SAT Math14 TopicsComplete Guide

SAT Advanced Math Explained — Complete Study Guide

Advanced Math extends the linear world into curves, powers, and non-constant rates of change. This is where mathematics becomes capable of describing acceleration, area under curves, complex patterns, and the rich behavior of real-world phenomena that don't move in straight lines.

14
Topics Covered
All
With Questions
Yes
Free & Instant
All Levels
Difficulty

The Core Theme of Advanced Math

What you're really learning

Understanding how mathematical relationships behave when they are no longer linear — when they curve, grow exponentially, or require multiple operations to fully describe

Why it matters beyond the SAT

Most real-world relationships are non-linear. Population growth, the path of a thrown ball, the area of a room, the growth of compound interest — none of these are straight lines. Advanced Math gives you the tools to analyze and predict these phenomena.

All Advanced Math Topics

Click any topic for a full explanation with practice questions

14 topics
1
Quadratic Equations

An equation of the form ax² + bx + c = 0, where a ≠ 0. The highest power of the variable is 2, which causes its graph to form a U-shaped curve called a parabola.

10 Q's
2
Factoring Quadratics

Rewriting a quadratic expression ax² + bx + c as a product of two binomials (x + p)(x + q), using patterns and number relationships.

10 Q's
3
Quadratic Formula

A universal formula that gives the solutions of any quadratic equation ax² + bx + c = 0: x = (-b ± √(b² - 4ac)) / (2a). It always works, regardless of whether the quadratic factors nicely.

10 Q's
4
Parabola Graphs

The U-shaped (or inverted U-shaped) graph of a quadratic function y = ax² + bx + c. The shape, direction, and position of the parabola encode all information about the quadratic.

10 Q's
5
Polynomial Operations

The arithmetic operations (addition, subtraction, multiplication) applied to polynomials — expressions with multiple terms, each being a product of a coefficient and a variable raised to a whole-number power.

10 Q's
6
Factoring Polynomials

The process of rewriting a polynomial as a product of simpler polynomials or monomials, reversing the process of expansion.

10 Q's
7
Laws of Exponents

A set of rules governing how to simplify expressions involving powers (exponents) when multiplying, dividing, raising to powers, or using negative/zero exponents.

10 Q's
8
Radicals and Simplification

A radical is an expression involving a root (square root, cube root, etc.). Simplifying radicals means rewriting them in their simplest form by removing perfect powers from under the radical sign.

10 Q's
9
Rational Exponents

Exponents that are fractions, connecting the worlds of exponents and radicals. The expression a^(m/n) = (ⁿ√a)ᵐ = ⁿ√(aᵐ), meaning the denominator is the root and the numerator is the power.

10 Q's
10
Nonlinear Equations

Equations that, when graphed, do not produce a straight line. They include quadratic, exponential, radical, rational, and absolute value equations — any equation where the variable is raised to a power other than 1 or appears in a non-linear way.

10 Q's
11
Quadratic Systems

Systems of equations where at least one equation is quadratic (nonlinear). Solutions are the points where the curves intersect, and there may be 0, 1, or 2 solutions.

10 Q's
12
Function Notation f(x)

A way of writing functions that explicitly names the function and its input variable: f(x) is read 'f of x' and represents the output of function f when the input is x.

10 Q's
13
Domain and Range

The domain is the set of all valid input values (x-values) for a function. The range is the set of all possible output values (y-values) that the function can produce.

10 Q's
14
Function Transformations

Changes to a parent function that shift, reflect, stretch, or compress its graph. These transformations are encoded directly in the equation and follow predictable rules.

10 Q's

Key Skills You'll Build

Factoring as a problem-solving strategy (not just a mechanical skill)

Interpreting graphs of non-linear functions

Working with exponents and radicals fluently

Understanding function notation and transformations

Why Advanced Math Matters in Real Life

Projectile motion in physics (quadratics describe the arc of a ball)

Engineering design (quadratics model cables in suspension bridges)

Computer graphics (polynomials create smooth curves)

Financial modeling (exponential functions model compound interest)

Architecture (parabolic arches and structures)

Common Mistakes to Avoid

How to Study SAT Advanced Math

Read each topic explanation carefully

Start with the definition and core idea for each topic. Don't rush — understanding the concept deeply is more valuable than skimming all 14 topics quickly.

Do the practice questions after each topic

Each topic page has SAT-style questions. Answer them without looking at the explanation first. The act of attempting the answer — even if wrong — makes the explanation stick much better.

Pay attention to vocabulary

Every topic comes with key vocabulary. SAT questions often hinge on precise definitions. Knowing the exact meaning of terms like Quadratic and Standard Form is essential.

Note your weak spots and revisit them

After working through all topics, identify the ones where you're struggling. Revisit those topic pages and use the question bank to drill those specific concepts.

Ready to Master SAT Advanced Math?

Work through each topic at your own pace. Every topic includes a clear explanation, key vocabulary, step-by-step strategies, and SAT-style practice questions with detailed explanations.

Practice & Study: Advanced Math

Reinforce your understanding with practice questions, study strategies, and structured prep plans.

Other SAT Math Chapters