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100+ Free ILTS Mathematics (208) Practice Questions

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Using the product rule, what is the derivative of f(x) = x^2 * sin(x)?

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2026 Statistics

Key Facts: ILTS Mathematics (208) Exam

240

Passing Scaled Score

ILTS Mathematics (208) test page

$110

Test Fee (2026)

ILTS Mathematics (208) test page

100 MC

Test Format

ILTS Mathematics (208) test page

3 hr 15 min

Testing Time

ILTS Mathematics (208) test page

6 subareas

Content Domains

ILTS Mathematics (208) test framework

33%

Functions and Algebra Weight

ILTS Mathematics (208) test framework

100-300

Score Scale

ILTS scoring information

ILTS Mathematics (208) is Illinois' mathematics content licensure test, delivered by Pearson Evaluation Systems for the Illinois State Board of Education as a computer-based exam with 100 multiple-choice questions and a passing scaled score of 240. The questions are weighted across six subareas: Mathematical Practices, Technology, and Disciplinary Literacy 17%, Number Systems and Operations 11%, Functions and Algebra 33% (the heaviest), Differential and Integral Calculus 11%, Measurement and Geometry 17%, and Statistics, Probability, and Discrete Mathematics 11%. The standard public fee is $110 and candidates must bring a graphing calculator. This free 100-question bank mirrors the official framework weighting so candidates can practice across every subarea.

Sample ILTS Mathematics (208) Practice Questions

Try these sample questions to test your ILTS Mathematics (208) exam readiness. Each question includes a detailed explanation. Start the interactive quiz above for the full 100+ question experience with AI tutoring.

1A teacher wants students to develop the mathematical practice of 'making sense of problems and persevering in solving them.' Which classroom action best supports this practice?
A.Providing the solution steps before students attempt the problem
B.Asking students to explain what the problem is asking and to plan an approach before computing
C.Limiting problems to single-step exercises with one correct method
D.Grading only the final numerical answer rather than the reasoning
Explanation: The Standards for Mathematical Practice emphasize that students should analyze givens, constraints, and goals, then plan a solution pathway before computing. Asking students to articulate what is being asked and plan an approach builds sense-making and perseverance.
2Which statement best describes the mathematical practice of 'attending to precision'?
A.Always reporting answers to as many decimal places as possible
B.Communicating precisely using clear definitions, accurate units, and appropriate labels
C.Working as quickly as possible to finish problems
D.Memorizing formulas without understanding their derivation
Explanation: Attending to precision means communicating with clarity: using accurate mathematical language, stating definitions carefully, specifying units of measure, and labeling axes and quantities appropriately. Precision is about correct, clear communication, not maximizing decimal places.
3A student claims that because 2 + 3 = 5 and 4 + 1 = 5, the sum of any two whole numbers is 5. The teacher wants the student to construct a viable argument and critique reasoning. What is the most appropriate response?
A.Tell the student the claim is wrong and move on
B.Ask the student to test the claim with additional examples and explain whether a single counterexample disproves it
C.Confirm the claim since the two examples both equal 5
D.Have the student memorize the addition table
Explanation: Constructing viable arguments and critiquing reasoning involves testing conjectures and recognizing that one counterexample (e.g., 2 + 2 = 4) disproves a universal claim. Prompting the student to test more cases and reason about counterexamples builds this practice.
4When is using a graphing calculator most appropriate as a tool for learning a quadratic function?
A.To replace students' understanding of how the vertex relates to the equation
B.To explore how changing parameters a, b, and c transforms the parabola and to verify hand-computed results
C.To avoid teaching factoring entirely
D.Only after students have memorized all coefficients
Explanation: The practice 'use appropriate tools strategically' calls for technology to deepen understanding, such as dynamically exploring how parameters affect a parabola's shape and position, and to check work. Technology should enhance, not replace, conceptual understanding.
5A teacher introduces a literacy strategy where students keep a math vocabulary journal defining terms like 'asymptote' and 'coefficient' in their own words with examples. This practice most directly supports which goal?
A.Reducing the number of problems students must solve
B.Developing disciplinary literacy by building precise mathematical vocabulary and communication
C.Eliminating the need for symbolic notation
D.Replacing problem-solving with writing
Explanation: Disciplinary literacy in mathematics includes reading, writing, and speaking with precise mathematical vocabulary. A vocabulary journal where students define terms with their own examples strengthens conceptual understanding and the ability to communicate mathematically.
6Which scenario best illustrates the mathematical practice of 'looking for and making use of structure'?
A.Recognizing that x^2 + 6x + 9 can be rewritten as (x + 3)^2 by seeing a perfect-square pattern
B.Computing each term of a sequence by hand with no pattern recognition
C.Guessing answers and checking each one
D.Copying a worked example without analysis
Explanation: Making use of structure means discerning patterns and relationships, such as recognizing a perfect-square trinomial x^2 + 6x + 9 = (x + 3)^2. Seeing this structure allows efficient factoring and deeper insight into the expression.
7A student notices that (1+2+3+...+n) for n = 1, 2, 3, 4 gives 1, 3, 6, 10, and conjectures a formula. This reasoning best exemplifies which mathematical practice?
A.Attending to precision
B.Looking for and expressing regularity in repeated reasoning
C.Using tools strategically
D.Modeling with physical manipulatives only
Explanation: Expressing regularity in repeated reasoning involves noticing patterns across repeated calculations and generalizing them, such as conjecturing the triangular-number formula n(n+1)/2 from the sequence 1, 3, 6, 10. This generalization from repeated structure is the hallmark of the practice.
8A teacher asks students to 'model with mathematics' a real-world situation about a savings account. Which task best fits this practice?
A.Solving an abstract equation with no context
B.Writing an equation that represents the account balance over time, then interpreting the solution in context
C.Memorizing the compound interest formula without application
D.Listing definitions of financial terms
Explanation: Modeling with mathematics requires translating a real-world situation into mathematical form, solving, and interpreting the result back in context. Writing and interpreting an equation for the account balance over time exemplifies the full modeling cycle.
9Which assessment approach best provides formative feedback that improves student learning during a unit on linear functions?
A.A single high-stakes test at the end of the unit only
B.Frequent low-stakes checks (exit tickets, quick problems) with feedback used to adjust instruction
C.Grading homework solely for completion
D.Withholding all results until the end of the semester
Explanation: Formative assessment uses frequent, low-stakes checks during learning to monitor understanding and adjust instruction. Exit tickets and quick problems with timely feedback let teachers and students respond before summative evaluation.
10A student writes '3x = 12, so x = 12 - 3 = 9.' Identifying and addressing this error is part of which instructional practice?
A.Ignoring procedural mistakes to focus only on concepts
B.Diagnosing a misconception (confusing division with subtraction) and providing targeted feedback
C.Reteaching the entire course
D.Marking the answer wrong without explanation
Explanation: Effective instruction involves diagnosing the specific misconception. Here the student subtracted 3 instead of dividing by 3, so the correct step is x = 12/3 = 4. Targeted feedback addressing the confusion between inverse operations corrects the error.

About the ILTS Mathematics (208) Exam

The ILTS Mathematics (208) test is the content-area assessment for the Illinois mathematics (grades 9-12) teaching endorsement. The computer-based test includes 100 multiple-choice (selected-response) questions organized into six subareas spanning mathematical practices and disciplinary literacy, number systems and operations, functions and algebra, differential and integral calculus, measurement and geometry, and statistics, probability, and discrete mathematics.

Questions

100 scored questions

Time Limit

3 hours 15 minutes of testing (about 3.5 hours total appointment)

Passing Score

240 scaled score

Exam Fee

$110 (Illinois State Board of Education (ISBE) / Pearson)

ILTS Mathematics (208) Exam Content Outline

17% of this test

Mathematical Practices, Technology, and Disciplinary Literacy (Subarea I)

Mathematical reasoning and the Standards for Mathematical Practice, problem-solving and argumentation, strategic use of technology such as graphing calculators and spreadsheets, formative assessment and error analysis, and disciplinary literacy including mathematical vocabulary, reading, and writing.

11% of this test

Number Systems and Operations (Subarea II)

Properties of the real number system and operations including closure and density, complex numbers and their arithmetic including modulus and powers of i, and foundations of linear algebra such as vectors, matrix operations, and determinants.

33% of this test

Functions and Algebra (Subarea III)

Algebraic techniques and translation of word situations, linear relations and systems, quadratic functions and conic sections, polynomial and rational functions including factoring and asymptotes, exponential and logarithmic functions and modeling, and trigonometric functions, identities, and equations.

11% of this test

Differential and Integral Calculus (Subarea IV)

Limits and continuity including limits at infinity, derivatives and rules such as the power, product, and chain rules, applications including tangent lines, velocity, and optimization, antiderivatives, definite integrals, and the Fundamental Theorem of Calculus.

17% of this test

Measurement and Geometry (Subarea V)

Measurement principles, unit and angle conversions, area, surface area, and volume of plane and solid figures, Euclidean geometry and deductive proof, similarity and congruence, and coordinate and transformational geometry including distance, midpoint, and reflections.

11% of this test

Statistics, Probability, and Discrete Mathematics (Subarea VI)

Data collection and sampling methods, measures of central tendency and variation, data representation and correlation, probability of simple, compound, and dependent events, expected value, set theory, logic, and counting strategies including permutations and combinations.

How to Pass the ILTS Mathematics (208) Exam

What You Need to Know

  • Passing score: 240 scaled score
  • Exam length: 100 questions
  • Time limit: 3 hours 15 minutes of testing (about 3.5 hours total appointment)
  • Exam fee: $110

Keys to Passing

  • Complete 500+ practice questions
  • Score 80%+ consistently before scheduling
  • Focus on highest-weighted sections
  • Use our AI tutor for tough concepts

ILTS Mathematics (208) Study Tips from Top Performers

1Allocate study time by subarea weight: Functions and Algebra is the heaviest at 33%, followed by Mathematical Practices and Measurement and Geometry at 17% each
2Practice multi-step problems in algebra, calculus, and geometry because the multiple-choice section rewards calculation fluency and accuracy
3Master the use of an approved graphing calculator since you must bring one and use it strategically during the test
4Memorize core relationships (quadratic formula, derivative and integral rules, distance and midpoint formulas, area and volume formulas) and the unit circle
5Review the Standards for Mathematical Practice and disciplinary literacy strategies, which form a full 17% subarea many candidates overlook
6Use estimation and unit analysis to check answers quickly under the 3-hour-15-minute time limit

Frequently Asked Questions

What is on the ILTS Mathematics (208) test?

The test covers six subareas: Mathematical Practices, Technology, and Disciplinary Literacy (17%), Number Systems and Operations (11%), Functions and Algebra (33%), Differential and Integral Calculus (11%), Measurement and Geometry (17%), and Statistics, Probability, and Discrete Mathematics (11%). All are assessed with multiple-choice questions.

How many questions are on the ILTS Mathematics (208) test and what is the format?

The computer-based test has 100 multiple-choice (selected-response) questions, each with one correct answer. There are no constructed-response or open-ended items on the Mathematics (208) test.

What is the passing score for ILTS Mathematics (208)?

You need a scaled score of 240 to pass the ILTS Mathematics (208) test. ILTS tests are reported on a scale from 100 to 300, and 240 is the standard passing score.

How much does the ILTS Mathematics (208) test cost in 2026?

The standard registration fee listed on the official ILTS test page is $110. Some prep sources list $122, so always confirm the exact amount in your Pearson registration portal before checkout. A graphing calculator is an additional required expense.

How long is the ILTS Mathematics (208) test?

The test provides 3 hours and 15 minutes of testing time, with the total appointment running about 3.5 hours including the tutorial and nondisclosure agreement. Budget your time across all 100 multiple-choice questions.

Can I use a calculator on the ILTS Mathematics (208) test?

Yes. Unlike most ILTS tests, the Mathematics (208) test requires you to bring an approved graphing calculator to the test session. Review the official list of acceptable calculator models before your appointment.