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IPC-1782B establishes minimum requirements for manufacturing and supply chain traceability based on perceived risk. IPC-1782B applies to all products, processes, assemblies, parts, components, equipment used and other items as defined by users and suppliers in the manufacture of printed board assemblies, as well as mechanical assembly and printed board fabrication. IPC-1782B is applicable both for...

The IPC-2581C standard specifies the XML schema that represents the intelligent data file format used to describe printed board and printed board assembly products with details sufficient for tooling, manufacturing, assembly, and inspection requirements. This format may be used for transmitting information between a printed board designer and a manufacturing or assembly facility. The data is most...

This document describes the design and assembly challenges and ways to address those challenges for implementing 3D component technology. Recognizing the effects of combining multiple uncased semiconductor die elements in a single-package format can impact individual component characteristics and can dictate suitable assembly methodology. The information contained in this standard focuses on...

IPC-8401 standard provides guidelines for In-Mold Electronics (IME) manufacturing processes, part structures, candidate materials, and production test methods. In-Mold Electronics integrates printed electronics and electrical components into injection molded plastics, creating a three-dimensional smart molded structure. IME technology uses mass production processes, materials, and components. IME...

IPC-9716 provides requirements for automated optical inspection (AOI) systems to define, set up, establish, and apply process control for manufacturing printed board assemblies, including general and specific process and AOI system conditions. Requirements include inspection parameters, lighting conditions, calibration, detectability, resolution, threshold limits, program setups, measurement...

The IPC-1782A standard establishes minimum requirements for manufacturing and supply chain traceability based on perceived risk. IPC-1782A applies to all products, processes, assemblies, parts, components, equipment and other items used in the manufacture of printed board assemblies and in mechanical assembly.

This standard specifies the XML schema that represents the intelligent data file format used to describe printed board and printed board assembly products with details sufficient for tooling, manufacturing, assembly, and inspection requirements. This format may be used for transmitting information between a printed board designer and a manufacturing or assembly facility. The data is most useful...

本書では、3D部品の技術を実施する際の設計/組立の課題や、課題への対処方法について述べる。ケースに収納されていない複数の半導体ダイ素子を単一パッケージのフォーマットに組み合わせる効果を考える場合、その影響は個々の部品特性にも、これまでの組立手法にも及ぶ。本規格に含まれる情報は、3D半導体パッケージの組立とプロセスに関連する最適な機能性、工程評価、最終製品の信頼性とリペアの諸問題の解決に向け焦点を当てたものである。

The IPC/DAC-2552 standard was developed jointly with the Digital Association of China (DAC), with the purpose to use Model Based Definition (MBD) to realize efficient and high-quality digital design of board-level assembly, support electronic assembly virtual manufacturing, and enabling the digitalization from requirement to product realization for printed board assemblies. The IPC/DAC-2552...

The IPC-7091 intends to provide useful and practical information to those who are designing, developing or using 3D-packaged semiconductor components or those who are considering 3D package implementation. The 3D semiconductor package may include multiple die elements—some homogeneous and some heterogeneous. The package may also include several discrete passive SMT devices, some of which are...

The IPC-WP-026 white paper explores blockchain as an emerging technology that has a core strength in providing an immutable, auditable, transparent and secure environment for data exchanges. These advantages make it a prime candidate for implementation in the electronics industry. The IPC-WP-026 white paper explores blockchain and its limitations and challenges. It also provides a few directions...

The lack of a uniform component traceability standard has caused an unnecessary consumption of resources (e.g., time, people, money, etc.) to track events or parts to their sources and to remedy any quality, reliability, etc., issues. Lack of a standard has also made it difficult to uniformly create and appropriately enforce the necessary contracts. This standard establishes minimum requirements...

本規格は、自動光学検査(AOI)システムを用いてプリント基板組立品を製造する際の工程管理を定義、設定、確立、適用するための要求事項を規定するものである。ここでは一般工程、特殊工程およびAOIシステムの条件等を範囲としている。 要求事項には、検査パラメータ、照明条件、校正、検出可能性、分解能、閾値の限度、プログラムセットアップ、測定システム解析(MSA)、保守、検証プロトコルが含まれる。

本标准是由IPC与广东省数字化学会（DAC）联合开发和发布的国际标准，目的旨在解决业内各厂家提供的电子元器件几何模型及语义信息参差不齐，导致使用方需要重复建模处理且无法复用等问题。 定义如何将电子元器件的设计、仿真、制造等领域的属性关联到电子元器件的三维模型及对应的子部件上的数字化建模，通过规范各供应商按模型交付，工具间（CAD/CAE等）数据集成打通的方式，可实现高效

缺乏统一的元器件可追溯性标准已经导致不必要的资源消耗（例如时间、人力、金钱等）来跟踪事件或部件的来源，并补救相关质量、可靠性等问题。标准缺失也导致难以一致地创建和适当地执行必要的合同。 本标准建立了制造商和供应链可追溯性的最低要求，此要求是基于供需双方协商确定（AABUS）的感知风险。本标准适用于所有产品，制程，组件，部件，元器件，所使用的设备以及由供需双方在印制电路板组件制造以及机械组装中定义的其他项目。