Frequently Asked
Questions
What are you looking for?
A hybrid assembly system combines automated and manual assembly processes within a single production line. This system leverages the precision and speed of automation while retaining the flexibility and problem-solving capabilities of human workers.
What industries commonly require HMLV PCBA services? - Medical Devices - Aerospace and defense - Utomotive - Consumer electronics
A PCB stencil is a thin sheet of metal or plastic with holes cut into it, designed to apply solder paste accurately to specific locations on a PCB for surface mount component attachment. It's essential for ensuring precise solder paste application, crucial for high-quality SMT (Surface Mount Technology) assembly, reducing errors and improving production efficiency.
Yes, for SMT assembly, a stencil is typically needed to apply solder paste evenly and accurately to the PCB, especially important for high-density or fine-pitch components to prevent soldering defects.
Solder is typically made from a mixture of metals. Traditional solder contains lead (Pb) and tin (Sn), while lead-free solder, which is becoming standard, primarily consists of tin, with additives like copper, silver, and sometimes bismuth.
MDA (Manufacturing Defects Analyzer) is used in the PCB manufacturing process to detect defects like shorts, opens, and missing components. It ensures boards are defect-free before moving to more complex assembly stages.
Environmental stress refers to extreme conditions a product might encounter during its lifecycle, including temperature variations, humidity, vibration, and shock. These conditions can reveal hidden weaknesses in the product's design or manufacturing.
Types of rapid prototyping encompass 3D printing, CNC machining, laser cutting, and injection molding, each serving different design and functionality testing purposes.
Rapid prototyping services provide expertise and equipment for quickly turning designs into physical models, aiding in design validation and iteration.
Rapid prototyping works by using 3D CAD data to create physical models layer by layer, allowing for quick adjustments and iterations based on testing results.
