The Next Generation
BY LYNN STANLEY, SENIOR EDITOR
New Collar
Schools, OEMs and manufacturers band together to grow the workforce of the future
T

raditionalists, Boomers, Gen-Xers, Millennials and Gen Z—catchy labels coined to describe five generations of Americans working shoulder to shoulder. Pew Research reports that millennials represent the largest labor pool but the number of employees age 55 and over is climbing at a projected annual rate of 24.3 percent. The U.S. Department of Labor estimates that Gen-X and Baby Boom workers will number 13 million by 2024 with millennials making up the majority by 2026.

A skills gap study published in 2018, the fourth such report prepared by Deloitte and the Manufacturing Institute, reveals troubling statistics. It states that the industry may have up to 2.4 million jobs to fill between now and 2028. This deficit puts U.S. $2.5 trillion in economic output at risk over the next decade.

As Industry 4.0 and Industry 5.0 continue to modernize manufacturing with digital factories and smart machines, companies and educators want to know how to close the gap with qualified workers. Sarah Boisvert, author of a 2018 insider’s guide to making positive changes to manufacturing and training, conceives of a new collar workforce that can “run automation and software, design in CAD, program sensors, maintain robots, repair 3D printers and collect and analyze data.”

In a grassroots movement that promises to help build a talent pipeline, Cairo Elementary, Westside High School, Vaughn College, Norton Abrasives/Saint-Gobain and AIMS Metrology have unique answers to a perplexing question.

I, robot
Cairo Elementary Principal Brooke Shappell says “shocking statistics” helped cement the decision to turn the school’s traditional library into a tech-focused hub of learning with a Fanuc M-10iA industrial robot as its centerpiece. Cairo Elementary is part of the Henderson County school district in Henderson, Kentucky, and serves 300 students from kindergarten to fifth grade.

“Our research showed that 65 percent of children today will end up in a career that doesn’t exist yet,” she says. “There is also a scarcity of women in the STEM workforce. According to statistics, only 15 to 25 percent of these positions are filled by women.”

One of the school’s missions “is to lay a foundation for 21st century learning,” says Shappell. “To do that, our district has an initiative to provide authentic learning experiences that foster collaboration, communication, critical thinking, innovation and initiative. Transforming our [library] was a big push behind building a better graduate.”

The skills gap may leave an estimated 2.4 million positions unfilled between 2018 and 2028
The Skill Gap
*Calculated on the basis of 52.7 percent of the skilled manufacturing positions that are unfilled (per the 2018 survey)
**Retirement age of 66

Sources: BLS Data, OEM (Oxford Economics Model), Deloitte and Manufacturing Institute skills research initiative.

Cairo Elementary collaborated with the principal’s father-in-law, Mike Shappell, on the capital equipment purchase. He is a senior applications engineer for Norton Abrasives/Saint-Gobain. A STEM grant helped finance the purchase of the robot from Acme Manufacturing, a Michigan-based robot integration company that sold the equipment to the school at a discounted price. Norton Abrasives/Saint-Gobain made up the difference.

The school district’s maintenance and electrical staff installed the machine. Local manufacturers such as Perfection Tool, Air Hydro Power and Sunspring America Inc. also provided support, as well as Dallas-based Push Corp. Inc. “When we got the robot, we thought, What do we do with it?” Brooke Shappell recalls. “Mike dedicated many hours to setup and to working with the kids to code and operate the robot.”

Mike Shappell, over a 40-year career, has witnessed how difficult it is to find people who can code and maintain robots. “Over the last 10 to 15 years, we haven’t been training individuals in these skill sets unless they were going to work for a robotic or CNC supplier.

Madyson Goodson and Mike Shappell
Cairo Elementary fifth grader Madyson Goodson takes direction from Norton Abrasives/Saint-Gobain Senior Applications Engineer Mike Shappell on how to run the Fanuc M-10iA robot with a teach pendant.
“Indoctrinating a 40-year-old to a teach pendant [a control box for programming a robot’s motions] can be challenging [but] what if we could find an uncomplicated way to show fourth- and fifth-graders a complex technology? What would that look like?”

Cairo Elementary launched a Robotics Club in October 2019. The members, four boys and four girls, meet weekly. Guidance on how to protect and prepare the robot, simple programming and basic movements culminated in two-member teams demonstrating complex maneuvers in December for parents and the community. “You can see their minds problem solving in real time,” says Shappell. “And they do a good job. Of course, this generation isn’t intimidated about pushing buttons.”

Shop class 6.0
The same month that Cairo Elementary kicked off its Robotics Club, Westside Community Schools in Omaha, Nebraska, unveiled its $1.2 million welding, fabricating and manufacturing laboratory. According to the school’s engineering and technology instructor, John Bombac, the lab is the epitome of a workforce readiness model.

“I’m the dreamer,” says Bombac, who took over as lead weld instructor in 2017. “The idea took root five years ago when I went to my department head asking for more space.”

He credits Terry Hanna, Westside Community Schools Foundation’s development director, with making the vision a reality. “How many schools have a foundation person going out all day long asking for things?” he says.

2.4 million jobs to fill between now and 2028
Westside High School sophomore Jeremiah Kim, left, and junior Cooper Svoboda with Engineering and Technology Instructor John Bombac.
Hanna says that “Omaha does a great job with college-level technical courses,” but there was a need to create a local pipeline for younger students, and coursework “that could help them figure out their passion and expose them to career opportunities.”

The project attracted 40-plus donors, including some of Nebraska’s key corporations and the state’s Department of Labor. The foundation partnered with area companies to help craft a curriculum. “They had a lot to contribute in terms of identifying career paths and giving us feedback on the types of skills they were looking for and skills they no longer needed.”

The lab contains benchtop precision machine tools, lathes and mills along with 20 welding stations. “The entire lab is portable—almost like a Transformer,” Bombac says. “If we are working on a large project, we can fold up the desks and move them to create more space.”


ONLY 15 TO 25 PERCENT OF STEM POSITIONS ARE FILLED BY WOMEN
Seventy-five students are enrolled in arc welding this semester. Those who complete the course will earn a dual credit for college. The school added a youth apprenticeship for welding, manufacturing and automotive applications this year. But welding “is the largest program with a requirement of 400 hours,” Bombac notes. Students start during freshman year. During their senior year, they are assigned to work on site at a local manufacturer. Completion of the program is equivalent to two years of technical school or an apprenticeship. The high school is working with nearby community colleges to create other programs and determine the types of certificates the courses will offer.

Student feedback has been overwhelmingly positive. “The kids tell us this is the greatest time in their lives,” says Hanna. “They are proud to say they are part of this program. You can see their energy and their excitement about learning. I recently drove through an industrial area with posted signs that said, ‘Welders and Steam Fitters Needed.’ With a starting salary of $40 an hour, a 401K and health insurance, if a kid isn’t interested in pursuing a traditional path, why wouldn’t they think about a job like this? It could even be a path to becoming a business owner.”

Working on his bachelor’s degree in aviation maintenance management at Vaughn College, Eriberto Huerta measures a part with AIMS Metrology’s Revolution Series 5-axis HB CMM.
Science and skill
That is a path that AIMS Metrology President Dave Delph and Vice President Mark Gearding understand. The men co-own the Dayton, Ohio-based maker of 5-axis coordinate measuring machines (CMM) and are passionate about partnering with technical schools and universities to expose students to metrology.

In 2019, AIMS’ educational discount on its Revolution series mobile, 5-axis HB CMM with a Renishaw PH20 probe head, attracted the attention of Vaughn College of Aeronautics and Technology. Founded in 1932, the Queens, New York, college has degree programs accredited by ABET, a specialized accrediting agency recognized by the U.S. Secretary of Education and by the Commission on Higher Education. Courses are crafted around input from Vaughn’s advisory board, which is made up of local manufacturers.


65 percent of children today will end up in a career that doesn’t exist yet
“We give our advisors access to our teaching materials and they put us through the wringer,” says Associate Professor Manuel Jesus. “Recently, our aerospace industry advisors told us that one of the biggest challenges they have is finding employees who can read blueprints, so we’re developing a new course that will teach students how to read a print and understand what features like flatness and profile mean and the types of tolerances that can appear in a dimensional drawing.”

The course, slated for a 2020 launch, will take place in a job shop environment outfitted with CNC machine tools, go/no-go gauges and the HB. Students will read blueprints, cut real parts and learn to measure them with both the gauges and the CMM. “You never fully appreciate what you have learned until you do it on the job,” says Jesus.

Head and hands
“The industry is looking for students who have both head knowledge and hands-on experience,” says Engineering and Technology Department Chair Dr. Hossein Rahemi. “We want to make sure our students have multiple job offers so we encourage them to be multi-talented. A student who understands engineering, has CNC machine tool experience or can inspect parts with a CMM is highly marketable.”

The course mimics job requirements for setup personnel, operators, programmers and quality inspectors. Students will get a feel for each position. Lab Assistant Rachid Nafaa has 39 years of machine shop experience and is a Vaughn graduate. “If you know how to read a print, you can cut a part, write a program and inspect it,” he says. “The more machines you know how to operate, the more money you make. If you know how to program and operate a CMM, companies will pursue you.”

Demand for a 100 percent acceptance rate on parts and the ability to measure complex features in a smart factory environment creates greater interest in CMM equipment like the HB and in programmers and operators who know how to use them.

Rachid Nafaa
Vaughn College Lab Assistant Rachid Nafaa runs a Haas VF2 SS (super speed).
The HB is a critical component in digital factory spaces because it can monitor process flow in real time while the PH20 quickly obtains high density points for feature size, location and form for accurate and actionable data. This gives a manager or machinist the intel to act at any point during parts production. “The HB’s Modus software is a launching pad to get students excited,” says AIMS’ Gearding. “It’s intuitive. It allows students to program a part off an imported model or create a program off a part.”

The growth of additive manufacturing also has Jesus and Nafaa talking about expanding the course to include a metal 3D printer.

“We see more customers printing parts and then using the CMM to inspect them,” notes Gearding. “Additive manufacturing puts a supplier ahead of the game because a programmer can print a part and check it right away instead of waiting for a program to be debugged before starting a production run.”

U.S. $2.5 trillion in economic output at risk over the next decade
The right stuff
Robert Isoldi, manager of manufacturing operations at CPI Aerostructures Inc. and a Vaughn College advisory board member, understands the importance of metrology in a manufacturing setting. The Edgewood, New York, company is a build-to-print structural assembly house that uses CMMs to inspect parts and qualify modifications made to tooling. It also uses CMMs to inspect 3D printed tools before they are used on the production floor.
CPI Team
CPI Director of Quality Control Dean Malhado and Manager of Manufacturing Operations Robert Isoldi (far right) with Vaughn alumini (from left) Zech Gajadhar (manufacturing engineer), Victor Montalbo (structural mechanic), Saad Iqbal (quality engineer), Charles Kwon (quality control inspector), Umar Khan (quality engineer), Julian Ray (structural mechanic), Thomas DeKenipp (manufacturing engineer), Tristan Kho (quality control inspector), Gonzalo Forero (quality control inspector) and Jamaal Green (structural mechanic).
“When Manny began to put this course together, I told him we needed individuals with a background in metrology,” says Isoldi. “Vaughn is looking to progress constantly. And they listen to what we need. We’ve been able to hire quite a few Vaughn students before they graduate. We are always on the lookout for young talent, and Vaughn does a good job of helping students see there are promising career opportunities right here—whether it’s in the quality department, on the manufacturing floor or as an aircraft mechanic.”

Building and managing a pipeline of blue, white and new collar personnel is part science, part art. Focusing on statistics alone can lead one to see manufacturing’s glass as half empty. Institutions like Vaughn, Cairo Elementary and Westside High School and equipment suppliers like Norton Abrasives/Saint-Gobain and AIMS Metrology are helping to fill the glass by heeding employers and shaping a multi-faceted workforce.