Thermal Analysis Moves to the Forefront of Semiconductor Design

Source: Keysight Technologies.
Source: Keysight Technologies.

 

Rising power densities in artificial intelligence (AI), high-performance computing, and advanced semiconductor packaging are making thermal management a critical consideration in electronic design. According to Keysight Technologies, engineers can no longer treat heat dissipation as a final verification task. Instead, thermal behavior must influence architectural decisions from the earliest stages of development.

Traditionally, engineers evaluated electrical performance, thermal characteristics, and mechanical stress separately. However, increasingly complex semiconductor architectures have made these physical effects interconnected. Higher power consumption generates heat, temperature changes affect electrical performance, and thermal expansion introduces mechanical stress that can compromise reliability.

These challenges are particularly significant in chiplets, three-dimensional integrated circuits (3D-ICs), and advanced packaging, where multiple dies, interconnects, substrates, and cooling systems interact. Engineers must understand thermal behavior across individual components and complete electronic assemblies.

Keysight emphasizes that effective multiphysics analysis requires appropriate simulation accuracy at different design stages. Detailed simulations help identify localized hotspots, while package engineers and system architects need broader performance assessments. Techniques such as reduced-order modeling and superposition allow engineers to evaluate complex systems without excessive computational demands.

Integrating thermal analysis into architectural exploration and floor planning also helps identify potential problems before expensive redesigns become necessary. Engineers can evaluate trade-offs involving performance, package dimensions, temperature, and reliability while design changes remain practical.

AI and agentic engineering workflows could further improve this process. Through technologies such as Model Context Protocol (MCP), AI agents can coordinate simulation tools, engineering models, and design data. However, Keysight stresses that AI-generated recommendations still require trustworthy physics-based validation and transparent engineering processes.

The broader message is that electrical, thermal, and mechanical engineering must operate as interconnected disciplines. By introducing multiphysics analysis earlier, engineering teams can reduce costly design iterations, improve reliability, and make informed decisions before committing to physical hardware.

Argonne Summit Puts Human Skills at the Center of AI-Driven STEM Education

Technology expert and summit keynote speaker Dan Chuparkoff talks about SI and the future of STEM education (source: Argonne National Laboratory).
Technology expert and summit keynote speaker Dan Chuparkoff talks about SI and the future of STEM education (source: Argonne National Laboratory).

 

The U.S. Department of Energy’s Argonne National Laboratory brought together more than 160 educators, academic leaders, and STEM partners for its second annual AI STEM Education Summit on September 24, 2026. The event focused on preparing students for a future in which artificial intelligence (AI) plays an increasingly important role in scientific discovery, engineering, and education, says Argonne National Laboratory.

The summit, themed AI in Action, reflected a shift from understanding AI fundamentals to exploring its practical applications in classrooms and research laboratories. Participants examined ways to integrate AI into STEM education while preserving essential human capabilities, including creativity, curiosity, critical thinking, and decision-making.

Keynote speaker Dan Chuparkoff emphasized three human abilities that will remain valuable as AI advances: solving problems, making decisions, and imagining possibilities. He explained that AI can handle routine activities such as processing information, investigating topics, and communicating, allowing people to concentrate on higher-level thinking.

Argonne Deputy Director Sean Jones highlighted AI’s growing role in scientific research, including its contribution to more than 6,000 experiments involving chemicals for rechargeable energy storage. Purdue University’s Lucy Flesch discussed adapting university curricula and teaching methods to accommodate increasingly capable AI systems.

Participants also attended breakout sessions and toured Argonne’s autonomous laboratories, where AI, robotics, and human expertise work together to accelerate experimentation.

The discussions connected with the Department of Energy’s Genesis Mission, which brings together national laboratories, universities, and industry to accelerate scientific discovery through AI. The initiative emphasizes supporting scientists rather than replacing their expertise.

Argonne plans to continue collaborating with educators and STEM organizations through learning programs and knowledge-sharing activities. The objective is to prepare students who can effectively use AI while retaining the scientific reasoning, analytical judgment, and problem-solving abilities essential for future engineering and research careers.

EOS, BIZU Space Partner on Additive Manufacturing for Space Applications

(From L-R) Michael Wohlfart (Team Manager Business Development & Academy, EOS) and Raphael Galate (Co-founder of BIZU Space) mark the new partnership.(Image: EOS)
(From L-R) Michael Wohlfart (Team Manager Business Development & Academy, EOS) and Raphael Galate (Co-founder of BIZU Space) mark the new partnership.(Image: EOS)

KRAILLING, Germany, Nov 5, 2026 – EOS has announced a collaboration with BIZU Space to provide design for additive manufacturing (DfAM) education and engineering support for space applications. Engineers at BIZU Space will gain access to training through EOS’ Additive Minds Academy, alongside technical assistance from the Additive Minds specialists.

The collaboration focuses on developing expertise in industrial 3D printing for complex aerospace components as BIZU Space advances its propulsion technologies. The companies also aim to demonstrate how DfAM can support the development of future space systems.

Michael Wohlfart, team manager business development & academy at EOS said: “The most successful additive manufacturing programs combine technology with education. Our goal is to help engineers develop a deep understanding of Design for Additive Manufacturing, so they can fully leverage the advantages of industrial 3D printing for demanding applications such as space propulsion.”

Raphael Galate, co-founder of BIZU Space added: “Brazil’s space sector is entering an exciting phase of growth, creating new opportunities to develop technologies locally and strengthen the country’s space capabilities. As we continue to advance propulsion technologies, additive manufacturing is playing an increasingly important role in how complex aerospace components are developed. Working with EOS and the Additive Minds Academy will help us further strengthen the expertise needed to support future space applications.”

Source: EOS

About EOS

EOS GmbH manufactures industrial 3D printing systems, materials and related services for additive manufacturing. The company develops metal and polymer equipment using laser-based powder bed fusion processes. It also provides software, training, maintenance and application support across production workflows, from design to manufacturing. EOS serves industries including aerospace, automotive, medical, energy and industrial manufacturing. The company was founded in 1989. Its headquarters is in Munich, Germany. EOS operates in over 15 countries. Its systems produce parts from 3D CAD models. The company works with customers on applications, process development and production using additive manufacturing technologies.

About BIZU Space

BIZU Space is a Brazilian aerospace company that develops rocket propulsion systems and launch technologies. Founded in 2022, the company is headquartered in São José dos Campos, Brazil. Its products include liquid rocket engines, propulsion components, electronic systems and satellite deployment equipment. The company develops the ARION engine for launch vehicles and spacecraft propulsion applications. It also produces training rockets and provides aerospace engineering, manufacturing and testing services. Its engineering activities include flight simulation, trajectory planning, propulsion analysis and launch operations. BIZU Space operates the T8 facility for testing liquid and hybrid rocket engines. The company serves the aerospace industry, including launch providers, satellite operators and research organizations. It participates in Brazil’s Microlauncher Program and explores metal additive manufacturing for propulsion components.

GHD, Autodesk Expand AI Engineering Collaboration

Image: GHD
Image: LinkedIn

SYDNEY, Australia, Nov 5, 2026 – GHD and Autodesk have signed a memorandum of understanding (MoU) to expand their collaboration on AI-enabled engineering and design. The companies will explore opportunities in AI, trusted data, connected platforms, knowledge sharing and new approaches to project delivery.

The agreement builds on a 15-year partnership between GHD and Autodesk. GHD has also made Autodesk Forma Site Design available across its global operations, providing design teams with AI-enabled massing, environmental performance analysis and optioneering capabilities.

“AI-enabled design is already reshaping the way our people work. When we evaluate options earlier and make more informed decisions, we can reduce rework and improve productivity for our clients, with humans still making the critical decisions. The MoU builds on our existing partnership and opens the door to further collaboration,” says Paul Murphy, CIO at GHD.

“AI is creating new opportunities for engineering and design teams, but unlocking its full potential requires trusted data and connected ways of working. Building on our 15-year partnership with GHD, we’re bringing together our technology and industry expertise to explore practical ways to improve project delivery, help teams work more efficiently and achieve better outcomes for customers,” says Brett Casson, AEC strategy director at Autodesk.

Jessica Carson and Isaac McCormack of GHD Design, the company’s architecture arm, presented at Autodesk University on integrating predictive AI, cloud simulation and carbon analysis into early design workflows. Their presentation covered Autodesk Forma Site Design, Building Design and Carbon Insights tools.

“This is an example where we can use technology to improve decision-making much earlier in the project lifecycle. Rather than assessing performance after major design decisions have been made, these tools allow design teams to test options in real time and understand the implications of choices relating to massing, carbon, site planning, and building performance,” McCormack says.

Source: GHD

About GHD

GHD is an Australian engineering and consulting company founded in Melbourne in 1928. Headquartered in Sydney, Australia, the employee-owned company serves public and private sector clients worldwide. It provides engineering, architecture, environmental consulting, construction management and business advisory services. Its operations cover water, energy, transportation, buildings, mining, environmental management and urban development. GHD designs infrastructure, conducts environmental assessments and advises clients on project planning and delivery. Its services include technical studies, risk assessments, infrastructure maintenance planning and environmental remediation. The company works with government agencies, utilities, industrial businesses, property developers and transportation operators. Its projects include water treatment facilities, renewable energy infrastructure, roads, railways and commercial buildings. GHD also provides consulting services for climate adaptation, waste management and urban infrastructure planning. The company operates approximately 165 offices across five continents. GHD reports more than 12,000 employees worldwide.

About Autodesk

Autodesk, founded in 1982, is a software corporation headquartered in San Francisco, CA, known primarily for its design and engineering software solutions. The company offers software products such as AutoCAD, Revit, Fusion 360, Maya, and Inventor, catering to diverse sectors, including architecture, engineering, construction, manufacturing, media, entertainment, and automotive industries. Autodesk employs approximately 15,300 people worldwide. Autodesk provides professionals with tools for designing, visualizing, simulating, and creating projects, including buildings, infrastructure, automotive components, and digital entertainment content. Serving millions of users globally across 180 countries, Autodesk supports industries like architecture, engineering, construction, manufacturing, media, and entertainment by utilizing cloud-based technology to enhance collaboration and simplify project management processes.

 

JSW Greentech Selects Siemens Xcelerator to Develop Commercial EVs

Image: Siemens
Image: Siemens

PLANO, TX, Nov 5, 2026 – Siemens announced that JSW Greentech has selected Siemens Xcelerator software to integrate engineering, product development and manufacturing processes for commercial electric vehicles (EVs). The initiative will support the development of electric buses, trucks and sustainable mobility solutions under the AMPSTAR brand through JSW Greentech’s R&D center in Pune and its greenfield manufacturing facility in Chhatrapati Sambhajinagar, India.

JSW Greentech will implement Teamcenter for product lifecycle management (PLM) and Mendix for supplier and business process collaboration. Together, the systems will help establish a connected digital thread across product development, providing visibility and traceability throughout the organization and supply chain.

“The future of commercial electric mobility will be shaped by how effectively we integrate technology across the value chain. By building a digitally connected enterprise from the outset, JSW Greentech is creating a foundation for smarter, more efficient and scalable electric vehicle manufacturing under the brand AMPSTAR. Our collaboration for Product Lifestyle Management (PLM) with Siemens will enhance operational efficiency and accelerate the development of next-generation electric commercial vehicles, reinforcing our commitment to a future-ready mobility ecosystem in India.” said Sumit Mittal – CEO, JSW Greentech Limited.

Teamcenter will connect product and engineering information, including bills of materials (BOMs) and product structures. It will also support requirements management, program planning, change management and collaboration between mechanical and electrical engineering teams.

JSW Greentech aims to improve engineering quality, shorten development cycles and accelerate the delivery of commercial EVs to the Indian market.

“Commercial EV manufacturers have a unique opportunity to establish digital transformation as a core business capability from the outset,” said Mathew Thomas, vice president and managing director for India, Siemens Digital Industries Software. “By connecting engineering, product lifecycle management and collaboration across the enterprise, JSW Greentech is creating a scalable digital foundation that can help accelerate innovation and support the efficient development of next-generation commercial electric vehicles.”

Source: Siemens

About Siemens Digital Industries Software

Siemens Digital Industries Software, a business unit of Siemens AG, provides industrial software, hardware and related services through the Siemens Xcelerator platform. The company’s portfolio includes product lifecycle management, electronic design automation, simulation and digital twin tools, manufacturing operations management and low-code application development. These products support design, engineering and production workflows across sectors such as aerospace and defense, automotive, electronics and semiconductors, machinery, medical devices and process manufacturing. Siemens Digital Industries Software traces its origins to 1963 as United Computing, later becoming Siemens PLM Software in 2007 before adopting its current name. It supplies technologies that help organizations manage product, process data, and improve development and manufacturing efficiency across a range of industrial applications.

About JSW Greentech Limited

JSW Greentech Limited is an Indian automotive company developing electric buses and trucks for commercial transportation. Founded in 2024, the company is part of the JSW Group and is headquartered in Mumbai, India. It develops vehicles under the AMPSTAR brand for public transportation, logistics and commercial fleet operations. Its prospective customers include transport operators, logistics companies, fleet owners and commercial vehicle businesses. The company develops electric drivetrains, battery systems, vehicle software and related technologies. Its R&D center in Pune handles vehicle design, engineering and prototype testing. JSW Greentech is developing a 90-acre manufacturing facility in Chhatrapati Sambhajinagar, Maharashtra, with planned annual production capacity of 10,000 electric buses and 5,000 electric trucks. The company also plans to provide charging support, financing and vehicle maintenance services.

AI-Generated Software Raises New Security and Accountability Challenges for AEC Firms

Source: AEC Magazine.
Source: AEC Magazine.

 

Artificial intelligence is enabling architects, engineers, and construction professionals to develop custom software without extensive programming experience. However, the rapid growth of AI-generated applications is creating new challenges involving security, reliability, maintenance, and accountability.

In an interview with AEC Magazine, Igor Tsinman, president and CEO of AMC Bridge, discusses the opportunities and risks associated with AI-assisted software development, often called vibe coding.

AI tools allow employees to create applications that automate repetitive tasks, connect disconnected systems, and improve access to building information modeling (BIM) data. According to AMC Bridge’s internal research, AI can reduce coding time by 70%–80% for routine operations. However, improvements are smaller for complex geometry processing and specialized engineering calculations.

Tsinman recommends combining established commercial software with custom applications tailored to specific business requirements. Rather than rebuilding existing capabilities, firms should develop tools that address workflow gaps.

The greater challenge involves managing applications after development. Many organizations already depend on undocumented scripts, plug-ins, and AI-generated utilities created by individual employees. These tools may access sensitive project information or modify production models without adequate oversight.

Tsinman proposes three measures: identifying existing applications, auditing their functionality and security, and temporarily restricting deployment of unverified tools. Applications intended for production require documented ownership, controlled access, testing, maintenance, and recovery procedures.

Model Context Protocol (MCP) introduces additional considerations by allowing AI agents to interact with engineering platforms. Although MCP simplifies integration, it does not eliminate underlying API limitations or security risks. Any automated modification to project models should be authorized, validated, and recorded.

Running AI locally offers greater data control but transfers infrastructure, security, and operational responsibilities to the organization.

Ultimately, AI makes software creation faster and more accessible, but professional accountability remains essential. AEC firms must distinguish experimental applications from production systems and establish governance practices that protect project integrity without discouraging innovation.

Trimble Posts Q3 Revenue Growth, Signals Positive Outlook

WESTMINSTER, CO, Nov 4, 2026 – Trimble has announced its Q3 FY26 results, reporting $967M in revenue – a 0.5% decrease from $972M in Q2 FY26 – with a profit of $59M.

Third Quarter Financial Highlights

• Revenue: $966.8M, up 7% year over year and 7% organically.
• ARR: $2.56B, up 11% year over year and 10% organically.
• GAAP operating income: $142M, or 14.7% of revenue.
• GAAP EPS: $0.25.
• Adjusted EBITDA: $278.5M, or 28.8% of revenue.
• AECO revenue rose 10.2% to $395M, Field Systems grew 6.6% to $435.8M, and Transportation and Logistics increased 1.5% to $136M.
• Subscription and services revenue: $642.5M, compared with $598.7M in Q3 2025.
• Approximately 4 million shares repurchased for $231.7M during the quarter.

Eight-quarter financial trends: A comparative analysis of Trimble’s results.
Eight-quarter financial trends: A comparative analysis of Trimble’s results.

“Our third quarter results surpassed expectations on both revenue and earnings per share, while delivering record annualized recurring revenue of $2.56 billion,” said Rob Painter, president and CEO of Trimble. “Our full year 2026 guidance reflects solid execution against our Connect & Scale strategy, which continues to leverage our unique presence across the physical and digital worlds with our unmatched breadth and depth of connected industry data.”

A detailed chart outlining the financial results is available here, providing a comprehensive breakdown of key metrics and performance indicators for better insight into the company’s financial standing.

Source: Trimble

About Trimble

Trimble Inc., established in 1978, is a technology company focused on creating tools that connect the physical and digital worlds. Based in Westminster, CO, the company serves industries such as agriculture, construction, geospatial technology, and transportation. Its products include GNSS receivers, optical devices, machine control systems, and widely used software and services. Trimble’s construction technology improves project efficiency by using data throughout each build stage. The company employs around 12,000 people worldwide. The company prioritizes innovation and sustainability, working to make industries productive, safer, and environmentally friendly.

Manufacturers Need a Clear Strategy to Scale AI Adoption

Source: Design News.
Source: Design News.

 

Artificial intelligence is attracting considerable interest across manufacturing, but many companies struggle to translate experimentation into meaningful operational improvements. Despite investments in AI and automation, disconnected initiatives, fragmented data, and unclear objectives often prevent organizations from achieving measurable results.

In a Design News article, Jason Barnett, vice president of innovations and partnerships at IMAGINiT Technologies, explains that manufacturers are experiencing a period of uncertainty as enthusiasm for AI advances faster than organizational readiness.

Many manufacturers are introducing AI tools independently across departments without establishing a coordinated strategy. Although these experiments may demonstrate potential benefits, they often remain isolated and difficult to scale across the organization.

Barnett emphasizes that successful AI adoption begins with a strong technical foundation. Manufacturers must integrate their data, standardize systems, and ensure that information can move effectively between applications. Without these preparations, introducing additional AI technologies may increase complexity rather than improve efficiency.

Equally important is establishing a secure corporate environment. Organizations need clear policies governing AI use, including expectations for employees and appropriate safeguards for company information. These policies should support innovation while maintaining control over sensitive operational and engineering data.

Employee training represents another essential requirement. Workers must understand not only how AI tools function but also when and where their use is appropriate within established company procedures. This combination of technical knowledge and organizational guidance can help employees apply AI more effectively.

The article also stresses the importance of defining specific business objectives before launching AI initiatives. Rather than adopting technologies simply because they are available, manufacturers should identify operational challenges and determine whether AI can address them.

For engineering and manufacturing leaders, the message is that technology alone cannot deliver successful AI adoption. Coordinated planning, reliable data, standardized infrastructure, and workforce preparation are necessary to move beyond experimentation.

By aligning AI investments with organizational priorities, manufacturers can establish a more practical foundation for expanding automation and achieving sustainable operational improvements.

Dassault Names Pierre Barnabé COO

Pierre Barnabé, COO, Dassault Systèmes

VÉLIZY-VILLACOUBLAY, France, Nov 4, 2026 – Dassault Systèmes named Pierre Barnabé, 56, chief operating officer (COO) in April 2026, placing him in charge of global operations and relationships with partners and system integrators worldwide. Barnabé reports to Pascal Daloz, the company’s CEO and chairman.

Barnabé is responsible for improving operational performance and expanding the adoption of Dassault Systèmes’ AI-native 3DEXPERIENCE platform and Virtual Twins across industries.

Barnabé brings more than 20 years of experience in the technology sector. Before joining Dassault Systèmes, he served as CEO of semiconductor materials company Soitec. He previously held senior leadership positions at Bull, Nokia and Thales and has managed international businesses through periods of change and growth.

Pierre Barnabé graduated from NEOMA Business School and École Centrale Paris, both in France. He is a member of the board of directors at Ipsos and Bull, and is a Knight of the French National Order of Merit.

Source: Dassault Systèmes

About Dassault Systèmes

Dassault Systèmes SE, founded in 1981 and headquartered in Vélizy-Villacoublay, France, is a global software company focused on 3D design, digital mock-ups, and product lifecycle management. The company develops virtual tools that enable real-world applications across industries such as healthcare, manufacturing, and consumer products. Its software portfolio includes CATIA for product design, SOLIDWORKS for mechanical engineering, DELMIA for manufacturing workflows, and SIMULIA for advanced simulation. These solutions are used in aerospace, automotive, industrial equipment, consumer goods, life sciences, and technology sectors. Dassault Systèmes employed approximately 24,000 people across 200 offices worldwide.

AI Turns Shop Floor Knowledge Into Working Manufacturing Software

Source: MachineMetrics.
Source: MachineMetrics.

 

Artificial intelligence is increasingly familiar to manufacturers, but its use remains concentrated in administrative tasks rather than production operations. At FABTECH 2026 in Las Vegas, MachineMetrics highlighted this disconnect and demonstrated how AI could transform shop floor knowledge into practical software applications.

The company introduced upcoming capabilities for Carbide, an application-building layer within its MaximaOS manufacturing operations platform. MaximaOS connects machine data, enterprise resource planning (ERP) systems, and manufacturing execution functions, while its Max AI assistant helps users interpret production information.

Carbide allows manufacturers to create applications based on operational requirements. Its developer version, released in September 2026, supports custom programming. An upcoming browser-based version, scheduled for mid-December, will enable users to describe workflows in natural language and generate applications without coding.

MachineMetrics demonstrated an inspection application developed in approximately 20 minutes, followed by another 20 minutes of refinement. The application incorporated inspection criteria, photographs, and simplified data entry. Another customer developed a job-pacing application in approximately 30 minutes, helping identify production delays caused by an incorrectly configured machine.

The company also emphasized preserving tribal knowledge, including troubleshooting procedures and machine-specific expertise. Its Knowledge Hub connects this information with relevant production contexts, allowing operators to access guidance when problems occur.

MachineMetrics reported average machine utilization of 26.8% across approximately 100,000 connected machines, compared with roughly 85% among top performers. Such data can reveal operational inefficiencies and challenge assumptions about production performance.

Security remains an important consideration. The upcoming Carbide builder will assemble applications using tested manufacturing components rather than generating unrestricted application code. Approval controls will determine deployment.

The central message from FABTECH was that manufacturing AI must move beyond reporting and administrative assistance. By combining production data, operational knowledge, and AI-driven application development, manufacturers can create practical tools that address specific shop floor challenges.

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