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PCB Manufacturing
HTCC_multi-layer-board

HTCC Multilayer Substrate

The new NIKKO HTCC substrate uses platinum conductor, which is extremely chemically stable and not easy to oxidize, and can be used in various high-temperature environments.
Compatible with SDG, and does not require electroplating for surface treatment, which is low cost.
Bio-friendly material widely used in the medical field.
Provides the catalytic effect of Pt.
Compared with typical HTCC materials, it has higher strength due to the higher alumina content, while having the high thermal conductivity and low dielectric loss of ceramics.
High dimensional tolerance (±0.3%)

PCB Manufacturing
air_pass_ceramic_plates

High-purity porous alumina substrates (NA-99F)

As sintering tool materials – high-purity alumina substrates with excellent surface flatness help improve the characteristics, quality and yield of sintered products. They are also ideal for sintering highly reactive materials. A variety of porosity levels are available due to the ability to control porosity during substrate sintering.

PCB Manufacturing
Wafer-level packaging substrates

Products Wafer-level packaging substrates

The thermal expansion coefficient of these LTCC substrates is adjusted for use as wafer-level packaging substrates. The substrate surface has bumps for electrical connections, and CSP (chip-scale package) can be easily assembled by directly bonding to silicon wafers. Ideal for MEMS and semiconductor ceramic packages with a small number of leads.

PCB Manufacturing
LTCC Substrate

Features of KLC Series (LTCC Substrate)

Low dielectric loss characteristics (tan δ) and low resistance conductors, low electrical loss, suitable for high-frequency applications
Due to our unique manufacturing technology, the size and characteristics of each production batch and within each batch vary little
High-density wiring is achieved by improving stacking alignment accuracy
Precise control of substrate thickness and cavity shape
Resistance, inductance, and capacitance functions are built into the substrate and package

PCB Manufacturing
Multilayer board

Basic Principles and Operations of PCB Wiring

With the rapid development of high-speed circuit design, PCB routing has evolved beyond simple interconnection tasks. Engineers must analyze various distributed parameters using transmission line theory. Distributed parameter circuits account for spatial variations in voltage and current. Modern PCBs, with their complexity and density, include advanced features like microvias, buried/blind vias, and embedded components (e.g., resistors, capacitors). These advancements require PCB designers to understand production processes deeply and adapt their designs to manufacturing constraints.

PCB Manufacturing
Multilayer board

High-Speed PCB: Optimal Six-Layer Board Structure

When designing high-speed PCBs, the layer stack-up plays a crucial role in ensuring signal integrity, minimizing crosstalk, and achieving optimal electromagnetic compatibility (EMC). For a standard six-layer board with a thickness of 1.6mm, selecting the right structure can significantly impact performance. Below is an analysis of common six-layer board structures and their suitability for high-speed designs