Semiconductor technicians are essential to developing and manufacturing advanced chips. Check out this podcast featuring a firsthand perspective on how these roles contribute to innovation and how careers in the field evolve. https://bit.ly/4gdgdjc

Liquid-based photolithography struggles to meet the patterning demands of 3D DRAM and HBM at scale, but our Aether® dry resist technology can. See how dry resist revolutionizes chip manufacturing for the AI era. https://bit.ly/4vxWcIN

The shift from wafer to panel-based manufacturing is shaping the future of advanced packaging. Learn more about our Salzburg Panel Center of Excellence and how we’re helping scale panel-level processing for our customers. https://bit.ly/4v7zupY

When dielectric films get pushed to their limits, they need a better playbook — enter our SOLA® product family. Learn more below and dive deeper via the product page. https://bit.ly/4xJtq9D

The Word(s) of the Week highlight a foundational building block in advanced chip architecture — one that enables electrical signals to travel vertically through a wafer. See what it is below.

Not every answer starts with a physical wafer. Our Semiverse® Solutions team uses SEMulator3D® to work through semiconductor challenges in a virtual environment. Watch below to learn more, and then visit our blog: https://bit.ly/4eCPKbN

Since its introduction in 2020, our advanced dry resist technology has helped chipmakers tackle industry challenges in the EUV lithography patterning process. Learn how dry resist processing unlocks the future of high-NA EUV lithography. https://bit.ly/4vZtbpb

As AI demands more data throughput, performance is increasingly constrained by memory, making DRAM a key limiting factor for both training and inference processes. Here’s how our tools support an industry under pressure to rapidly scale. https://bit.ly/443CkkZ

Sub-2nm isn’t just smaller. It’s harder. Process variation grows, yield windows shrink, and maturity timelines stretch. The paradox of advanced nodes: more capability, more complexity, less margin for error. https://bit.ly/4ebFh7B

Some semiconductor terms are all about connection. This one is all about creation and is also the Word of the Week. Can you guess what it is?

Could the future of AI run on the speed of light? 💡 Silicon photonics, an emerging energy-efficient solution using photons to carry information to chips, could transform AI computing as we know it. https://bit.ly/4qusVMP

Lam Research has been named to the Fortune 500 for the 10th year in a row! This reflects our continued growth as demand for AI-driven semiconductor manufacturing has expanded. 🏅 https://bit.ly/4vySC0y

Rewind to 2014 ⏪ We introduced 3 breakthrough solutions to enable 3D NAND manufacturing — do you know what they were? See what we’re working on today. https://bit.ly/4c9PUpH

AI is driving unprecedented memory demand. We help DRAM customers meet that demand and stay ahead of the pace of evolution. Explore our solutions for #NationalDRAMDay. https://bit.ly/4kPApYR

Our Word of the Week describes a shift in transistor design that made it possible to keep scaling performance while reducing power and shrinking device dimensions. What is it? Find out below.

DRAM scaling follows one constant: Every gain in density creates a new constraint to solve. What does this mean? Find out via the blog. https://bit.ly/4wShEJD

🎬 This week’s Movie Monday features gate-all-around (Semi 101). Explore the innovations shaping the future of logic scaling. https://bit.ly/4o3SPX9

Digital twins are helping engineers move yield optimization into a virtual environment. Lam’s approach combines simulation and machine learning to reduce failure modes and accelerate GAA logic development. https://bit.ly/3Q5GSDT

The path to what’s next in memory doesn’t begin with a blank page. The manufacturing challenges emerging in DRAM, like increasing process intensity, tighter tolerances, and greater precision, mirror many of the challenges the industry solved during the transition to 3D NAND. https://bit.ly/4wYs3Un

The Word(s) of the Week doesn’t need constant power to remember. It can be erased, rewritten, and trusted to hold data long after the device goes quiet. From smartphones to data centers, this essential building block helps keep the digital world running. Can you guess what it is?

Put your chip knowledge to the test with the trivia question below. 👀 Drop your answer in the comments, and don’t forget to come back next week to reveal the correct answer! For a few hints before you answer, read the blog post: https://bit.ly/4d7Rzgr

As fabs scale in size and complexity, Equipment Intelligence helps turn sensor data into action. Learn more about how automation and analytics support more autonomous and efficient semiconductor manufacturing. https://bit.ly/4dYt2ME

AI pushes semiconductor packaging to new levels of complexity, making material behavior harder to simulate before production. See why access to accurate materials data is key to delivering better predictions. https://bit.ly/4dC3GCT

Meet Striker® — our ALD product family engineered for advanced memory, packaging, patterning, and transistor applications where precision at the atomic scale matters most. See what makes Striker® home run worthy. https://bit.ly/49FmoIE

Some deposition processes rely on electricity. This one relies on chemistry doing the heavy lifting, and it’s also our Word(s) of the Week. Do you know what kind of deposition we’re referring to?

Our Semiverse® Solutions team explored how different integration approaches impact channel stress and nanosheet displacement in gate-all-around transistors. The blog takes a closer look. https://bit.ly/4wQKwSK

Not all etch variation starts with the process itself. Sometimes, it starts with the layout. Our blog post explores how dummy fill strategies and SEMulator3D® simulation reduce STI recess nonuniformity caused by pattern-dependent effects like loading and ARDE. https://bit.ly/4wCHyRt

Velocity is our imperative. For customers, this means more predictable development cycles, faster time to yield, and a partner positioned to scale alongside them. Learn why this matters more now than ever. https://bit.ly/4uJYWC7

At sub-2nm nodes, tighter control over interconnect variability is critical. Through virtual DOE and process modeling, we simulated the key parameters and process windows needed to control resistance and capacitance in advanced interconnects. Explore the results. https://bit.ly/3CIBOhD

Let’s rewind to 2010, when global semiconductor sales surged to ~$300B and we introduced the SABRE® 3D ECD system. ⬇️

AI-driven workloads stretch package sizes beyond the limits of traditional wafer-based economics, accelerating interest in panel-level approaches. EVP/COO Sesha Varadarajan notes, “We are in the era where packaging is as important to continued scaling as everything else.” ➡️ https://bit.ly/3QvBWYL

AI’s rapid expansion pushes DRAM demand beyond supply — speed is the new constraint. With tools like Akara®, Aether®, and Striker®, we enable faster paths to production readiness where it matters most. Tap the link for more. https://bit.ly/4cL24GE

Our Word of the Week describes a small structure with a big job: enabling the speed and accuracy behind modern memory systems. Do you know what it is? Take a guess and see if you were right below!

Three cheers for three years of wins! ALTUS Halo® and Akara® have been recognized with Edison Awards for their impact on AI era chipmaking. https://bit.ly/4cS1V5C

The next phase of semiconductor manufacturing is being shaped by sensor-driven intelligence and advanced analytics. Hear more from Lam Research’s Russell Dover, head of Equipment Intelligence Services®. https://bit.ly/4naT0j2

VECTOR® brings big-league film quality, uniformity, and precision to every wafer. Check out the stats. https://bit.ly/48x8rvY

Behind every powerful chip is a network making it all work. ⚡ These tiny pathways keep everything connected and moving with precision. Can you guess the term(s) that define these pathways?

What if process challenges could be solved before they reach the fab? With VizGlow®, engineers simulate plasma behavior with higher accuracy and speed, helping refine processes for etch, deposition, and cleaning earlier in the design cycle. 🖌️ Learn more. https://bit.ly/3OgCbT3

As fabs scale to meet the needs of AI demand, maintenance consistency becomes even more essential. Meet Dextro™, our collaborative robot, or cobot, bringing repeatable precision to cleaning and parts replacement where it matters most. https://bit.ly/3OON1DL

The shift to 3D is one of the biggest changes in chipmaking. Taller stacks, higher aspect ratios, and new materials are driving new approaches in deposition and etch technology. Learn more. https://bit.ly/4cpSiL4

This technique uses an electrical current and a chemical bath to form a thin, uniform metal coating on a wafer. 🙌 Watch the video to reveal our Word(s) of the Week.

Small design choices can have a big impact on wafer-level results. We examine how techniques like dummy patterning and layout optimization give engineers greater control over etch behavior. Dive in. bit.ly/4vxhUNL

Scaling chips to 2nm or below is about more than just shrinking features — it reshapes how chips are built and optimized. These changes introduce constraints, requiring teams to adjust across design, process, and integration at the same time. See how. https://bit.ly/47QVhcJ

One wrong move and the SAQP process turns small variations in mandrel and spacer dimensions into big defects. See how we used Monte Carlo virtual fabrication to evaluate interactions among process variables that influence pitch walk and minimize defects. https://bit.ly/4sAKwCY

Next-gen DRAM moves fast — precision can’t slow it down. Which tool extends single print EUV patterning while cutting cost and complexity? Watch to reveal the solution accelerating advanced memory. ⬇️

Not all etch or deposition processes follow a straight path. Sometimes, these processes occur equally in every direction. What term captures this kind of behavior? Watch to find out.

Virtual twins allow engineers to simulate real-world processes without relying on physical testing, accelerating development cycles, reducing resources used, and lowering overall carbon footprint. Learn more. https://bit.ly/423tYZj

The iPhone wasn’t the only breakthrough to emerge in 2007. Take a look back at what we launched that same year to enable next-generation devices.

The road to faster, smarter devices depends on DRAM’s evolution. 🛣️⚙️ From early 2000s breakthroughs to today’s high-speed innovations, the journey continues. Here’s what’s ahead.

Our Word of the Week is a key player in controlling current flow within a transistor — activated by voltage to regulate what gets through. Can you guess what it is?