Tag: math resources

✨ The Ultimate Math Bundle 2026: Your Year of Stress‑Free Planning Starts Now

If you teach math anywhere from grade three through calculus, get ready — this year’s Ultimate Math Bundle is here, and it’s designed to make your school year smoother, lighter, and far more enjoyable.

For a limited time, you can grab a massive grade‑level bundle packed with well over one hundred math resources for just $35. That’s right — more than four hundred dollars in value for the cost of a single dinner out.

And the best part? Everything inside is done for you.

🧮 What Makes the 2026 Ultimate Math Bundle so Amazing?

Each year’s collection is built around one theme: giving teachers more time back.

Whether you’re prepping warmups, planning small‑group lessons, or pulling together emergency sub plans, this bundle keeps everything organized and ready the moment you need it.

Ready‑to‑Use Resources

No more late‑night searching. You’ll have worksheets, practice pages, activities, stations, and quick checks all at your fingertips.

Engaging, Classroom‑Tested Activities

Every resource is designed by experienced math teachers who know what works. Expect clear instructions, meaningful practice, and activities that keep students involved.

Coverage from Upper Elementary Through Calculus

Fractions, linear equations, functions, geometry, trigonometry, limits — it’s all here. Every grade band gets a full library of materials.

Time‑Saving Planning Support

Warmups? Done. Homework? Done. Sub plans? Done. This bundle helps you spend less time prepping and more time teaching (or, honestly, resting).

📦 Want Even More? Build Your Own 2026 MEGA Bundle

This year, you can take things a step further and build your own MEGA Bundle — a customizable collection packed with even more math resources. Choose the materials that fit your classroom best and create a personalized library you can rely on all year long. If you love having options and want the fullest, most flexible resource collection at your fingertips, building your own MEGA Bundle is the perfect fit.

✨ A Smoother School Year Starts Here

If you’re dreaming of a year where planning feels lighter, lessons feel more engaging, and your evenings feel a little freer, the Ultimate Math Bundle 2026 is your new go‑to.

Available for a limited time — and built to make your life easier all year long. Don’t delay as the Ultimate Math Bundle is only available for a limited time each summer!

Factoring Quadratic Trinomials a > 1: Helping Students See the Structure Through Grouping

I teach factoring by grouping with quadratics because it sets students up for success later in Algebra 2, where they’ll use the same strategy to factor higher‑degree polynomials. The earlier they see the structure, the easier those advanced skills become.

One of the biggest challenges students face is recognizing how many groups of a binomial they have. For example, in an expression like

x(x+2)+5(x+2),

students often struggle to “see” how many (x+2)’s there are.

To help them make this connection, I take them back to something familiar, elementary‑style counting, before we layer in the algebra.

Start With Something Concrete

I begin with simple visuals:

  • 1😀+1😀=___😀
  • 3😀+2😀=___😀

Students immediately answer 2😀 and 5😀. No hesitation. No confusion. Just counting groups of the same thing.

Then we shift to algebraic “smileys”:

x😀+x😀=___😀

x😀+2😀=___😀

Some students see it instantly: 2x😀 and (x + 2)😀. Others take a moment, but they all eventually realize we’re still just adding groups of the same object—only now the “object” is an algebraic expression.

This is where the ah‑ha moments start rolling in. There’s a ripple effect across the room as students understand that grouping is simply counting how many of the same binomial you have.

Then Replace the 😀 With Binomials

Once students are comfortable, we swap the smiley faces for actual binomials:

x(x+2)+5(x+2)

Suddenly, the structure becomes clear. They can see the common factor, understand why grouping works, and explain it to each other using the same “counting smileys” logic.

This approach makes factoring by grouping feel accessible, visual, and even fun. Students stop memorizing steps and start understanding the why behind the method.

Connecting This to Trinomials Where a > 1

Now that students understand grouping, we apply it to trinomials:

ax2+bx+c

We find two numbers that multiply to ac and add to b, split the middle term, and group. Because students already understand grouping conceptually, this process feels far less intimidating.

The smiley‑face warm‑up gives them a mental model they can rely on.

Grouping Doesn’t Have to Be Scary

This strategy builds confidence, deepens understanding, and sets students up for success in future algebra courses.

Ready‑to‑Use Lesson for Factoring Trinomials a> 1

If you want a print‑and‑go lesson that teaches this exact method from start to finish, complete with guided notes, practice, an exit ticket, card sort and a student‑friendly structure, I’ve created a Factoring Trinomials (a > 1) Lesson. that walks students through the grouping process step by step.

It’s designed to make the “smiley‑face” insight stick, help students see the structure, and give them plenty of supported practice. I replaced the smiley faces with sea turtles in the lesson to make it even more engaging. The moment students see the turtles, the activity becomes instantly more memorable—and the grouping concept sticks. Counting “how many sea turtles” they have feels just as natural as the elementary examples, and the visual makes the transition to binomials smoother and more fun.. You can take a closer look at the full resource here: Factoring Trinomials a > 1 Lesson

Factoring trinomials with a > 1 is often the point where students start to doubt themselves—but it doesn’t have to be. When they understand grouping as “counting how many of the same binomial you have,” the entire process becomes more intuitive.

This strategy builds confidence, deepens understanding, and sets students up for success in future algebra courses.

Surface Area of Spheres Investigation with Oranges

I love a good hands on activity that helps my students remember the math they are learning. A great activity to remember the surface area of a sphere formula is to investigate the surface area of an orange.

Make sure to use oranges instead of clementines as the clementines are not as spherical as oranges. Students trace the outline of an orange onto a piece of paper, keeping their pencil perpendicular to the paper as best they can. Then have students use a compass to copy the same size circle several more times on their paper. Ask students to make a conjecture about how many circles they believe the orange peel will cover once they have peeled the orange.

Once students have their circles and conjecture, it is time to peel the orange. Students peel the orange and then test out their conjectures by covering each circle, one at a time. Students should find that the orange peel is able to cover 4 circles. Then as a class, make the connection between the radius of a circle and the radius of a sphere, like an orange. Ask students to write a formula for the surface area of their orange.

If you would like to grab a free copy of my Surface Area Investigation Activity, here is the link:

Surface Area Investigation with Oranges
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Alternate Ways to Facilitate this Activity:

  • Each student completes the activity on their own(an orange for each student)
  • Students work in groups of 3 or 4 students (7-10 oranges)
  • Teacher has student volunteers go to the front of the room to model the activity for the class (1 orange)

Teaching Increasing and Decreasing Functions

Increasing and Decreasing Functions

For some reason students tend to have difficulty with this concept. At first glance, it seems rather straightforward. If a graph is going up, then the function is increasing. If the graph is going down, then the function is decreasing. If the graph is a horizontal line, then the function is constant. This is the level of this key feature of functions taught in my algebra 2 class. 

In calculus, we take it a step further and look at intervals where the first derivative is positive to see where the function is increasing. And likewise, intervals where the first derivative is negative tells us where the function is decreasing. If the first derivative equals zero, then the function is constant.

Next, are the intervals for increasing and decreasing open or closed? Different textbooks will have different notations. Some will use open intervals while others will use closed. I used to be in the open interval camp, but have switched over to closed. I discuss this with my students about how textbook publishers and even math teachers cannot agree on this topic. With that said, if a function is increasing as it goes to an asymptote or infinity, then an open interval would be used.

Let’s look at the definition for a function increasing or decreasing on an interval.

Increasing and Decreasing Functions

I start this topic with a what do you notice prompt for the graph shown above. It is an entry point into the lesson where each student can share what they see.  We then get out some crayons or colored pencils to shade in different portions of the graph.

Increasing and Decreasing Functions

Next I ask students to try sketching their own examples of graphs that are increasing, decreasing or constant, followed by a graph that exhibits more than one of these behaviors. 

Increasing and Decreasing Functions

Before we start creating intervals for increasing and decreasing, we first review interval notation. Click HERE if you are interested in my free graphic organizer for interval notation.

Interval Notation

Finally, we analyze graphs to identify intervals of increasing, decreasing or constant.  After students feel comfortable identifying these intervals, I give them intervals with specified criteria and ask them to create the graph that would meet these criteria.

If you are interested in my lesson, it is available in my TPT shop as part of my Key Features of Functions Unit. I have included 2 versions: closed interval notation and open interval notation. Cheers!

The Importance of Mathematical Modeling

Many students have a tough time visualizing algebra. One way to help students visualize math is to make a model. Modeling usually starts in the elementary grades.

Mathematical Modeling from numbers to arrays to area models to polynomials

Modeling can start simply by modeling a numerical value with pictures or manipulatives. For example, to model the number five, a student could draw 5 circles, 5 cubes, 5 whatever’s…

As students start learning about larger numbers, they begin to use arrays to model these values. For example, the number 12 might be modeled by an array with 3 rows and 4 columns. This is building the foundation for understanding multiplication. Eventually 3 rows by 4 columns turns into 3×4 =12.

Model a number with an array

The array modeling of 3×4=12 then leads to area models. A rectangular figure can be labeled with dimensions to represent the side lengths of an area.

Area Model Geometry

You can then use an area model to help students model the distributive property. 5(10+2)

Distributive Property Model

Eventually, we replace a value with x, but we can still use the idea of an area model to help conceptualize the distributive property. Let’s look at 5(x+2).

algebra distributive property

And finally more complex polynomials can be multiplied such as (x+2)(x+3). I hope that seeing these models helps you understand the importance of the mathematical progression of modeling a basic number like 5, because it helps students conceptualize the abstract later on in algebra.

model multiplying polynomials with algebra tiles

If you are interested in purchasing a resource that has some of these feature, you may want to check out the following resources from my Teachers pay teachers shop.

Mathberry Lane Multiplication Facts
Builds conceptual understanding of multiplication
Mathberry Lane Distributive Property Card Sort
Model the distributive property
Mathberry Lane Multiply Polynomials Task Cards
Also available as Boom Cards or Google Slides Digital Task Cards