eSMART Factory Conference 2019, Day 1

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I had the pleasure of attending the eSMART Factory Conference in June in Dearborn, Michigan. This is the second annual conference on the smart factory. SMTA described it as "A technical conference with a focus on electronics manufacturing from software systems/processes to augmented reality and smart inspection." It was held at the rustic Dearborn Inn across the street from the Henry Ford Museum/Village and Ford Development Center.

Trevor Galbraith, the conference chair, opened the conference and introduced the keynote speaker, Irene Petrick, Ph.D. Her keynote was titled, "Building an AI Ready Culture."

Irene Petrick is the director of Intel’s industrial innovations. Her keynote highlighted the overview of the elements of the intelligent factory, including:

• Software-defined industrial equipment and collaborative machines
• Self-organized, flexible production flow
• Self-aware production systems
• Human in the loop-enabled connected worker
• Real-time and reliable computer and connectivity
• Embedded equipment-to-equipment (E2E) security

In her talk, Petrick stated that AI has been a long time coming and may not be ready for everyone yet. But the technology underpinnings for AI are part of the strategic fit of a modern corporation and fit the competitive strategies and architectures for the future. As seen in Figure 1, the smart factory has already started. The underpinnings are currently in place, such as:

• Data collection
• Data aggregation and actions
• Data scoring, analytics, and model updates
• Business intelligence and results sharing
• Feedback to update models and achieve corrective actions

Figure 1: Opportunities for the eSmart Factory involve data collection analytics and resulting corrective actions (Source: Intel Presentation).

AI's contribution to data collection will be hindsight, insight, foresight, forecast, and act/adapt. Further, machine learning is one of the big opportunities for AI progression. The journey from unconnected machines to smart, connected machines leads to intelligent factories. In traditional machine learning, the output is known and has the least workload requirements; meanwhile, with advanced machine learning, the output is unknown and has the highest workload requirements.

Petrick shared that Intel’s own journey started in the ‘80s with wafer fabrication (hands-on) through the '90s until today’s lights-out wafer fabrication (no-hands). Intel conducted extensive interviews with industry professionals (411 participants and over 93 hours of interviews) to discover the stages the industry is today for digital usage ^[1]. The results included:

• Low usage (25%), medium usage (46%), and high usage (29%)
• The participants had multiple facilities in multiple countries (43%), changeovers or setups very frequent (73%), used no automation or control systems (19%), and work or support predominately discreet manufacturing processes (68%)
• Industries participating included petrochemical (27%), metal fabrication (29%), electrical equipment and components (17%), food and beverage (9%), wood and paper products (7%), and transportation (6%)
• All participants wanted the future intelligent factory

As important as machines are, automation and the smart factory is not going to replace all workers. AI must facilitate the coevolution of workers and operations. It will influence decision-makers and influencers at all levels. Foremost, it will address skill gaps and provide an understanding of gaps. It is the leaders and hardcore doers that will drive transformational changes.

In conclusion, Petrick emphasized leadership and how it’s all about data and trust. She advised the audience to think big, start small, be holistic, and be the partner of choice, which will be a competitive advantage.

The second presentation was by Michael Ford of Aegis Corporation on “How IPC Standards Are Pivotal for Industry 4.0 Achievement.” He provided a summary and report on how IPC-2581 and IPC-CFX (Connected Factory Exchange-2591) together are enabling the smart factory. Ford is chairman of the IPC-1782 Component Traceability Committee and has played a significant role in bringing CFX into fruition. CFX is the only free, open-source, consensus-based Industry 4.0 standard on the market for electronics assembly.

CFX was conceived and implemented because of numerous “standardless” interfaces being created all over the globe for electronics assembly. The dilemma that OEMs faced was a collection of different protocols that would require massive re-engineering to have a coherent operating system. Many were omnidirectional and incompatible, moving data from point to point but not achieving the real goal of Industry 4.0, which is improved productivity, profits, and quality. Thus, an IPC committee was formed to create a consistent, open solution that everyone could use. In a very short time, IPC-2591 was created with over 300 parties participating from over 100 companies around the world to produce a digital manufacturing standard suitable for “plug-and-play” connectivity. No licensing, contracts, or dependencies are required.

12/19/2022 | Gaurab Majumdar, IPC

For the first time, IPC APEX EXPO will host an “India Pavilion,” showcasing 16 Indian companies promoting India’s electronics manufacturing capabilities. The initiative was undertaken by the Ministry of Commerce & Industry, Government of India, and implemented by the Indian government agency, Electronics and Computer Software Export Promotion Council (ESC) India.

11/08/2022 | Nolan Johnson, I-Connect007

The message can’t be emphasized enough: Producing IC substrates overseas weakens America’s position and national security. In this frank discussion with Will Marsh, president of PCBAA, he talks about his efforts to educate government policymakers on the dire need to consider the entire microelectronics ecosystem. There’s power in numbers, Will says, and he sees the association’s efforts making a difference.

11/08/2022 | Art Wall, NextFlex

The recent approval of the CHIPS Act has reignited the U.S. semiconductor industry and shone a spotlight on the intricacies involved in chip manufacturing. As new technological innovations—such as 5G, IoT, AI, automotive and high-performance computing—come to market, they’re pushing chip manufacturing and integration capabilities. They demand more performance which leads to added complexity in an already extremely complicated process. All this requires a fundamental shift in the way that semiconductors are manufactured and integrated.