The world of PCB assembly capabilities is changing rapidly, and forecasters expect PCB manufacturing capabilities to expand for the next 10 years. The worldwide PCB market is estimated to see a compound annual growth rate of 5.6%, reaching $90.1 billion by 2025 from the current $63.9 billion in 2019.
When an OEM is sourcing out work -- let alone aerospace electronics manufacturing -- it’s likely to come across companies that boast about all sorts of certifications and capabilities.
In 2006, the European Union rolled out a directive restricting the use of certain hazardous chemicals. This directive, Restriction of Hazardous Substances (RoHS), would have a far-reaching impact on the electronics industry. Its restrictions on using lead would send manufacturers scrambling to revise their practices or adopt entirely new ones. Thanks to a follow-up directive in 2011, manufacturers now hustle to meet RoHS 2 compliance.
Yes, it’s not a punitive law full of fines and penalties. But if you’re a U.S. company, noncompliance is basically an impassable barrier to entry to the EU trade market. So if you want to do business abroad, don’t mess around -- comply.
As today’s electronics designs become smaller and more complex, more engineers are relying on surface mount technology. After the 1980s, this technology became the preferred PCB assembly technology in electronics manufacturing and hasn’t let up since.
Among the serial data interfaces -- SPI, Flex I2C, and many more -- available for electronic equipment, two stand out for their longevity. In spite of the dozens of new kids on the block, RS232 and RS485 remain popular.
Nearly a year after our last update, we have returned to find a similar situation regarding shortages in the component market. The component shortage remains constant, and the theme has been adapting and innovating as demand remains high and the supply low for chips for consumer electronics.
OEM circuit board applications cover a wide range of consumer and commercial products, from automobiles to microwaves to IoT devices that automate the functioning of smart facilities.
There are major regulation change coming to electronics in Europe, and it’s important for everyone to take note, including U.S. manufacturers who sell to EU customers.
Deciding on the best testing method for your printed circuit board can be a daunting task. There are plenty of factors to take into consideration, including costs, coverage, and development lead time. However, there are two popular test strategies you’ll often find yourself choosing between: ICT testing vs flying probe testing.
Printed circuit board (PCB) manufacturing is a process that requires precision and reliability.
If there's one thing that takes center stage in the aerospace industry, it's safety. This, of course, comes hand in hand with high-quality components.
Today a growing number of original equipment manufacturers (OEMs) outsource some of their work to electronics contract manufacturers (ECMs). The ECMs are crucial partners when bringing your product to the market. However, while there are plenty of electronic manufacturing companies to choose from, not all are equal.
Selecting the ideal one can ensure a smooth manufacturing journey from design to aftermarket support. But, how will you ensure that you are partnering up with the right ECMs that you can truly put your trust in?
We've come up with a list of equipment your partner should have, plus other factors to guide your outsourcing process.
Do you work for an original equipment manufacturer or OEM? Chances are you’ve crossed paths with a project requiring an electronic manufacturing services company.
More manufacturers these days are realizing the benefits of using external PCB assembly services versus a DIY approach. Allowing an electronics contractor to lend its expertise has resulted in happier, more efficient OEMs.
When it comes to making a custom electronic cable and harness assembly, the little details matter. A faulty wire or a bad connection could ruin an expensive piece of equipment and slow down manufacturing processes.
You just installed your new PCBs in your machines and they’re working great! Dust off your hands and pat yourself on the back; the hard part’s done, right?
At this point, we’re all familiar with light-emitting diode (LED) lights. From the bright, efficient bulbs replacing the old filament lamps, to the flashy, colorful strips mounted behind TVs and monitors.
“How will my idea go from conception to finished product at your company?” It’s a question we hear a lot, and a good one. It’s natural to want to know whom you’re dealing with and how far their capabilities extend.
When you order printed circuit boards (PCB), you know the pricey consequence of failure. The last thing you need financially is for your PCBs to suddenly drop dead -- or to have a shortened life span because of a design or QA issue.
PCB assembly testing methods are an integral part of the manufacturing process. Reputable electronics contract manufacturers (ECMs) offer a variety of PCB testing methods, but the seven main types include:
In electronics manufacturing, printed circuit boards are separated into three categories: 1, 2, and 3. The categories reflect the level of quality of each circuit board type, from lowest (Class 1 standards) to highest (Class 3 standards). This classification system was developed and is monitored by IPC under the IPC-6011 standard.
The IPC standards chart (or tree, in some circles) provides guidelines for the production and assembly requirements of electronics manufacturing companies. Each “code” on the tree is a standard or document outlining the guidelines or requirements for building an assembly.
Many industrial and manufacturing operations are looking closely at wireless industrial controls to see what benefits they offer. These wireless systems definitely have advantages -- enabling your systems to communicate more effectively with one another and with your team -- but they require an investment in time and capital to utilize.
Massive amounts of money are at play when it comes to power distribution electronics. The electronic product development life cycle frequently sparks frustration among OEMs in this industry because parts steadily wear out and require attention to keep critical infrastructure operating.
Full-blown replacement of a product is neither cost-effective nor efficient when downtime is harmful to both OEMs and the end consumer. It's absolutely crucial that you're always thinking about the electronic component life cycle and making plans for the future.
As today’s electronics designs become smaller and more complex, more engineers are relying on ...
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