New 3D Resins Comparison Table:
We've just launched a new, comprehensive 3D Resins Comparison Table to help you find the perfect resin for any application. Explore now and elevate your 3D printing experience with ease and precision. Say goodbye to searching all over the web for scattered information.

3D Resin Comparison Table and Resin Printer Settings

Discover the Best 3D Printing Resin for Your Needs with Our Comprehensive Resin Comparison Guide

The list will expand as we discover more resin manufacturers. If you know of any resins not included here or notice any errors or missing information, please email me at phooddaniel@berkeley.edu. I created this table and entered the data personally to help meet my own strict requirements. I hope you find this table as valuable as I have and that it helps you find the perfect resin for your projects.

Welcome to our ultimate 3D Printing Resin Comparison Guide, your go-to resource for finding the absolute best 3D resin tailored to your specific application. In the fast-paced world of 3D printing, choosing the right resin is essential for achieving optimal results. Whether you're a hobbyist, a professional in the industrial, automotive, or consumer goods sectors, or a beginner in the 3D printing landscape, our guide offers detailed, up-to-date comparisons of a wide array of 3D printing resins.

Our user-friendly, interactive table features sliders to filter mechanical properties, ensuring you find the perfect resin that meets your specific requirements. The entire table is searchable, including resin colors, making it easier than ever to find exactly what you need. Dive deep into the world of 3D printing with detailed data on tensile strength, elongation at break, hardness, and other critical factors for various resins, including standard, flexible, tough, castable, and more.

Whether your focus is on strength, flexibility, cost-efficiency, or other properties, our guide streamlines your selection process, helping you make informed decisions quickly and effectively. Enhance your 3D printing projects by leveraging our comprehensive comparison chart designed to cater to enthusiasts, professionals, and newcomers alike.

Explore our 3D Printing Resin Comparison Guide today and discover the best 3D resin for your next project, ensuring top-notch results and satisfaction. Start optimizing your 3D printing experience now!

Tensile Strength: >

Flexure Strength: >

Elongation at Break: >

Impact Resistance: >

Shrinkage: <

Name	Colors	Printer Settings	Description	Price	Tensile Strength MPa	Flexural Strength MPa	Elongation @ Break %	Impact Resistance J/m	Hardness Shore D	UV Wavelength nm	Density g/cm³	Viscocity mPa·s	Shrinkage %	Printing Environment ℃	Flexural Modulus MPa	Youngs Modulus MPa	Flexural Strain @ Break %	Flexural Stress @ Max MPa	HDT @ 0.45 MPa	Heat Capacity J/GK	Curing Temp ℃

Detailed 3D Resin Property Descriptions (Glossary):

Resin Name: The brand and specific product identifier for the resin.
Color: The hue or appearance of the resin when cured.
Printer Settings: The specific parameters and configurations required to properly cure the resin for optimal print quality. These settings include layer exposure time, bottom layer exposure time, lift height, lift speed, and other relevant parameters that ensure the resin cures correctly and achieves the desired mechanical properties. Users can add their own settings based on their specific printer and use case.
Description: Additional information and features of the resin.
Tensile Strength (MPa): Measures the maximum stress the resin can withstand while being stretched before breaking. A primary indicator of the material's mechanical strength. Also known as the Tensile Stress @ Break (MPa):.
Flexural Strength (MPa): Indicates the ability of a material to resist deformation under load. Important for applications where the printed part will undergo bending stress.
Elongation at Break (%): The percentage increase in length before the resin breaks under stress. Reflects the material's ductility and flexibility.
Impact Resistance (J/m): Measures the material's resistance to impact. A higher value means better toughness and ability to absorb energy during a sudden impact.
Hardness (Shore D): A scale for measuring the hardness of materials. For resins, typically refers to the Shore D scale for harder materials.
UV Wavelength (nm): The optimal light wavelength range for curing the resin. Must be compatible with the 3D printer's light source.
Density (g/cm³): The mass per unit volume of the resin. Influences the weight and amount of resin needed for a print.
Viscosity (cps): The measure of a fluid's resistance to flow. In resins, lower viscosity often means easier handling and sometimes finer detail in prints.
Shrinkage (%): The percentage reduction in volume of the resin during curing and solidification.
Printing Environment (℃): The optimal temperature range for the environment where the resin is being printed. Critical for ensuring proper curing and print quality.
Flexural Modulus (MPa): The ratio of stress to strain in flexural deformation, or the tendency for a material to bend. Higher values indicate stiffer materials.
Young's Modulus (MPa): The ratio of stress to strain in tensile deformation. A measure of the stiffness of a solid material.
Flexural Strain @ Break (%): The amount of strain a material can withstand before breaking under flexural stress.
Flexural Stress @ Max (MPa): The maximum stress experienced by a material during flexural testing.
HDT (Heat Deflection Temperature): the temperature at which a material deforms under a specified load, crucial for assessing the thermal performance of polymers and resins. HDT is determined by applying a constant stress to a standard test specimen and gradually increasing the temperature until the specimen deforms by 0.25 mm (0.01 inches). For HDT @ 0.45 MPa, the test involves preparing a standard rectangular specimen, placing it in a three-point bending setup, applying a constant stress of 0.45 MPa, and increasing the temperature at a controlled rate of 2°C per minute, recording the temperature at which the deformation occurs. This value indicates the material's ability to retain its shape and mechanical properties under thermal stress, essential for high-temperature applications.
Heat Capacity (J/gK): The amount of heat required to raise the temperature of a unit mass of resin by one degree Kelvin.
Curing Temp (℃): The temperature at which the resin must be cured to achieve optimal properties.