Date: June 23, 2026
Host: Amelia Dalton
Featured Guests: Laura Mirkarimi (Adeia), Angelica Davila (Penguin Solutions), and Madison Ecklund (Texas Instruments)
Introduction: A Celebration of Innovation
On June 23, 2026, the technology community marked International Women in Engineering Day (INWED) with a special installment of the industry-renowned Fish Fry podcast. Hosted by Amelia Dalton, this third annual commemorative episode brought together three powerhouse figures from the high-tech sector: Laura Mirkarimi of Adeia, Angelica Davila of Penguin Solutions, and Madison Ecklund of Texas Instruments.
The episode served as a platform to reflect on the evolving landscape of electrical engineering (EE), the transition from traditional transistor scaling to heterogeneous integration, and the critical importance of diversity in solving the world’s most pressing resource challenges.
The Genesis of an Engineer: Personal Journeys
A recurring theme throughout the discussion was the realization that there is no singular "path" to engineering. Each guest shared a unique trajectory defined by curiosity, mentorship, and a willingness to pivot.
The Power of Curiosity
Laura Mirkarimi traced her passion back to a seventh-grade chemistry class. "It was the first time I felt the world around me being explained," she noted. Her career, which included pioneering work at HP Labs on concepts akin to early smart eyewear, was built on the philosophy that "you don’t know what you don’t know." For Mirkarimi, engineering is the art of balancing immense complexity with elegant simplicity.
From Pre-Med to Micro-Nanotechnology
Angelica Davila’s path was perhaps the most non-linear. Entering the University of Miami as a pre-med student, a chance conversation with a biomedical engineering peer prompted an immediate change in major. Davila eventually gravitated toward the intersection of hardware and strategy, finding her niche in AI product marketing at companies like Intel, Dell, and now Penguin Solutions. "Technology feeds my curiosity," she stated, emphasizing that her career trajectory was driven by what energized her rather than a rigid, pre-planned roadmap.
Competitive Roots and Problem Solving
Madison Ecklund’s entry into the field was influenced by her father, an electrical engineer. When he suggested that EE was the "hardest" major, her competitive nature took over. However, it was a practical internship at Texas Instruments that solidified her resolve. "I realized I am fundamentally a problem solver," Ecklund remarked. Her journey underscores the value of hands-on experience in converting academic interest into a lifelong professional passion.
Industry Chronology: From Moore’s Law to the AI Era
The guests provided a sophisticated breakdown of how the engineering landscape has shifted over the last three decades, transitioning from a focus on monolithic scaling to a more integrated, system-level approach.
The Post-Moore’s Law Pivot
Laura Mirkarimi highlighted the "rich history" of semiconductors, noting that for decades, Moore’s Law was the industry’s singular compass. When transistor scaling began to plateau, the industry faced a critical inflection point. "Innovative people asked, ‘What else can we do?’" Mirkarimi explained. This led to the rise of heterogeneous integration, where logic, memory, and sensors are combined to drive performance, rather than simply shrinking the individual transistor.
The Explosion of Complexity
Angelica Davila offered a stark comparison to illustrate the pace of progress. In her graduate studies, a Pentium 4 processor—boasting roughly 45 million transistors—was considered the pinnacle of engineering. Today, modern processors utilize tens of billions of transistors. "Engineering today isn’t just about faster chips," Davila noted. "It’s about the orchestration of compute, memory, networking, storage, power, and cooling."
Supporting Data: The New Frontiers of Engineering
The panel discussed the current state of the industry, where AI and high-performance computing (HPC) dominate the R&D landscape.
- Data Center Constraints: A critical point of discussion was the "insatiable demand" for power and cooling in the AI era. The panelists agreed that future engineering excellence will be measured by energy efficiency as much as raw performance.
- System-Level Design: The shift toward AI has forced engineers to look beyond the silicon. Success in 2026 requires an understanding of software, environmental impact, and physical resource management.
- Representation Metrics: While the industry has made strides, Madison Ecklund noted that the presence of women in engineering teams has noticeably increased since she began her career in 2019, suggesting a positive, albeit ongoing, shift in organizational culture.
Official Perspectives: Looking Toward the Future
When asked about their hopes for the future of the engineering industry, the guests shifted their focus from technical specifications to societal and educational impacts.
The Imperative of Sustainability
Laura Mirkarimi urged the industry to broaden its scope regarding resource constraints. She argued that the brightest minds must focus on creating sustainable solutions that mitigate the environmental costs of the AI revolution. "The most important innovations… are always the result of teams with diverse perspectives," she said, advocating for cross-disciplinary collaboration.
Investing in the Next Generation
Angelica Davila emphasized the importance of early exposure to STEM. She proposed that every school should have access to robotics clubs, coding classes, and AI competitions. By connecting engineering to topics students already care about—such as gaming, music, or healthcare—the industry can attract a more diverse and passionate workforce.
Confidence in the Unknown
Madison Ecklund offered a message for the next generation of engineers: "Success isn’t about already knowing the answer. It’s about figuring out which questions need to be asked." She encouraged young women to find their voices early and to realize that they do not need to be the "all-knowing" expert to be a vital part of the team.
Implications for the Engineering Sector
The consensus among the guests is clear: the engineering field is entering an era of unprecedented complexity, but also one of incredible opportunity.
- Collaborative Necessity: As the challenges of AI, power consumption, and hardware integration intensify, the siloed engineering model of the past is no longer sufficient. Future breakthroughs will require a "marriage of complexity and essence," as Mirkarimi described it.
- Professional Fluidity: The careers of these three women demonstrate that the "ideal" engineering path is often a zigzag. By embracing change, seeking mentorship, and remaining curious, engineers can build robust careers that adapt to the rapid pace of technological change.
- Mentorship and Networking: A consistent takeaway was the power of community. Whether it was choosing a graduate school based on a professor’s advice or finding a mentor in a new role, the success of these engineers was predicated on their ability to build authentic professional relationships.
Conclusion: The Road Ahead
As the podcast drew to a close, the discussion turned to a lighter note, with each guest reflecting on their favorite global meals—a testament to the shared humanity behind the complex science of semiconductors.
For the listener, the message of the third annual Fish Fry was clear: the future of engineering is not just about the next billion-transistor chip; it is about the people who design them, the diversity of thought they bring to the table, and the courage to ask the right questions in an ever-evolving world.
For more information on the technologies discussed, listeners are encouraged to visit the Fish Fry page on EEJournal.com for links to resources from Adeia, Penguin Solutions, and Texas Instruments.
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