Etching Technology Advances


Let’s get really, really small. That directive from leading semiconductor companies and their customers is forcing the whole semiconductor supply chain to come up with new ways to design and manufacture ever-shrinking dimensions for chips. The current push is to 10nm and 7nm, but R&D into 5nm and 3nm is already underway. To put this in perspective, there are roughly two silicon atom... » read more

Inside Advanced Patterning


Prabu Raja, group vice president and general manager for the Patterning and Packaging Group at [getentity id="22817" e_name="Applied Materials"], sat down with Semiconductor Engineering to discuss the trends in patterning, selective processes and other topics. Raja is also a fellow at Applied Materials. What follows are excerpts of that conversion. SE: From your standpoint, what are the big... » read more

What Transistors Will Look Like At 5nm


Chipmakers are currently ramping up 16nm/14nm finFET processes, with 10nm and 7nm just around the corner. The industry also is working on 5nm. TSMC hopes to deliver a 5nm process by 2020. GlobalFoundries, Intel and Samsung are doing R&D for that node. But 5nm technology presents a multitude of unknowns and challenges. For one thing, the exact timing and specs of 5nm remain cloudy. The... » read more

The Week In Review: Manufacturing


Chipmakers At this week’s Flash Memory Summit, Samsung rolled out several new products, including its next-generation 3D NAND device and a solid-state drive (SSD) with capacities up to 32 terabytes. At the same time, Samsung introduced a new and high-performance SSD solution, dubbed the Z-SSD. Samsung’s Z-SSD shares the fundamental structure of V-NAND and has a unique circuit design and... » read more

Next Challenge: Contact Resistance


In chip scaling, there is no shortage of challenges. Scaling the finFET transistor and the interconnects are the biggest challenges for current and future devices. But now, there is another part of the device that’s becoming an issue—the contact. Typically, the contact doesn’t get that much attention, but the industry is beginning to worry about the resistance in the contacts, or conta... » read more

Many Paths To Hafnium Oxide


Equipment and materials suppliers often talk about the fragmentation of integrated circuit processing. While the number of manufacturers has gone down, the diversity of the underlying semiconductor market has increased. Low-power processors for mobile devices, non-volatile memory for solid state disks, and dedicated graphics processors all have different requirements from the traditional ind... » read more

Managing ALD Effluent


Process designers tend to not think very much about the waste gases from their processes. The chamber exhaust sends the effluent gases to the fab scrubbers, and that is pretty much that. Except when it’s not. It turns out that the design of the ALD process can make life significantly more challenging for the chamber exhaust pumps. In atomic layer deposition, the first precursor gas, su... » read more

The Internet Of Power Also Benefits From Moore’s Law


By Jef Poortmans It may sound strange, but striving to achieve smaller dimensions with Moore’s Law is an important enabler for producing increasingly better solar cells, with a more elaborate technology toolbox (including ALD, epitaxy, etc.) Improved process steps are constantly being developed to achieve these small transistor dimensions (for growing material layers or to etch away str... » read more

Manufacturing Bits: Dec. 29


Printing hair Using a low-cost, 3D printing technique, Carnegie Mellon University has found a way to produce hair-like strands and fibers. The printer produces plastic hair strand by strand. It takes about 20-25 minutes to generate hair on 10 square millimeters. A video can be seen here. [caption id="attachment_24544" align="alignleft" width="300"] 3D printed hair (Photo: Carnegie Mellon... » read more

Can Nano-Patterning Save Moore’s Law?


For years the academic community has explored a novel technology called selective deposition. Then, more than a year ago, Intel spearheaded an effort to bring the technology from the lab to the fab at 7nm or 5nm. Today, selective deposition is still in R&D, but it is gaining momentum in the industry. With R&D funding from Intel and others, selective deposition, sometimes called ALD-e... » read more

← Older posts