Facegen To Vam Review

Here’s a ready-to-use post for social media, a forum (like Reddit or Virt-A-Mate Discord), or a blog. Choose the tone that fits your audience.


Option 1: Short & punchy (best for Twitter / Mastodon)

🎨 From FaceGen to VAM in minutes.

Want to turn a photo into a custom VAM model? Here’s the fast track:

  1. Generate your head mesh in FaceGen (Artist / Pro)
  2. Export as OBJ + textures
  3. Import into VAM using the Custom Unity Asset workflow or Genesis 2 importer
  4. Fine-tune morphs & materials

Pro tip: Use FaceGen’s “VAM-friendly” morph export settings (keep quads, avoid extreme sliders).

Result: A believable custom face without sculpting from scratch. 🧬

#VirtAMate #FaceGen #VAM #3DCharacterCreation #AdultGamedev


Option 2: Step‑by‑step tutorial (best for Reddit / Discord)

Title: Quick guide: FaceGen → VAM (no blender headache)

Step 0 – What you need

  • FaceGen Artist / Pro (trial works too)
  • Virt-A-Mate (latest build)
  • Unity 2018.4.20f1 (for custom assets)

Step 1 – FaceGen

  • Load a front + side photo
  • Generate head
  • Export → Wavefront OBJ
  • Check “Export Textures” (Diffuse, Normal, Specular)
  • Morphs: keep subdivision low-ish (under 15k tris for VAM)

Step 2 – Prep for VAM

  • In FaceGen, export as “Genesis 2 Female” (if available) – easier morph matching
  • If not: export as generic OBJ, then use DAZ 3D to transfer to Genesis 2 topology (advanced)

Step 3 – VAM import (two methods)

  • Easiest: Use VAM LaunchCustom Unity Asset → build .assetbundle with your OBJ + textures.
  • Direct: Replace an existing VAM head morph using the Morph Import tab (JSON format). You’ll need to convert the FaceGen .dsf or .obj morphs via MorphMerger (community tool).

Step 4 – Final tweaks

  • In VAM: adjust skin gloss, subsurface scattering, and eye depth
  • Align jaw / eyelid morphs manually (FaceGen eyes often sit too deep)

⚠️ Warning: FaceGen heads usually need scaling (0.95–1.05) and eye rotation fixes. Use the VAM Head & Face control to dial it in.

💬 Questions? Drop them below. I’ll share my import preset if there’s interest.


Option 3: Casual “just figured this out” (good for personal page)

Okay, I finally got FaceGen → VAM working without pulling my hair out.

The trick?

  • Export OBJ from FaceGen with textures only (no lighting baked)
  • Use Unity Asset Bundle method, not DAZ (too many steps)
  • In VAM, load the bundle as a Custom Head → then copy over skin material settings from a base look.

Does it look perfect? No – but 80% there in 10 minutes is magic. Then 20% tweaking sliders. facegen to vam

Let me know if you want the Unity template I used.


The workflow of bringing a face from FaceGen into Virt-A-Mate (VaM) is a cornerstone for creators looking to achieve high-fidelity "look-alike" characters. Since VaM uses the Daz Studio Genesis 2 (G2) mesh as its foundation, FaceGen's ability to export directly to this format makes it an essential bridge for translating 2D photos into 3D avatars. The Role of FaceGen in VaM

FaceGen acts as "middleware" that generates 3D facial geometry (morphs) and skin textures from one or more photographs.

Geometry Generation: It creates a unique 3D head shape that mimics the person in the photo. Texture Mapping

: It generates skin maps (diffuse textures) that align with the 3D model.

Daz Integration: Crucially, FaceGen has a dedicated export button for

, which allows the resulting data to be used by VaM without complex manual rigging. General Export & Import Workflow

Generate in FaceGen: Use the "Photo" tab to scan a face, then refine the shape and color under the "Modify" tab. Export to Daz : Select the

Female (or Male) export option. This creates a .dsf morph file and image textures (face, torso, limbs). Transfer to VaM:

Copy the exported morph file to the Custom/Atom/Person/Morphs/female (or male) directory in your VaM installation. Copy the texture files to your VaM textures folder.

Finalize in VaM: Hard reset VaM to force it to scan and convert the new morph. You can then apply the morph to a character "atom" and load the custom textures in the "Skin Select" menu. Common Challenges & Optimization

While the automated process is powerful, it often requires manual cleanup to look "pro": How to use FaceGen Artist Pro – Part 1 of 3

FaceGen to VAM: A Comprehensive Report

Introduction

FaceGen and VAM (Virtual Anthropology Model) are two software tools used in the field of forensic anthropology and facial reconstruction. FaceGen is a 3D facial reconstruction software that allows users to create a virtual face from a skull, while VAM is a comprehensive software platform for virtual anthropology and facial reconstruction. This report aims to provide an overview of FaceGen and its integration with VAM, highlighting their features, benefits, and applications.

FaceGen Overview

FaceGen is a software tool developed by FaceGen Inc. that enables users to create a 3D facial reconstruction from a skull. The software uses advanced algorithms and artificial intelligence to predict the facial structure and features of an individual based on their skull. FaceGen is widely used in forensic anthropology, archaeology, and medical fields for:

  1. Facial Reconstruction: FaceGen allows users to create a virtual face from a skull, which can be used to identify human remains.
  2. Forensic Analysis: The software provides a powerful tool for forensic anthropologists to analyze facial features and predict the appearance of an individual.
  3. Education and Research: FaceGen is used in academic institutions for teaching and research purposes, providing a realistic and interactive way to study facial anatomy and anthropology.

VAM Overview

VAM (Virtual Anthropology Model) is a comprehensive software platform developed by the University of Tennessee for virtual anthropology and facial reconstruction. VAM is designed to provide a complete workflow for facial reconstruction, from data acquisition to final visualization. The software offers: Here’s a ready-to-use post for social media, a

  1. Data Acquisition: VAM allows users to import data from various sources, including CT scans, MRI scans, and 3D scans.
  2. Facial Reconstruction: The software provides advanced tools for facial reconstruction, including muscle and skin prediction.
  3. Analysis and Visualization: VAM enables users to analyze and visualize the reconstructed face, including measurement and comparison tools.

Integration of FaceGen with VAM

The integration of FaceGen with VAM provides a seamless workflow for facial reconstruction and analysis. FaceGen's advanced facial prediction algorithms are now available within the VAM platform, allowing users to:

  1. Import FaceGen Data: Users can import FaceGen data into VAM, enabling the creation of a virtual face from a skull.
  2. Facial Reconstruction: The integrated workflow allows users to perform facial reconstruction using VAM's advanced tools and FaceGen's prediction algorithms.
  3. Analysis and Visualization: Users can analyze and visualize the reconstructed face using VAM's comprehensive tools.

Benefits and Applications

The integration of FaceGen with VAM offers several benefits and applications:

  1. Improved Accuracy: The combination of FaceGen's prediction algorithms and VAM's advanced tools provides a more accurate facial reconstruction.
  2. Streamlined Workflow: The integrated workflow reduces the time and effort required for facial reconstruction and analysis.
  3. Forensic Casework: The software is widely used in forensic casework, including human identification, facial reconstruction, and crime scene investigation.
  4. Research and Education: The integration of FaceGen with VAM provides a powerful tool for research and education in forensic anthropology and facial reconstruction.

Conclusion

The integration of FaceGen with VAM provides a comprehensive solution for facial reconstruction and analysis. The software offers a powerful tool for forensic anthropologists, researchers, and educators, enabling the creation of accurate and realistic facial reconstructions. The benefits of the integration include improved accuracy, streamlined workflow, and a wide range of applications in forensic casework, research, and education.

Introduction

FaceGen and VAM (Virtual Avatars and Models) are two popular software tools used in various industries such as gaming, animation, and virtual reality. FaceGen is a 3D facial modeling and animation software that allows users to create realistic human faces and animate them. VAM, on the other hand, is a virtual avatar and character creation platform that enables users to create customizable 3D characters. In this content, we'll explore the capabilities of FaceGen and its transition to VAM.

What is FaceGen?

FaceGen is a software tool developed by Singular Inversions that allows users to create highly realistic 3D human faces. The software uses a combination of parametric and free-form modeling techniques to create detailed facial models. With FaceGen, users can create a wide range of facial expressions, skin textures, and other features that make the faces look realistic.

Key Features of FaceGen

  • Realistic Facial Modeling: FaceGen allows users to create highly detailed and realistic 3D facial models.
  • Parametric Modeling: The software uses parametric modeling techniques to create facial models that can be easily customized and animated.
  • Facial Animation: FaceGen enables users to animate facial expressions and create realistic character interactions.

What is VAM?

VAM (Virtual Avatars and Models) is a character creation platform that allows users to create customizable 3D characters. The platform provides a range of tools and features that enable users to create realistic characters with detailed facial models, body shapes, and clothing.

Transition from FaceGen to VAM

In 2019, Singular Inversions, the developer of FaceGen, announced that it would be discontinuing FaceGen and transitioning its users to VAM. The decision was made to provide users with a more comprehensive character creation platform that integrates facial modeling, body modeling, and animation.

Key Features of VAM

  • Character Creation: VAM allows users to create customizable 3D characters with detailed facial models, body shapes, and clothing.
  • Facial Modeling: The platform provides advanced facial modeling tools that enable users to create realistic facial features and expressions.
  • Body Modeling: VAM allows users to create 3D body models that can be customized to fit their character's needs.
  • Animation: The platform provides animation tools that enable users to animate their characters and create realistic interactions.

Benefits of Transitioning to VAM

The transition from FaceGen to VAM provides users with several benefits, including:

  • More Comprehensive Character Creation: VAM offers a more comprehensive character creation platform that integrates facial modeling, body modeling, and animation.
  • Improved User Interface: VAM provides a more intuitive and user-friendly interface that makes it easier for users to create and customize their characters.
  • Enhanced Community Features: VAM offers community features that enable users to share and collaborate on character creations.

Conclusion

The transition from FaceGen to VAM marks a significant milestone in the development of character creation software. With VAM, users can create highly realistic 3D characters with detailed facial models, body shapes, and clothing. The platform provides a more comprehensive character creation solution that integrates facial modeling, body modeling, and animation. As the demand for virtual avatars and models continues to grow, VAM is well-positioned to become a leading platform for character creation and animation.

Using FaceGen to create a detailed feature in Virt-A-Mate (VaM) involves a two-part process: generating the base assets in FaceGen (or via Daz Studio) and then manually refining them within VaM to overcome common software limitations. 1. Asset Generation & Import

To get a face from a photo into VaM, you typically use FaceGen Artist Pro to create a Daz Genesis 2 (G2) or Genesis 8 (G8) character.

Target Mesh: While VaM uses Genesis 2 Male format skin textures, it is most common to generate a G2 or G8 model in Daz first.

Exporting Morphs: FaceGen creates a specific morph file. When importing this into VaM, expert users recommend setting the morph slider to 0.600 rather than 1.000, as the full value often appears distorted or "off" in the VaM engine. 2. Texture Refinement

FaceGen textures often come out "flat" or with unwanted artifacts like chin marks or blurry lips.

Manual Correction: Use a photo editor to clean up the FaceGen diffuse map. Focus on the chin, lips, and eyelids where AI generation often fails.

The "Magnum Opus" approach: For high-quality realism, don't rely solely on the FaceGen texture. Many creators use the FaceGen morph for shape but blend it with professional skin textures from creators like Riddler on the VaM Hub to add realistic pores, wrinkles, and micro-details.

Component Layers: A complete detailed face requires four key texture maps: Diffuse (color), Normal (depth/bumps), Specular (shine), and Gloss. 3. Fine-Tuning in VaM

Once the assets are loaded, use these steps to achieve a "detailed feature" look:

Image Overlay: Use a tool like OnTopReplica to overlay the original photo at 50% opacity over the VaM window. This allows you to manually tweak eye size, nose bridge height, and nostril shape using VaM's built-in sliders to match the real person's proportions.

Correcting Eyes: FaceGen frequently miscalculates eyeball scale and placement. Scale down the eyeball size in VaM until the eyeball shadow renders correctly.

Symmetry & Shape: Use "caricature" and "asymmetry" sliders in FaceGen to dial down extreme shapes before exporting, as it is easier to add subtle asymmetry manually in VaM later.

The following tutorial demonstrates how to fix textures and apply morphs for high-quality character creation: 01:24:13

While there isn't a single "academic paper" for this workflow, the community-standard guide is the FaceGen to VaM Tutorial found on the Virt-A-Mate Hub The workflow generally follows these steps: Generate in FaceGen : Import front and side profile photos into FaceGen Artist Pro . Create the face and export it for Genesis 2 Female (G2F) , which is the base model used in VaM. Locate Files : FaceGen generates two critical components: a texture file and a morph file. Import to VaM morph file in your VaM directory (typically Custom/Atom/Person/Morphs/female skin texture through the Skin Textures tab in VaM. : Ensure the

in VaM matches the one used during export (usually "Base Female") to prevent texture misalignment.

1. Introduction

1.1 Context Virt-A-Mate (VAM) is a sandbox simulation tool heavily reliant on procedural generation and morph targets to create realistic human characters. However, the default character creation tools, while powerful, can be time-consuming to manipulate for specific likenesses.

1.2 The Role of FaceGen FaceGen is widely regarded as a standard tool for quickly generating 3D facial meshes from photographic references. The ability to generate a base mesh rapidly makes it an attractive starting point for VAM creators. However, VAM utilizes a specific mesh topology and shader system that does not natively support FaceGen’s output format without intermediary processing.

Part 3: The "VAM Polish" – Fixing the Raw FaceGen Import

A raw FaceGen head is mathematically accurate but visually plastic. To achieve "VAM quality," you need a post-process. Option 1: Short & punchy (best for Twitter

Part 4: Advanced Troubleshooting – Solving Common "FaceGen to VaM" Disasters

Even professionals run into these issues. Here is how to fix them.

Overall Verdict: ⭐⭐⭐⭐☆ (4/5)

Powerful but finicky – best for users who want truly unique characters and aren’t afraid of manual tweaking.