Problem-based Learning in Practice

MACS / RCR / NCSU

Overview

Mount Airy City Schools has partnered with Richard Childress Racing, Inc. and The Science House at NC State University to create a unique collaboration designed to increase student interest and enrollment in post-secondary engineering careers.
Big image

A Partnership is Born

Dr. Eric Warren is a Mount Airy native and has been involved in the motorsports industry since 1997. He has a PhD in Aerospace Engineering from NC State University and began his career as the chief aerodynamicist at Penske-Kranefuss Racing. In 2002, he became the technical director at Evernham Motorsports and advanced to vice president of the organization, then accepted a similar role at MWR. After a short-lived attempt with the U.S. Formula 1 effort, Warren joined Richard Petty Motorsports in 2010 as technical director, overseeing all engineering. He was hired as the Director of Competition at Richard Childress Racing in 2012.


Dr. Warren is passionate about getting students interested in engineering and generating that spark that sends them on a path to higher education. His passion and the STEAM initiative at Mount Airy City Schools created the perfect match for collaboration.

Big image

Richard Childress Racing Beefs Up Its Engineering Effort

RCR’s Competition Director Dr. Eric Warren wasn’t kidding when he referred to RCR’s engineering department as the United Nations. In 2015, RCR has bolstered its resources with talent from all over the globe, but primarily Formula One.


“As these cars have become more technical, there just aren't enough engineers to go around any more,” Warren told motorsport.com. “So there’s been a lot more crossover from F1 with guys that have a lot more high level experience. They see NASCAR, ever-increasingly, as a viable career technically.”


Richard Childress Racing Beefs Up Its Engineering Effort

Lee Spencer

June 11, 2015

MACS and NC State's The Science House Visit RCR

In the spring of 2015, Dr. Warren hosted a group of teachers and administrators from Mount Airy City Schools at the Richard Childress Racing facility in Welcome, NC. The group spent the day touring the facility and brainstorming ideas for ways the two organizations could work together.
Big image

"Childress Gearing Company Towards the Future"

Childress continues to aim the company toward a technological future with innovations to keep them from standing still. “With a lot of changes in the cars and the rules, you got to have more technical people, more people with technical backgrounds,” Childress of his personnel. “We got some more people coming in that are from Formula 1, which is the most technical motorsport I think.”


Dr. Eric Warren, who has served as the competition director since 2012, has just as much influence. “Eric Warren has been able to put together a great group of guys and engineers,” Childress said. “We’ve added more engineers than ever.”


Childress Gearing Company Towards the Future

Kelly Crandall

January 31, 2015

Big image

"Computers, not Wrenches, the Key to Making a Fast Car"

Long before cars for Newman, Austin Dillon and Paul Menard were loaded for the trip to Daytona International Speedway, team engineers created a setup based on thousands of combinations involving shocks, springs, roll bars, track bars, general construction and each driver.


Computers worked through most possibilities to find a scientific combination that hopefully leads to a victory. “Sometimes at these tests, we have $1 million of instruments on the car so we can be able to back out what the reference of what the track is,” Warren said. “A lot of the tracks, we have full scans of the track down to centimeters and millimeters of the track — even down to the trash cans in the garage area.”


Success is measured in tenths, sometimes hundredths, of seconds. But to a race team that’s already limited by NASCAR ever-growing eye for detail, small gains — usually smaller than the time it takes a light to turn on — often lead to big results.


Computers, not Wrenches, the Key to Making a Fast Car

Don Coble

February 11, 2015

MACS Teachers Create Problem-Based Learning Unit

Mount Airy High School and Middle School teachers spent three days this summer working with The Science House and Richard Childress Racing to begin to outline a real-world problem that students could tackle during the 2015-16 school year.

Luke Lambert, MAHS graduate, speaks at 2015-16 Convocation

Big image

The 2015 NASCAR Sprint Cup Series season marks Luke Lambert’s third year as crew chief for the No. 31 Caterpillar/Quicken Loans/WIX Filters/Grainger Chevrolet SS team at Richard Childress Racing, and second with driver Ryan Newman.


Lambert, who is the youngest crew chief in NASCAR’s top division, is coming off his most successful season on top of the pit box after guiding Newman to a career-best second-place finish in the championship point standings in 2014. Lambert’s first season with the veteran driver resulted in five top-five and 16 top-10 finishes and earned the crew chief the coveted MOOG Problem Solver of the Year Award.


As a student at North Carolina State University, Lambert was a Formula SAE Team Leader from 2004 to 2005, steering a team of students in the design and technical performance aspects of building race cars from the ground up. Shortly after college, he joined RCR as an engineer in September 2005 and spent four years as team engineer.

MAMS 6th Graders Travel to RCR

So many career opportunities!

Many of the students (and teachers!) did not realize that sports, in general, or NASCAR, in particular, is a business with all the opportunities that any business offers and more than most. The race team is like every other business. They have accountants, IT specialists, travel agents, marketing people, graphic artists, facilities management people (everyone from janitorial to in-house electrician), and engineers. They have their own pilots and flight attendants on the team, truck drivers, cooks at the track, and on and on.

Big image

Students were able to see each stage of the production from:

  • frame only
  • outside of car installed
  • windshield
  • decals
  • plastic wrap put on car to protect from small rocks, bugs, etc
  • engine and other parts under the hood
  • roll bars
  • neck protection
20150923_105600

Teacher Workday at RCR

Teachers have developed a driving question related to how thermal management affects race car performance. They traveled to RCR in October to do hands-on work related to that problem. This work allowed them to return to the classroom ready to present and engage the students in finding solutions.


Pictured below: Garrett Howlett (CTE), Jon Carpenter (Biology), Cody Spicer (Math), Courtney Howlett (Math), Levi Goins (Physics), Shelia Chase (CTE), and Patricia Combs (Math).

Big image

Student Internships

In October, three Mount Airy High School students began semester-long internships with Richard Childress Racing. These students will travel to RCR on Thursdays to work alongside some of the best and brightest engineers in the world. These students will grapple with real-world problems and assist in coming up with solutions both in their classrooms and in the RCR labs. These students will use their internship experiences as the basis for their MAHS Graduation Project.


Pictured below: Matthew Eads (senior), Keara Halpern (senior), Malcolm Malone (junior)

Big image

Internship Projects

Restart Modeling: Malcolm Malone (MAHS), Derek Vaughn (RCR) and existing NCSU team

After every circuit the RCR strategy engineers look at the gap between each car. Malcolm will work with the team to create graphs of this data and interpret them. They, along with the NCSU team already in place, will look at variables in car performance vs. restart

performance and the natural effects of circuit. The driving question is: How do you model and quantify this? If both cars have equal performance, how do you out start them?


Biomechanics: Keara Halpern (MAHS), Mike Coughlan (RCR) and NCSU team

What affects the human performance? Keara will work with the technical team to understand the environment and determine what factors maximize the human performance of the driver? The driving question is: How does the race affect the driver both physically and mentally? Additionally, the team will look at the fitness level of pit crew and their environment.


Fuel Rail Thermodynamics: Matthew Eads (MAHS), Gary Patterson (RCR) and NCSU team

This project gets to the heart of fluid dynamics, heat, and system design. The driving questions include: What is the best design of the fuel rail in terms of volume? If we reduce the volume, does heat into the injectors decrease? The data collected could lead to testing different insulation materials to determine the best material to increase performance? Finally, output data should be evaluated and improvements proposed. Once a cost analysis is developed, the team will decide whether the improvement is worth the expense?

Honors Anatomy & Physiology Problem-Based Learning Project

The first step in the Honors Anatomy & Physiology class PBL was to research the physiological effects of NASCAR racing on the human body. To do this, the class used Chromebooks to visit websites containing information on racing and its effects on the human body. After researching within their groups, they quickly realized that more research was needed. To accomplish this, the class decided to designate one person from each group to rotate from group to group informing them on the already researched material. After all the information was shared with the entire class, they used it to make decisions and prioritize the problem areas. To begin, the group chose three issues that seemed to pose the greatest health risks to the driver: g-force exposure, dehydration, and temperature.
Each group chose one issue to research more fully and then began making plans to build a model of their solution. Several groups chose to build a cooling vest, but others built models of solar-powered air conditioning. Finally, each group presented their model to the class and discussed the engineering behind the operational aspects of each model. The class analyzed the positives and negatives of each solution presented.