Coming Q3 2026 · In Development

Chemistry
engineered
layer by layer.

PrintChem brings ChemeNova's AI formulation intelligence to additive manufacturing — optimizing photopolymers, binders, and functional materials across every major 3D printing process. From cure kinetics to ISO 10993 biocompatibility, in seconds.

Cure & Formulation Engine idle
Describe a print job — or pick a preset
Class IIa dental resin · SLA · ISO 10993 · 385nm
Optimized formulation
0Print processes
0Intelligence modules
0Compliance standards
<30sTarget formulation time
Photopolymer Optimization FDM Filament Formulation ISO 10993 Biocompatibility SLA Resin AI Cure Kinetics Modeling Mechanical Property Prediction Binder Jetting Intelligence SLS Powder Optimization Photopolymer Optimization FDM Filament Formulation ISO 10993 Biocompatibility SLA Resin AI Cure Kinetics Modeling Mechanical Property Prediction Binder Jetting Intelligence SLS Powder Optimization
Z+0.20mm
01
The gap

3D printing needs its
formulation layer.

The additive manufacturing materials market is projected to exceed $4B by 2028. Yet most print chemistry is still formulated empirically — iterating at the bench, without predictive guidance on cure kinetics, mechanical performance, or regulatory compliance. PrintChem fixes that.

01 · SLA / DLP

Photopolymer Resins

Optimize monomer blends, photoinitiator systems, and reactive diluents for stereolithography and digital light processing. Cure depth, shrinkage, and post-cure mechanical properties predicted before synthesis.

Photoinitiator RatioCure DepthShrinkage ControlFlexural Modulus
02 · FDM / FFF

Filament Formulations

Develop high-performance polymer blends for fused deposition modeling. Melt flow index optimization, adhesion additives, nucleating agents, and plasticizer selection for dimensional accuracy and layer bonding.

Melt Flow IndexLayer AdhesionHDT OptimizationColorant Systems
03 · SLS / MJF

Powder Bed Systems

Engineer nylon, PA, and thermoplastic polyurethane powder blends for selective laser sintering. Particle size distribution, flow agents, and sintering window optimization for consistent bed density and mechanical isotropy.

Powder MorphologySintering WindowFlow AgentsThermal Stability
04 · Binder Jetting

Binder Systems

Design aqueous and solvent-based binder formulations for metal, ceramic, and sand jetting. Drop formation, penetration depth, green strength, and debinding chemistry all optimized simultaneously for part quality.

Drop FormationGreen StrengthDebinding ChemistryCeramic Wetting
Z+0.40mm
// Interactive · Cure Kinetics Engine

Dial in a cure
before you print it.

PrintChem models photopolymer cure from first principles. Drive the Jacobs working curve below — resin penetration depth, critical exposure, and dose — and watch cure depth resolve against your layer thickness in real time.

Resin preset
Exposure dose · E42 mJ/cm²
Light energy delivered per layer. More dose → deeper cure, but risk of over-cure bleed.
Penetration depth · Dp110 µm
How far light reaches into the resin. Set by photoinitiator load and absorbers.
Critical exposure · Ec8.5 mJ/cm²
Gel-point threshold. Below Ec the resin never solidifies.
Layer thickness100 µm
Cd = Dp · ln(E / Ec)  —  the Jacobs working curve
Working Curve cure depth vs. dose
Cure depth µm
Cure / layer
Verdict
Z+0.60mm
02
Core modules

Six intelligence
modules for print chemistry.

01
01 · Kinetics

Cure Kinetics Engine

AI-driven photokinetics modeling predicts cure depth, cure speed, and oxygen inhibition effects for any monomer-photoinitiator system. Generate exposure parameter recommendations for any wavelength and intensity before running a single print.

  • Photoinitiator quantum yield prediction
  • Monomer conversion rate modeling
  • Oxygen inhibition zone estimation
  • Post-cure mechanical property forecast
02
02 · Mechanical

Property Prediction

Predict tensile strength, flexural modulus, elongation at break, heat deflection temperature, and impact resistance from formulation composition alone — before any material is synthesized or printed.

  • Tensile / flexural / compression targets
  • HDT and VICAT softening prediction
  • Anisotropy estimation (XY vs. Z-axis)
  • Shore hardness and rebound resilience
03
03 · Biocompatibility

Medical-Grade Screening

ISO 10993 biocompatibility pre-screening for medical device and dental applications. Cytotoxicity, sensitization, and irritation risk assessment from chemical structure alone, reducing the cost of failed biocompatibility testing.

  • ISO 10993-1 risk classification
  • Residual monomer toxicology screening
  • Leachables and extractables prediction
  • Dental Class II/III material guidance
04
04 · Sustainability

EcoMetrics for Print

Carbon footprint, biodegradability, and end-of-life assessments for every print material formulation. Identify bio-based monomer substitutes and recyclable polymer systems — without sacrificing mechanical performance.

  • Bio-based content quantification
  • Carbon passport generation
  • End-of-life recyclability modeling
  • Solvent reduction optimization
05
05 · Reformulation

Print Failure Diagnosis

Enter the specific failure mode — warping, delamination, poor surface finish, brittleness, off-color — and get a ranked set of minimum-change formulation fixes with confidence scores. No trial-and-error required.

  • Warpage and delamination root cause
  • Surface quality diagnostic
  • Mechanical failure mode attribution
  • Surgical single-ingredient swap recommendations
06
06 · Regulatory

Compliance Intelligence

Automated regulatory screening for RoHS, REACH, FDA 21 CFR, UL 94 flammability, and ASTM F2792 print material standards. Per-ingredient compliance status and reformulation guidance for every market in scope.

  • RoHS / REACH substance screening
  • FDA 21 CFR food-contact materials
  • UL 94 flammability classification
  • EU Machinery Directive material requirements
Z+0.80mm
03
Interactive · Reformulation Engine

Name the defect.
Get the fix.

Observed print defect
Root-Cause Analysis 3 fixes ranked
Probable root cause
Minimum-change recommendations
Z+1.00mm
04
Applications

Who PrintChem
is built for.

Dental & Medical Device

Class II and Class III dental resins, surgical guide materials, and implant-adjacent polymers. ISO 10993 pre-screening eliminates costly biocompatibility failures before lab testing even begins.

ISO 10993 · FDA 510(k)

Aerospace & Defense

High-temperature resins, flame-retardant filaments, and outgassing-controlled polymers for aircraft interiors, UAV structures, and low-orbit applications. UL 94 and FAR 25.853 compliance built in.

UL 94 · FAR 25.853 · Low Outgassing

Industrial Tooling

High-HDT photopolymers and filled FDM filaments for jigs, fixtures, molds, and end-use parts. Optimize for dimensional stability, chemical resistance, and surface hardness simultaneously.

HDT · Chemical Resistance · Shore D

Sustainable Packaging

Bio-based and biodegradable print materials for packaging prototyping and low-volume production. PLA blends, PHB copolymers, and cellulose composite filaments optimized for printability and compostability.

Bio-Based · Compostable · PLA / PHB

Research & Prototyping

Rapid formulation screening for academic and industrial R&D labs. Test dozens of resin or filament compositions in silico before committing to physical synthesis and printing runs.

In Silico Screening · R&D Acceleration

Construction & Architecture

Concrete admixtures, polymer binders, and functional inks for large-format construction 3D printing. Workability, setting time, and structural performance optimization for contour crafting and D-Shape applications.

Concrete AI · Large Format · Binder Optimization
Z+1.20mm
// Compliance

Built to the
standards that matter.

Every PrintChem module is architected against the regulatory and technical standards governing additive manufacturing materials — across medical, aerospace, food contact, and industrial applications.

ISO 10993

Biological Evaluation of Medical Devices

Cytotoxicity, sensitization, and irritation risk assessment for medical-grade print materials

ASTM F2792

Additive Manufacturing Standard Terminology

Material classification and performance characterization aligned with ASTM AM standards

ISO 17296

Additive Manufacturing General Principles

Feedstock properties, process parameters, and test methods for AM material qualification

UL 94

Flammability of Plastic Materials

Flame retardancy classification from V-0 to HB for FDM and SLA print materials

REACH / RoHS

Chemical Substance Compliance

Restricted substance screening for all monomers, photoinitiators, and additives in scope

FDA 21 CFR

Food Contact & Drug Delivery Materials

FDA guidance for 3D-printed food contact articles and drug-eluting device materials

Z+1.40mm
05
Comparison

PrintChem vs.
legacy approaches.

Capability Trial & Error (Lab) Material Supplier Data PrintChem™
Formulation timeWeeks to monthsFixed catalog only< 30 seconds
Mechanical property predictionAfter synthesis & printData sheet onlyBefore synthesis
Cure kinetics optimizationManual DoENot providedAI-predicted, parametric
ISO 10993 biocompatibility$5k–$30k lab testingNot providedPre-screening from structure
Failure diagnosisRe-iterate from scratchApplication support callInstant root cause + fix
Sustainability scoringSeparate LCA studyNot providedBuilt-in EcoMetrics
Regulatory compliance checkManual, per ingredientPartial SDS dataAutomated · REACH / RoHS / FDA
CostHigh (lab time + materials)Supplier locked-inSaaS — fraction of lab cost
Z+1.60mm
// Early access

Be first when
PrintChem launches.

Join the early access list for PrintChem™. We'll notify you when the platform opens for beta testing in Q3 2026 — and work directly with early partners to validate formulations.

Or email directly: [email protected]

Chemistry moves
faster with PrintChem.

While PrintChem is in development, IntelliForm™ is live today — with formulation intelligence for 7 verticals including coatings, industrials, and adhesives that overlap with additive manufacturing chemistry.

Try PrintChem Free → Discuss Partnership