This approach is powerful for environments at film scale, where manually modeling thousands of buildings or trees would be impractical. It’s also the basis for visual effects simulations: fluid, smoke, rigid body, and cloth simulation all produce geometry procedurally. Blender’s geometry nodes system brings procedural capability to a broader audience.
Best for: VFX, environmental generation at scale, motion graphics, simulation-driven assets, and any workflow where geometry needs to react to data or rules.
Important note for buyers: When requesting 3D modeling services, specify your output destination before negotiating a quote. “I need a 3D model of my product” is not a brief. It’s the opening of a conversation. The difference in scope between a product model for Instagram renders versus the same product modeled for CNC tooling is roughly 3–10x in technical complexity and cost.
The 3D Modeling Software Ecosystem
Software selection in 3D modeling is not arbitrary. Different tools are architecturally optimized for different workflows, and a professional service should be choosing tools based on your deliverable not based on what they happened to learn first.
Blender
Primary strength: Full-pipeline versatility, open source, active development
Best used for: Polygonal modeling, sculpting, rigging, rendering, motion graphics
Format output: FBX, OBJ, STL, GLB, USD, Alembic
Autodesk Maya
Primary strength: Animation rigging, film pipeline integration
Best used for: Character models, VFX, studio pipelines, simulation
Format output: MA, MB, FBX, OBJ, Alembic, USD
Autodesk 3ds Max
Primary strength: Architectural visualization, game asset pipelines
Best used for: Archviz, hard surface props, game environments
Format output: MAX, FBX, OBJ, STL
ZBrush
Primary strength: High-poly organic sculpting, detail work
Best used for: Characters, creatures, organic props, concept sculpts
Format output: OBJ, FBX, STL, ZTL, GoZ
Rhino 3D
Primary strength: Precision NURBS surface modeling
Best used for: Product design, jewelry, architecture, industrial
Format output: 3DM, STEP, IGES, OBJ, STL, DXF
SolidWorks
Primary strength: Parametric engineering CAD
Best used for: Manufactured products, mechanical assemblies, tooling
Format output: SLDPRT, STEP, IGES, STL, DXF
Cinema 4D
Primary strength: Motion graphics, MoGraph toolset
Best used for: Product animation, broadcast graphics, After Effects integration
Format output: C4D, FBX, OBJ, STL, Alembic
Houdini
Primary strength: Procedural generation, VFX simulation
Best used for: Destruction, fluids, crowds, environment generation at scale
Format output: HIP, FBX, OBJ, Alembic, USD
3D File Formats: A Complete Buyer’s Reference
File format decisions in 3D modeling have real consequences. Formats differ in what data they carry geometry only, or geometry plus materials, animations, scene hierarchy, and custom metadata. A professional service delivers in the format your pipeline requires, not the one that’s convenient to export.
OBJ The Universal Baseline
OBJ is a plain-text polygon format supported by virtually every 3D application ever made. It carries vertex positions, polygon faces, UV coordinates, and vertex normal. It does not natively carry materials (an accompanying MTL file handles basic material properties), animation data, or scene hierarchy. It’s reliable, but minimal. Use OBJ when you need maximum compatibility and the receiving application will handle materials independently.
FBX The Industry Animation Standard
FBX is Autodesk’s format and the de facto standard for transferring animated content between applications. It carries geometry, UV data, materials, textures, scene hierarchy, bones, skinning weights, animations, blend shapes, and cameras. It is the standard handoff format from Maya to game engines, from 3ds Max to real-time visualization tools. Note that FBX is a proprietary format with version compatibility nuances specify which FBX version your pipeline requires.
STEP / IGES Engineering Precision Formats
STEP (ISO 10303) and IGES are exchange formats for parametric and NURBS geometry used in engineering CAD workflows. They carry mathematically precise surface descriptions that can be opened in any major CAD tool without loss of precision. If your model needs to go to a manufacturer, toolmaker, or engineer, STEP is typically the correct output format. It preserves design intent in a way that polygon formats cannot.
STL Additive Manufacturing Standard
STL encodes only triangle geometry no UVs, no materials, no hierarchy, no curves. It exists specifically for 3D printing and CNC operations, where the slicing or machining software only needs surface geometry. The mesh must be watertight (no holes, no non-manifold edges) for print software to process correctly. STL files can be binary or ASCII; binary is standard for production.
GLB / glTF The Web and Real-Time Standard
glTF (GL Transmission Format) and its binary sibling GLB are the emerging standard for real-time and web-based 3D. They carry PBR material data, textures, animations, and scene hierarchy in a compact format optimized for fast loading in WebGL, WebXR, and game engines. Major platforms like Shopify, Sketchfab, and augmented reality viewers use GLB as their native format. For any e-commerce or web 3D application, GLB is increasingly the primary deliverable.
USD / USDA / USDC The Film Pipeline Future
Universal Scene Description, developed by Pixar and now an open standard, is the emerging format for complex multi-department film and animation pipelines. It handles scene composition at massive scale thousands of assets assembled with overrides, variants, and layering. USD is increasingly supported across all major DCC tools and is the direction high-end pipelines are moving. For film and TV work, ask whether your service supports USD output.
Topology: The Foundation Of Every Good 3D Model
Topology is the arrangement of polygons how faces, edges, and vertices are distributed across a 3D surface. It sounds like an internal detail irrelevant to the final look of a model, but it determines nearly everything about what a model can do downstream: whether it deforms naturally when animated, whether it subdivides smoothly, whether it booleans cleanly, and whether it renders without shading artifacts.
Why Quads Matter
Quads four-sided polygons are the building block of professional polygon modeling. They subdivide predictably, they follow edge loop logic cleanly, and they produce smooth shading with correct surface normals. Triangles are fine for real-time rendering (game engines convert quads to triangles internally) but cause issues in subdivision workflows and rigging. N-gons polygons with five or more sides cause pinching artifacts under subdivision and should be avoided on curved surfaces.
Edge Loops and Flow
Edge loops are continuous rings of edges that follow the curvature and form of an object. On a human face, proper edge loops circle the eyes and mouth because those are the areas that deform during animation, and edges that follow those deformation paths produce natural, artifact-free movement. On a mechanical object, edge loops follow the natural lines of the form and define how the surface will catch light.
Bad topology random polygon distributions, stars of many edges meeting at a single vertex, misaligned edge loops produces visible shading artifacts, poor deformation, and subdivision results that deviate from the intended form. Experienced modelers can look at a wireframe and immediately identify whether a model was built professionally or slapped together.
Poles
An E-pole (five edges meeting at a vertex) and N-pole (three edges meeting at a vertex) are inevitable in complex topology they allow edge loops to start and stop, and handle transitions between different polygon density zones. Professional topology places poles deliberately, away from high-deformation areas and curved surfaces where they’d cause visible pinching. Poor topology scatters poles randomly wherever the modeler ran out of ideas for how to route edges.
Polygon Density and LOD
Polygon density how many polygons per unit area should match the visual importance and curvature of each surface. Tight curves need more polygons to read smoothly; large flat surfaces need almost none. An amateur model has uniform density across everything; a professional model concentrates polygons where the surface demands them and keeps large flat regions lean.
Level of Detail (LOD) is the practice of creating multiple versions of the same model at progressively lower polygon counts for use at increasing distances from the camera. Game engines and real-time visualization tools swap between LODs automatically based on distance, ensuring performance isn’t wasted rendering detail that isn’t visible. A complete game asset delivery includes LOD0 (hero detail), LOD1, LOD2, and sometimes LOD3, each roughly halving the previous triangle count.
The Texturing Pipeline: From Uv Maps To Pbr Materials
3D modeling and texturing are separate disciplines that are deeply intertwined. A model without textures is geometry; a model with excellent textures can appear photorealistic even at moderate polygon counts.
UV Unwrapping
UV unwrapping is the process of unfolding a 3D mesh’s surface into a flat 2D map — essentially cutting the 3D object along seam lines and flattening it like the surface of a peeled orange. The resulting 2D layout is the UV map, and it determines how 2D texture images are projected onto the 3D surface.
Professional UV unwrapping minimizes stretching (areas where the surface is being forced to cover more or fewer pixels than neighboring areas), hides seams in naturally invisible areas (inner surfaces, bottom edges, underside of hems), and packs islands efficiently to maximize texture resolution. A poor UV layout produces visible texture stretching, seam lines on prominent surfaces, and inconsistent texture density across the model.
PBR Materials: Physically Based Rendering
The modern standard for 3D materials is PBR — Physically Based Rendering. Rather than painting what a surface looks like under specific lighting (which breaks when lighting changes), PBR materials describe the physical properties of a surface and let the renderer calculate how light behaves on it. The major maps in a PBR material set are:
– Albedo / Base Color: The raw color of the surface, without any lighting information baked in
– Roughness: How microscopically rough the surface is rough surfaces scatter light diffusely, smooth surfaces produce sharp specular reflections
– Metallic: Whether the surface is a conductive metal (reflections tinted by color) or a dielectric (white reflections)
– Normal Map: A fake surface relief map encoded in RGB that makes the surface appear to have bumps, scratches, and detail without adding geometry
– Height / Displacement: Actual geometric displacement of the surface, used in rendering for parallax depth and true silhouette detail
– Ambient Occlusion: Pre-calculated shadow in crevices and corners, added in composite for visual grounding
– Emissive: Areas that emit light, like screens, lamps, or neon elements
Texture Baking
Texture baking is the process of transferring surface information from a high-polygon source model to a low-polygon target model, stored in texture maps. This is the critical step that makes game-resolution characters look like they have millions of polygons of detail. The high-poly sculpt has all the surface pores, wrinkles, and fine detail; the normal map baked from it transfers that visual information to a 50,000-polygon mesh that a game engine can actually run in real time.
Baking also produces ambient occlusion maps, curvature maps (useful for smart masks in texturing), and sometimes full color from the high-poly mesh. Tools like Marmoset Tool bag and Substance Painter are the industry standard for baking, offering ray-matched high-to-low baking with cage control to prevent projection errors.
What Actually Determines The Cost Of 3D Modeling
3D modeling pricing confuses buyers because the same object say, a chair can cost anywhere from $50 to $5,000 depending on what’s actually being asked for. Here is a transparent breakdown of every factor that drives cost in professional 3D modeling services.
Modeling Type and Technical Method
NURBS and parametric CAD modeling is significantly more time-intensive than polygonal modeling for equivalent geometry, because it requires maintaining surface continuity, managing NURBS patches, and ensuring every surface meets with correct curvature continuity (G1 or G2 continuity where required). Industrial products with complex organic surfaces, automotive body panels, or precision-fit mechanical assemblies command higher rates than equivalent complexity rendered as polygon meshes.
Polygon Count and Detail Level
Higher polygon count is not always more expensive. The cost is in intent and complexity, not raw vertex count. A simple character model with excellent retopology at 15,000 polygons may cost more than a 50,000-polygon architectural model of a simple room. The real question is how many modeling decisions the artist must make. Every edge loop routed around a character’s shoulder involves judgment; tiling a floor texture does not.
Reference Quality
Good reference material dramatically reduces modeling time. Orthographic drawings with labeled dimensions, CAD files to reference, high-resolution photographs from multiple angles, and material specifications allow a modeler to work confidently and efficiently. Vague reference “something like this photo I found online” forces interpretive decisions that slow the process and require additional revision rounds. Expect cost premiums of 20–40% for poor reference compared to clean technical specifications.
Deliverable Complexity Model vs. Full Asset
A raw polygon model is a baseline deliverable. A complete production asset also includes: full UV unwrapping, a complete PBR texture set (often 6–8 individual texture maps), LOD variants for game use, material setup inside a specific renderer, rig and skinning for animated characters, and export testing in the target platform. Each of these additions compounds the scope. Be explicit about which deliverables you need when requesting a quote.
Revision Policy and Communication Overhead
Professional modeling services build revision rounds into pricing typically two to three rounds of changes after initial delivery. Open-ended revision policies are a pricing risk for studios and usually either increase the base quote or result in friction at the change request stage. Clients who communicate clearly, provide consistent reference, and give consolidated feedback at defined checkpoints reduce overhead and often receive better pricing.
How To Evaluate A 3D Modeling Service Before You Hire
The quality gap between professional 3D modeling studios and low-cost outsourcing operations is significant, and it’s not always visible from a portfolio thumbnail. Here are the questions that reveal whether a service is capable of handling your actual production requirements.
- Ask to see wireframes, not just renders. Any service can show you a beautiful render. Ask for wireframe screenshots of their models. Clean, intentional topology tells you more about professionalism than any render.
- Ask about their pipeline for your specific destination. A studio that defaults to “we deliver FBX” without asking where the file is going doesn’t understand production pipelines. A professional immediately asks: where is this model going, what will touch it next?
- Ask about texture resolution and map types. “We include textures” means nothing. Ask: what resolution, what maps are included, what color space workflow, what renderer are the materials set up for?
- Ask how they handle revisions. Good studios define revision rounds, checkpoints, and what constitutes a revision versus new scope. Vague policies suggest inexperience with managing production cycles.
- Ask for file format options. Professional services can deliver in whatever format your pipeline requires. A service that can only deliver one format may be using automated converters rather than purpose-built files.
- Ask about the poly count and why. Ask why the model is the polygon count it is. A professional can explain how they balanced visual fidelity against performance requirements for your specific use case.
Our Production Process
Brief & Technical Scoping
We begin every project with a structured brief that captures your reference material, dimensional data, output destination, polygon budget, software pipeline, and deadline. We return a detailed scope document specifying tools selected, polygon estimate, texture map deliverables, and revision policy before any work begins. This conversation is where quality is either built or lost.
Blockout & Proportional Review
Before committing to detailed geometry, we build a low-resolution blockout establishing overall proportions, scale relationships, and fundamental form. This is delivered as a checkpoint specifically so you can review and correct proportional decisions before they become expensive to change. Most professional revision cycles exist because this step was skipped.
Full Modeling & Topology
Approved blockout geometry is refined to full production resolution with correct topology, controlled edge loops, clean pole placement, accurate scale, and detail level appropriate to your output. We model with the downstream destination in mind hard surface detail is placed where it reads at render distance; organic surfaces are built for the deformation patterns of your rig.
UV Unwrapping & Texture Production
Every model receives a complete UV unwrap with seams hidden on non-visible surfaces, consistent texel density across UV islands, and efficient packing to maximize available texture resolution. Texture maps are produced in your specified resolution and color space sRGB for albedo, linear for roughness, metallic, and AO and validated for correct appearance in your target renderer before delivery.
Quality Control & Delivery
Before delivery, every model passes a technical checklist: no non-manifold geometry, correct normals, no overlapping UVs, confirmed scale accuracy, correct pivot placement, clean naming conventions, and format validation in the target application. We deliver organized file archives with every requested format, accompanied by a delivery document listing all included files and any notes about geometry decisions.
Industries Served
Manufacturing & Engineering
CAD-compatible models for product development, tooling design, assembly visualization, and manufacturing documentation. Toleranced to your process specifications.
Architecture & Real Estate
Building models for visualization, planning approval, marketing renders, virtual tours, and BIM coordination. From concept massing to final detailed interiors.
E-Commerce & Retail
Product models for interactive 3D viewers, augmented reality try-on, and marketing renders. GLB output for Shopify, Amazon, and retail platform requirements.
Medical & Life Sciences
Anatomical models, surgical device assets, pharmaceutical packaging, and molecular visualizations for training, documentation, and patient communication.
Aerospace & Defense
High-accuracy structural and systems models for simulation, training visualization, technical illustration, and maintenance documentation programs.
Consumer Electronics
Device models for marketing materials, product launch renders, augmented reality features, user manual illustrations, and regulatory documentation packages.
Frequently Asked Questions
What file formats do you deliver 3D models in?
We deliver in any format your pipeline requires. Common deliveries include OBJ, FBX, STL, STEP, IGES, GLB/glTF, Alembic, and USD, as well as native files from Blender, Maya, 3ds Max, Rhino, and SolidWorks. Specify your target software and use case during briefing and we’ll confirm the correct format strategy for your downstream workflow.
What’s the difference between 3D modeling for rendering versus 3D modeling for printing?
Models for rendering can have open edges, single-sided faces, and topology optimized purely for visual appearance. Models for 3D printing must be watertight. A completely closed manifold mesh with no holes, no overlapping geometry, and wall thicknesses calibrated for your specific printing process (FDM, SLA, SLS, and metal sintering each have different minimum wall thickness requirements). We build print models specifically for your machine and material specifications.
Can you model from photographs without CAD drawings?
Yes, photogrammetry-based and photo-reference modeling is a routine part of our practice. The accuracy achievable from photography depends on reference quality controlled multi-angle photography with known measurements in frame produces excellent results. Casual phone snapshots with ambiguous scale produce looser models requiring more interpretation. We assess reference quality upfront and set appropriate accuracy expectations before the project begins.
How long does a typical 3D modeling project take?
Simple product models with good reference and no animation or texturing: 24–72 hours. Complex hard-surface products with full PBR texturing: 3–7 business days. Architectural exteriors with surrounding site: 5–10 business days. Character models with rigging: 10–20 business days depending on complexity. These estimates assume clear reference and a single revision round. Projects with vague reference or multiple stakeholder feedback loops should budget additional time accordingly.
What level of detail should I request for game assets?
Game asset polygon budgets depend on your engine target, platform (mobile vs. console vs. PC), and the asset’s visual importance in your game. Hero characters in a PC game might have 30,000–80,000 triangles; background props in a mobile game might have 300–1,500. Share your platform target, camera distance, and any existing asset density guidelines from your tech team, and we’ll recommend a polygon budget matched to your performance requirements.
Do you provide textures and materials along with the 3D model?
Textures are a separate deliverable from geometry and are scoped independently. A base quote typically covers geometry only unless texturing is explicitly included in the brief. Full PBR texture sets including albedo, roughness, metallic, normal, height, and ambient occlusion maps are quoted based on texture resolution, map count, material complexity, and whether baking from a high-poly source is required. Specify at briefing whether you need the complete textured asset or geometry only.
Can you convert existing CAD files to polygon models suitable for rendering?
Yes. CAD-to-CG conversion is a specialist workflow requiring careful tessellation of NURBS surfaces into polygon meshes. Automated conversion produces meshes with poor topology, misaligned normals, and render artifacts. We manually retopologize CAD-derived geometry rebuilding correct quad topology over the imported surface producing render-ready meshes that hold up under subdivision, catch light correctly, and accept materials without artifacts.
What information do I need to provide to get an accurate quote?
The most important information:
(1) reference material drawings, photographs, existing CAD files, and example images of what you’re going for
(2) output destination what software or platform will consume the model
(3) deliverables list model only, textures, rig, LODs, animation
(4) required file formats
(5) deadline. The more specific your brief, the more accurate our quote. Vague requests generate range estimates with large variance.
Start A Project
Every project brief goes to a senior modeler for technical review before Render Furniture respond. No automated quotes, no sales team intermediaries. You get an honest scope, a realistic timeline, and a direct question if we need more information to do the job right.
Contact us