UGPCB

UGPCB RO4350B + IT180 Mix Laminate High Frequency PCB Board

Présentation du produit

Le RO4350B + IT180 Mix Laminate High Frequency PCB Board represents an advanced engineered solution from UGPCB. This product combines Rogers RO4350B high-frequency material with IT180 epoxy laminate in a single 6-layer structure. It delivers excellent signal integrity for RF and microwave applications while optimizing manufacturing costs .

This hybrid construction uses Rogers RO4350B for critical high-frequency signal layers. IT180 provides mechanical support and handles digital/power distribution. The result is a high-performance board that meets the demanding requirements of modern communication systems.

RO4350B + IT180 Mix Laminate High Frequency PCB Board

Spécifications du produit

Paramètre Valeur
Modèle RO4350B + IT180 Mix Laminate High Frequency PCB Board
Matériel Rogers RO4350B + IT180 Mixing Press
Nombre de couches 6 Calques
Constante diélectrique (NSP) 3.48
Épaisseur finie 1.5 mm
Épaisseur du cuivre 1 once (35 µm)
Contrôle de l'impédance 50 ohm
Épaisseur diélectrique 0.508 mm
Conductivité thermique 0.69 W/m.k
Blind Hole Structure 1L ~ 2L HDI
Traitement de surface Immersion Or

*Tableau: Complete technical specifications for UGPCB RO4350B+IT180 hybrid high frequency PCB*

What Is a Hybrid Laminate High Frequency PCB?

UN hybrid laminate PCB haute fréquence uses two or more different material types within a single board structure. This approach allows designers to place the right material in the right location based on electrical and mechanical requirements .

UGPCB’s 6-layer board features:

This material combination leverages the strengths of each substrate while minimizing their individual limitations.

Material Properties and Performance

Rogers RO4350B Characteristics

RO4350B is a glass-reinforced hydrocarbon/ceramic laminate. It offers:

IT180 Laminate Characteristics

IT180 is a high-performance epoxy material with:

Gestion thermique

The board achieves 0.69 W/m.k thermal conductivity. This ensures effective heat dissipation from power amplifiers and RF components. Proper thermal management extends product lifetime and maintains stable electrical performance under load .

Design Principles

Layer Stack-Up Strategy

The 6-layer construction follows these principles:

This arrangement places RF signals close to the surface with controlled dielectric thickness of 0.508 mm. It provides optimal conditions for 50 ohm transmission line design .

HDI Blind Via Design

Les fonctionnalités du conseil 1L~2L IDH trous aveugles. These laser-drilled microvias:

Contrôle de l'impédance

Précis 50 ohm contrôle d'impédance is maintained throughout all signal layers. This is achieved through:

Principe de fonctionnement: How Materials Work Together

Signal Transmission in Hybrid Structures

High-frequency signals travel primarily on the outer layers where RO4350B is present. This material’s stable DK value of 3.48 ensures:

Thermal and Mechanical Roles

The IT180 layers serve critical support functions:

Layer-to-Layer Communication

Signals move between layers through:

This multi-level interconnect strategy preserves signal quality while enabling complex routing .

Processus de fabrication

Étape 1: Préparation des matériaux

RO4350B and IT180 laminates are cut to panel size. Copper foil and prepreg materials are prepared according to the stack-up design. All materials are baked to remove moisture before processing .

Étape 2: Imagerie de la couche interne

Inner layers are imaged with circuit patterns. Etching removes unwanted copper. Inspection optique automatisée (Zone d'intérêt) verifies pattern accuracy .

Étape 3: Laminage de la couche

RO4350B and IT180 layers are stacked in the correct sequence. Vacuum lamination applies heat and pressure. The hybrid materials bond together to form a single 6-layer structure. Precise temperature control prevents material separation .

Étape 4: Forage

Laser drilling creates 1L~2L blind vias with high precision. Mechanical drilling forms through-holes for other connections. Desmear processes clean all drilled holes .

Étape 5: Placage

Electroless copper deposits a thin conductive layer. Electrolytic copper plating builds up to 1 once (35 µm) épaisseur. This ensures reliable electrical connections through all vias .

Étape 6: Imagerie de la couche externe

Outer layers are imaged and etched. Final circuit patterns include fine-pitch features for modern components. AOI verifies outer layer quality .

Étape 7: Application du masque de soudure

Solder mask is applied to protect copper surfaces. It is imaged to expose pads for soldering. Thermal curing hardens the mask .

Étape 8: Surface Finish – Immersion Gold

L'or d'immersion is applied to exposed copper areas. This finish provides:

Étape 9: Tests électriques

100% electrical testing verifies:

Étape 10: Final Inspection and Packaging

Finished boards are visually inspected. They are vacuum-sealed with moisture barrier bags. Desiccant and humidity indicators are included for safe shipping .

![UGPCB technician inspecting hybrid PCB with immersion gold finish under magnification]
(Alt tag: Quality inspection of UGPCB RO4350B IT180 hybrid PCB with immersion gold surface finish)

Applications and Use Cases

Wireless Communication Equipment

This PCB is ideal for:

Radar

The board supports:

High-Speed Data Transmission

Applications include:

Aérospatial et défense

The material combination suits:

Test et mesure

Typical uses:

Why Choose UGPCB’s Hybrid Solution?

Optimisation des coûts

Using RO4350B only where needed reduces material costs by 30-40% compared to full-RO4350B construction. IT180 provides mechanical strength at lower cost .

Performance Balance

The board delivers RF-grade performance on critical layers. It maintains standard material economy for non-critical sections. This balance suits modern mixed-signal designs .

Manufacturing Reliability

UGPCB’s hybrid lamination expertise ensures:

Assurance qualité

Classification

This product belongs to the following PCB categories:

Classification Type Catégorie
Par matériau Organic resin-based high-frequency hybrid composite (Ceramic-filled hydrocarbon + High-Tg epoxy)
Par nombre de couches 6-layer multilayer PCB
By Technology IDH (Interconnexion à haute densité) avec 1-2 layer blind vias
Par candidature RF/microwave communication PCB
By Surface Finish Immersion Or (ACCEPTER)

*Tableau: Scientific classification of UGPCB RO4350B+IT180 hybrid high frequency PCB*

Technical Data Summary

Paramètre Valeur Condition
Constante diélectrique (NSP) 3.48 À 10 GHz
Facteur de dissipation (DF) 0.0037 À 10 GHz, RO4350B
Conductivité thermique 0.69 W/m.k Z-direction
Température de transition du verre >280° C (RO4350B) / 180° C (IT180) TMA method
Coefficient de dilatation thermique 30-40 ppm/°C X/Y direction
Résistance à l'écoulement >1.05 N/mm 1 cuivre oz
Moisture Absorption 0.06% RO4350B, 24-hour immersion
Cote d'inflammabilité UL 94 V-0 Both materials
Maximum Processing Temperature 250° C Lead-free assembly compatible

Tableau: Comprehensive technical data for RO4350B and IT180 hybrid construction

Frequently Asked Questions

Q: What is the main advantage of using hybrid materials?
UN: Hybrid construction places RO4350B only on high-frequency layers. This reduces material costs while maintaining RF performance. IT180 provides mechanical strength at lower cost .

Q: Can this board support 50 ohm impedance requirements?
UN: Oui. The board is designed for strict 50 ohm impedance control. Dielectric thickness of 0.508 mm and DK 3.48 enable precise trace width calculations .

Q: What is the purpose of HDI blind vias?
UN: 1L~2L blind vias connect the top layer directly to layer 2. This shortens signal paths and improves high-frequency performance. It also enables higher component density .

Q: Is immersion gold suitable for high-frequency applications?
UN: Oui. Immersion gold provides excellent surface flatness. It supports the skin effect at high frequencies. It also offers long shelf life and good solderability .

Q: What is the thermal conductivity value?
UN: The board achieves 0.69 W/m.k thermal conductivity. This helps dissipate heat from power amplifiers and RF components .

Q: How does this compare to full RO4350B construction?
UN: This hybrid approach costs 30-40% less than full RO4350B. It maintains RF performance on critical layers. Mechanical strength is actually improved by IT180’s rigidity .

Ordering Information

UGPCB offers complete support for your hybrid PCB requirements:

How to Order

  1. Send your Gerber files to UGPCB

  2. Specify RO4350B + IT180 hybrid construction

  3. Indicate 6-layer, 1.5 mm épaisseur, 1 cuivre oz

  4. Request 50 ohm impedance control and 1L-2L HDI blind vias

  5. Choose immersion gold surface finish

  6. Receive engineering review within 24 heures

  7. Approve and begin production

Get Your Quote Today

Ready to start your next high-frequency project with UGPCB?

Our team of RF PCB specialists is ready to assist you. We provide:

[Contact Our Engineering Team]

E-mail: sales@ugpcb.com
Website: www.ugpcb.com

UGPCB – Your Trusted Partner for High Frequency Hybrid PCB Solutions

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