does pltw make a - michigan career education · pdf file• computer integrated...
TRANSCRIPT
The State of the Nation
“… We projects an annual need of
400,000 college graduates in STEM
majors to remain competitive in the
global marketplace.”
National Business Roundtable
“ … Of the 4 million 9th graders who began
their high school careers in 2004, only
4% (167,000) will graduate in 2012 with
a bachelors degree in a STEM major.”
National Center for Education Statistics
The State of the Nation
Programs
The curriculum offers
students real world
problem solving and
critical thinking skills
Students are highly engaged
and exposed to areas of
study which they do not
typically pursue in high
school & middle school
They provide students with a
strong foundation and a
proven path to college and
career success
Programs are dynamic,
rigorous, and use open-
ended problems to
emphasize creativity
NATION’S LEADING PROVIDER OF
STEM EDUCATION
Curricula - Rigorous and Relevant • Middle and High School Engineering and
Biomedical Sciences courses (with college credit options) that use problem-based learning.
Professional Development – • High-Quality, Rigorous, Continuing, and
Course-specific teacher training.
Partnerships – • Secondary Schools, Higher Education,
Business and Industry, & State Agencies.
PLTW’s Three Key Elements:
The Facts
• More than 4,200 schools in all 50 states and
the District of Columbia
• Over 10,500 teachers trained
• More than 100 University relationships,
including Duke University, University of
Iowa, California State University & MSOE
• Partnerships with Fortune 100 and 500
companies, and forward-thinking
philanthropic organizations, including
Autodesk, Intel, John Deere, General
Electric and The Kern Family Foundation
Across the Nation
An intensive and comprehensive training program
for teachers
• Readiness Training: Self-Assessment and Pre-Core
Training
• Core Training: Two-week Core Training that PLTW
teachers are required to complete before teaching a
PLTW course.
• On-going Training: Virtual Academy for Teachers,
which provides detailed materials for each lesson in
every PLTW course; many videos of PLTW Master
Teachers teaching actual PLTW lessons; and,
collaboration tools, including forums for teachers.
Professional Development
• Design and Modeling
– Solid modeling software introduces students to the
design process.
• Automation and Robotics
– Students trace the history, development, and
influence of automation and robotics.
• Energy and the Environment
– Students investigate the importance of energy in our
lives and the impact that using energy has on the
environment.
• Flight and Space
– Aeronautics, propulsion, and rocketry.
• Science of Technology
– Impact of science on technology throughout history.
• Magic of Electrons
– Students unravel the mystery of digital circuitry.
Gateway To Technology MS
Gateway To Technology - 6 Units
• Middle School curriculum (grades 6-
8)
• 45 instructional days per unit
• 1 ½ years of curriculum
• Two required units
– Design and Modeling
– Automation and Robotics
Gateway To Technology MS
• Introduction to Engineering Design (IED)
– 3D computer modeling software; study of the
design process
• Principles of Engineering (POE)
– Exploration of technology systems and
engineering processes
Pathway To Engineering HS
• Digital Electronics (DE)
– Use of computer simulation to learn the logic of electronics
• Aerospace Engineering (AE)
– Aerodynamics, astronautics, space-life sciences, and systems engineering
• Biotechnical Engineering (BE)
– Biomechanics, genetic engineering, and forensics.
• Civil Engineering and Architecture (CEA)
– Students collaborate on the development of community-based building
projects
• Computer Integrated Manufacturing (CIM)
– Robotics and automated manufacturing; production of 3-D designs.
• Engineering Design and Development (EDD)
– Teams of students, guided by community mentors, research, design, and
construct solutions to engineering problems.
Pathway To Engineering HS
Pathway To Engineering - 8 Courses
• High school curriculum (grades 9-12)
• 175 instructional days per course
• 8-Course offering
– Introduction to Engineering Design
– Principles Of Engineering
– Digital Electronics
– Aerospace Engineering
– Biotechnical Engineering
– Civil Engineering & Architecture
– Computer Integrated Manufacturing
– Engineering Design & Development
Pathway To Engineering HS
• Principles of the Biomedical Sciences (PBS)
– Study of human body systems and health
conditions
• Human Body Systems (HBS)
– Exploring science in action, students build organs
and tissues on a skeletal manikin and play the
role of biomedical professionals to solve medical
mysteries.
• Medical Interventions (MI)
– Investigation of interventions involved in the
prevention, diagnosis and treatment of disease.
• Biomedical Innovation (BI)
– Students design innovative solutions for the
health challenges of the 21st century
Biomedical Sciences HS
Specialization
Course
Physics
Biology
Capstone
Course
Chemistry
Foundation
Course
Foundation
Course
Algebra
Geometry
Algebra 2
Pre-Calculus
Science
Elective 12
11
10
9
S T E M
Questions Asked
• Why the focus on studying PLTW programs.
– Fastest growing STEM programs in the country
– Public and private sector is investing in PLTW
– School reform
• Research questions
– Demographic and achievement factors
– Academic impact and Student engagement
– Impact on subgroups; Gender/Race-Ethnicity
– Completion of High School/ College Ready
– Transition to Higher Education/College persistence
– Completion of college/Impact to the future workforce
• Methodology used within research of PLTW
Types of Research Studies
• Regional data (SREB)
• Statewide studies (Iowa)
• School & District level studies (Milwaukee Public
Schools, WI and Galt High School, CA
• Institutions of Higher Education (MSOE)
Data Sources & Methods
• A part of a large-scale, statewide research project
• PLTW and non-PLTW students who graduated
from high schools in Iowa in 2009
• Data sources
1: Iowa Dept. of Ed. K-12 Data; 2: Community College MIS
3: Regent University Partnership; 4: National Student Clearinghouse
Iowa Evaluation Study
Hypothetical Model
Demographic
Characteristics
Ethnicity
Gender
Free/Reduced Lunch
Gifted/Talented
Academic
Backgrounds
ITED Math &
Science Scores
Grades of HS
Courses
Status of PLTW
Participation
Transition to Higher
Ed
No College
2-year College
4-year College
Selection Bias
Propensity Scores
• Race/Ethnicity
• Free/Reduced Lunch
• IEP / Section 504
• Gifted & Talented
• 8th Grade ITBS subtest in Math, Science, & Reading
τ = φ(α + βX + ε)
Matching Methods
Participants
Non-participants
dNN,i = ║xτ,i – x τ’,i║
D = Σ di
Local minima dG,i = wi║xτ,i – x τ’,i║
D = Σ di
Global minima
NEAREST NEIGHBOR GENETIC ALGORITHMS
w = {w1,…,wn}
Academic Engagement/Attainment
• Significantly more PLTW students met the readiness goals on the 2008 HTW Assessment tests in reading, math and science. (Southern Region
Educational Board Report), 2009
Academic Engagement/Attainment
• PLTW students demonstrate significant gains (5.2 points) in math and science between 8th and 11th grade standard tests compared to the control group of non-PLTW students. (State of Iowa Report, 2011)
• PLTW students do significantly better in math and modestly better in reading. (Evaluation of PLTW in Rockwell
sponsored Milwaukee Public Middle Schools , 2011)
Academic Engagement/Attainment
• “Project Lead the Way has been an effective program during the past three years at narrowing the achievement gap for Hispanic/ Latino students in all four core areas.” (Analysis of Student Achievement and
Programs, Galt Joint Union High School , 2007)
• PLTW students that begin middle school, 6th grade, with lower proficiency in math, reading and science and lower attendance rates than the control group of non-PLTW students were able to eliminate the achievement gap by 8th grade. (University of Wisconsin, Milwaukee Report , December 2009)
Academic Engagement/Attainment
• PLTW students enroll in more math and science courses than the control group of non-PLTW students. (State of Iowa Report, 2011)
• PLTW students take more math credits than the control group of non-PLTW students. (Evaluation of PLTW
in Rockwell sponsored Milwaukee Public Middle Schools, 2011 )
• PLTW students enroll in more Math and Science course than non-PLTW students. (Evaluation of PLTW in
Toppenish High School, Spokane WA, 2011 )
• Overall enrollment in upper level Math and Science courses increase between 2010-2012. (Evaluation of PLTW in Toppenish High School, Spokane WA, 2011 )
Academic Engagement/Attainment
• PLTW students enroll in more math and science courses than the control group of non-PLTW students. (State of Iowa Report, 2011)
• PLTW students take more math credits than the control group of non-PLTW students. (Evaluation of PLTW
in Rockwell sponsored Milwaukee Public Middle Schools, 2011 )
• PLTW students enroll in more Math and Science course than non-PLTW students. (Evaluation of PLTW in
Toppenish High School, Spokane WA, 2011 )
• Overall enrollment in upper level Math and Science courses increase between 2010-2012. (Evaluation of PLTW in Toppenish High School, Spokane WA, 2011 )
Academic Engagement/Attainment
• Student survey yield highly favorable evaluations of their PLTW experience when rated against prior math/science classes, increased interested in math/science, more math/science classes, school, (Evaluation of PLTW in Rockwell sponsored Milwaukee Public Middle Schools, 2011)
Transition/Retention in Higher Ed.
• A higher percentage of PLTW students transitioned to higher education immediate after graduation. – PLTW seems to “cause” an increase in students attending
community college, but not 4-year universities.
– PLTW students are 60 percent more likely to transition to 2-year colleges compared to a control group of non-PLTW students. (2011 State of Iowa Report)
• In 2006-2007, first-year retention (freshmen to sophomore) was 76% (76% stayed with their declared major). In contrast, 100% of Milwaukee Schools of Engineering’s PLTW students remained in their declared major. (Milwaukee School of Engineering 2008
Report)
Implications
• PLTW students comprise the middle to upper spectrum of the student population
• Correlation between PLTW and a students academic attainment in both Math and Science
• Causal interpretation of PLTW’s impact on college transition.
• PLTW research adds to the growing body of literature on the effectiveness of PBL.
• To the extent evaluated, PLTW seems to partially achieve a goal of increasing postsecondary attainment.
Questions
Ken Maguire, Ph.D.
Upper Mid-west Regional Director, PLTW