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4.5 SPC & Dashboards

03. Surface Mount Technology Part 4. In-Line Optical & X-Ray Inspect...

Statistical Process Control (SPC) is the operational discipline that converts raw machine data into predictive intelligence. By continuously charting the vital signs of the SMT line, SPC enables early, small corrections to process drift before defects ever occ...

5.1 Strategy & Coverage

03. Surface Mount Technology Part 5. Electrical Test (ICT, FCT, boun...

Electrical test is not an option; it is a financial and technical firewall. The goal of a well-designed test strategy is to achieve the required Defect Coverage (ensuring product quality) at the minimum Cost of Test (CoT) (protecting throughput and profit). Th...

5.2 ICT & Fixture Design

03. Surface Mount Technology Part 5. Electrical Test (ICT, FCT, boun...

In-Circuit Test (ICT) is the fastest, most effective way to eliminate 90% of all common structural defects (opens, shorts, wrong parts) in high-volume production. The success of ICT hinges entirely on the NRE (Non-Recurring Engineering) investment: the fixture...

5.3 Boundary Scan Essentials (JTAG)

03. Surface Mount Technology Part 5. Electrical Test (ICT, FCT, boun...

Boundary Scan, formalized as IEEE 1149.1 (JTAG), is a mandatory technology for structural testing of high-density Printed Circuit Boards (PCBs). It provides a digital solution to the physical access problem created by modern area-array packages (BGAs, CSPs) wh...

5.4 Functional Test Design

03. Surface Mount Technology Part 5. Electrical Test (ICT, FCT, boun...

Functional Test (FCT) is the final stage of the electrical quality strategy, confirming that the fully assembled product meets its customer-defined behavioral and performance specifications. Unlike structural tests (ICT/BSCAN) which check connectivity, FCT val...

5.5 Data Logging & Repair Tickets

03. Surface Mount Technology Part 5. Electrical Test (ICT, FCT, boun...

Data logging and the formal Repair Ticket system are the nervous system of modern electronics manufacturing. They transform every single failure — from a component polarity error to an intermittent power fault — into structured, actionable information. This sy...

1.1 THT-Friendly Design

04. Through-Hole & Mixed Technology Part 1. Automated THT: Selective & Wave...

Through-Hole Technology (THT) remains mandatory for mechanical stability (connectors, relays), high-power components, and joints requiring superior mechanical strength. However, THT only functions smoothly when the PCB layout is designed for the specific dynam...

1.2 Fluxing & Preheat Control

04. Through-Hole & Mixed Technology Part 1. Automated THT: Selective & Wave...

The perfect solder joint begins with chemistry and heat. Through-hole soldering is a high-risk thermal process, and fluxing and preheat are the mandatory controls required to guarantee clean surfaces and prevent component micro-cracking. This stage ensures tha...

1.3 Selective Solder Programming

04. Through-Hole & Mixed Technology Part 1. Automated THT: Selective & Wave...

Selective soldering is the high-precision solution for mixed-technology boards, solving the problem of soldering THT joints without exposing surrounding SMT components to the molten wave. This chapter outlines the digital translation of physical constraints — ...

1.4 Wave Solder Setup

04. Through-Hole & Mixed Technology Part 1. Automated THT: Selective & Wave...

Wave soldering is the original mass production technique, and its effectiveness is determined by the harmonious, disciplined alignment of four critical mechanical and thermal steps. This chapter details the non-negotiable setup parameters — from setting the co...

1.5 Common Defects & Corrections

04. Through-Hole & Mixed Technology Part 1. Automated THT: Selective & Wave...

Solder balls, non-fills, and bridging are often not defects of the solder wave itself, but failures of preparation. This chapter details the non-negotiable process of managing flux activation and the thermal ramp rate. Controlling these factors is the only way...

2.1 Hand Soldering Foundations

04. Through-Hole & Mixed Technology Part 2. Manual THT & Rework (tools, tec...

Hand soldering remains essential for rework, repair, and specialized low-volume assembly, managing tasks that automated processes cannot safely touch. The reliability of hand soldering comes from treating it as a controlled, repeatable process rather than an a...

2.2 Fluxes, Alloys and Aids

04. Through-Hole & Mixed Technology Part 2. Manual THT & Rework (tools, tec...

Hand soldering is a controlled process, but its chemical core relies on the quality and purity of the materials used. This chapter details the critical selection of wire solder, flux core chemistry, and supplementary aids. Using the wrong alloy, excessive flux...

2.3 Rework Flow Control

04. Through-Hole & Mixed Technology Part 2. Manual THT & Rework (tools, tec...

Reworking complex surface mount devices (SMD), such as BGAs and QFNs, is one of the most delicate operations in electronics manufacturing. Success hinges on achieving precise, controlled thermal profiles that minimize component stress and protect surrounding p...

2.4 Defect Atlas & Acceptance

04. Through-Hole & Mixed Technology Part 2. Manual THT & Rework (tools, tec...

Defect evaluation sits at the intersection of quality, speed, and fairness in electronics manufacturing. Instead of relying on personal judgment, inspection personnel must use the established IPC standards as the common rulebook, ensuring every acceptance or r...

2.5 Data Logging & Repair Tickets (THT/Mixed)

04. Through-Hole & Mixed Technology Part 2. Manual THT & Rework (tools, tec...

The manual and mixed-technology assembly process — especially THT insertion, wave soldering, and high-risk rework — generates the most critical quality data. This chapter outlines the mandatory logging requirements and the Repair Ticket system, ensuring that e...

3.1 Clean vs No-Clean Decisions

04. Through-Hole & Mixed Technology Part 3. Cleaning, Depanelization, Press...

Residues left behind in assembly are often invisible, yet they can dictate whether a circuit survives years in the field or fails within months. The choice between cleaning and no-clean is more than a process preference — it is a risk decision that ties togeth...

3.2 Cleaning Methods & Fixtures

04. Through-Hole & Mixed Technology Part 3. Cleaning, Depanelization, Press...

Residues left behind in assembly are often invisible, yet they can dictate whether a circuit survives years in the field or fails within months. The choice between cleaning and no-clean is a risk decision that ties together product reliability, regulatory comp...

3.3 Depanelization Choices

04. Through-Hole & Mixed Technology Part 3. Cleaning, Depanelization, Press...

Depanelization is the final mechanical process that separates individual Printed Circuit Boards (PCBs) from the large manufacturing array after assembly and soldering are complete. The choice of method is a critical Design for Manufacturability (DFM) decision,...

3.4 Press-Fit Technology

04. Through-Hole & Mixed Technology Part 3. Cleaning, Depanelization, Press...

Press-fit is a mechanical interconnection technology that uses a compliant pin design to create a gas-tight, reliable electrical connection with the plated through-hole (PTH) barrel without requiring soldering. This technology is mandatory for applications dem...