An inquiry-based exploration of triangular and square numbers where students discover formulas through visual manipulation and structural analysis.

A comprehensive review of exponential growth, decay, and compound interest through real-world scenarios. Students practice applying discrete and continuous formulas to predict future values.

A lesson introducing the distributive property through the metaphor of a delivery service, featuring guided and independent practice.

A lesson focused on understanding and applying z-scores to compare values from different normal distributions and interpret real-world statistical data.

Students will model the exponential growth of a pepper population, starting from one pepper and doubling every season, to understand the power of geometric growth.

A 45-minute lesson exploring inverse variation through the lens of travel speed and Boyle's Law, focusing on formulating and solving equations for real-world scenarios.

A creative geometry project where students design a brand logo using specific circle properties, including tangents, secants, chords, and inscribed angles. Students must demonstrate both artistic design and geometric precision through calculations.

Students explore geometric similarity through art and tessellations, applying ratios and proportional parts to create scaled masterpieces.

Students learn to apply Sine, Cosine, and Tangent to real-world measurements and abstract artistic design, culminating in a dual-phase project.

A creative geometry project where students apply circle theorems to design a celestial map or star chart, combining art with rigorous mathematical proofs of angles and segments.

A lesson focused on identifying and calculating the perimeters and circumferences of specific components within 3D solid figures like cylinders, rectangular prisms, and cones.

A lesson focused on calculating and interpreting z-scores within the context of normal distributions, featuring real-world data from ecology to education.

A high-energy math simulation where students manage a large budget, navigate financial constraints, and handle unexpected 'life events' while shopping for their dream items.

A comprehensive project where students apply linear functions to model real-life savings goals for a startup business. Students will calculate startup costs, determine savings rates, and project their business launch date using algebraic models.

A hands-on project where students apply right triangle trigonometry to design a piece of modern architecture or geometric art, culminating in a detailed calculation poster.

A hands-on geometry project where students apply similarity criteria (AA, SSS, SAS) to measure unreachable heights using shadow casting and mirror reflections. Students will perform outdoor measurements, calculate scale factors, and provide formal geometric proofs for their methods.

A project-based lesson where students design an infographic poster demonstrating their mastery of triangle similarity criteria and real-world proportional reasoning.

A creative art-based project where students apply circle geometry concepts—arc length, sector area, and inscribed angles—to design and calculate a geometric masterpiece.

Students apply linear function concepts to model a real-world income and expense scenario. They will calculate rates of change, identify initial values, and visualize their budget through graphing.

A real-world project exploring linear functions through cell phone plans and career earnings. Students analyze slope as a rate of change and the y-intercept as a starting value.

A project-based lesson where students apply concepts of similarity, scale factor, and proportions to create a scale drawing or 3D model of a real-world object. Students move from mathematical practice to creative application.

Students apply their knowledge of slope to design a roller coaster. They calculate the steepness of various drops and climbs, representing their findings through a technical blueprint and a visual infographic.

A focused lesson on the binomial distribution, covering the BINS criteria, identifying parameters, and calculating probabilities using digital spreadsheet tools.

A focused lesson on the binomial distribution, covering the BINS criteria, identifying parameters, and calculating probabilities using digital spreadsheet tools.

A comprehensive unit review and summative assessment covering three key methods for solving quadratic equations: graphing, factoring, and the quadratic formula. Students practice identifying key features of parabolas, algebraic manipulation for factoring, and the step-by-step application of the quadratic formula.

Students learn to plot bivariate data, identify trends, and spot outliers using a real-world scenario of sleep and mood.

A comprehensive guide to analyzing and graphing rational functions, covering all key features from asymptotes to holes.

An advanced look at slope as a rate of change, including calculation from coordinates and understanding special cases like zero and undefined slopes.

A comprehensive assessment lesson focusing on mastering one-step equations involving multiplication, division, and basic addition/subtraction.

A hands-on math project where students design carnival games to explore theoretical versus experimental probability through data collection and analysis.

A highly scaffolded lesson on angle relationships (vertical, complementary, and supplementary) featuring an architectural blueprint theme. Includes guided notes with exemplars and step-by-step practice materials.

Advanced applications of central tendency and spread, including algebraic problem-solving, weighted means, and the mathematical impact of outliers for high school students.

A comprehensive assessment covering Level 1, Level 2, and Level 3 data analysis, designed to evaluate mastery of mean, median, mode, and range in both numerical and narrative contexts.

Students interpret and solve word problems involving mean, median, mode, and range, focusing on extracting data from narrative contexts and real-world scenarios.

A foundational lesson designed for SIFE students to understand fractions greater than one using visual models and fraction strips. Focuses on bridging concrete models to number lines with minimal text reliance.