How do you build the world’s tiniest skyscraper? 🏗️ http://ms.spr.ly/6047UVW4b In the finale episode of ASML Nanoland Season 1, ASMLers Sabil and Joep walk you through how microchips are made, from a silicon wafer to the chips powering your favorite devices. Watch now!
소개
Who are we? ASML is an innovation leader in the global semiconductor industry. We make machines that chipmakers use to mass produce microchips. Founded in 1984 in the Netherlands with just a handful of employees, we’ve now grown to over 40,000 employees, 143 nationalities and more than 60 locations around the world. What do we do? We provide chipmakers with hardware, software and services to mass produce patterns on silicon through lithography. Our lithography systems use ultraviolet light to create billions of tiny structures on silicon that together make up a microchip. We push our technology to new limits to enable our customers to create smaller, faster and more powerful chips. Who are our people? While you may think that only engineers and mathematicians work at ASML, you'll be surprised to find out that our people come from a wide variety of backgrounds. Across ASML, we have dedicated teams that manage customer support, communications and media, IT, software development and more. Every team in the company is essential for pushing our technology and the industry forward. If you love to tackle challenges and innovate in a collaborative, supportive and inclusive environment with all the flexibility and freedom to unleash your full potential, ASML is the place to be. Join us!
- 업계
- 반도체 제조
- 회사 규모
- 직원 10,001명 이상
- 본사
- Veldhoven
- 유형
- 상장기업
- 설립
- 1984
- 전문 분야
- semiconductor, technology, hardware, software, lithography machine 및 innovation
위치
ASML 직원
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Sebastiaan in 't Hout
Availability Architect at ASML
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Michael Abrams, EdD (candidate), MBA, M.Ed, CPCC
Head of U.S. Talent, Learning & Organizational Effectiveness
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Leonard Tsai
Thinker and doer to solve problems with fresh thinking, pick up projects to finish line and to achieve results with extra helping hands.
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Joshua Brown
업데이트
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🚨 BREAKING: we just reported our Q4 and full-year 2024 financial results! 👇 📈 ASML achieved another record year, ending with total net sales for 2024 of €28.3 billion, and a gross margin of 51.3%. 🔎 Our fourth-quarter was a record in terms of revenue, with total net sales coming in at €9.3 billion, and a gross margin of 51.7%, both above our guidance. This was primarily driven by additional upgrades. We also recognized revenue on two High NA EUV systems. We shipped a third High NA EUV system to a customer in the fourth quarter. 📊 ASML expects 2025 total net sales to be between €30 billion and €35 billion, with a gross margin between 51% and 53%. 🔎 Consistent with our view from the last quarter, the growth in artificial intelligence is the key driver for growth in our industry. It has created a shift in the market dynamics that is not benefiting all of our customers equally, which creates both opportunities and risks as reflected in our 2025 revenue range. http://ms.spr.ly/6041Up38L
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Big ideas need more than just inspiration – they demand determination, commitment, focus and the right support to see them through. Decades ago, we had help getting started in the semiconductor industry. Now, we're paying it forward. 💪 Here's how we're empowering tech startups and scaleups to grow and succeed. 🚀
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Today's vehicles don't just get you from A to B - they're actually advanced computers on wheels, and there's an entire world of microchips making it all happen. From powering central computing cores with high processing capacity to handling intensive real-time actions, semiconductors are shaping the future of mobility and redefining what cars can do. 🚘
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Do you know what makes your devices think and remember? 💡 http://ms.spr.ly/6042U8zvi In this episode of ASML Nanoland, ASMLer Sabil explores the two major chip families – Logic and Memory – that power everything from smart homes to gaming consoles. Discover how these chips keep your tech running at its best.
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🤓 Time to geek out! Here are 3 mind-blowing analogies about High NA EUV – the next generation of EUV lithography: 📖 With an 8-nanometer imaging resolution, the High NA EUV system is so precise it could print the entire Lord of the Rings trilogy 7,000 times on the side of an A4 sheet of paper. 🏎️ The system’s reticle stage accelerates at 32 g, the equivalent of an F1 race car going from 0 to 100 km/h in just 0.09 seconds. 🌍 The special mirrors inside a High NA EUV system are so meticulously engineered that, if you scaled it to the size of the Earth, their largest imperfection would be no larger than the thickness of a playing card. Big shoutout to ZEISS Semiconductor Manufacturing Technology for making this next-level precision possible! What real-world analogy would you use to describe High NA EUV? 💡
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What's the secret to faster, more powerful microchips? It's all about shrink. Printing smaller chip features means chipmakers can squeeze more transistors onto a chip – and that improves performance, functionality and energy efficiency. CD, or critical dimension, measures a lithography system's ability to deliver shrink. Learn about how we use physics to engineer our lithography systems and push the limits of CD. 🔎👇
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A chip is a tiny skyscraper. And as these skyscrapers grow increasingly complex and their features continue to shrink, crafting each one accurately becomes more challenging – and more crucial. One way we tackle this challenge is with computational lithography: models and algorithms instilled with our fundamental understanding of lithography that predict how a chip pattern will appear on a wafer. Chipmakers use the insights from our computational lithography tools to shape the light passing through their lithography systems – at the mask, the source and the pupil – so it produces the best possible image on the wafer. It’s all part of our holistic strategy to keep powering technology forward with you.
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How do billions of transistors work together to create a chip? 🤯 http://ms.spr.ly/6001osqcF Microchips are the powerhouses behind modern technologies, from our smartphones to AI. In the latest episode of ASML Nanoland, ASMLer Sabil explains how these tiny ‘brains’ perform everything from basic logic functions to advanced computations. Watch now!