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Taiwan

China Taiwan India Malaysia Singapore Vietnam Training

Course Description

By the end of this course, participants will understand the scope of SubFAB and its critical role within the semiconductor manufacturing ecosystem, tracing its evolution and recognizing new trends. They will be able to identify and describe the core SubFAB systems and interpret typical facility layouts and equipment installation specifics. Learners will assess the environmental, and sustainability impacts of modern SubFABs. They will map a standard SubFAB organizational chart, typical roles, and responsibilities, and simulate incident-response workflows to reinforce operational readiness. Participants will be exposed to preventive maintenance and safety best practices to ensure reliability and compliance with regulations.

Who Should Attend

This course is designed for engineers and technicians in semiconductor manufacturing, equipment suppliers/OEM on-site service personnel, IE and MEP designers. 

Course Outline

  • Introduction & Course Logistics
    • Welcome, introductions, and platform quick start
    • Learning objectives and course flow
  • Module 1: SubFAB Fundamentals
    • Definition & scope of SubFAB
    • Historical evolution (from early fabs to today)
    • Core equipment & support systems overview
    • Typical facility layouts and installation configurations
  • Module 2: Environmental & Sustainability Considerations
    • Key environmental impacts (emissions, water/chemical use)
    • Gas abatement and PFAS management fundamentals
    • Metrics & case studies in sustainable SubFAB operation
  • Module 3: Organizational & Operational Structures
    • SubFAB org charts and stakeholder roles
    • Operational workflows (from tool install to maintenance)
    • Incident-response and escalation paths (role-play)
  • Module 4: Safety, Maintenance, & Reliability
    • Preventine- maintenance best practices
    • Safety protocols and hazard identification
    • Reliability metrics and continuous improvement loops
  • Module 5: Emerging Trends & Innovations
    • Automation, digital twins, and Industry 4.0 in SubFAB
    • Advanced materials handling and process integration
    • Open discussion: Where SubFAB will go next
  • Wrap-Up & Next Steps
    • Final Q&A and feedback collection
    • Certification requirements and further resources
    • Suggested post-course readings and SEMI standard references 

 

Instructor

Ilya Zabelinksy

Instructor Bio

 

 

 

Important Information

Note that only the person who registered will receive a certificate of completion. This virtual training will not be recorded. Attendees must be present to access the course knowledge. 

Can't find the training link day of? After you register, you will receive the link to the live training via the email address you provided. In addition, you will receive email reminders about 24 hours in advance and an hour before with the same link. Please keep these emails on hand to access the training on time. If you do not see any confirmation emails, please check your junk/spam folders before contacting SEMI U for support.

Singapore

SEMI U Standards

SubFAB 101: Foundations of Semiconductor Support Facilities is a 4-hour course that covers SubFAB basics and its critical role within the semiconductor manufacturing ecosystem, including its evolution and new trends. 

  • Singapore:   1:00 PM - 5:00 PM 
Pricing
  • Members: $349
  • Non-Members: $399

* For group orders with 10+ attendees, and for Students/Veterans, discounted pricing, please contact [email protected]

1:00 pm - 5:00 pm Off Add to Calendar 2026-11-18 13:00:00 2026-11-18 17:00:00 SubFAB 101: Foundations of Semiconductor Support Facilities (Asia) SubFAB 101: Foundations of Semiconductor Support Facilities is a 4-hour course that covers SubFAB basics and its critical role within the semiconductor manufacturing ecosystem, including its evolution and new trends. Singapore:   1:00 PM - 5:00 PM PricingMembers: $349Non-Members: $399* For group orders with 10+ attendees, and for Students/Veterans, discounted pricing, please contact [email protected] Singapore SEMI.org [email protected] Asia/Singapore public Asia/Singapore
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Brno, Czech Republic - July 10, 2026

Tescan, a pioneer in electron microscopy, announces the successful completion of its full acquisition by Shimadzu Corporation. As of July 7th, Tescan officially becomes a member of the Shimadzu Group, marking an important milestone in the company’s continued growth and evolution.

This step builds on the strong business alliance established in 2024 and reflects a shared commitment to advancing scientific discoveries and industrial innovations worldwide.
 

“For Tescan customers, this new chapter brings enhanced capabilities, broader expertise, and expanded access to integrated solutions, while preserving the agility, innovation, and customer focus that define the Tescan way,” said Sirine Assaf, CRO, Tescan. 

By combining Tescan’s leadership in surface analysis and electron microscopy technologies, including SEM, FIB-SEM, and TEM, with Shimadzu’s strengths in compositional and materials analysis, customers will benefit from:
 

  • More comprehensive solutions across research, development, and production workflows

  • Deeper application support through combined expertise in materials science, life sciences, and semiconductors

  • Accelerated innovation driven by joint R&D and shared technologies

  • Access to a larger global support network and enhanced service capabilities

  • Expanded product portfolio and future integrated offerings

Importantly, Tescan remains committed to maintaining its customer-centric approach, strong technical support and responsiveness, ensuring continuity in partnerships and daily operations.

Tescan’s growth will be further supported by Shimadzu’s global presence, particularly in Asia, alongside strengthened positions in Europe and the Americas. This will allow Tescan to:
 

  • Reach new markets and customers worldwide 

  • Scale manufacturing and service capabilities

  • Enhance operational efficiency while maintaining flexibility 

At the same time, Tescan will continue to operate from its headquarters in Brno, preserving its identity, expertise, and innovation culture. 

Since its founding in 1991, Tescan has delivered over 4,000 electron microscopes across more than 80 countries, supporting customers in both research and industrial environments. 

This acquisition reinforces Tescan’s long-term strategy to expand its technological leadership and deliver higher-value solutions, ensuring customers remain at the center of its development. 

The successful collaboration between Tescan and Shimadzu has already been demonstrated through the joint “Shimadzu by Tescan” SEM product line introduced in Japan. 

Building on this strong foundation, the integration marks a natural next step in deepening cooperation across technologies and markets. As part of this evolution, Tescan will adopt a new endorsed brand identity, “Tescan, A Shimadzu Company,” across its portfolio and communications. This reflects both the strength of the combined organizations and Tescan’s continued commitment to delivering innovative, customer-focused solutions under a globally recognized framework.

This acquisition is in fully synergy with Tescan and Shimadzu strategic plans and it makrs an acceleration of what Tescan already does best: delivering high-performance systems, application-driven innovation, and close collaboration with customers.

Tescan develops and manufactures advanced electron microscopy solutions for materials science, life sciences, semiconductor research, industrial R&D, and quality control. With a focus on imaging performance, automation, usability, and long-term collaboration, Tescan helps researchers see the invisible and accelerate discovery through reliable, future-ready microscopy workflows.

China India Japan Malaysia Singapore South Korea Taiwan Vietnam From Wafer to Chip Nov Asia Training

Course Description 

This course provides a comprehensive introduction to semiconductor manufacturing, guiding participants through the complete journey from silicon fundamentals to chip fabrication and packaging. Designed for professionals new to the semiconductor industry, the course explains key concepts, terminology, devices, and manufacturing processes used in modern fabs. 

This course is divided into four modules, enabling a progressive learning experience that builds from fundamentals to manufacturing execution. Participants will gain a clear understanding of how chips are made, the role of transistors, and the steps involved in front-end manufacturing, followed by back-end assembly and packaging processes. The course also introduces the broader semiconductor ecosystem, including supply chain players, helping learners connect technical fundamentals with real-world manufacturing practices. 

Who Should Attend

This course is designed for sales and marketing professionals, as well as new employees, students, and anyone interested in gaining a knowledge about semiconductor manufacturing.   

Learning Objectives

Upon completion of the course, participants should be able to:

  • Explain fundamental semiconductor concepts, including silicon materials, doping, PN junctions, and basic device behavior. 
  • Identify and correctly use common semiconductor manufacturing terminology.
  • Outline the key steps involved in front-end wafer fabrication, from bare silicon to patterned wafers.
  • Summarize back-end manufacturing processes, including assembly, packaging, and testing.

Topics Included

  • Module 1: Semiconductor Fundamentals

    Introduces semiconductor basics, silicon materials, doping PN junctions, and core device concepts, building a foundation for understanding how electronic devices function.

  • Module 2: Semiconductor Terminologies and Manufacturing Context

    Covers essential semiconductor terminology, cleanroom concepts, supply chain players, process nodes, and packaging to help learners navigate manufacturing discussions with confidence.

  • Module 3: Front-end and Back-end Semiconductor Manufacturing

    Provides an overview of the key steps involved in front-end wafer fabrication and back-end assembly, packaging, and testing processes.

  • Module 4: Transistors and Their Operation

    Explains different types of transistors and their working principles, showing how transistors function as switches and amplifiers inside integrated circuits. 

Important Information

Note that only the person who registered will receive a certificate of completion. This virtual training will not be recorded. Attendees must be present to access the course knowledge. 

Can't find the training link on the day of the training? After you register, you will receive the link to the live training via the email address you provided. In addition, you will receive email reminders 24 hours in advance and 1 hour before, with the same link. Please keep these emails on hand to access the training on time. If you do not see any confirmation emails, please check your junk/spam folders before contacting SEMI U for support.

 

Mayura Padmanabhan
Program Manager
SEMI

 

Singapore

SEMI U

Strengthen your knowledge and skills by learning about the journey from silicon fundamentals to chip fabrication and packaging. 

  • Singapore: 8:00 am - 12:00 pm 
  • San Francisco: 5:00 pm - 9:00 pm
Pricing                     
  • Members:  $199
  • Non-Members:  $249


Any questions, please contact [email protected]

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Brooks Instrument Launches Ultra-Compact, High-Performance Mass Flow Controller

HATFIELD, Pa. (USA), June 18, 2026 — Brooks Instrument, a world leader in precision fluid measurement and control technology, announced the global launch of its new ultra-compact AMF Series™ Advanced Mass Flow Controller. About the size of a standard Post-it® Note pad, it has the smallest footprint of any mass flow controller (MFC) in its performance class.

Combining precise gas flow control, fast response, industry-leading 1000:1 turndown capability and advanced diagnostics, the AMF Series offers equipment manufacturers and end users more operating flexibility and improved reliability and process control without the limitations of traditional compact MFCs.

“Equipment designers historically have had to choose between compact dimensions and advanced capabilities,” said Steve Kannengieszer, Global Marketing Director. “With the AMF Series, we’re changing that trade-off. Customers can now integrate high-performance flow control and predictive diagnostics into the most space-constrained systems without sacrificing accuracy, reliability or process insight.”

Advanced Features in a Compact Footprint

As equipment size across industries continues to shrink while growing in complexity and throughput, maintaining stable and precise gas flow becomes increasingly critical. The AMF Series was developed specifically to address these challenges.

With a 1-inch x 3-inch x 3-inch footprint, the MFC fits easily inside compact gas cabinets. Despite its small size, the highly accurate AMF Series features advanced capabilities, including integrated EtherNet/IP™ digital communications and onboard diagnostics for predictive maintenance.

By providing actionable diagnostic data alongside accurate flow measurement and control, the AMF Series helps users identify potential issues before they impact production, reducing unplanned downtime and improving overall equipment effectiveness.

Easier Operation and More Uptime

In addition, the AMF Series was designed to maximize uptime and simplify operation with a universal USB-C service port and embedded web-based interface that streamlines in-situ commissioning and troubleshooting. Industry-leading long-term sensor stability helps reduce maintenance requirements and eliminate periodic recipe adjustments and recalibrations.

The AMF Series also supports multi-gas configurability and simplified ordering bundles, helping OEMs reduce system complexity while streamlining product selection and integration.

Wide Range of Use

The AMF Series is especially suitable for pilot-scale applications where precise low-flow gas control and equipment miniaturization are critical, including:
• Bioprocessing and laboratory-scale bioreactors
• Thin film coating and vacuum deposition systems
• Carbon capture, utilization, and storage (CCUS)
• Hydrogen and energy transition technologies
• Analytical instrumentation
• University and research laboratories
• Industrial gas processing

Demand for Smaller Instrumentation

“Across biotechnology, we’re seeing a shift toward smaller-scale development platforms that demand greater flexibility and precision from process instrumentation,” said Joe Sipka, Business Development Director, Biotechnology. “The AMF Series was developed for micro-dosing and pilot-scale systems and delivers a wealth of digital insights—including health indicators, reliability metrics and pedigree—that enable greater automation and support a path to prescriptive maintenance. Many of these same trends are emerging in adjacent applications, such as industrial coatings, where engineers are being asked to do more with increasingly compact systems. Developed directly from conversations with our customers, the AMF Series delivers the precise low-flow control, wide operating range and reliability needed to accelerate innovation while maximizing valuable equipment space.”

For more information about the AMF Series Advanced Mass Flow Controller, visit www.BrooksInstrument.com/product/AMF.

About Brooks Instrument:
Since 1946, Brooks Instrument has been a leader in precision fluid measurement and control technology. Providing instrumentation for flow, pressure and vapor delivery, the company serves customers in semiconductor and high-tech manufacturing, laboratories and other processes and industries. With manufacturing, sales and service locations in the Americas, Europe and Asia, Brooks Instrument has the world’s largest installed base of mass flow controllers.

For more information, please visit www.BrooksInstrument.com. The company is also on LinkedIn (www.linkedin.com/company/Brooks-Instrument) and YouTube (www.youtube.com/user/Brooks407).

RENA Technologies GmbH, a long-standing and experienced manufacturer of wet processing solutions for the semiconductor, advanced packaging, and solar industries, has been awarded a multi-million Euro order by a leading European semiconductor manufacturer for a specialized cleaning application designed for advanced substrates.

The solution is based on a high-performance batch wet processing platform and has been specifically engineered to deliver ultra-clean and highly efficient processing of demanding substrates. By combining advanced process control with a scalable batch architecture, the system ensures outstanding process stability, repeatability, and optimized throughput.

The customer’s decision underscores the technological strength and competitiveness of RENA’s wet processing solutions. Particularly when handling complex substrate materials, the application provides significant advantages in quality assurance, process control, and overall production efficiency. The mature cleanroom capabilities, excellent process control, and high- volume automation solutions of RENA add up to the perfect fit for the customer’s needs.

With this order, RENA further strengthens its position in the European semiconductor market and reinforces its commitment to delivering innovative, locally supported solutions to key industry players.

“Our success in securing this project highlights the growing demand for advanced wet processing technologies in Europe,” said Peter Schneidewind, CEO of RENA Technologies GmbH. “With more than 80 glass treatment tools in production worldwide - including cutting etch TGV/advanced packaging applications - RENA´s sophisticated technological solutions prove again in this new application for specialized semiconductor substrates.”

India Japan Malaysia Singapore South Korea Taiwan United States Vietnam Inside the Fab Oct 27 Training

Course Description 

This course provides a comprehensive introduction to semiconductor manufacturing, guiding participants through the complete journey from silicon fundamentals to chip fabrication and packaging. Designed for professionals new to the semiconductor industry, the course explains key concepts, terminology, devices, and manufacturing processes used in modern fabs. 

Who Should Attend

Anyone interested in understanding semiconductor manufacturing, including new employees, professionals in related industries, and those seeking to broaden their knowledge of the field.  

Learning Objectives

Upon completion of the course, participants should be able to:

  • Explain fundamental semiconductor concepts, including silicon materials, doping, PN junctions, and basic device behavior. 
  • Identify and correctly use common semiconductor manufacturing terminology.
  • Outline the key steps involved in front-end wafer fabrication, from bare silicon to patterned wafers.
  • Summarize back-end manufacturing processes, including assembly, packaging, and testing.

Topics Included

  • Basic Electronics and Microelectronics
  • Process Nodes
  • Device Physics and Transistor Operation
  • Crystal Growth and Wafer Preparation
  • Advanced Transistor Technologies
  • Circuit Design and Layout
  • Wafer Processing

Important Information

Note that only the person who registered will receive a certificate of completion. This virtual training will not be recorded. Attendees must be present to access the course knowledge. 

Can't find the training link on the day of the training? After you register, you will receive the link to the live training via the email address you provided. In addition, you will receive email reminders 24 hours in advance and 1 hour before, with the same link. Please keep these emails on hand to access the training on time. If you do not see any confirmation emails, please check your junk/spam folders before contacting SEMI U for support.

 

Kalya Shubhakar
Kalya Shubhakar
Senior Lecturer
 

 

Singapore

- SEMI U

Strengthen your knowledge and skills by learning about the journey from silicon fundamentals to chip fabrication and packaging. 

Pricing                     
  • Members:  $399
  • Non-Members:  $449

* For group orders with 10+ attendees, and for Students/Veterans discounted pricing, please contact [email protected]

3:00 pm - 7:00 pm Off Add to Calendar 2026-10-27 15:00:00 2026-10-30 19:00:00 Inside the Fab: An Introduction to Semiconductor Manufacturing (Asia) 10/27 Strengthen your knowledge and skills by learning about the journey from silicon fundamentals to chip fabrication and packaging. Pricing                     Members:  $399Non-Members:  $449* For group orders with 10+ attendees, and for Students/Veterans discounted pricing, please contact [email protected] Singapore SEMI.org [email protected] Asia/Singapore public Asia/Singapore
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ESG progress, industry-first sustainability leadership and long-term governance goals

Rolla, Mo. — June 2, 2026 — Brewer Science, a global leader in developing and manufacturing next-generation materials and technologies for the semiconductor industry, today released its 2026 Impact Report, detailing continued progress across environmental stewardship, people-first initiatives, community engagement, and collaborative innovation. Additionally, the company announced it has earned GreenCircle Certified Zero Waste to Landfill certification for the eleventh consecutive year, remaining the first and only company in the semiconductor and microelectronics industry to achieve this designation.

Explore Brewer Science’s 2026 Impact Report

“The consistency matters,” said Matthew Beard, Executive Director of Strategic Planning, Management Systems, and Sustainability at Brewer Science. “Eleven consecutive years of Zero Waste to Landfill certification demonstrates our commitment to improving our processes, finding more innovative ways to reduce, reuse, and recycle our waste, thus leading to more sustainable business operations and having a positive impact on our supply chain.”

Environmental leadership rooted in verification and results

The 2026 Impact Report highlights continued momentum toward Brewer Science’s climate and waste-reduction goals, including:
• More than 631 tons of material diverted from landfills over the past decade
• 56% of generated waste reused or recycled during the most recent reporting period
• Over 75% of hazardous waste volume diverted annually to reuse applications
• 100% renewable energy consumption achieved annually
• 5% reduction in Scope 3 greenhouse gas emissions year over year
• Continued progress toward reducing Scope 1 and Scope 2 emissions by 80% by 2030 (from a 2018 baseline) and achieving net-zero carbon emissions by 2050

Brewer Science’s Zero Waste to Landfill certification verifies that 100% of waste leaving company facilities is diverted through approved methods such as reuse, recycling, composting, or source reduction. GreenCircle Certified’s program is widely regarded as one of the most rigorous third-party validations of waste diversion claims.

People, community, and industry impact

Beyond environmental performance, the Impact Report details how Brewer Science’s sustainability commitments extend to its workforce, communities, and industry partnerships:
• Named a Top Workplace in the Manufacturing Industry for the fifth consecutive year
• Employee-owners volunteered more than 3,200 hours to 129 organizations
• Supported STEM education, early childhood education, and workforce development initiatives across local and national communities
• Continued leadership as a founding member of the Semiconductor Climate Consortium, collaborating with peers to reduce emissions across the global semiconductor supply chain
• Ongoing innovation in PFAS free materials development, aligning product performance with environmental responsibility

A platform for collaboration and accountability
The 2026 Impact Report also highlights Brewer Science’s Sustainability Outreach Program, which provides tools and education for employees, customers, suppliers, and community partners to drive meaningful, scalable environmental action.

“Zero waste is not a finish line, it’s a responsibility we share,” Beard added. “We encourage our partners across the supply chain to align around verified sustainability standards and measurable impact.”

The full 2026 Impact Report is available on Brewer Science’s Going Green page at:
www.brewerscience.com/going-green

About Brewer Science
Brewer Science is a global leader in developing and manufacturing next-generation materials and processes that enable cutting-edge technology. Since 1981, the company has expanded its technology portfolio within advanced lithography, advanced packaging, smart devices, and printed electronics to support microdevices and industrial monitoring solutions. Brewer Science’s relationship-focused approach ensures critical outcomes for its partners worldwide. Headquartered in Rolla, Missouri, Brewer Science operates globally. Learn more at www.brewerscience.com.

About GreenCircle Certified, LLC
GreenCircle Certified, LLC provides independent, third-party certification of environmental claims to ensure transparency and credibility in the marketplace. Since 2009, GreenCircle Certified has helped organizations validate sustainability performance through rigorous evaluation. Its certifications, including Zero Waste to Landfill, are accredited by the ANSI National Accreditation Board (ANAB). Learn more at www.greencirclecertified.com.

###

SEMI Members:  $75

Use your corporate email address during log in to be recognized as a SEMI Member.

Non-Members:  $149

Students:  Free

Contact Basak Ulutas Ozturkler ([email protected]) with a picture of your student ID to receive your discount code.

Belgium Germany Singapore Taiwan United States FEMC30 Business Executive Technical
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High-temperature materials are critical for applications in harsh-environment circuitry, where devices must operate reliably under extreme thermal, chemical, and mechanical stress. In this Master Class, Dr. Shenqiang (Shen) Ren will present a high-throughput ink materials development strategy enabled by non-equilibrium processing and hybrid additive manufacturing. This approach enables rapid synthesis, combinatorial screening, and direct integration of functional materials onto diverse substrates. The resulting materials exhibit strong electrical performance, robust adhesion, and long-term stability under harsh operating conditions. This high-throughput framework accelerates the discovery and deployment of printable materials for interconnects, heaters, and EMI shielding, providing a versatile pathway toward next-generation printed electronics designed for extreme environments.

ABOUT THE SPEAKER

Shenqiang (Shen) Ren, PhD
Dr. Shenqiang Ren is a Professor of Materials Science and Engineering at the University of Maryland, College Park, with research interests in emerging functional and structural materials. He received his Ph.D. in Materials Science and Engineering from the University of Maryland, College Park, and subsequently completed postdoctoral training at the Massachusetts Institute of Technology (MIT). 

United States

Shenqiang Ren
Shenqiang (Shen) Ren , PhD
Department of Materials Science and Engineering, Professor
University of Maryland, College Park
Gity Samadi
Moderator
Gity Samadi, PhD
Sr. Director, R&D Programs
SEMI
NBMC Smart MedTech FlexTech

Join us for a focused Master Class with Dr. Shenqiang (Shen) Ren, exploring the development of high‑temperature materials for harsh‑environment printed and flexible hybrid electronics (FHE). This session will examine how devices can be engineered to operate reliably under extreme thermal, chemical, and mechanical stress—conditions where conventional materials and processes often fail.

The Master Class will also highlight how this high‑throughput framework accelerates the discovery and deployment of printable materials for interconnects, heaters, and EMI shielding, offering a versatile pathway toward next‑generation printed electronics designed for extreme conditions.

10:00 am - 12:00 pm Off Add to Calendar 2026-08-26 10:00:00 2026-08-26 12:00:00 FEMC#30 High Throughput Material Development for Extreme Environment Printed Electronics Join us for a focused Master Class with Dr. Shenqiang (Shen) Ren, exploring the development of high‑temperature materials for harsh‑environment printed and flexible hybrid electronics (FHE). This session will examine how devices can be engineered to operate reliably under extreme thermal, chemical, and mechanical stress—conditions where conventional materials and processes often fail.The Master Class will also highlight how this high‑throughput framework accelerates the discovery and deployment of printable materials for interconnects, heaters, and EMI shielding, offering a versatile pathway toward next‑generation printed electronics designed for extreme conditions. United States SEMI.org [email protected] America/Los_Angeles public America/Los_Angeles REGISTER NOW
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Belgium China France Germany India Ireland Italy Japan Malaysia Singapore South Korea Taiwan United States Vietnam Download the white paper Cost Benefit Calc cropped for events page Business Technical Training
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SEMI
United States

9:00 am - 9:15 pm
Peilun Sun headshot
Peilun Sun
Consortium Manager
SEMI

Setting the Stage: Industry Drivers & SCC Initiative Context

• Semiconductor Industry Decarbonization Challenges
• The Need for Quantified Business Cases
• SCC Initiative Background & Development Journey
• Vision for Industry Adoption & Collaboration

9:16 am - 9:34 am
Ben Gross Headshot
Ben Gross
Director DTMS - Sustainability
Applied Materials

SCC Cost-Benefit Calculator Overview & Walkthrough

• Tool Architecture & Methodology
• Key Inputs & Assumptions
• Understanding the Outputs & Metrics
• Live Demonstration & Example Scenario
• Current Limitations & Future Development Opportunities

9:36 am - 9:50 am
Jeff Rudnik Headshot
Jeff Rudnik
Director of Environmental Sustainability & Net Zero
ASM

Industry Use Cases & Practical Applications

• Evaluating Decarbonization Projects
• Comparing Alternative Mitigation Strategies
• Supporting Internal Investment Decisions
• Lessons Learned from Early Applications
• Opportunities for Industry Collaboration

9:51 am - 10:00 am

Open Discussion & Q&A

• Audience Questions
• Feedback & Enhancement Opportunities
• Next Steps & SCC Engagement Opportunity

Smart MFG Sustainability

The semiconductor industry is under increasing pressure to decarbonize its operations, particularly with regard to Scope 1 emissions — direct greenhouse gas emissions (GHG) from owned or controlled sources. Yet many companies face a persistent challenge: how to make a clear, consistent, and financially credible case for emissions reduction investments. To help address this need, the Semiconductor Climate Consortium (SCC) has developed a Cost-Benefit Calculator — a simplified and flexible tool that offers a structured starting point for evaluating carbon emissions reduction projects. The calculator enables users to estimate the Net Present Cost (NPC) per ton of CO₂ equivalent emissions reduction, helping to translate environmental impact into business-relevant terms.

Join SEMI's Semiconductor Climate Consortium (SCC) Scope 1 Working Group and document authors for a webinar discussing their journey creating the Cost-Benefit Calculator and outlining the use cases for this tool.  The Cost-Benefit Calculator is a functional spreadsheet with built in report creation tools. For business managers who need to calculate emissions for Scope 1.

SCC members can download the Cost Benefit Calculator Report here.

9:00 am - 10:00 am Off Add to Calendar 2026-06-16 09:00:00 2026-06-16 10:00:00 SCC: Cost Benefit Calculator Webinar The semiconductor industry is under increasing pressure to decarbonize its operations, particularly with regard to Scope 1 emissions — direct greenhouse gas emissions (GHG) from owned or controlled sources. Yet many companies face a persistent challenge: how to make a clear, consistent, and financially credible case for emissions reduction investments. To help address this need, the Semiconductor Climate Consortium (SCC) has developed a Cost-Benefit Calculator — a simplified and flexible tool that offers a structured starting point for evaluating carbon emissions reduction projects. The calculator enables users to estimate the Net Present Cost (NPC) per ton of CO₂ equivalent emissions reduction, helping to translate environmental impact into business-relevant terms.Join SEMI's Semiconductor Climate Consortium (SCC) Scope 1 Working Group and document authors for a webinar discussing their journey creating the Cost-Benefit Calculator and outlining the use cases for this tool.  The Cost-Benefit Calculator is a functional spreadsheet with built in report creation tools. For business managers who need to calculate emissions for Scope 1.SCC members can download the Cost Benefit Calculator Report here. SEMI United States SEMI.org [email protected] America/Los_Angeles public America/Los_Angeles Register Today!
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Registration

SEMI Members: $25
Use your corporate email address during log in to be recognized as a SEMI Member.

Non-Members: $50

Students: Contact Paul Cohen ([email protected]) for student pricing.

Germany Taiwan United States ESDA Savage on Security 3 360.jpg Technical
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Designing functionally correct, high-performance, and provably secure system-on-chips (SoCs) has become a strategic imperative for modern computing infrastructure. Yet traditional design and verification methodologies are increasingly strained by escalating complexity, massive design scales, heterogeneous integration, and rapidly evolving security threats. Ensuring correctness, scalability, comprehensiveness, and adaptability across the full SoC lifecycle now exceeds the practical limits of conventional toolchains and human-centric workflows.

The emergence of large language models (LLMs) introduces a transformative opportunity for SoC design automation. Beyond natural language understanding and code generation, advanced LLMs demonstrate capabilities in architectural reasoning, specification refinement, vulnerability analysis, and design-space exploration. However, monolithic models alone are insufficient for the multidisciplinary and iterative nature of chip design. An agentic paradigm—where specialized LLM-driven agents collaborate within a coordinated framework—enables modular reasoning, cross-layer verification, security validation, and adaptive decision-making throughout the design process.

This talk will present a multi-agent intelligent assistant system architected to automate and augment SoC design and security verification. The framework integrates design synthesis, threat modeling, formal reasoning, runtime monitoring strategies, and hardware–software co-verification into a cohesive workflow. Looking ahead, such agentic systems point toward a future of self-optimizing, security-aware, and continuously verified silicon—where AI-driven design environments not only accelerate innovation but also fundamentally redefine how we conceive, build, and trust next-generation microelectronic systems.

 

United States

9:00 am - 9:10 am
Warren Savage
Warren Savage
Researcher
University of Maryland Applied Research Laboratory for Intelligence and Security

Welcome and Introduction

9:10 am - 10:00 am
Mark Tehranipoor
Mark M. Tehranipoor
Distinguished Professor
Department of Electrical and Computer Engineering, University of Florida

Featured Presentation

ESD Alliance

This webinar will present a multi-agent intelligent assistant system architected to automate and augment SoC design and security verification.

9:00 am - 10:00 am Off Add to Calendar 2026-09-10 09:00:00 2026-09-10 10:00:00 ESD Alliance Webinar: Gen-AI for Chip Design and Security This webinar will present a multi-agent intelligent assistant system architected to automate and augment SoC design and security verification. United States SEMI.org [email protected] America/Los_Angeles public America/Los_Angeles Register Now
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