New West Dallas PreK-8 STEM School To Open In August

West Dallas parents and students talk about how they envision the new STEM School.

DALLAS (SMU) May, 4, 2021 – In West Dallas a new Pre K-8 STEM school is set to open this August beginning with students in the 7th and 8th grades.  The West Dallas STEM School, a Dallas Independent School District Transformation and Innovation School, is the result of more than three years of collaboration between the District, the Toyota USA Foundation, SMU’s Simmons School of Education and Human Development and the West Dallas community.

“We strongly believe that all children should have equal access to opportunities and a pathway to great careers,” said Sean Suggs, director, Toyota USA Foundation and group vice president, Toyota Social Innovation. “Together with the community, we have worked on everything from building design, teacher development, curriculum and before and after school care.  This extends also to addressing broader community needs, including access to transportation.”

To support the school as it opens and its new Master Principal Marion Jackson, the Toyota USA Foundation approved an additional grant of $3 million to SMU, adding to the $2 million grant the foundation awarded in September 2018.  This is in addition to Toyota’s teacher and community grants, West Dallas scholarship and mentorship programs, and the recently launched transportation circulator in the area.

“We know that there many related issues – from access to healthy food to before and after school care – that all tie into academic success. This is something we need to collectively address, and we encourage additional partners to come alongside the effort,” added Suggs.

To further support the school, business leader Carter Creech, an SMU alumnus with a passion for education philanthropy, has pledged an additional $3.5 million, following his initial gift of $1.5 million to the project.  Creech’s contribution will go toward a new middle school career and college readiness pilot program at the school, as well as efforts to replicate the West Dallas STEM school.

“As we move from planning to implementation, we have deepened our commitment to the school, to the model, and to each other,” said Simmons School Dean Stephanie Knight. “SMU is grateful for this unique partnership, and thanks both the Toyota Foundation USA and Carter Creech for continued investment in our community’s children – the problem solvers of the future.”

The West Dallas STEM School Program at Pinkston

The West Dallas STEM School Program at Pinkston is a neighborhood school that will begin by serving the 7th and 8th grade.  PreK – 1st grade is scheduled to begin enrollment in 2023.

The school brings together four integral components to create an innovative PK – 8 school model:

  • A project-based, industry-informed STEM curriculum
  • Professional development for educators
  • “Wraparound” services delivered directly to the students by community nonprofit organizations to help with issues such as literacy, nutrition, transportation and after-school care
  • Evaluation and measurement to support a model of continuous improvement

“This is an opportunity of a lifetime for the students and community of West Dallas,” principal Jackson said. “This partnership has afforded us the space to realize what’s possible when we focus our collective efforts on changing how we meet the needs of our students and families. We are committed to equipping our students to succeed in an evolving global society.”

SMU’s Simmons School is providing faculty expertise to develop project-based learning, which means that students will learn by working in groups to solve open-ended problems using design, engineering, math, science and technology. The approach prepares students to take on new challenges as they occur – and to understand how to build new knowledge on existing concepts.  The Simmons School will provide professional development for teachers, and Simmons researchers will monitor and evaluate the program as it evolves, developing a model to create other STEM-focused schools.

Partnering with the West Dallas Community  

Since the onset, the West Dallas community has been engaged in the creation of the school, advising on everything from design to input on services offered at the school.

Parents, such as José Alas, who sits on the school’s advisory council, have been engaged from the beginning. “This school really will help bridge the gap in opportunities when it comes to education,” he says. “Every child has the potential to do great things if we can provide them what they need, and I think the school is going to do just that. We always juggle where to send our children and now we are going to have one of the best schools in our backyard.”

Organizations such as West Dallas One and the West Dallas Community Coalition also have been active in the partnership, participating in the school’s design teams and focus groups with residents. Additionally, six long-established West Dallas nonprofit groups have been working on plans to expand their services within the school to help students and their families gain quick access to resources they need.

For more information, please visit https://www.dallasisd.org/westdallasstem

Dallas Innovates Offers Insights from Five Simmons Professors on Closing Learning Gaps Caused by Pandemic

To combat classroom learning losses stemming from the pandemic, five SMU Simmons professors reflect on their own research to advise Pre-K-12 school leaders on how to build up students’ knowledge.

Drs. Jill Allor, Diane Gifford, Leanne Ketterlin Geller, Candace Walkington, and Annie Wilhelm jump in with ideas published in Dallas Innovate. 

Reading experts Allor and Gifford emphasize basic skills. As Gifford says, “Students should learn the foundational skills necessary to read by the end of second grade. When students have gaps in their learning, they are likely to struggle until those gaps are filled. Even before COVID-19, 65 percent of fourth-graders in 2019 were reading below grade level.”

Allor says phonics is essential for reading comprehension. “Children who have difficulty reading most often have trouble with the ability to understand how letters relate to sounds,” she says.  “Research shows that students who struggle most often need more systematic and explicit phonics instruction. Some very popular reading programs are not consistent with research. If schools use these programs for intervention, many students will continue to struggle.”

Math researcher Leanne Ketterlin Geller believes math requires more dedicated time. “If students miss a concept—addition, for example—it will hinder them from understanding concepts they’ll learn later, like multiplication,”  she says. “Students will need more math instruction than the standard time allotment if they are to catch up.”

Annie Wilhelm adds that it is time to teach math in a new way, “The current model of teaching math as a series of disjointed topics limits students’ development of conceptual understanding. Instead of being taught a new set of procedures to master, students need to wrestle with how new ideas might fit with things they already understand.”

Using technology helps appeal to students’ personal interests, and that is important, says Candace Walkington. “Research shows that the most effective math instruction is relevant to students’ lives and interests and based in real-world problems.”In-person teaching can use technology to re-ignite students’ interest by using augmented reality, virtual reality, artificial intelligence, and game-based learning to simulate real life in math problems”

Wilhelm’s Opinion Piece Looks at Math Loss as a Teaching Opportunity

Associate Professor Anne Garrison Wilhelm offers new possibilities to deal with math learning losses during the pandemic.

In an opinion piece published by InsideSources.com, she believes now is the time to redress traditional ways of engaging students in math.

“Even before COVID-19, our mathematics education system was not serving most kids,” she says. “Some just assumed they didn’t “get” math; others never really understood the mathematics they were taught in school, and this manifested when they had to enroll in college remedial math courses.”

For her ideas to create new strategies and make math a part of everyday life, read her piece here. Wilhelm teaches math education and conducts research in Simmons’ Department of Teaching and Learning.

Eight New Faculty Members Join Simmons

The Simmons School welcomes new faculty members to the Departments of Teaching &  Learning, and Applied Physiology and Wellness.

Joining Teaching & Learning are

In Applied Physiology and Wellness, they are

Simmons looks forward to their contributions and ideas.

STEM Videos by Simmons Faculty Receive Awards from NSF’s Voting Public

Faculty members Leanne Ketterlin Geller, Ph.D. (Education Policy and Leadership), and Candace Walkington, Ph.D. (Teaching & Learning), created winning videos about their STEM research for a National Science Foundation showcase competition, May 5-12. A voting public selected the top videos.

Professor Ketterlin Geller and her team, Research in Mathematics Education, received the Public Choice award, and  Associate Professor Candace Walkington and her co-researchers received the  Facilitators’ Choice award.

Ketterlin Geller’s video “Developing STEM Access in Students K-2 through MMaRS” illustrates research on two early predictors of mathematics success in K-2 students: numerical relational reasoning and spatial reasoning. Researchers describe what underlies the project and an elementary school principal articulates the importance of an assessment to identify student thinking and guide teacher instruction. View video here:

https://stemforall2020.videohall.com/presentations/1717

Walkington’s presentation, “The Hidden Village: Mathematical Reasoning Through Movement,” looks at a motion capture Kinect video game for learning high school geometry that was initially developed through a collaboration between the Simmons School of Education and Human Development at SMU, the Guildhall at SMU, and the University of Wisconsin-Madison. The project was funded by The Institute of Educational Sciences in the U.S. Department of Education, in an award given to the University of Wisconsin. View video here:

https://stemforall2020.videohall.com/presentations/1662

 

 

Barbie Bungee Jumping? Walkington Takes Math Activities for Home to New Heights

Shelter-in-place requirements create new challenges for math learning – for students, parents and teachers working remotely. To help families make math fun and relevant to these times of handwashing, neighborhood walks and togetherness, SMU math education professor Candace Walkington suggests Soap Bubble Magic, STEMWalks and Barbie Bungee Jumping.

Walkington, an associate professor of math in SMU’s Simmons School of Education and Human Development, specializes in making math relative and interesting to students. Her research includes engaging students in math by connecting their math skills to careers and outside-of-school interests.

“These activities for kids grades 3-8 are especially educational because the fun truly comes from the math itself being interesting and engaging,” says Walkington. “They also introduce math into the things we’re doing every day as we stay at home and practice social distancing.”

Here are Walkington’s favorites, including links that provided inspiration for her suggestions:

Geopanes: The Mathematics of Soap Bubbles

Since you’re washing your hands all the time anyways, here is another good way to connect with soap and water, masquerading as a fun math activity.

Supplies:

  • toothpicks
  • small objects that can link toothpicks together, such as raisins, marshmallows or clay balls
  • a mixing bowl filled with water and a few squirts of dishwashing liquid

Directions: Use the toothpicks and connectors like raisins to build polyhedrons, which are  three-dimensional geometric solids such as pyramids, prisms and cubes. Once they are built, dip your shapes into the soapy water – and see how the soapy water reveals complex surfaces or “geopanes.”

“If you only try one activity on this list, this one would be my recommendation. What happens when these are dipped into the soapy water is AMAZING! You can also integrate science into this activity by talking about surface tension in water and why the geopanes form as they do,” Walkington says.

Source: AIMS Education Foundation

http://gemsclub.org/yahoo_site_admin/assets/docs/Geopanes.4395625.pdf

 

Create a Math Walk

Here’s a new angle for your “escape the house” neighborhood walk. The walkSTEM® initiative launched by the non-profit talkSTEM, encourages families to go on virtual math walks via video, and create their own math walks in their backyard or their neighborhood.

Supplies: Walking shoes and a measurement instrument (optional)

Directions: Watch a few math walk videos on the talkSTEM YouTube channel as your first step –in particular ones where kids are acting as docents, like this one.

Create your own neighborhood walkSTEM tour. Observe everyday things – trees, roofs, street lights – and come up with questions about your observations. Why are roofs slanted? How tall are street lights? Select one question to explore in depth.

“Make a video of your walkSTEM tour and submit it to the talkSTEM Youtube channel to inspire other families,” Walkington suggests.

Source: talkSTEM

https://talkstem.org/create-your-own-walkstem-parents/

 

Barbie Bungee Jump

Anytime is a good time for a Barbie bungee jump, but this activity also allows cooped-up kids to work off steam. The objective is to guess how many rubber bands can be combined to create a “bungee cord” that drops Barbie as close to the ground as possible

Supplies:

  • A Barbie doll, GI Joe doll, or other similarly-sized, reasonably-heavy doll (stuffed animals are too light)
  • 15-30 same-sized rubber bands
  • ruler, meterstick or yardstick.

Directions: First, tape a large piece of paper to the wall, with a high point of five or six feet from the floor clearly marked as the Barbie dropping point. Barbie will need to be dropped from this height, so a parent or older brother or sister should help. String the rubber bands together to make a bungee cord for Barbie and attach to her ankles.

Test how far Barbie falls with two rubber bands, three rubber bands, four rubber bands, etc., then estimate just the right number of rubber bands for Barbie to jump, almost touch the ground, then spring back unharmed.

Keep trying until you find the perfect number of rubber bands for the best jump.

“There is nothing more satisfying than choosing the exact right number of rubber bands, and seeing the doll just barely kiss the ground as she bungee jumps, and then bounces back up to safety,” Walkington says.

 

Source: NCTM Illuminations

https://illuminations.nctm.org/uploadedfiles/content/lessons/resources/6-8/barbie-as-project.pdf