³Ô¹Ïtv · RF materials & manufacturing
Rogers PCB materials
Compare laminate families without treating brand names as equivalent electrical specifications. Use the explanations, source documents and interactive calculations to make the next engineering decision with clear assumptions.
Bring your band, stackup, quantity and acceptance requirements. Preliminary files are welcome for review.

Start with the engineering decision
| Material | Process Dk | Design Dk | Typical Df |
|---|---|---|---|
| RO4003C | 3.38+/-0.05 | 3.55 | 0.0027 |
| RO4350B | 3.48 +/- 0.05 | 3.66 | 0.0037 |
| RO3003 | 3.00+/-0.04 | 3.16 | 0.0010 |
| RO3003G2 | 3.00+/-0.04 | 3.07 | 0.0011 |
| RT/duroid 5880 | 2.20 +/- 0.02 | 2.20 | 0.0009 |
| TMM 4 | 4.50+/-0.045 | 4.7 | 0.0020 |
Choose the next material or engineering task
Each linked page has a specific role. Use the material reference for data, the manufacturing page for a build request, and the application or design guide for the relevant engineering decision.
| Topic | What this page helps you do |
|---|---|
| RO3000 RO3200 fabrication | Compare reinforced and unreinforced construction behavior before process release |
| Rogers dielectric materials by circuit task | Separate dielectric constant, loss and temperature behavior in material selection |
| ULTRALAM materials: PTFE and LCP generations | Identify the historical product generation before transferring any design value |
| AD1000 material identification | Resolve the precise grade and current document before assigning numeric design properties |
| AD1000 PCB manufacturing and material verification | Recover the exact AD1000 construction for a controlled fabrication request |
| AD250C datasheet: Properties & Construction Notes | Interpret supplier electrical and thermal values before assigning design inputs |
| AD250C design: Geometry & Verification | Apply the exact grade to routing, reference planes and dimensional tolerances |
| AD250C PCB manufacturing | Define the material, finished RF construction and inspection scope for a fabrication quote |
| AD255C datasheet: Properties & Construction Notes | Interpret supplier electrical and thermal values before assigning design inputs |
| AD255C design: Geometry & Verification | Apply the exact grade to routing, reference planes and dimensional tolerances |
| AD255C PCB manufacturing | Define the material, finished RF construction and inspection scope for a fabrication quote |
| AD300 material identification | Resolve the precise grade and current document before assigning numeric design properties |
| AD300D datasheet: Properties & Construction Notes | Interpret supplier electrical and thermal values before assigning design inputs |
| AD300D PCB manufacturing | Define the material, finished RF construction and inspection scope for a fabrication quote |
| AD350A datasheet: Properties & Construction Notes | Interpret supplier electrical and thermal values before assigning design inputs |
| AD350A PCB manufacturing | Define the material, finished RF construction and inspection scope for a fabrication quote |
| CLTE PCB manufacturing | Define the material, finished RF construction and inspection scope for a fabrication quote |
| CLTE-AT PCB manufacturing | Define the material, finished RF construction and inspection scope for a fabrication quote |
| CLTE-MW PCB manufacturing | Define the material, finished RF construction and inspection scope for a fabrication quote |
| CLTE-XT datasheet: Properties & Construction Notes | Interpret supplier electrical and thermal values before assigning design inputs |
| CLTE-XT PCB manufacturing | Define the material, finished RF construction and inspection scope for a fabrication quote |
| CuClad 217 PCB manufacturing | Define the material, finished RF construction and inspection scope for a fabrication quote |
| CuClad 233 PCB manufacturing | Define the material, finished RF construction and inspection scope for a fabrication quote |
| CuClad 250 PCB manufacturing | Define the material, finished RF construction and inspection scope for a fabrication quote |
| DiClad 527 PCB manufacturing | Define the material, finished RF construction and inspection scope for a fabrication quote |
| DiClad 870 design: Geometry & Verification | Apply the exact grade to routing, reference planes and dimensional tolerances |
| RO3203 datasheet: Properties & Construction Notes | Interpret supplier electrical and thermal values before assigning design inputs |
| RO3203 PCB manufacturing | Define the material, finished RF construction and inspection scope for a fabrication quote |
| RO3206 PCB manufacturing | Define the material, finished RF construction and inspection scope for a fabrication quote |
| RO3210 PCB manufacturing | Define the material, finished RF construction and inspection scope for a fabrication quote |
| RO3730 material identification | Resolve the precise grade and current document before assigning numeric design properties |
| RO4360 material identification | Resolve the precise grade and current document before assigning numeric design properties |
| RT/duroid 6010LM and 6010.2LM material identity | Confirm whether the design calls for the current 6010.2LM construction before using its data |
| RT duroid 6202PR PCB: Design & Manufacturing | Specify the laminate, resistive foil and resistor acceptance together |
| SYRON 7000 material identification | Resolve the precise grade and current document before assigning numeric design properties |
| ULTRALAM 1000 material identification | Resolve the precise grade and current document before assigning numeric design properties |
| ULTRALAM 2000 material identification | Resolve the precise grade and current document before assigning numeric design properties |
| Rogers PTFE PCB processing | Review machining, hole preparation and dimensional control for the exact PTFE construction |
| Rogers PCB CTE and expansion planning | Separate laminate axes, thermal range and assembly constraint when estimating movement |
| Rogers PCB impedance control | Connect the line model, finished geometry and coupon acceptance |
| Rogers PCB loss minimization | Separate conductor, dielectric, launch and mismatch contributions before changing materials |
| Rogers PCB multilayer stackup | Define every core, bond layer, reference plane and transition in an RF hybrid |
| Rogers PCB thermal management | Follow heat from the device through the interface to the heat sink |
| Buy RT duroid 5880: Specification & Quotation | Specify material format, foil, thickness and lot records for the requested deliverable |
| How to order Rogers PCB: Specification & Quotation | Prepare a complete fabrication request and close open technical decisions |
| Rogers PCB distributor: Specification & Quotation | Distinguish buying copper-clad sheets from ordering fabricated circuit boards |
| Choosing a Rogers PCB manufacturer | Evaluate fabricator evidence, process fit and quotation exceptions |
| Rogers PCB price: Specification & Quotation | Compare panel yield, setup, construction and testing on the same scope |
| Rogers PCB prototype planning | Choose a prototype that tests RF assumptions before committing to production |
| Rogers satellite PCB material: Material & Design Decisions | Review vacuum, temperature, radiation and traceability requirements as a program-specific system |
| PCB laminate manufacturer comparison: Construction & Cost Tradeoffs | Compare named grades and constructions under the same electrical and procurement conditions |
| What is Rogers PCB | Understand what the material name specifies and how an RF PCB differs from a general FR-4 board |
RF engineering workbench
Use explicit construction inputs. Results can be downloaded or opened as an email draft; the tool does not upload project information.
Worked planning example
Example: for model Dk 2.20, dielectric height 0.508 mm and target impedance 50 Ω, an ideal zero-thickness microstrip gives approximately 1.568 mm width and effective permittivity 1.881. At 10 GHz its guided wavelength is approximately 21.857 mm. These are illustrative model inputs, not properties assigned to every material discussed here.
Use the result to inspect scale and sensitivity. Preserve the input units and assumptions in the downloaded brief, then use the actual finished geometry and appropriate solver or measurement method for release.
Rogers Engineering Workbench
Choose a material route from the engineering requirement
Start with the circuit task rather than the brand. A short control board, a microwave filter, a phased antenna feed and a high-power RF module place different demands on the substrate. Record the operating band, path length, allowed loss, phase requirement, power and mechanical envelope. Then identify which requirements are sensitive to the laminate and which are governed mainly by geometry, connectors, components or thermal interfaces.
Separate a family shortlist from an approved construction. RO4000 thermoset materials, RO3000 ceramic-filled PTFE, reinforced PTFE, RT/duroid and TMM products cover different design and fabrication contexts. Within each family, the individual grade and foil option matter. A shortlist is a reasoned set of candidates; it is not a claim that every member of a family can be substituted into the same layout.
A lower dielectric constant generally leads to a longer guided wavelength, while a higher value can reduce the physical size of resonant structures. Neither direction is universally better. Lower loss, compact size, fabrication tolerance and thermal behavior can pull the design toward different choices. Resolve the dominant requirement first, then examine the tradeoffs of the candidate construction rather than assigning one material a universal quality score.
Use the model and comparison tools to expose sensitivity. Hold height, frequency and target impedance constant when comparing candidate Dk values; then inspect the change in required width. If the board geometry must remain fixed, calculate the changed impedance instead. For a loss comparison, distinguish dielectric-only attenuation from a measured path that includes copper, launches and mismatch. Those distinctions make the calculation actionable rather than merely interactive.
The next useful step is a construction-specific review. Bring a proposed core thickness, foil, stackup, critical geometry and acceptance plan. The material pages supply grade-level data; the design articles explain the relevant model; the commercial page turns the result into a manufacturing request. This keeps the material directory useful without forcing a visitor through every page or calculator before contacting engineering.

How to turn a datasheet into usable design inputs
Read the property, the test method and the condition as one record. A dielectric constant without frequency, temperature or method can be ambiguous. A typical value is also different from a purchasing tolerance. The table on this page separates supplier process Dk from design Dk so that an engineer does not accidentally transfer a quality-control measurement into a circuit model with a different definition.
Effective permittivity belongs to the transmission-line structure. For an air-covered microstrip, some of the field occupies air and some occupies the substrate. For a homogeneous centered stripline, the field arrangement is different. Neither quantity should be casually relabeled as the material's process Dk. The same laminate can therefore appear in two correct calculations with different effective permittivities because the geometries differ.
Preserve document revisions when recording values. A supplier may publish a design reference that depends on thickness, copper configuration, frequency range or a particular extraction method. The presence of a newer document does not mean that an old approved circuit should be changed without review. Compare the relevant construction and determine whether the design model, procurement specification or acceptance record needs revision.
A useful material comparison holds the circuit task constant. Begin with the same electrical length or board geometry, then state which variable is allowed to change. Comparing one material at a different thickness, foil type and fixture can obscure the reason for a performance difference. Keep the comparison small enough to answer a defined question, such as trace-width change at equal impedance or dielectric attenuation under an explicitly constant-Df assumption.
When the material is selected, carry the chosen construction into the fabrication drawing. Specify the supplier grade, core thickness, copper type, finish, bond layers and critical RF dimensions. Leave unresolved items visibly open for engineering review. This page is the data interpretation step; the linked manufacturing page carries the selected material into a quote-ready board description.
From a nominal line to a toleranced RF layout
Establish the local cross-section before choosing a trace width. Record the dielectric height, material model, copper thickness and reference-plane arrangement. A total board thickness is not a valid substitute for the distance to the reference plane unless the structure is truly a two-layer core with that definition. For stripline, check whether the trace is centered and whether the dielectric is homogeneous on both sides.
Use a preliminary calculation to estimate scale, then evaluate the actual construction in a suitable solver. The ideal line model provides a reproducible starting point, but it does not include solder mask, trapezoidal etch shape, conductor roughness, dispersion or a three-dimensional connector launch. A calculator output with many decimal places is still only as useful as the assumptions that generated it.
Translate manufacturing variation into circuit questions. A width tolerance, dielectric-height tolerance and Dk variation do not necessarily combine as a single worst-case impedance number for every circuit. Establish which variables can move together and which are independently controlled. For a filter, sensitivity of resonator length and coupling gap may be more useful than one line-impedance estimate. For an array, phase tracking across paths can matter more than a nominal delay value.
Keep a continuous and intentional return structure. Slots, voids, antipads and layer changes can alter the fields even when the trace width remains constant. Where a signal transitions to another layer, review the return connection and launch geometry. Where a metal enclosure or shield is close to the line, include it in the final electromagnetic model. The schematic net name does not describe those physical boundaries.
Release a drawing that links the electrical model to measurable construction. Identify critical dimensions, stackup revision, allowed substitutions and the test method. If a prototype leads to a geometry adjustment, record the reason and the revised model rather than allowing the change to remain an undocumented fabrication compensation. That record makes later procurement and repeat production substantially easier to compare.
Cost planning and a direct RFQ route
Where the cost changes, and which savings are real
For a small RF order, setup, procurement and test preparation may matter as much as the area of laminate. A panel that holds more circuits spreads some shared effort across more boards, but only if the orientation, tooling and coupon requirements permit that layout. The budget tool uses an explicit rectangular nesting model so that its area assumption can be inspected. It does not assume every visible square millimeter of a panel becomes a delivered board.
Copper foil, core thickness and bonding system are part of the purchased construction. A quotation based on a different thickness or foil is not a clean price comparison, even when the headline material name matches. Ask whether the offered material is standard for the supplier's available construction and whether minimum purchases, special handling or qualification work affect the lot. Availability and lead time must be confirmed for the actual order rather than inferred from a web page.
Complexity can move cost in several directions. A hybrid stack may reduce the amount of premium RF laminate while adding press planning and interface review. Metal backing can improve a thermal path while adding bonding and machining requirements. Extra coupons or RF fixtures can reduce uncertainty but add material, setup and measurement work. Compare the complete project scope instead of ranking designs by laminate price alone.
The optional numerical budget uses cost allowances entered by the visitor. It contains no calibrated ³Ô¹Ïtv tariff and does not claim current market pricing. The model combines the costed panels, one-time setup, batch testing and per-board processing; assembly is included only when selected and entered. Shipping, taxes, process yield loss and unentered qualification are excluded. A zero value means already included or deliberately zero, not unknown.
When geometry, quantity or supply scope changes, revisit the allowances. A per-board processing cost from one batch may not apply to another. The tool clears old allowances on those changes to avoid presenting a stale total. Hybrid, metal-backed, unresolved and more complex multilayer constructions go to engineering quotation. The downloaded brief remains useful because it carries the requirements and assumptions even when a numerical price would be misleading.
Rogers Fabrication Budget & RFQ
Prefer to send files now? Contact the ³Ô¹Ïtv team with the requested material, construction and quantity. An exact quotation is based on the agreed scope.
Verify the construction that matters to the product
A measurement plan that answers the design question
Begin with what the prototype must establish. Is the question electrical continuity, line impedance, insertion loss, phase balance, resonant frequency, thermal behavior or mechanical fit? These are different tests and they may require different coupons, fixtures and acceptance limits. A test label without the represented structure and measurement method leaves room for two parties to interpret the result differently.
For RF measurements, define the reference planes and account for the launch or fixture. A raw network-analyzer trace can include connectors and transitions that are not part of the material comparison. De-embedding or a representative reference structure may be needed, depending on the question. Record calibration, frequency span, temperature and the circuit revision with the result. This makes later comparisons more informative than a single unqualified pass statement.
Investigate a disagreement between the model and the board in a controlled sequence. Check the finished conductor dimensions, dielectric height, material construction and measurement setup before changing the Dk to force a fit. The model may omit a nearby cover, a return-path discontinuity or a loss mechanism. Equally, the test fixture may represent a different structure from the intended coupon. Identifying the cause protects the next build from an accidental compensation.
Keep the accepted construction and records together. A successful prototype supports the tested revision under its stated conditions. Changes to material, foil, bond system, geometry, assembly exposure or test scope deserve review before a repeat order is treated as equivalent. The project does not need every possible test; it needs the evidence that resolves its actual risks and acceptance requirements.

Rogers Construction Explorer
Questions before the next design or purchase decision
What should this page help me decide?
Compare laminate families without treating brand names as equivalent electrical specifications. Start with the named construction and the relevant engineering requirement. The photographs show physical circuit examples, while the original-source links and explicit model assumptions support the technical review.
Does the design tool approve this PCB for manufacture?
No. It calculates the stated preliminary model or organizes a construction brief. Finished copper, transitions, mixed dielectrics, assembly interfaces and process limits may require a more complete review. The downloaded result preserves assumptions so engineering can evaluate the same inputs.
Can I obtain a price without completing the tool?
Yes. Use the direct Contact or email route with your drawing, quantity and construction requirements. The optional budget uses your entered allowances and an explicit panel model; it is not a calibrated ³Ô¹Ïtv tariff. Complex constructions need a file-based quotation.
What should I send with an enquiry?
Include the exact material designation, fabrication artwork, drill data, outline, proposed stackup, copper, finish and quantity. Add the relevant impedance, RF, thermal or mechanical acceptance requirements. If assembly is included, provide the BOM, placement data and test expectations.
Continue with the right engineering task
Original technical references
Supplier documents support material identity, properties and methods. They do not establish current stock or qualify an unspecified finished board. Check the exact grade, construction and document revision for your order.