Your Reliability Engineering Professional Development Site
In today’s episode, we’re exploring automated optical inspection (AOI) and x-ray inspection technology within the electronic assembly industry.
Joining us are two experts who bring a wealth of knowledge and experience to the table.
Recorded live in Anaheim California during the IPC Apex Expo.
This episode features four interviews including:
• Kimberly Fagan from PVA
• Taylor Wagan from CETEC ERP
• Neil Hubble from Akrometrix
Recorded live in Anaheim California during the IPC Apex Expo.
This episode features four interviews including:
• David Chiu from Test Research, Inc.
• Michael Dolan from South-Tek
• Dalton Dodge from Brooks Automation
• Michelle Ogihara from Seka Machinery, Inc.
This episode features three interviews including:
• Gus Mavrou from Seho
• Mark Stansfield from Solderstar
• Jesper Lykke from Viscom
The challenging world of electronics becomes even more challenging when the end product is destined for harsh environments. For high reliability products operating in a harsh environment, the quest for reliability is not just a goal—it’s an imperative. These are not your everyday gadgets; often they’re critical components of systems designed to operate under extreme conditions, where failure is not an option. From the scorching heat of desert landscapes to the unyielding cold of arctic tundras, from the high-pressure depths of our oceans to the radiation-filled expanse of space, the demands on these electronic products are as varied as the environments themselves.
While ocean depths, outer space, and frozen tundras are arguably harsh environments, we don’t have to look too far for examples of product failures in less harsh environments. One example that comes to mind is the state of public EV charging stations. Government reports have concluded that up to 25% of public EV chargers are at any given time.
While there are many reasons for this, one may conclude they are not designed and manufactured for the intended in climactic operating environment.
On this episode, we’ll uncover the numerous challenges that designers and engineers face in their quest for reliability, durability, and functionality of the final product.
As we navigate through this complex landscape, we’ll highlight the strategies that enable these products to not just survive, but excel in unforgiving conditions.
We’re the best, we’re number one, we’re better than them, we’ve won more awards than our competitors, we’ve all seen those ads. While this form of advertising isn’t unique, when’s the last time it caused you to buy a product based on the ad. I think we all know that answer.
There was a time when we relied heavily on print advertising to determine what products were available and from whom. The two primary methods to gain product awareness were print advertising and trade shows. While advertising and trade shows still exist, they are no longer the primary method of product awareness.
31 years ago, beginning on April 30, 1993, all of that began to change. What happened on April 30, 1993? Public access to the Internet was born.
Over the past 31 years, Internet technology propelled us into an age of self discovery. The older generation accuses the younger generation of always having their face in a screen. While that may be true, it’s not always TikTok, Instagram, Facebook, or Snapchat. People today, particularly younger people, research products, technologies, and a host of other things online. Consumers today are far more educated on the products they wish to purchase them at any time in history.
In what I find to be an exceptional irony, much of the industry responsible for building the technology behind Internet connectivity continues to advertise their products in a pre-Internet style.
You may ask, what does this have to do with reliability? Building reliable products requires a net sum of a vast amount of best practices. One of those practices is insuring the right products, procedures, specifications, designs, and so many other factors are implemented.
This goal cannot be accomplished by just reading advertisements from sellers. Frequently, engineers struggle to solve problems without a complete knowledge of the root cause of the problem. Particularly today, with so many in-house subject matter experts retiring, advertisements boasting the number of customers, time and business, and where they place in the hierarchy of competitive products do not assist the engineer and understanding the root cause of a potential problem, and certainly not the solution.
Over the past several years, several companies in our industry have begun to change their advertising strategies from transactional, to transformational. That is to say they help to connect problems to solutions, more than merely hyping products.
My guest today fully understands the value and effectiveness of what I like to call “Conscious Marketing “.
We’ve discussed the silver tsunami on the show numerous times, the unprecedented rate of which employees are retiring. When engineers and other employees retire from companies, they take with them more than a set of gold cufflinks or an engraved plaque. In many cases, they also take with them wisdom and knowledge.
Perhaps this is never more true than in the case of my guest today. And who is that? My friend and colleague Doug Pauls.
This episode was recorded at SMTA’s Pan Pacific Strategic Electronics Symposium on the big island of Hawaii.
My guests on this episode are Dr. Chuck Bower, founder of PanPac, Keith Bryant, and Dr. Ron Lasky.
We discussed the history of PanPac, technologies introduced at PanPac, and what makes PanPac so unique. We also discuss Dartmouth College’s unique engineering innovations program.
Optimization has become an important goal within the electronic assembly industry. While modern electronic assembly techniques utilize a variety of equipment, one specific type of equipment often consumes a disproportionate percentage of the overall equipment budget, that is the place machine. The cost of the machine, associated conveyors and feeders, require that the machine is running as often as possible.
The airline Industry refers to this as “wheels up” time. Airlines make money when the aircraft is in the air “wheels up”. On the other hand, anytime the wheels are down, the aircraft is not making money for the airline.
I listened to an interview a few years ago with the CEO of Southwest Airlines, a US discount carrier. Unlike most other airlines, Southwest does not charge its customers to check bags. The CEO was asked by the reporter why they have not joined the rest of the industry in charging for checked bags. The CEOs answer was genius. If Southwest Airlines began charging for check bags, it would actually slow down the boarding process as more and more passengers would drag their bags onto the aircraft most likely resulting in a number of those bags having to be checked at the gate.
Southwest Airlines is famous for having the fastest aircraft gate turns in the industry, frequently under 30 minutes. Yes Southwest airlines charged for checked baggage, it would require more time at the gate before the next flight would be ready to depart. That would result in fewer flight segments per aircraft per day. In other words, allowing customers to check bags for free equates to more “wheels up” time and, subsequently, more profit for the airline.
The same principal can apply to pick and place machines. When Pick and machines are running product, they are making presumably making money. When they sit idle, they are arguably costing money. What can assemblers do to improve the optimization or “wheels up” time on their pick and place machines?
My guest today, Larry Welk believes he has an answer. Larry Welk, a.k.a. Professor spice is the co-owner of Smart Splice, a manufacturer of tape splicing tools.
Larry will review tape splicing best practices and explain how tape splicing, when performed correctly, can lead to higher pick and place machine optimization.
So, buckle your seatbelt this podcast episode is officially wheels up!
Larry’s Contact Information:
Larry Welk
lwelk@smartsplice.com
This episode is a little different from our usual episodes. First of all, it’s a dual-branded episode. It’s both a Reliability Matters Podcast and an Ecosystem podcast episode. The Ecosystem podcast host Judy Warner will join me for an unusual topic, at least for The Reliability Matters Podcast.
Most of my audience are assemblers of circuit assemblies. Our world begins with a bare board. I reminded of the biblical passage “the Wiseman built his house upon the rock”. Circuit boards are the foundation from which we build our products upon.
There’s so much that goes into the design and fabrication of a bare circuit board. Who designs these boards, what criteria were they given, what materials did they choose, where are they made, how much do they cost, and, perhaps most importantly in our world, how easy are they to assemble?
To help answer these and so many other questions, Judy and I have assembled an expert panel of board designers.
Our expert panel consists of Gerry Partida, Vice President of Technology at Summit Interconnect and Julie Ellis, Field applications engineering manager for TTM Technologies.
Contact Information:
Judy Warner
EEcosystem Podcast
judy.warner@impacttechmarketing.com
Julie Ellis
TTM Technologies
julie.ellis@ttm.com
Gerry Partida
Summit Interconnect
gerry.partida@summitinterconnect.com
Today, we delve into an increasingly critical aspect of technology and electronics manufacturing – the pursuit of environmentally responsible electronics manufacturing. Our industry has witnessed many environmental revolutions.
The elimination of popular cleaning solvents brought on by the Montreal protocol in 1989, soon followed by strict VOC regulations pertaining to cleaning chemicals.
The switch from lead-based solders to lead free alloys, led by the Restriction of Hazardous Substances directive, known as RoHS implemented within the EU in 2003 and adopted nearly worldwide, regulations regarding the disposal of electronic waste (e-waste) resulting in many countries mandating regulations and programs for the safe recycling and disposal of electronic products, and more.
These regulations and others have inspired some companies to seek eco-friendly alternatives to traditional Printed Circuit Board (PCB) fabrication.
The combination of numerous environmental regulations has resulted in many companies’ implementation of sustainability programs.
As our world becomes more connected, the demand for electronic devices continues to rise, and with it, the importance of mitigating the environmental impact of their production.
On this episode of The Reliability Matters Podcast, I’ll speak with Mark Edwards.
Mark wrote an article entitled “Environmentally Responsible Alternatives to Traditional PCB Fabrication”, which of course, spurred my interest.
Mark works as a Strategic Account Manager within MacDermid Alpha Electronics Solutions, on the global Business Development team for Circuitry Solutions. Mark has been involved in electronics manufacturing since the late 1980’s and brings a passion for process automation, circuit assembly, solders/fluxes, adhesives, coatings and PCB fabrication – all with a focus on repeatability and reliability.
Mark holds a B.S. degree in Mechanical Engineering Technology from Oklahoma State University and began his career at a defense electronics company in Dallas, Texas (that was later acquired by Raytheon).
Mark has uncovered trends and synthesized customer needs for electronic hardware in the telecommunications, defense, automotive, industrial controls segments in the Americas, and now globally, in his newest role.
Join me as we explore new materials and methodologies, and innovations that are shaping the electronic assembly industry towards a more eco-conscious future.
Mark’s Contact Information
Mark Edwards
marks.edwards@macdermidalpha.com
https://www.macdermidalpha.com/circuitry-solutions
Today we’re diving deep into the world of precision and craftsmanship—two crucial elements in the realm of hand soldering and rework of circuit assemblies.
Whether you’re a seasoned electronics enthusiast, a hobbyist, or just someone with a curious mind, this episode promises to demystify the art and science behind hand soldering and rework. We’ll be exploring the latest tools, techniques, and trends that define this intricate process, shedding light on the unsung heroes who meticulously bring circuit assemblies to life, or in the case of rework, back to life.
There is archaeological evidence that soldering was employed as early as 5,000 years ago in Mesopotamia. Soldering and brazing are thought to have originated very early in the history of metal-working, before 4000 BC. Sumerian swords from 3000 BC were assembled using hard soldering techniques.
While soldering applications have morphed and expanded over the centuries, the basic “rules” of soldering have not. On this episode, we’re going to talk about an obvious soldering application, at least to my audience, and that’s soldering of electronic assemblies.
From the evolution of hand soldering with numerous technological advancements to the challenges faced by DIYers and professionals alike, we’ve got it all covered, thanks to my subject matter expert guest, Debbie Wade.
Debbie is the managing Director of ART A-R-T, Advanced Rework Technology, a fully independent training organization, which has been presenting various training courses for over thirty years. Debbie has been in the electronics industry for over 20 years with the last 15 of those years at Advanced Rework Technology.
Debbie comes to us very well credentialed. She is the chairperson for the IPC-A-620 Training Committee and IPC European Training Committee, with her Master IPC Trainer status for IPC-A 600, 610, 620, 7711/21 and J-STD 001, she is an expert in the field of fabrication, assembly, process and acceptance of board and cable assemblies.
Debbie has been presented with numerous awards from IPC in recognition of her contribution to IPC standards and training courses.
So, grab your soldering iron (metaphorically speaking), get ready to dive into the flux, and join us as we unravel the secrets of successful hand soldering and rework. Stick around for valuable insights, practical tips, and maybe even a few stories from the trenches of hand soldering and re-work.
Debbie’s Contact Information:
Debbie Wade
Master IPC Trainer
Advanced Rework Technology,
debbie@rework.co.uk
www.rework.co.uk
Today, we delve into the crucial aspects of maintaining well-being on this journey—how to sidestep the notorious burnout, and perhaps more importantly, how to fuel and maintain your motivation. Because, let’s face it, the road to creating a meaningful impact can be demanding, and it’s essential to navigate it with resilience and purpose.
Join me for a conversation with Rick Coulson. Rick recently retired from a 34 year career at Intel, most recently as a Senior Fellow in the Intel Optane Group.
Rick is a passionate advocate for career sustainability and for servant leadership. Rick was awarded the Intel Achievement Award four times for his and his team’s work on storage subsystems and SSD technology. He holds more than 90 Patents.
Rick received his bachelor’s degree in Electrical Engineering and Computer Science from the University of Colorado and his master’s degree in Electrical Engineering from Stanford. He is currently a board member at Co-Serve International, a non-profit dedicated to teaching Servant Leadership around the world. With Co-Serve he has been to Kazakhstan 8 times. He’s on the advisory board of Vooks, a company which produces award-winning books that are loved by parents and educators alike, and he’s part of an additional stealth mode start-up (sounds mysterious). He enjoys mentoring and coaching, and today, he’s my guest on the Reliability Matters podcast.
Rick’s Contact Information:
rick.coulson99@gmail.com
We covered the topic of ultrathin conformal coatings back in November. We covered various conformal coating materials from traditional acrylics and silicones to ultrathin parylene coatings. What other coating materials are available? Where do these types of coatings fit within specific applications?
Where do health and safety, environmental concerns, and sustainability programs fit in with a coating process?
To answer these other questions, I invited Dr. Cassandra Zentner, VP of Health and Environment at Actnano, a manufacturer of coating materials, to the program.
Cassandra earned a BA from Oberlin College and a PhD in organic materials chemistry from MIT.
Cassandra’s Contact Information:
Dr. Cassandra Zentner
VP of Health and Environment
Actnano
cassandra.zentner@actnano.com
actnano.com
In today’s increasingly connected and digital world, PCBs are the unsung heroes that power our devices, from smartphones to spacecraft. Yet, the art and science of designing these crucial components often go unnoticed. That’s where this episode comes in.
Today, I hope to shine a spotlight on the critical role PCBs play in modern technology and explore the best practices that drive innovation and reliability.
In this episode, I hope to unravel the mysteries of PCB design, tackle complex challenges, and unlock the secrets to creating high-performance, efficient, and reliable circuit boards. Whether you’re a seasoned PCB designer looking to sharpen your skills, a budding engineer eager to learn the ropes, or simply a tech enthusiast curious about the technology that shapes our lives, this episode has something for everyone.
Today, I will be joined by Dr. Zach Peterson. Zach is a well-known researcher and electronics designer. In 2017, he founded Northwest Engineering Solutions as a technology consultancy and has since grown the company into an innovative design and manufacturing house for advanced electronic products.
He conducted his Applied Physics Ph.D. research in ZnO random laser theory and stability and his M.Sc. Physics research in chemisorptive sensors for environmental monitoring at Portland State University. He also received his MBA (Leadership & Finance) from Adams State University.
His work has been published in over a dozen peer-reviewed journals and conference proceedings, and he has written 2500+ technical articles on PCB design for a number of companies.
He is a member of IEEE Photonics Society, IEEE Electronics Packaging Society, American Physical Society, and the Printed Circuit Engineering Association (PCEA). He previously served as a voting member on the INCITS Quantum Computing Technical Advisory Committee working on technical standards for quantum electronics, and he currently serves on the IEEE P31-86 Working Group focused on Port Interface Representing Photonic Signals Using SPICE-class Circuit Simulators.
If Zack looks familiar, you may recognize him from the Altium On-Track and Altium Academy video series and Podcasts.
Zach’s Contact Information:
Zachariah Peterson
contact@nwengineeringllc.com
https://www.nwengineeringllc.com/
