Engineering a More Inclusive Future: How Diverse Perspectives are Redefining Modern Manufacturing
The industrial landscape is currently undergoing a profound metamorphosis. As manufacturing technologies—from advanced CNC machining to complex supply chain automation—become more sophisticated, the workforce driving these innovations is also shifting. No longer defined solely by traditional technical backgrounds, the modern engineering sector is increasingly characterized by the integration of diverse viewpoints, interdisciplinary collaboration, and a relentless commitment to accessibility.
At the heart of this evolution are professionals like Kimberly Upton, an industrial engineer at Tormach, and Amanda Lucas, a technical writer at the same firm. Their work highlights a critical industry trend: the move toward “demystifying” manufacturing. By prioritizing curiosity, clear communication, and an unwavering focus on the end-user, these pioneers are proving that the future of engineering is not just about building better machines—it is about building a more inclusive environment where everyone has the agency to contribute.
The Changing Face of Manufacturing: A Historical Context
For decades, the engineering sector was frequently characterized as a “black box” industry—highly technical, notoriously insular, and often difficult for those outside of traditional engineering pipelines to penetrate. For women and underrepresented groups, the barriers to entry were historically high, ranging from limited educational pathways to exclusionary workplace cultures.
Kimberly Upton, who entered the workforce in 2002, recalls an era where manufacturing was often perceived as a male-dominated fortress. “There was a sense of mystery surrounding the machinery and the processes,” she notes. “It wasn’t always presented as a welcoming space for everyone.”
However, the last decade has seen a concerted effort to break down these barriers. As manufacturing processes have become more integrated with software, data analytics, and user-centered design, the industry has begun to recognize that technical proficiency is only one piece of the puzzle. Soft skills—collaboration, communication, and creative problem-solving—are now recognized as essential components of operational success.
The Pillars of Modern Engineering: Insights from Tormach
The experiences of Upton and Lucas at Tormach serve as a microcosm for the broader industry shift. Their roles, while distinct, converge on the shared goal of making technology more approachable.
The Industrial Engineer’s Perspective
Upton’s role in Tormach’s supply chain management is a masterclass in cross-functional efficiency. Her responsibilities are vast, spanning component sourcing, global supplier coordination, and the optimization of Bills of Materials (BOMs).
“I get to learn a lot, and I get to do a lot,” Upton says. Her approach to process improvement is grounded in the strategic use of modern digital tools. By fine-tuning Enterprise Resource Planning (ERP) and Manufacturing Resource Planning (MRP) systems, she has successfully balanced the need for inventory precision with the reality of global logistics. This ensures that the company maintains lean operations while guaranteeing on-time delivery—a critical metric in today’s fast-paced market.
Furthermore, her use of collaborative project management tools like Jira has revolutionized how departments hand off tasks, reducing the "silos" that historically plagued engineering firms.
The Technical Communicator’s Role
If Upton optimizes the flow of materials, Lucas optimizes the flow of information. As a technical writer, she is responsible for translating complex machine logic into clear, actionable documentation. Her shift away from traditional, static manuals toward integrated, digital knowledge bases marks a significant evolution in customer support.
“We’re moving beyond the PDF,” Lucas explains. By embedding technical documentation directly into the support pipeline, her team has significantly reduced the friction customers face when troubleshooting. This proactive approach—providing information at the point of need rather than after a problem escalates—is emblematic of a shift toward user-centric manufacturing.
Bridging the Gap: Design vs. Reality
One of the most significant themes emerging from their collaborative work is the "disconnect" between the engineering desk and the shop floor.
Identifying the Disconnect
Upton emphasizes that systems are often designed with an idealized user in mind—a theoretical person who interacts with a machine exactly as the engineer intended. In reality, the end-user’s environment is messy, unpredictable, and highly varied. When designers work in isolation, they often fail to account for the constraints of the shop floor.
“It’s about clear communication and involvement from the beginning,” Upton argues. When the people who will ultimately use the machines are excluded from the design phase, the product suffers.
Prototyping as a Feedback Loop
Lucas mirrors this sentiment, noting that her documentation often acts as a stopgap for assumptions made during product design. To fix this, Tormach has begun to prioritize rigorous prototype testing and real-world feedback loops. By observing how machines arrive at customer facilities and how they are unpacked and set up, the company can feed this data back into the engineering cycle. The ultimate goal is to create products so intuitive that the need for extensive, troubleshooting-heavy documentation is minimized.
Promoting Inclusivity: A Cultural Mandate
The push for diversity in engineering is not merely a social goal; it is a business imperative. Diverse teams bring diverse life experiences, which lead to more innovative solutions.
Demystifying the Machinery
Upton believes that the most effective way to foster inclusion is to demystify the technology for the next generation. “A CNC router doesn’t have to be intimidating,” she says. “It is a tool for creativity.” By exposing more people to manufacturing at a younger age, the industry can strip away the “gatekeeper” mentality that has historically excluded women and minorities.
Belonging and Psychological Safety
At Tormach, both women report a culture that values the individual. For Upton, feeling like a valued member of a community, rather than an outlier, is crucial to her professional output. “You are who you are, and you bring a lot to the table,” she reflects.
This sense of psychological safety allows employees to take risks, ask questions, and propose unconventional ideas—all of which are necessary for staying competitive in an age of rapid technological disruption.
Implications for the Future of Manufacturing
The trajectory of the manufacturing sector suggests that the traditional, hierarchical model of engineering is fading. The future belongs to organizations that can foster a culture of "continuous learning."
The Need for Agility
As CNC technology and automated manufacturing become more advanced, the ability to adapt is the most valuable skill set a worker can possess. The industry is no longer looking for workers who are simply "masters of one machine." Instead, they are looking for "T-shaped" individuals: those who have a deep expertise in one area but also possess the curiosity to understand how their work connects to the broader supply chain and the end-user.
Collaborative Innovation
The partnership between Upton and Lucas highlights that collaboration is the new competitive advantage. By ensuring that supply chain logistics, technical documentation, and mechanical design are all aligned through constant communication, companies can move products from concept to shelf with unprecedented speed and accuracy.
Conclusion: A Broader Horizon
Engineering is at an inflection point. The barriers that once defined the industry are being eroded by a new generation of professionals who value transparency, inclusivity, and user-centric design. By inviting more people into the process—and by valuing the unique perspectives they bring—the manufacturing sector is not just building better products; it is building a more equitable and resilient future.
As the industry continues to evolve, the lesson is clear: the most sophisticated piece of technology in any facility is the human brain. When we provide people with the tools to communicate, the space to be curious, and the opportunity to contribute their diverse perspectives, there is no limit to what modern manufacturing can achieve.
