Getting Through Precalculus Without Losing Your Mind
I ran into this book when I was tutoring a kid whose teacher expected them to know calculus-level intuition by the end of the semester. The title sounds generic. The content actually isn't terrible if you approach it right. Advanced Mathematical Concepts Precalculus With Applications is published by McGraw-Hill. It covers functions, trigonometry, polar coordinates, conics, sequences, series, and introduces limits. Standard stuff. The difference between this and, say, Stewart's thin intro chapters is that it tries to give you applications early instead of burying them at the end.
How I Use This Book
Read the worked examples first. Don't skip them. I used to tell students to jump straight to exercises, but that wastes time. The examples show you the pattern before you've learned it. Once you see the pattern, the exercises click. The book has about 4-6 examples per section, usually progressing from routine to slightly annoying. The practice problems are where people get stuck. Start with the odd-numbered ones. The answers are in the back. Check your work immediately. If you get it wrong, go back to the example it's based on and trace where your logic diverged. That divergence point is your actual gap in understanding. Most kids just keep grinding problems blindly.
The Polar Coordinates Section
This is where the book gets genuinely useful. A lot of precalculus texts treat polar coordinates as an afterthought. This one dedicates solid space to it and actually connects it to graphing calculators and real positioning systems. I remember working through a problem with a student where we had to convert r = 3sin(2theta) from polar to parametric form and sketch it. The book's answer key had a typo in the y-coordinate for theta equals pi over 6. I caught it because my student got a different result and we traced through the identity conversion step by step. Just something to watch for. Always verify key answers yourself. The application sections at the end of chapters are the strongest part. Things like exponential growth models, logistic functions, and basic probability tie the abstract material to actual measurable situations. If you're taking this course for a STEM degree, those sections matter more than the drill problems. They're what shows up on placement exams and later in calculus when you're expected to just know how to set up the model without being told. The proofs are thin. If you need to understand why the quadratic formula works or why the angle addition identities are true, this book won't give you much. It states results and moves on. For that you'd want something like Axler's linear algebra approach or even just YouTube lectures from a professor who actually enjoys epsilon-delta arguments. Also, the difficulty curve is jumpy. Some sections have clean progression. Others throw a problem set at you that assumes you've internalized three separate concepts simultaneously. That's not the book's fault. That's just precalculus.
Get the Full Details

Don't read the whole chapter linearly. Skim the objectives. Do the examples. Hit the odd problems. Check answers. Move on. When you hit a wall, identify which specific concept is blocking you and go back to that subsection only. This cuts study time significantly. I've seen students spend six hours on a chapter and learn nothing because they were reading passively instead of doing active recall with the problems. The online homework system that sometimes bundles with it is functional but slow. It has valid points though. If your course requires it, treat it as practice, not a grade booster. The system occasionally accepts incorrect work with partial credit and marks correct work wrong due to rounding tolerance. Keep a spreadsheet of your numerical answers and your accepted decimal places so you're not second-guessing yourself.
Bottom Line
It's a solid precalculus resource if you use it actively. Read examples, do problems, check answers, move on. Don't treat it like a novel. The applications sections are worth more than the drill work. Watch out for occasional typos in the answer key, especially on trig conversions. Pair it with a video lecture series if you need deeper explanations. That's basically how I got through it and how I've seen others succeed with it.