CHAPTER 15
Growing the Roles for Women in Smart Manufacturing

Maria Villamil and Deborah Walkup

Maria Villamil is vice president of WET Design, the company that designs and builds those famous Dubai and Las Vegas fountain shows; she has 26 years of experience in several areas of complex manufacturing. Deborah Walkup, a degreed mechanical engineer, is senior director of technical operations with InforNexus, with 30 years of experience providing technology solutions to manufacturing and distribution organizations.

The last section of this chapter relates the personal story of the two coauthors. Maria Villamil immigrated to the United States from the Philippines as a girl, and used her can-do attitude acquired growing up on a farm to enjoy a rewarding career in manufacturing. In the process she has learned virtually every aspect of complex manufacturing and taken on roles traditionally reserved for men, and rarely by a woman of color who speaks English as a second language. Maria shares her story of the steps she took to progress from receptionist to vice president of manufacturing.

Deborah Walkup also grew up on a farm learning a wide variety of mechanical and engineering skills from her father. Coming from a family of engineers and her love of fixing and designing things, it was natural for her to pursue an engineering education. She faced bias against women in STEM starting in middle school and continuing through high school, the formative early years shaping career paths. After receiving her degree in mechanical engineering, she benefited from government programs creating opportunities for women. She shares her personal story of the opportunities for women in technical and engineering areas traditionally dominated by men.

In this chapter they explore the history of women in traditional manufacturing, including the many obstacles they were forced to overcome and the many initiatives underway to encourage women to enter STEM education and training, which are essential for the success of manufacturing and distribution organizations.

Introduction

The history of women in manufacturing dates back to the early years of the Industrial Revolution. Back then, women were not always included or welcome in industrial workplaces. Factories that fabricated items in mass quantities have historically been male-dominated. Manufacturing jobs were considered inappropriate for women, and women weren't typically educated or trained for manufacturing jobs.

During the Industrial Revolution there was a migration of farm workers to cities to become factory workers. In some cases there were more farmers than land, in other cases men traded the uncertainty of farm life for set hours and a weekly paycheck, and more women were relegated to domestic roles. Most of the women in the workforce were low income and women of color.

In the United States, during World War II, the shortage of men opened the doors for female workers in factories and they remain open today. Factory jobs provide some of the highest wages for entry-level positions and, through the efforts of unions, offer more job protection than other careers. By working in factories, women became wage earners who could support a family, with or without a male partner.

A good description of the role women played in manufacturing during World War II is documented on the History.com website.1 “Women were critical to the war effort: Between 1940 and 1945, the age of ‘Rosie the Riveter,’ the female percentage of the U.S. workforce increased from 27 percent to nearly 37 percent, and by 1945, nearly one out of every four married women worked outside the home. World War II opened the door for women to work in more types of jobs than ever before, but with the return of male soldiers at war's end, women, especially married women, were once again pressured to return to a life at home, a prospect that, for thousands of American women, had shifted thanks to their wartime service.”2

While women had been participating in the workforce in greater numbers since the Great Depression, the United States’ entry into World War II transformed the jobs open to women. Prewar, most women worked in traditionally female roles such as teaching and nursing. After Pearl Harbor, women were asked to take on roles formerly reserved for men. The aviation industry saw the greatest use of female workers, with over 300,000 women helping the war effort in 1943, which was 65% of total workforce. Prewar, only 1% of the aviation industry workforce was female. The munitions industry also became heavily dependent on female workers.

The iconic image of Rosie the Riveter was a great propaganda tool to recruit women to the war effort. Rosie was based in part on a real-life munitions worker but was primarily a fictitious character. The bandana-clad Rosie with a muscular arm became one of the most successful recruitment tools in US history. Although female workers were critical to the war effort, they were paid far less than their male counterparts, with most women earning about 50% of male wages.3

With men pulled into military service, mothers were faced with the burden of balancing work and childcare. The federal government acknowledged the issue by passing legislation providing childcare services for industries supporting the war effort.

Not all women were treated equally in the workplace. African American women found that white female workers did not accept working next to a person of color. African American women were paid less than their white peers. Japanese American women fared even worse, being interned in camps for the duration of the war.

Exhibit 15.1 is the iconic poster created by J. Howard Miller. While it was only shown briefly in Westinghouse factories, the poster in later years has become one of the most famous icons of World War II.4

Photograph of J. Howard Miller's iconic poster.

EXHIBIT 15.1 J. Howard Miller's iconic poster

Source: American History Museum.

Women as Innovators

Women in households are typically the decision makers for most purchases, and for many items they are also the end user. They wash dishes, clean floors, and do the laundry. They also operate most of the appliances. Women have a deep understanding of how products are used and know how they could improve the lives of anyone who uses these products to perform household chores.

Their input for product design is valuable in the development and manufacturing environment. Unfortunately, most product designers are men, and they design products for men; occasionally they design smaller versions in pink for the ladies. Even the design of products like women's underwear or feminine hygiene products is dominated by male designers. Most of these aren't very comfortable and can be hard to use. Why do we expect men to have a better idea of how to design these products that they almost never use?

Exhibit 15.2 shows a notorious example of patronizing product design with the BiC pen “for Her.”5 This product was roundly skewered in Amazon reviews for being unnecessary and patronizing.

An important and obvious reason why women are great contributors in the world of manufacturing is the fact that they have a unique perspective on normal day-to-day life experiences. These daily life experiences should be strongly considered when adopting manufacturing as a career choice. How can things be better and what can be done to make life easier are questions that should be asked. This is what allows us to be creative and to freely innovate and make our vision come to life. This type of mindset was instilled in both Maria and Deborah by their fathers growing up and has been a valuable asset in their careers.

Photograph of BiC pen “for Her”.

EXHIBIT 15.2 BiC pen “for Her”

Source: From Business Insider.

Women Hold the Answers (Skills Where Women Excel)

Women make great leaders. Women have many traits that organically lend themselves to being great leaders such as being great listeners, experts in work–life balance, being able to multitask, being empathetic and nurturing, and being able to manage a crisis well. Anyone running a household and raising children had better be good at crisis management.

Jack Zengler and Joseph Folkman in the Harvard Business Review investigated the management skills that women and men possess and how they rank in effectiveness. “But the women's advantages were not at all confined to traditionally women's strengths. In fact at every level, more women were rated by their peers, their bosses, their direct reports, and their other associates as better overall leaders than their male counterparts – and the higher the level, the wider that gap grows.”6

Exhibit 15.3 shows research by Jack Zenger and Joseph Folkman comparing male and female leadership effectiveness.7

EXHIBIT 15.3 Overall Leadership Effectiveness by Gender by Position (Percentile Scores)

MaleFemale
Top Management, Executive, Senior Team Members57.767.7
Reports to Top Management, Supervises Middle Managers48.956.2
Middle Manager49.952.7
Supervisor, Front Line Manager, Foreman52.552.6
Individual Contributor52.753.9
Other50.752.0
Total51.355.1

Source: Zenger Folkman Inc., 2011.

Zenger and Folkman maintain that women are superior to men in 12 of 16 leadership competencies they measured. Interestingly, women had the highest scores in two traits thought traditionally to be male strengths, taking initiative and driving for results.

Exhibit 15.4 is from Zengler and Folkman's research and shows the comparison across 16 leadership qualities.8

EXHIBIT 15.4 The Top 16 Competencies Top Leaders Exemplify Most

MaleFemale
Mean PercentileMean PercentileT value
Takes Initiative4856–11.58
Practices Self-Development4855–9.45
Displays High Integrity and Honesty4855–9.28
Drives for Results4854–8.84
Develops Others4854–7.94
Inspires and Motivates Others4954–7.53
Builds Relationships4954–7.15
Collaboration and Teamwork4953–6.14
Establishes Stretch Goals4953–5.41
Champions Change4953–4.48
Solves Problems and Analyzes Issues5052–2.53
Communicates Powerfully and Prolifically5052–2.47
Connects the Group to the Outside World5051–0.78
Innovates5051–0.76
Technical or Professional Expertise5051–0.11
Develops Strategic Perspective51492.79

Source: Zenger Folkman Inc., 2011.

Zengler and Folkman ask why organizations are not employing exemplary women as leaders and believe that the answer is because of blatant discrimination. When they shared their findings with a group of women about why they believe their colleagues were rated so highly on taking initiative and self-development, their answers were around the still-tenuous positions they felt themselves to be in the workplace with such comments as “We need to work harder than men to prove ourselves,” and “We feel the constant pressure to never make a mistake, and to continually prove our value to the organization.”9

Women's Inspiration

Women's inspiration to enter the manufacturing industry has evolved over the years. It is important to learn how these women were inspired and how they got into the field of manufacturing. Inspiration comes from different sources; from supporting a household to becoming the substitute workforce while men were out fighting the war, inspiration for women to enter the manufacturing industry is quite diverse.

Women as inventors and those in leadership roles serve as perfect inspirations for girls to pursue careers in manufacturing. Women innovators such as Hedy Lamarr have certainly been an inspiration. Hedy Lamarr was considered one of the most beautiful actresses of all times who was also a brilliant engineer, inventing a radio guidance system using frequency-hopping spread spectrum technology that was incorporated in Bluetooth. She epitomized glamour, which could be easily romanticized by young girls.10

While there is data that shows that girls are good at math and science in grade school and middle school, their interest declines in high school and college. As Carly Berwick writes in Edutopia, there are three main barriers and solutions as we discuss next. 11

Barrier One: Building a Math Identity

One explanation as to why the gender differences in STEM participation may be the commonly held beliefs that mostly men are scientists or mathematicians. When girls become aware of cultural messages about the male superiority in math, their encounters with math and technology become more fraught, fostering self-doubt in even studious young girls.

Building a math identity begins by showing images of famous female mathematicians and scientists throughout classroom materials and including the achievements of women in the class curriculum.

Barrier Two: The Question of Race and Class

Our perceptions as to who does well in math and science may impact performance more than raw aptitude does. This has especially profound implications for females who are Black, Latino, and low-income. As a group they are less likely to take advanced STEM courses and to pursue STEM professions after school. Nicole Joseph, a professor at Vanderbilt University, argues that Black girls and their teachers view themselves as outsiders in mathematics.12

Joseph suggests several measures to build math identity and interest among Black girls, such as making fundamental changes in how math is taught. One idea is to eliminate accelerated math in middle school, allowing all students to take Algebra I in the ninth grade. This worked in San Francisco's public schools to raise test scores in algebra and to lower the class repeat rates for all students, including Latino and Black students.

Another suggested change comes from educators Norman Alston and Patricia Brown. They believe that interest in mathematics can be fostered through after-school STEM programs. Alston requires her middle school program graduates to teach younger students and brings in women of color as inspirational speakers for female students.

Barrier Three: It's Not Just Content; It's Context, Too

Format matters when it comes to learning and teaching STEM, research shows. A recent analysis of admission tests at an elite New York City high school found that girls had better grades in higher-level math, but tended to score slightly lower on admission tests, leading to lower admission rates. According to various studies this may be because girls tend to guess less, which can be a disadvantage on multiple-choice tests.

One suggestion is to move away from multiple-choice tests and place a greater emphasis on open-ended assessments that allow students to demonstrate proficiency through word problems or writing, where they feel more confident. Another suggestion is to use project-based instruction because it addresses problems of girls rejecting engineering careers. A study by the National Academy of Engineering in 2008 asked students if they wanted to be engineers. Girls were twice as likely to say no as boys. But when the girls were asked if they would like to design a safe water system, save the rainforest, or use DNA to solve violent crimes, the girls answered yes.

Companies Working to Overcome Barriers to Women's Entry

There is a lot of work to be done to bridge the gap between women as a minority group in manufacturing and equity in numbers. The first step is to break down historic barriers of entry for women into these industries. Organizations that are involved in getting women to enter the field of manufacturing are a step in the right direction: they can be used to encourage more and more women to not only consider a role in manufacturing and engineering, but to embark on lifelong learning to improve their standing in a male-dominated field.

RippleMatch has compiled a list of 28 companies that have initiatives to close the gap for women in manufacturing and leadership roles. These are the manufacturing companies that made the list.13

  • Abbott. Since the late 1800s, Abbott has always had women leaders. Therefore, it is not surprising that Abbott is now a leading workplace for women. Several of Abbott's female leaders rose through the ranks and benefited from Abbott's one-year mentorship program and commitment to women's career development.
  • Aramark. Aramark has taken major strides to be more inclusive and supportive of women. Their corporate board is now made up of 30% women, up from none five years ago. Aramark also offers a business resource network for women employees.
  • Carbon. Carbon is a manufacturer of 3D printing and led by a female CEO. Carbon's leadership is 45% female, with a goal of reaching 50%. In a traditionally male-dominated field, Carbon is leading the way to increasing representation with many majority-female teams.
  • Honeywell. Honeywell offers women an great environment to tap into, including women-only networking events, longer maternity leaves, and a seamless transition back into the workplace after having a child.
  • Juniper Networks. Juniper Networks is committed to enabling women to fill representation gaps in their workforce. One program to achieve this is their WeTech Scholarship program, which grants four $10,000 scholarships to female STEM majors. Juniper Networks also partners with Anita B.Org and Grace Hopper to ensure they are continuing to engage and build a more fully representative workforce.
  • Kimberly-Clark. The company has increased the number of women in their senior management by 66% over the past decade by a combination of on-the-job leadership training, professional development opportunities, and flexible work schedules that help women with various personal obligations.
  • Lilly. After a 2015 analysis revealed the poor representation of women in leadership roles, Lilly took quick action. The company launched a program to improve women's trajectory, including inclusivity and bias trainings, and concrete goals to increase the number of women in management positions.
  • Medtronic. Over the past several years Medtronic has been proactive in closing the gender gap. In 2020 they achieved a 99% gender pay equity globally. Medtronic is now working on evolving development programs to create more career opportunities and learning styles.
  • Nestlé. Nestlé is committed to increasing female career opportunities and is also working quickly to achieve equal pay for all employees.
  • Pfizer. Pfizer has an outstanding portfolio of programs by their global women's network that has served to unlock the full potential of female employees. Programs and initiatives include development, robust mentorship, and very visible support from Pfizer's senior executives.
  • Unilever. In March 2020, Unilever announced that it had achieved gender balance across its management team globally. Their management level employees are now 50% female and their nonexecutive board members are 45% female. Significantly, they closed the gap in their historically underrepresented supply chain, finance, operations, and technical engineering teams.

Programs to Develop STEM Skills for Women

WorldWideLearn has compiled a list of 15 initiatives to encourage girls in STEM careers.14 They are:

  1. National Girls Collaborative Project. A group of organizations working together to encourage girls to enter STEM fields when they start their careers.
  2. Association for Career and Technical Education. The largest association that addresses pedagogical issues in STEM education. The association is involved in advocacy work, lobbying policymakers on issues that affect technical education in schools. They also offer resources to help educators meet the needs of technology students.
  3. Association for Women in Science. A professional organization for women who work in STEM jobs, they offer mentoring and coaching services, as well as advice on work–life balance issues. They have resources to educate women in the field, including workshops, books, educational videos, and journals. They also support advocacy for female STEM workers to address issues impacting their careers.
  4. Change the Equation. This organization works to increase STEM literacy to encourage young students to become more interested in science and math and then receive quality STEM education. They offer online resources for educators and discuss forums to discuss STEM issues and advocate for improved STEM education.
  5. National Math and Science Initiative. This organization works to address the candidate shortfall of qualified women to work in STEM-related jobs. Their goal is improve student performance in engineering, science, math, and technology courses by shaping the way these classes are taught and improve the quality of educators teaching them.
  6. National Center for Women & Information Technology. The nonprofit works to increase the number of women in technology and computing fields. The organization includes companies, government organizations, and universities.
  7. National Council of Teachers of Mathematics. Their goal is to support mathematics teachers by helping them teach at a higher standard for all their students. Their vision is that everyone sees the value in mathematics and is enthusiastic about math subjects.
  8. Million Women Mentors. This is a campaign that brings together higher education, government agencies, and nonprofits to mentor young female students who are interested in pursuing STEM careers.
  9. American Association of University Women. Founded in 1881, this association work to empower women by addressing the economic, educational, political, and social issues that impact them. They also created a math and science summer camp and a STEM conference for female middle school students.
  10. Society of Women Engineers. The society aims to inspire female students to pursue engineering careers and to support women entering the field. This includes helping female engineering college students. The society also runs outreach events to encourage female elementary school students to consider engineering careers.
  11. Mathematical Association of America. The MAA works to ensure the accessibility of mathematics to all students. They have an interest in improving math education, research, and public policy.
  12. Girls Who Code. This organization works to address the major gender gap in the software industry by inspiring young girls to enter these fields and by giving them a solid technical education.
  13. NASA. NASA has many resources for students and teachers designed to encourage an interest in technology and science. NASA offers a number of educational resources and publications for teachers to keep them current in the agency's scientific work, and to help them teach science.
  14. Anita Borg Institute. The institute celebrates women who are successful in technology careers and inspires those interested in following in their footsteps. Anita Borg was a pioneer who championed the advance of women in technology.
  15. TechWomen. This organization is dedicated to supporting women from the Middle East and Africa who are interested in entering STEM careers. The organization runs mentoring programs introducing these women to their successful counterparts from the United States, allowing them to share ideas and connect with one another personally and professionally.

Growing the Role of Women in Smart Manufacturing

Today, women are making a tremendous impact to help industries make gains in every facet of manufacturing. Women have been instrumental in developing cost-saving technologies, leading the way in the adoption of Industry 3.0, mentoring young talent, implementing diversity, and implementing equity and inclusion policies. Industry 4.0 or Smart Manufacturing is the automation of traditional manufacturing practices using Smart Technology. Smart Manufacturing introduced the integration of machine-to-machine communications, and the Internet of Things (IoT) is implemented for the automation, analysis, and diagnosis of problems without the need for human intervention.

These achievements come, but the number of women in manufacturing continue to lag behind the number of men. In manufacturing, diversity, equality, and inclusion (DEI) is often focused on women because the industry has historically been male-dominated. Today, fewer than one in three manufacturing professionals are women, despite representing nearly half of the overall workforce in the United States, according to the “2021 Manufacturing Talent Study” from Deloitte and Manufacturing Institute (MI).15 In fact, many of the largest, most successful corporations, such as Procter & Gamble, Cisco, and HP, are focused on transforming their internal culture by prioritizing DEI, often with a woman at the helm of these initiatives. They've recognized that in order to effectively serve a diverse, multicultural consumer base, the makeup of their employees must reflect that diversity. By focusing on inclusion, they're also able to lower the attrition rate for women and those of color. DEI, although often seen as a political stance, is simply good business.

Marketability

Once women are in the door, staying relevant requires a love of lifelong learning. It is unrealistic to expect that a person can keep doing the same job year after year with the same set of skills that they started their career with. Automation is inevitable in manufacturing and other industries. Artificial intelligence (AI) is evolving and improving. There are many tasks that AI and automation can do so much better than a human can. It is important to continuously learn new skills to stay relevant and marketable. Over the past few decades, we have all witnessed manufacturing and other related jobs being sent offshore. Taking courses offered at community colleges and trade schools is the best thing anyone in the workforce can do to stay knowledgeable and employable long term. Taking courses is a good way to advance in one's career and can lead to other opportunities for higher-level positions. Having technical know-how, expertise, and educational experience is empowering and can give a big confidence boost.

In America, there is an unhealthy obsession with college degrees and graduate schools. While higher education is important, it may not be for everyone. Sometimes we lose sight of what is most effective and achievable for a person. When a student considers the cost of a four-year college degree, how much of a student loan is required, and the time it takes to pay off the debt, they need to have confidence that they will be a marketable commodity at the end of the process and be able to land a good-paying job. Taking vocational courses or starting at a community college can be a very cost-effective way to get on track for a good-paying career. Even if you haven't graduated from high school, you can be accepted at community college, finish that requirement, and take more classes. There is no wrong way to get started.

Pay Inequality

In spite of the gains over the past decades, income inequality between men and women remains a chronic problem. Exhibit 15.5 shows the current breakdown of pay inequality by gender and race.16

Schematic illustration of earnings gap by race.

EXHIBIT 15.5 Earnings gap by race (median weekly earnings in 2020)

In a nutshell, women make 82 cents for every dollar a man makes. The disparity is even larger for women of color. Traditionally, women were discounted in the workplace because it was assumed they wouldn't be there long, especially if they were unmarried; to be fair, many women do leave the workplace because they become primary caregivers for children and need more flexible hours and more supporting infrastructure like affordable daycare.

Maria Villamil's Story

How I Got into Manufacturing

My path to a manufacturing career has been a journey of excitement. It was unexpected, as I felt pressure from my family and the community I grew up in (a small town in South Philippines) to be in medicine. I was fairly certain that I would be the first US-educated cardiologist coming from my hometown in Digos. Growing up as a little girl, my family maintained a farm in a town named Santa Maria, located south of Digos. I spent my first formative years growing up on that farm, where I lived a self-sufficient lifestyle with my family. Seeing my dad do everything and make things out of a block of wood, or pieces of metal, stone, and rubber, among other raw materials, made me think that was normal, or how life was supposed to be. If you needed something, you could make it. My family did not believe in the phrase “that cannot be done.”

The family-centric values and self-sufficient lifestyle of living on a farm began my interest and passion in manufacturing. The idea of fabricating something you need out of necessity has always been embedded in my mindset. If a tool or an object that is needed to accomplish a task does not exist, it can always be designed and fabricated. I vividly remember the strong women in my family. My mother, grandmothers, aunts, and other women helpers made such an imprint on my mind. I learned early on that there was no substitute for hard work if you wanted higher yields or better harvests or thriving livestock and other ways to earn income from a farm. This was also the reason I saw innovation around me – from improving how we harvested our crops, to managing our irrigation, even to dealing with having clean chicken cages that have a clever way of catching and recycling dung.

Immigrating to the United States as a 16-year-old high school graduate, I struggled with acclimating to the environment in what seemed to be a super-fast-paced world, Los Angeles. Comparing Los Angeles to my hometown in the Philippines was like night and day – there are still no traffic lights in Santa Maria. In attempting to start my long journey as a healthcare professional, I had to take an anatomy class as a prerequisite, and I was immediately discouraged. Working on those cadavers made me feel uneasy and it was then that I made the decision to pursue a different path. In the early 1990s, personal computing was gaining popularity, and I was always interested in tinkering and making something out of parts and more parts and more parts! I frequented Radio Shack. I took a computer certification program to learn computer programming and how to build a network infrastructure.

Not having been born in this country, as a woman of color, with English as a second language, I had my work cut out for me. I was obsessed with learning and knowing everything I possibly could to advance in my career and to get acclimated and be worthy of entering the American workforce. I encountered many instances where being discouraged was so easy, but on the path to the technology and manufacturing world I embarked on, there were just so many positive aspects that kept me going and wanting to embrace the industry.

Conquering the common fear that is associated with entering the unknown and unfamiliar is empowering for me. Learning something difficult always becomes easy once it is tackled head-on. Taking welding, soldering, and woodworking classes sounds hard, but it does not have to be, and these classes provided a great foundation for learning other valuable skills. Taking trade school and community college courses helped tremendously. Learning basic computer skills allowed me to navigate more intermediate and advanced digital tools. Learning Excel and the office suite at a minimum and mastering this at an intermediate level was very helpful in making me marketable in the manufacturing environment.

I am a mother of two girls, a 16-year-old and a 12-year-old, who are similar in many ways, but also different in a lot of ways. I made sure they had a science fair entry every year during their days in elementary school. As their Girl Scout troop leader, I made sure that their activity involved technology, science, and manufacturing projects. When they were younger and into dolls I taught them about plastic injection molding, which is one of the skills I learned at WET, where I have worked most of my professional life. Introducing them to and keeping them interested in STEM is a big undertaking and a tough endeavor, because there are always other influences that distract them and draw them away, but it has been a joyful experience.

My Career at WET Design

WET Design is a water feature design firm based in Los Angeles, California. Founded in 1983 by former Disney Imagineers Mark Fuller, Melanie Simon, and Alan Robinson, the company has designed over 200 fountains and water features using water, fire, ice, fog, and lights. It is known for creating the Dubai Fountain, the world's largest performing fountain, along with the eight-acre (3.2 ha) Fountains of Bellagio in Las Vegas. WET has designed features in over 20 countries around the world, in North America, Europe, Asia and the Middle East.17

WET strives to stay be ahead of the game when it comes to educating its staff. WET has world-renowned experienced instructors to teach and provide training to our staff members. I am and have been surrounded by people who taught me generously. WET's culture is designed to nurture an individual's desire to learn meaningful and useful things, and the culture's emphasis on continuous and lifelong learning is evident – from a fully functional woodworking shop that is available to staff members who want to learn woodworking or make their own projects to an entire building dedicated to learning that is complete with a university-style amphitheater, a large convertible computer lab/classroom, and a large lab area for manual tinkering with every device that WET has designed and created. Having had my own personal set of challenges, this environment just made me more driven for success, knowing that I can take little steps and improve upon them by making them a part of my foundational knowledge. WET provides us with opportunities to grow. These challenges require us to research various engineering and manufacturing methods and processes, which brings endless possibilities when it comes to solving problems. There is nothing more gratifying than seeing something fabricated out of a raw material and see it come to life in a project. At WET we pride ourselves on providing the tools and the environment necessary for our talent to take a concept from ideation to life.

Engaging with our clients starts with understanding their vision. Inspiration to create comes from various elements we see all around us. Engineering is key to making these elements perform the way we envision them. Standard approaches, templates, and equipment that are readily available have proven inadequate in our processes and what we need to accomplish in our projects. We are constantly reinventing what we do on almost every project, and that is by design. We have ambitious requirements for our water features. Each project is a new idea and doesn't exist until we create it.

It is difficult to hire the talent we need, and WET has adopted the philosophy of hiring talented engineers who can grow into the position. They have to be able to adapt to a changing environment and learn easily. We also expect them to challenge how we design, manufacture, and build projects. They should always be asking “why?” In our industry we are balancing budgets, deadlines, resource scarcity, and sometimes political upheaval, civil unrest, high-profile scandals, and other nontraditional and complex issues.

WET 's Use of Smart Technologies

WET has become heavily reliant on Smart Technologies because our projects are so unique and not mass produced. It allows us to be more fluid and flexible in operations and not be tied down by what we have done in the past. Our research and development process allows us to push the boundaries of water, fire, ice, and fog to create long-term works of art. We have state-of-the-art manufacturing facilities where we conceive and manufacture the technologies and equipment used in our features to achieve ultimate precision and quality. We pride ourselves on not relying on outsourcing. One of the most gratifying parts of my job is finding a solution to a problem by coming up with new ways to manufacture and then bringing the previously nonexistent manufacturing capability in-house. This includes studying and learning a particular manufacturing method, acquiring any necessary machines and building infrastructure, and implementing these new manufacturing processes.

Deborah Walkup's Story

Like Maria, I grew up on a family farm; ours was near State Center, Iowa, a very small town in the middle of the state. I loved working with my dad, and my first job was to hold the light while he fixed something. Both of my parents worked as professionals, my dad as an industrial engineer for a local valve manufacturer, and my mother as a registered nurse. My dad started as a machinist with the company and really understood everything about manufacturing.

My father's family is also chock-full of engineers. It wasn't inevitable that I would become one, but it was likely. Two of my dad's brothers were electrical and chemical engineers, two of his sisters married mechanical and electrical engineers, and in my generation, there is one mechanical, one computer, one aerospace, one chemical, and two industrial engineers. One of my father's sisters would have been a great engineer but she wasn't allowed in the program because she wasn't a man. Family reunions usually started with something like a softball game and then devolved into a working session to redesign the bases.

Eventually I graduated from holding the light to learning the different tools and handing them to my dad like a surgical assistant. My favorite was a crescent wrench – it had a great name, and it replaced a whole socket set. On a farm a crescent wrench and a Phillips screwdriver were essential for most repairs and every tractor toolbox had at least these two items.

The farm I grew up on had been my father's parents’ home before we moved in and we had all the equipment my grandfather owned, even the harnesses from when he used mules instead of tractors. I learned to drive an 8N Ford Tractor when I was four years old, and I could work the brakes if I stood on them with both feet.

We also did several construction projects while I was growing up. We built an addition to the 100-year-old farmhouse that added a family room and walkout basement. We also built a large machine shed and a garage. My job was usually fabricating the rafters. My dad would make one and I would copy it to make the full set. I also learned basic framing, drywall, cement work, tile work and grouting, and doors and windows. I feel very fortunate to have had this giant workshop available to learn all of these skills.

Life on a farm is also a series of production lines. When the chickens get big enough you set up a line to slaughter them, pluck them, cut them up, and package them for the freezer. Once a year we would also butcher a steer. We would corn feed them and dry age the meat for some of the best beef I've ever eaten. Sweet corn was another production that would consume our dining room for a week and fill our freezer for the year.

Because of this hands-on background I would always select shop class instead of home economics in middle school and high school. Every year I would sign up for carpentry, auto shop, welding, sheet metal work, or drafting. Every year these classes wouldn't show up on my schedule and I'd have to go into the principal's office and ask why. Every year they would say, “We thought you made a mistake.” That's also when I perfected my eye roll when school administrators in a small school continued to ignore my efforts to enroll in classes historically reserved for boys. I could understand that in a larger school, but my graduating class was fewer than 100 people, and that was consolidating kids from five towns.

I had the opportunity to do contract drafting in high school. A local construction company needed someone to put together perspective drawings of grain bin installations to bid on jobs. The owner visited our drafting class and asked who was the best drafter and everyone said it was me, and it was, so I was hired. My dad brought home an unwanted T-square, and I worked on the drawings in the evening, tracked my own hours, and got checks my parents didn't think I deserved.

College was another adventure. I worked part-time for minimum wage after school and summers for four years to earn enough money for my first year of school. Luckily, I was offered a co-op job with the company my dad worked for that paid five times more than minimum wage and that carried me through. It was also a great apprenticeship. I worked in the machine shop running drill presses, engine lathes, milling machines, and big CNC machines. The CNC machines were the best. There was a hoist, so moving big parts around was a piece of cake and the machines included programs, so if you set up your part correctly, zeroed the machine and hit start, it did all the work. I also worked in the assembly area, creating finished goods for customers. The last area I worked in was the office for the facilities team, the industrial engineering team, and the design team.

My focus at Iowa State was mechanical design and my first job, with Texas Instruments, was electronics packaging, which is the design of circuit cards and electronics housings. My next job was electronics packaging at Boeing, and then at Ford Aerospace. Part of the reason my early career was based on military and space applications is that these companies worked on government contracts, and they had quota requirements for diversity. So I benefited from affirmative action, and I am a strong supporter of correcting imbalances in gender and ethnicity. Before these programs, women might be able to study engineering, but even if they graduated, they probably couldn't get a job. These were jobs that gave me great experience and paid well.

While I was working at Ford Aerospace, the company purchased mechanical CAD workstations and software and I learned how to design parts in virtual space. The company we bought the hardware and software from was expanding and they asked me if I would work for them and help sell the software. This was my jump into the technical sales world and enterprise software. I went on to work for i2 technologies, FreeMarkets, Ariba, Sockeye Supply Chain, Docusign, E2Open, Atollogy, and Infor, where I am currently a senior director of technical operations.

Solution engineering is a wonderful blend of technology, personnel skills, magic, and applications. You respond to requests for information, meet with customers to discover their issues and goals, put together a solution and present it to them, and, if you are lucky, they select you and buy your software. I have always been amazed at the opportunities I've had and have enjoyed having the ability to follow my interests.

Summary

Women have played pivotal roles in manufacturing since the beginning of the Industrial Revolution (Industry 1.0). World War II dramatically increased their participation in manufacturing when they took on several roles that had been reserved for men. In the past decade, major corporate, university, and government initiatives have been launched to encourage more girls and women to pursue STEM majors and careers in Smart Manufacturing. The future for women in Smart Manufacturing is very bright, with growing opportunities in all sectors of manufacturing and distribution, from small companies to global enterprises.

Sample Questions

  1. The aviation industry employed around __________ women during World War II.
    1. 50,000
    2. 300,000
    3. 800,000
  2. True or false? Women are the primary decision makers for household purchases.
    1. True
    2. False
  3. True or false? The Industrial Revolution had no effect on women in the workplace.
    1. True
    2. False
  4. True or false? During World War II all women who joined the workforce in the United States benefited equally.
    1. True
    2. False
  5. The current Pay Inequality indicates that women make _______ cents for every dollar a man makes.
    1. 53
    2. 82
    3. 107
  6. Select all of the competencies where women rank higher than men:
    1. Practices Self-Development
    2. Develops Strategic Perspectives
    3. Develops Others
    4. Takes Initiative
  7. Within the context of this chapter, STEM stands for
    1. Space, Time, Energy, and Mass
    2. Systems Telecommunication Engineering Manager
    3. Six Through Eight Mathematics
    4. Science, Technology, Engineering, and Math
  8. Select all examples of creating a math identity for women.
    1. Including the achievements of women mathematicians and scientists in the curriculum
    2. Reinforcing common stereotypes
    3. Posting images of women scientists in the classroom
  9. Select the companies that are known for promoting women in the workplace:
    1. Abbott
    2. Phillip Morris
    3. Pfizer
    4. Juniper Networks
    5. Icahn Enterprises
  10. Which of the following organizations have active initiatives to encourage women and girls to pursue STEM careers?
    1. The Anita Borg Institute
    2. Girls Who Code
    3. NASA
    4. Society of Women Engineers

Notes

  1. 1. History.com Editors. (August 27, 2021). American women in World War II. A&E Television Networks. https://www.history.com/topics/world-war-ii/american-women-in-world-war-ii-1.
  2. 2. Ibid.
  3. 3. Ibid.
  4. 4. “We Can Do It!” produced by J. Howard Miller. American History Museum. https://americanhistory.si.edu/collections/search/object/nmah_538122 (accessed August 30, 2021).
  5. 5. Samantha Felix. (August 28, 2012). Here are the Bic pens for women that everyone is laughing at. Business Insider. https://www.businessinsider.com/the-bic-pens-for-women-that-everyone-is-laughing-at-2012-8.
  6. 6. Jack Zenger and Joseph Folkman. (March 15, 2012). Are women better leaders than men? Harvard Business Review. https://hbr.org/2012/03/a-study-in-leadership-women-do.
  7. 7. Ibid.
  8. 8. Ibid.
  9. 9. Ibid.
  10. 10. Wikipedia. Hedy Lamarr. https://en.wikipedia.org/wiki/Hedy_Lamarr#Frequency-hopping_spread_spectrum (accessed August 31, 2021).
  11. 11. Carly Berwick. (March 12, 2019). Keeping girls in STEM: 3 barriers, 3 solutions. Edutopia. https://www.edutopia.org/article/keeping-girls-stem-3-barriers-3-solutions.
  12. 12. TODOS podcast. (January 8, 2021). S02 E09: Dr. Nicole Joseph, advocate for Black women in STEM and beyond. https://www.podomatic.com/podcasts/todosmath/episodes/2021-01-08T14_50_20-08_00.
  13. 13. Abbey Gringas. (March 2021). 28 companies invested in the success of women at work. RippleMatch. https://ripplematch.com/journal/article/companies-invested-in-the-success-of-women-at-work-d819cb0b/.
  14. 14. WorldWideLearn. 15 innovative initiatives bringing women into STEM. https://www.worldwidelearn.com/articles/15-innovative-initiatives-bringing-women-into-stem/.
  15. 15. Paul Wellener, Heather Ashton, Visitor Reye, and Chad Montray. (May 4, 2021). Creating pathways for tomorrow's workforce today. Deloitte Insights. https://www2.deloitte.com/us/en/insights/industry/manufacturing/manufacturing-industry-diversity.html.
  16. 16. Francesca Donner and Emma Goldberg. (March 25, 2021). In 25 years, the pay gap has shrunk by just 8 cents. New York Times. https://www.nytimes.com/2021/03/24/us/equal-pay-day-explainer.html.
  17. 17. Wikipedia. WET (company). https://en.wikipedia.org/wiki/WET_(company) (accessed August 31, 2021).
..................Content has been hidden....................

You can't read the all page of ebook, please click here login for view all page.
Reset
18.222.179.186