Independent knowledge. Practical engineering.

Rogers PCB materials,
understood.

From dielectric properties to your next stackup. Explore materials, compare the trade-offs, and calculate the dimensions that shape an RF design.

Explore materials Open engineering tools

RF PCB / MATERIAL ANATOMYFIG. 01

Illustrative microstrip stackup. Dimensions, copper finish and material properties must match your actual construction.

77Material &
bonding references

17Material
families

13Engineering
tools

12Design &
fabrication guides

Start with the material

Every substrate is a decision.

Compare resin systems, electrical behavior and fabrication constraints before choosing a familiar part number.

01 / MATERIAL SYSTEM

RO4000 family

Thermoset materials for RF designs where processing, loss and multilayer integration all matter.

Explore thermoset laminates 02 / MATERIAL SYSTEM

PTFE & ceramic systems

RO3000 and RT/duroid materials for designs that demand close attention to dielectric behavior.

Explore ceramic-filled PTFE 03 / MATERIAL SYSTEM

The complete library

TMM, AD, CLTE, CuClad, DiClad, bonding materials and specialized product families.

Browse all material references

The engineering workbench

Go from a datasheet
to a first calculation.

Transparent models, visible assumptions and useful outputs. Your calculations run in your browser.

Explore all 13 tools →

Material selector Microstrip impedance Stripline impedance Grounded coplanar waveguide Wavelength & phase Patch antenna dimensions Stackup planner RFQ specification builder

A clearer design process

Choose the stackup.
Then trust the numbers.

A low-loss material is only one part of a reliable RF board. The geometry, copper and fabrication process have to work together.

Read the material selection guide →

Define the electrical problem
Start with frequency, insertion loss, phase stability, power and the physical space available.
Compare like-for-like data
Separate process Dk from design Dk. Check frequency, test method, thickness and copper configuration.
Calculate, simulate, then validate
Use preliminary tools to narrow a design, then confirm it with your field solver, fabricator and test coupons.

What is a Rogers PCB?

A Rogers PCB is a circuit board built using one or more Rogers circuit-material products. The name covers multiple material systems, rather than a single laminate specification. These products are used in RF, microwave and other demanding circuits where dielectric behavior, loss, dimensional stability or thermal performance influences the design.

Choosing the material starts with the circuit and stackup: operating frequency, permitted loss, impedance, thermal path, mechanical constraints and the manufacturing process. A familiar product name does not settle those choices. This reference brings material data, calculation tools and fabrication questions into one engineering workflow.

Rogers PCB vs FR-4: where the decision starts

FR-4 describes a broad class of glass-reinforced epoxy systems, and Rogers offers several different circuit-material families. Compare a specific construction against another specific construction. Check dielectric stability, loss at your frequency, copper profile, available thicknesses, processing and cost before selecting a material.

Use the Rogers vs FR-4 comparison to build the decision criteria, then compare RO4350B, RO4003C, RO3003 or RT/duroid 5880 where their properties fit the application.

Design for the application

An antenna feed network, a power amplifier and a millimeter-wave sensor can demand different compromises. Start with the system requirement, identify the loss and tolerance budget, then select a manufacturable structure.

Explore 5G antenna boards, RF power amplifiers and the application library. Before requesting a quote, use the RFQ builder to capture the required material, stackup and inspection details.

Common Rogers PCB questions

Is Rogers always better than FR-4?

The appropriate material depends on the design requirements. Compare specific grades and constructions against the required loss, phase stability, mechanical behavior, manufacturing process and budget. Frequency alone is not a universal rule for choosing a laminate.

Which dielectric constant should I use?

Use the Dk definition, frequency and test or design method appropriate to your model. Process Dk and design Dk can differ. Where a product has multiple constructions or frequency-dependent observations, check the full material record and confirm the actual ordered construction.

Can any PCB fabricator process these materials?

Capability depends on the material system and stackup. PTFE, thermoset and mixed-material multilayers can need different preparation and bonding processes. Confirm material availability, drilled-hole preparation, lamination, dimensional control and test requirements with the selected fabricator.

How this reference handles data

Property values remain attached to their original source and reported conditions. Unknown values stay unknown; conflicts between documents are called out in the material record. The calculators expose their assumptions and provide preliminary estimates rather than qualified fabrication dimensions.

Read our source and editorial policy or send a technical correction. This is an independent reference and is not affiliated with Rogers Corporation.

When moving from a shortlist to an ordered board, this Rogers PCB material and fabrication guide provides additional context for discussing construction and manufacturing requirements.

For a second perspective on build preparation, review these high-frequency PCB manufacturing considerations alongside the original material datasheets.

Rogers PCB materials,understood.