We are looking forward to seeing you on Friday!
Tamar Avineri and Ashley Loftis
In this active learning session, we will focus on topics that may appear in courses beyond Algebra II, such as graph theory, number theory and logic. We will spend the majority of our time working collaboratively on relevant tasks pertaining to these topics, and participants will walk away with resources they can implement in their classrooms. These topics can be found in the North Carolina Discrete Mathematics for Computer Science course, which launched this year, but participants outside of North Carolina are also very much encouraged to attend. (Most of the topics covered in this session will be different from those covered in our TCM session and/or Summer Workshop last year.)
Kathleen Snook with Michelle Montgomery
Society for Industrial and Applied Mathematics (SIAM) and Consortium for Mathematics and Its Applications (COMAP) each organize annual math modeling contests for high school students and undergraduate students. In this session, we’ll take apart recent contest problems, discuss motivation, and share a collection of open access resources that offer teachers and coaches the opportunity to painlessly bring math modeling and computational thinking into their schools. Despite the emphasis standards place on mathematical modeling, authentic mathematical problem-solving opportunities are seldom seen in class. Math modeling contests have little to no entrance barriers, and give students a chance to discover that they can apply curricular mathematics to investigate real world problems. We will address several different contests – two at the high school level and two at the undergraduate level – what each is, what sorts of problems are posed, and how to participate meaningfully as a district, school or teacher-coach. We’ll highlight solution approaches from a variety of mathematical perspectives noting that modeling problems offer many entry points and many levels of solution techniques. We’ll also share resources with participants. Speakers will include representatives from SIAM and COMAP who have extensive experience writing and assessing work on open ended and data driven problems.
Kevin Ji and Nick Koberstein
If you are using Desmos Activities in your classroom, you probably already know how powerful it can be for teaching, learning and reviewing content! This session will introduce you to the Computational Layer, focusing on a new and useful resource, the Aggregate function! Learn how to take student inputs and compile them into a list for easy visualization and discussion. We’ll look at different ways of displaying class data for students to see on their own screens including class scatterplots and distributions. We’ll demonstrate some activities that use this function, consider ways to improve activities you are already using, and brainstorm new ways to implement this powerful tool to create engaging and effective activities. Aggregation can be used in a range of content from Algebra to Calculus and Statistics. Experience with the Computation Layer is helpful, but not required! Bring any ideas for activities you’ve been dreaming of that involve quickly collecting and visualizing data: we hope you’ll leave this session ready to build those ideas into your own collection of activities!
Todd Lee
All teachers want students to find our mathematical questions interesting. One step in the right direction is to convince students to take ownership of a question. When students take ownership and display agency towards an open question, this is the start of student-driven research. In this session, we will focus on ways of creating student research experiences that are not part of larger mathematics research programs. As an example, we will explore the structure of the past few iterations of the NCSSM summer research program for mathematics, along with a sample of students’ research questions and experiences.
Barb Sink
Students need a stronger foundation with algebra skills to be successful in calculus. Participants will engage in a discussion about how to better prepare students in earlier maths so that calculus becomes more assessable and encourages mathematical study beyond high school.
Floyd Bullard and Veronica Vazquez
In this session we will present an investigation for students where they learn about different techniques for congressional apportionment and what repercussions these could have on the make-up of the US congress and–potentially–the electoral college. The discussion will include Hamilton's method and the surprising results of 1882 and 1901. We will conclude with the Huntington-Hill method and the potential changes that may occur based on 2020 census data.
Ken Collins
A.P. Calculus continues to evolve. What is the focus of these recent changes? What impact does this have on how we teach Pre-Calculus? We will discuss the mathematical practices of A.P. Calculus and share some specific classroom-ready examples to use in Pre-Calculus.
Bowman Dickson
This session will talk about how one teacher has integrated spreadsheets into his curriculum at a few different levels. Learn a tangible idea for all of the core courses: Geometry – finding the “perimeter” of a circle. Algebra 2 – modeling situations that involve probability. Precalculus – modeling with exponential functions. Calculus - computational differential equations.
Ryan Pietropaolo and Amber Smith
We will discuss two/three problems that we have found to be helpful in introducing Parametric Equations. These problems have traditionally been used in Precalculus but can easily be manipulated to benefit students in BC Calculus.
Christine Belledin and Dan Teague
This fall, Duke University instituted an aggressive testing program of asymptomatic students on campus for COVID-19 using a pooling process to minimize the use of reagents and the time for and expense of testing. This timely and relevant optimization process can be investigated by Precalculus and Calculus students. Christine Belledin will present a student-developed Precalculus approach via graphs and data analysis, while Dan Teague will present an approach using a sequence of classic optimization problems solvable by standard techniques of calculus.
Laura Berdine
Learn how students can develop their own Dan Meyer three-act lesson to demonstrate key learnings in Calculus. Through productive struggle, each group develops their idea, determines information needed to solve the problem, and presents their lesson to the class. In the true spirit of modeling, initial failed attempts and redesigns are a part of the process. I will share a project outline, sample projects, and grading rubrics.
Mahmoud Harding and Philip Rash
Participants will complete an activity that uses Python to help them investigate the likelihood of a historical event.
Tracie McLemore Salinas
Recent events related to health, technology access, and racial justice have highlighted the ongoing issues of equity and access that permeate education. While mathematics education benefits from numerous champions of mathematics learning for all, there is much work to be done in making equity the rule and not the exception. In this talk, I’ll share what it looks like to take a critical lens to mathematics and STEM outreach, materials, and professional development and how to grow a community of practice that develops shared lenses and perspectives related to inclusion.