Uploaded May 2024 | Updated September 2026, 2 weeks ago
Explore the challenging journey of EUV lithography from a prototype to a fully industrialized system in this episode of 'Four Decades of ASML'. Discover how ASML tackled the critical issues to make EUV economically viable in the 2000s.
🔬 From lab to fab: Join Herman Boom and Marco Pieters as they discuss the tough years in EUV development, focusing on the transition from Alpha Demo Tools to high-volume production.
💡Pioneering optical metrology: Hear from Arie den Boef, an ASML Fellow, about his groundbreaking work in optical metrology that paved the way for our YieldStar systems.
📱Impact of smartphones on semiconductors: Industry analyst Dan Hutcheson shares insights on how semiconductor innovations have transformed smartphones, and vice versa.
'Four Decades of ASML' is a four-part podcast series that uncovers pivotal moments and key technological breakthroughs in ASML's past, present and future. Watch now to learn more about the innovations powering our devices and digital future.
Dive into our nano world and follow on social media:
Facebook: facebook.com/asml
Instagram: instagram.com/lifeatasml
X: twitter.com/ASMLcompany
LinkedIn: linkedin.com/company/asml
Or visit our website: asml.com
00:00 Intro
00:44 Meet Herman Boom, Head of DUV and Marco Pieters, Head of Applications
01:38 Challenges of making EUV economically viable
03:37 Solving the EUV light source
08:43 Working closely with our customers
15:03 Removing EUV’s roadblocks
17:00 How EUV lithography works
17:24 EUV’s first technology breakthroughs
27:56 Introducing Arie den Boef, ASML Fellow and inventor of YieldStar
29:29 The origin of ASML’s YieldStar systems
33:13 Making the first YieldStar prototype
35:05 Scaling up YieldStar’s production
45:13 Meet semiconductor industry analyst Dan Hutcheson
49:07 The impact of Moore’s Law and ASML on smartphones
51:20 AI driving the future of semiconductors
53:14 The rise of accelerated computing and AI chips
55:40 How long will Moore’s Law last?
1:00:27 Outro
#FourDecadesOfASML #EUV #Semiconductors
Explore the challenging journey of EUV lithography from a prototype to a fully industrialized system in this episode of 'Four Decades of ASML'. Discover how ASML tackled the critical issues to make EUV economically viable in the 2000s.
🔬 From lab to fab: Join Herman Boom and Marco Pieters as they discuss the tough years in EUV development, focusing on the transition from Alpha Demo Tools to high-volume production.
💡Pioneering optical metrology: Hear from Arie den Boef, an ASML Fellow, about his groundbreaking work in optical metrology that paved the way for our YieldStar systems.
📱Impact of smartphones on semiconductors: Industry analyst Dan Hutcheson shares insights on how semiconductor innovations have transformed smartphones, and vice versa.
'Four Decades of ASML' is a four-part podcast series that uncovers pivotal moments and key technological breakthroughs in ASML's past, present and future. Watch now to learn more about the innovations powering our devices and digital future.
Dive into our nano world and follow on social media:
Facebook: facebook.com/asml
Instagram: instagram.com/lifeatasml
X: twitter.com/ASMLcompany
LinkedIn: linkedin.com/company/asml
Or visit our website: asml.com
00:00 Intro
00:44 Meet Herman Boom, Head of DUV and Marco Pieters, Head of Applications
01:38 Challenges of making EUV economically viable
03:37 Solving the EUV light source
08:43 Working closely with our customers
15:03 Removing EUV’s roadblocks
17:00 How EUV lithography works
17:24 EUV’s first technology breakthroughs
27:56 Introducing Arie den Boef, ASML Fellow and inventor of YieldStar
29:29 The origin of ASML’s YieldStar systems
33:13 Making the first YieldStar prototype
35:05 Scaling up YieldStar’s production
45:13 Meet semiconductor industry analyst Dan Hutcheson
49:07 The impact of Moore’s Law and ASML on smartphones
51:20 AI driving the future of semiconductors
53:14 The rise of accelerated computing and AI chips
55:40 How long will Moore’s Law last?
1:00:27 Outro
#FourDecadesOfASML #EUV #Semiconductors
