MASTER Program: Math, Applied Science, Technology, Engineering, Research
Transform your PDFs into Flipbooks and boost your revenue!
Leverage SEO-optimized Flipbooks, powerful backlinks, and multimedia content to professionally showcase your products and significantly increase your reach.
The <strong>MASTER</strong><br />
<strong>Program</strong><br />
<strong>Math</strong>ematics, <strong>Applied</strong> <strong>Science</strong>,<br />
<strong>Technology</strong>, <strong>Engineering</strong>, & <strong>Research</strong>
Observe<br />
Experiment<br />
Innovate<br />
The <strong>MASTER</strong> <strong>Program</strong><br />
Every student at Wheaton Academy participates in the<br />
<strong>MASTER</strong> <strong>Program</strong>. By taking math and science classes<br />
throughout high school, each student receives valuable<br />
training in thinking quantitatively about the world,<br />
asking insightful questions, and integrating math skills<br />
and scientific insight in pursuit of a fuller understanding<br />
of who God is and what He has made.<br />
In addition to the core math and science classes, the<br />
<strong>MASTER</strong> program also provides students with cutting<br />
edge opportunities in robotics, technology, engineering,<br />
and laboratory research. In doing so, we hope to train<br />
leaders with the skills and wisdom to serve as God’s<br />
people in some of the most exciting and innovative<br />
fields in the world today.<br />
Specifically, the <strong>MASTER</strong> program exists so that every<br />
student<br />
• Understands how God has patterned the natural<br />
world<br />
• Cultivates a vision for God’s Kingdom on Earth<br />
• Speaks His truth as it is discovered in His creation<br />
• Learns to serve others by applying new technologies<br />
to persistent problems<br />
Students<br />
program<br />
drones in the<br />
IDEA Lab
A student who fully participates in all the <strong>MASTER</strong><br />
program has to offer can graduate from Wheaton<br />
Academy having<br />
• Taken multiple Advanced Placement math and<br />
science courses for college credit<br />
• Designed and created products using 3D printing<br />
and CNC technology<br />
• Managed a server cluster<br />
• <strong>Program</strong>med robots and drones to perform tasks<br />
• Automated experiments to be run on the<br />
International Space Station<br />
• Performed DNA extraction in preparation for gene<br />
sequencing<br />
• Coded new video game software<br />
• Worked with local companies to collect and analyze<br />
real research data<br />
• Explored ecological concepts and cared for animals<br />
in a student-run aquaponics system<br />
• Published academic work in a student-run scientific<br />
journal<br />
• Learned that God delights in our ability to wisely<br />
interact with the world around us<br />
We are excited to see the great things students<br />
accomplish in the <strong>MASTER</strong> program and the<br />
enthusiasm that our business and private partners show<br />
in their support of student learning. While great science<br />
education is occurring in schools throughout the<br />
area, we are particularly proud of the way the <strong>MASTER</strong><br />
program at Wheaton Academy exposes students to<br />
innovative and rigorous instruction, extensive handson<br />
opportunities, and enthusiastic partners in industry.<br />
Most of all, we are excited to help in developing leaders<br />
ready to advance the Kingdom of God in the various<br />
fields of math and science.
<strong>Science</strong><br />
Curriculum<br />
SKILLS<br />
Physics Chemistry Biology<br />
Students focus on data<br />
gathering, organization,<br />
and inquiry in simple<br />
systems.<br />
Students refine technique<br />
and data analysis with<br />
more complex chemical<br />
systems.<br />
Students further hone<br />
their questioning and<br />
apply skills to highly<br />
intricate living systems.<br />
SAMPLE<br />
CONTENT<br />
Electromagnetism<br />
determines how particles<br />
of different charges are<br />
attracted to one another.<br />
Energy is conserved<br />
throughout physical<br />
interactions.<br />
Patterns of attraction<br />
between particles<br />
determine chemical bonds<br />
in molecules.<br />
Chemical reactions<br />
conserve energy through<br />
breaking and forming<br />
bonds.<br />
The bonding patterns in<br />
molecules determine the<br />
way they interact in living<br />
systems.<br />
Living things have<br />
complex systems for<br />
capturing the energy of<br />
chemical reactions.<br />
MATH<br />
INTEGRATION<br />
Students describe the<br />
world using basic concepts<br />
of Algebra and Geometry,<br />
establishing a foundational<br />
integration.<br />
Students predict<br />
outcomes of reaction and<br />
evaluate yields through<br />
the application of more<br />
advanced mathematical<br />
concepts.<br />
Students evaluate patterns<br />
among living systems<br />
through statistics and<br />
linear models.<br />
Why Start with Physics?<br />
Students benefit when they start high school with<br />
a foundational understanding that the world is<br />
governed by physics laws, is comprised of particles<br />
and waves, and acts according to predictable<br />
patterns (the core concepts of Physics). Chemistry<br />
builds on that knowledge, as does Biology, and, by<br />
teaching Physics first, we can dive deeper, explain<br />
more, and draw stronger connections among the<br />
concepts in our other science courses.<br />
Doesn’t physics include advanced math?<br />
Starting high school science with Physics is often<br />
confusing to those who tend to associate Physics<br />
with Calculus and Advanced <strong>Math</strong>ematics. The<br />
concepts of Physics, however, are foundational and<br />
can help students explain the world algebraically<br />
starting freshman year. Of course, Calculus is<br />
important, and we encourage students wanting<br />
to pursue Physics beyond graduation to take AP<br />
Physics their junior or senior year.
Example Four-Year <strong>Science</strong> Schedules<br />
Example 1 Example 2 Example 3<br />
9th Grade Physics Advanced Physics<br />
Intro to Robotics<br />
Intro to <strong>Engineering</strong><br />
Summer Advanced<br />
Chemistry<br />
Advanced Physics<br />
Genetics and Bio <strong>Research</strong><br />
Intro to <strong>Engineering</strong><br />
10th Grade<br />
Advanced Chemistry<br />
Intro to <strong>Engineering</strong><br />
Genetics and Biological<br />
<strong>Research</strong><br />
AP Chemistry<br />
Advanced Robotics<br />
Intro to <strong>Program</strong>ming<br />
Summer Advanced Biology<br />
Advanced Chemistry<br />
AP Seminar<br />
Intro to <strong>Program</strong>ming<br />
11th Grade<br />
Biology<br />
3D Design and<br />
Fabrication<br />
<strong>Engineering</strong> Design<br />
AP Biology<br />
Advanced <strong>Program</strong>ming<br />
Genetics and Biological<br />
<strong>Research</strong><br />
Advanced Biology<br />
AP <strong>Research</strong><br />
3D Design and Fabrication<br />
12th Grade<br />
AP Environmental<br />
<strong>Science</strong><br />
<strong>MASTER</strong> Capstone<br />
AP Physics<br />
Topics in <strong>Science</strong> and<br />
Biblical Truth<br />
Anatomy and Physiology<br />
Topics in <strong>Science</strong><br />
and Biblical Truth<br />
<strong>Engineering</strong> Design<br />
“The best part of taking<br />
science here is that I have<br />
countless opportunities<br />
to receive hands-on<br />
experience. Wheaton<br />
Academy gives me the<br />
resources and space I<br />
need to pursue ambitious<br />
projects.”<br />
Peter Sorenson ’21
<strong>Math</strong><br />
How do i decide which courses to take and<br />
when to take them?<br />
Using the graph as a reference, all students<br />
start at the center and move outward.<br />
When students demonstrate mastery at<br />
one level, they are ready to take a course<br />
in the next level. Once they have mastered<br />
Extended Algebra, students may also<br />
choose to take multiple courses at one level<br />
such as Precalculus and Statistics.<br />
Students are initially placed in a specific<br />
<strong>Math</strong> course at the beginning of<br />
freshman year. As they progress through<br />
the curriculum, however, they can<br />
decide which courses to take based on<br />
demonstrated proficiencies and earned<br />
grades. By senior year, a majority of our<br />
students decide to pursue advanced<br />
mathematics either through Calculus or<br />
Statistics, with a sizable portion opting<br />
to take courses in both areas. However,<br />
only three years of <strong>Math</strong> are required to<br />
graduate.<br />
Transition to Advanced <strong>Math</strong><br />
Logic & Spatial Reasoning<br />
Extended Algebra<br />
Core<br />
Algebra<br />
Advanced <strong>Math</strong><br />
Core Algebra<br />
Foundations of Algebra<br />
Algebra I (Reg/Adv)<br />
Logic & Spatial Reasoning<br />
Foundations of Geometry with<br />
Statistics<br />
Geometry with Statistics (Reg/Adv)<br />
Extended Algebra<br />
Intermediate Algebra<br />
Algebra II<br />
College Algebra (Adv)<br />
Transition to Advanced <strong>Math</strong><br />
Statistics and Data <strong>Science</strong><br />
Precalculus (Reg/Adv)<br />
Advanced <strong>Math</strong><br />
Calculus<br />
AP Calculus AB<br />
AP Calculus BC<br />
AP Statistics<br />
Capstone Course<br />
How does Wheaton Academy decide where to place students?<br />
Students entering Wheaton Academy are placed in <strong>Math</strong> courses based on two criteria: the student’s<br />
8th grade <strong>Math</strong> enrollment and the score earned on the <strong>Math</strong> placement exam. Of the two, the score<br />
on the <strong>Math</strong> placement exam is most helpful in determining placement, as it shows what a student is<br />
capable of doing regardless of the classes formally taken. Because the mastery of key skills is essential<br />
for success in later courses, accurate placement is very important. Freshmen may start their <strong>Math</strong><br />
sequencing at any level within the graph above if mastery of key skills in the graph’s previous level is<br />
demonstrated through the <strong>Math</strong> placement exam.<br />
See Curriculum Guide pages 44 - 47 for more information.
Example Four-Year <strong>Math</strong> Schedules<br />
Example 1 Example 2 Example 3<br />
9th Grade Algebra I Geometry with Statistics<br />
(Adv)<br />
College Algebra<br />
10th Grade Geometry with Statistics College Algebra Advanced Pre-Calculus<br />
11th Grade Algebra II Advanced Pre-Calculus AP Calculus BC<br />
12th Grade Statistics AP Calculus AB AP Statistics<br />
>><br />
“I am amazed that in this<br />
large universe math can be<br />
used to accurately predict<br />
to the second when the<br />
sun will rise and set each<br />
day. Understanding math<br />
reminds me of the Creator<br />
of the world and that He is<br />
in control of everything.”<br />
Chris Felinski, <strong>Math</strong> Faculty
<strong>MASTER</strong> ELECTIVES<br />
Robotics<br />
Students enrolled in the robotics courses at<br />
Wheaton Academy live at the intersection of<br />
design, engineering, and programming. Working<br />
with various tools and programming languages,<br />
students in these courses are exposed to some of<br />
the most exciting new fields in the world today.<br />
Through practice with new technology and a focus<br />
on problem solving, these students develop vital<br />
skills for the 21st century.<br />
Example Courses and Clubs<br />
» Introduction to Robotics (1 Semester)<br />
» Advanced Robotics (1 Semester)<br />
» Robotics Team (2 Semesters)<br />
Example Activities<br />
» Progress from building LEGO Mindstorms<br />
projects to competing on the VEX platform<br />
» <strong>Program</strong> and fly drones<br />
» Print new robot designs using our 3D printers<br />
» Create and <strong>Program</strong> RC Cards<br />
» Print an arduino-controlled robotic dragon<br />
using our 3D printers<br />
<strong>Engineering</strong><br />
Students enrolled in the engineering classes at<br />
Wheaton Academy learn the ways innovative<br />
technology and a design mindset offer new<br />
solutions to existing problems. Instead of fearing<br />
failure, these students learn that great designs<br />
come from trying something new and learning<br />
from it. Combined with the different 3D printers,<br />
CNC machines, and other technologies in our Idea<br />
Lab, the willingness to design something new and<br />
make it a reality empowers our students to achieve<br />
great things.<br />
Example Courses and Clubs<br />
» Introduction to <strong>Engineering</strong> (1 Semester)<br />
» 3D Design and Fabrication (1 Semester)<br />
» <strong>Engineering</strong> Design (1 Semester)<br />
» <strong>MASTER</strong> Capstone Project<br />
Example Activities<br />
» Develop equipment for chemistry labs<br />
» Design sets for musicals<br />
» Create a laser-guided putting aid<br />
» Prototype a powered brace to reduce arthritic<br />
symptoms<br />
» Build a GO Kart using Laser CNC<br />
» Design and build an aquaponics system
Questions?<br />
wheatonacademy.org/<strong>MASTER</strong><br />
<strong>Program</strong>ming<br />
Students enrolled in the programming courses at<br />
Wheaton Academy move from being consumers<br />
of other people’s digital creations to designers<br />
of their own. Working with the languages at the<br />
heart of some the software we use every day, these<br />
students meticulously craft new tools, games, and<br />
applications from individual lines of code. The skills,<br />
from setting up simple computer tasks to larger<br />
computer servers, learned in these courses are<br />
essential for students wanting to make a difference<br />
in a digital world.<br />
Example Courses and Clubs<br />
» Intro to <strong>Program</strong>ming (1 Semester)<br />
» Advanced <strong>Program</strong>ming (1 Semester)<br />
» Networking (1 Semester)<br />
Example Activities<br />
» Create and maintain an on campus server<br />
» App design<br />
» <strong>Program</strong> a statistical simulator<br />
» Create software that teachers use in<br />
Wheaton Academy classrooms<br />
» Design and program animated characters<br />
<strong>Research</strong><br />
Students enrolled in the research courses at<br />
Wheaton Academy learn the value of knowing the<br />
way to ask the right kinds of questions. Whether<br />
refining the process of creating crystals or<br />
synthesizing research soil toxicity, these students<br />
develop the skills necessary to identify, analyze, and<br />
evaluate important data. Ultimately, these students<br />
apply their skills to some of the most difficult<br />
questions of all – those regarding the intersection of<br />
Biblical truth and science – and nurture the desire<br />
to continue to learn more.<br />
Example Courses and Clubs<br />
» Genetics and Biological <strong>Research</strong> (1 Semester)<br />
» AP Seminar (1 Semester)<br />
» AP <strong>Research</strong> (2 Semesters)<br />
» Topics in <strong>Science</strong> and Biblical Truth (1 Semester)<br />
Example Activities<br />
» Publish research in the Academic Journal Ratio<br />
» Collaborate with university professors on<br />
research projects<br />
» Examine the effects of soil toxicity in plants<br />
» Explore levitating objects with sound waves<br />
» Develop a test for GMOs in food
Who is the<br />
Master <strong>Program</strong>?<br />
Ellen Shales ’21<br />
<strong>Research</strong><br />
Ellen is a research specialist. Having taken<br />
every research course possible at Wheaton<br />
Academy, she has developed impressive<br />
technical skills in the laboratory and the<br />
ability to find answers to some of the most<br />
difficult questions. Nowhere is this more<br />
evident than the research on circadian<br />
rhythms she published in the academic<br />
journal Ratio, both because of the fact that<br />
she crafted that research in consult with a<br />
college professor as well as the fact that she<br />
was instrumental in creating the journal itself.<br />
Ellen’s Master Experience included…<br />
Josh Brunner ’21<br />
<strong>Engineering</strong> and Design<br />
While Josh focuses on engineering, he<br />
has taken a variety of <strong>MASTER</strong> courses at<br />
Wheaton Academy. As a result, you will find<br />
him at work on projects throughout the<br />
program, contributing hands-on skills and<br />
technical insight. Currently, he is helping<br />
set up and maintain a computer server on<br />
campus and building a new aquaponics<br />
system to expand the smaller one already<br />
in service. As he continues to widen his<br />
exposure in different <strong>MASTER</strong> areas, his<br />
extensive engineering practice will continue<br />
to make him a sought-after collaborator.<br />
Josh’s Master Experience included…<br />
<strong>Research</strong><br />
<strong>Math</strong><br />
<strong>Science</strong><br />
<strong>Engineering</strong><br />
<strong>Science</strong><br />
Tech<br />
<strong>Math</strong><br />
<strong>Research</strong>
Students throughout the <strong>MASTER</strong> program accomplish incredible things.<br />
Some focus on a single aspect of the <strong>MASTER</strong> program while others do a little<br />
bit of everything. Ellen, Josh, Maddie, and Paul have each taken the different<br />
kinds of courses shown in the graphs below, and, while their paths through the<br />
program are not the same, they are all examples of what passionate students can<br />
accomplish in their areas of interest.<br />
Maddie Santoni ’21<br />
Robotics and <strong>Program</strong>ming<br />
A cornerstone of the competitive robotics<br />
team, Maddie has a potent combination of<br />
programming talent and engineering prowess.<br />
By focusing on the robotics and technology<br />
offerings in the <strong>MASTER</strong> program, Maddie has<br />
advanced her coding skills and uses them to<br />
ensure that her robots achieve sustained<br />
competitive success. In addition to her time<br />
with the team, Maddie also frequently can<br />
be found in the Idea Lab, designing her own<br />
robots on the side, practicing with new coding<br />
languages, and fabricating components on<br />
the 3D printers.<br />
Maddie’s Master Experience included…<br />
Paul Lyon ’20<br />
Full Immersion<br />
Paul has taken courses throughout the<br />
<strong>MASTER</strong> program, honing his skills in research,<br />
engineering, robotics, and programming. He is<br />
a leader and well-rounded contributor on the<br />
robotics team, has conducted research on<br />
the effects of competitive video gaming on<br />
diabetics, and has developed his own video<br />
game software. Combined with his various<br />
AP science and math courses, Paul’s work in<br />
the <strong>MASTER</strong> program illustrates the depth and<br />
width of what a student can accomplish over<br />
the course of four years.<br />
Paul’s Master Experience included…<br />
Robotics<br />
<strong>Math</strong><br />
<strong>Science</strong><br />
Tech<br />
<strong>Engineering</strong><br />
<strong>Science</strong><br />
Robotics<br />
<strong>Math</strong><br />
Tech<br />
<strong>Engineering</strong><br />
<strong>Research</strong>
Master Scholar Designation Course Requirements<br />
Students can receive a <strong>MASTER</strong> Scholar designation on their diploma by completing at least 30 credits of<br />
<strong>MASTER</strong> courses with a cumulative GPA of 3.5 or above in those courses. Requirements include at least one<br />
course in each of the five areas of the program but can be met via two different tracks.<br />
<strong>Math</strong>ematics <strong>Applied</strong> <strong>Science</strong> <strong>Technology</strong> <strong>Engineering</strong> <strong>Research</strong><br />
Geometry with<br />
Statistics<br />
Geometry with<br />
Statistics (Adv)<br />
Algebra II<br />
College Algebra<br />
Pre-Calculus<br />
Pre-Calculus (Adv)<br />
Statistics<br />
AP Statistics<br />
AP Calculus AB<br />
AP Calculus BC<br />
Physics<br />
Physics (Adv)<br />
Chemistry<br />
Chemistry (Adv)<br />
Biology<br />
Advanced Biology<br />
Anatomy/Physiology<br />
AP Physics<br />
AP Chemistry<br />
AP Biology<br />
AP Environmental <strong>Science</strong><br />
Introduction to<br />
<strong>Program</strong>ming<br />
Advanced<br />
<strong>Program</strong>ming<br />
Introduction to<br />
Robotics<br />
Advanced Robotics<br />
Networking<br />
AP Computer <strong>Science</strong><br />
3D Design and<br />
Fabrication<br />
Introduction to<br />
<strong>Engineering</strong><br />
<strong>Engineering</strong> Design<br />
<strong>MASTER</strong> Capstone<br />
Project<br />
Genetics and<br />
Biological <strong>Research</strong><br />
AP Seminar<br />
AP <strong>Research</strong><br />
Topics in <strong>Science</strong> and<br />
Biblical Truth<br />
The Ethics of <strong>Science</strong><br />
and Storytelling<br />
Animal Behavior<br />
Track One: AP Focus<br />
Summary of Track One Course Requirements for <strong>MASTER</strong> Scholar Designation:<br />
<strong>Math</strong><br />
<strong>Science</strong><br />
<strong>Technology</strong> 1<br />
<strong>Engineering</strong> 1<br />
<strong>Research</strong> 1<br />
Topics in <strong>Science</strong> and Biblical Truth 1<br />
Capstone Project 2<br />
Involvement in Co-Curriculars 1<br />
Additional Credits 5<br />
Minimum <strong>MASTER</strong> credits 28<br />
8 including AP Calculus (AB or BC)<br />
8 including at least 1 core AP science course<br />
Track Two: Elective Focus<br />
Summary of Track Two Course Requirements for <strong>MASTER</strong> Scholar Designation:<br />
<strong>Math</strong><br />
<strong>Science</strong><br />
<strong>Technology</strong> 2<br />
<strong>Engineering</strong> 2<br />
<strong>Research</strong> 1<br />
Topics in <strong>Science</strong> and Biblical Truth 1<br />
Capstone Project 2<br />
Involvement in Co-Curriculars 1<br />
Additional Credits 5<br />
Minimum <strong>MASTER</strong> credits 28<br />
8 including one AP course if none are taken in science<br />
6 including one AP course if none are taken in math<br />
Questions? wheatonacademy.org/<strong>MASTER</strong>