SHL Inductive Reasoning Test Practice 2026: Patterns, Examples, Strategy and the ReasoningCampus Method
SHL Inductive Reasoning Test Practice 2026: Patterns, Examples & Strategy
Learn how visual rules are built, practise five moderate and three easy interactive examples, study complete worked solutions and use the ReasoningCampus OSCC-VEC method to approach unfamiliar sequences, matrices and dependency patterns more systematically.
SHL Inductive Reasoning: Key Facts at a Glance
These concise answers provide the core context before you begin the exercises or open the detailed learning chapters.
What does the test measure?
The ability to infer hidden rules from unfamiliar visual information and apply them to a new item.
What should I track?
Shape, count, fill, colour, position, movement, rotation, connections and dependencies between features.
What is the best solving approach?
Separate the features, test one rule at a time, verify it across the complete pattern and eliminate partial matches.
What question formats may appear?
Sequences, matrices, analogies, classification tasks, dependency patterns and interactive click-or-drag questions.
How should I practise?
Build untimed accuracy first, review every error by rule family and introduce realistic time pressure only afterwards.
When should I add time pressure?
After you can explain the rule accurately. Build method first, then shorten the time gradually.
What Would You Like to Do First?
This page is both a practice centre and a complete learning guide. Choose the route that matches your current goal; you can return to the other sections at any time.
Test Your Inductive Reasoning
Complete the interactive exercises first, check your score and open the worked solution only after making an attempt.
Start with Five Moderate SHL-Style Inductive Reasoning Challenges
Begin with five medium-difficulty visual challenges based on compound cycles, dependency codes, symbol order and matrix logic. After these, finish with three easier SHL-style inductive tests. Every exercise includes clickable answers and a complete written solution in standard HTML.
Five Moderate Visual Challenges
These questions require two or more linked observations. Work through them before opening the written solution.
Which shape replaces the question mark?
Answer and complete explanation
- Outline triangle
- Outline pentagon
- Outline parallelogram
- Filled pentagon
- Filled parallelogram
Correct answer: D — Filled pentagon.
Worked explanation: Track the rule in two layers. First, use the grey arrow to infer the target number of sides. In the final panel it indicates five, so the answer must be a pentagon. Second, check the fill pattern: odd-sided shapes are filled and even-sided shapes are outlines. A pentagon has five sides, so it must be filled. The only option that satisfies both conditions is the filled pentagon.
Strongest distractor: Option B is attractive because it identifies the pentagon correctly, but it ignores the fill rule and leaves the pentagon as an outline.
Which panel comes next?
Answer and complete explanation
- Triangle frame with an upward arrow
- Rectangular frame with three black circles
- Pentagon frame with four black circles
- Curved frame with one black and one grey circle
- Square frame with two black and one grey circle
Correct answer: E — Square frame with two black and one grey circle.
Worked explanation: Treat the sequence as two interleaved streams. Panels 1 and 3 are odd positions; panels 2 and 4 are even positions. The even-position panels both contain one black and one grey circle, so panel 5 must come from the odd-position stream instead. In that stream the dot pattern changes from two black plus one grey to four black plus one grey and then returns to two black plus one grey. The enclosing frame and arrow direction must also continue the odd-position cycle. Only option E preserves the required combination.
Strongest distractor: Option C matches the stronger dot-count of the previous odd-position panel but fails to continue the next step in the odd-position cycle.
Which upper panel completes the sequence?
Answer and complete explanation
- Left marker, upward arrow, one grey circle, no large square
- Large square and boxed black circle
- Upward arrow without the required side marker
- Right marker with the odd-position circle pattern
- Large square with an upward arrow
Correct answer: A — Left marker, upward arrow, one grey circle, no large square.
Worked explanation: Again, the cleanest method is to separate odd and even positions. The missing fifth panel belongs to the odd-position stream. In the odd stream there is no large inner square, there is one grey circle, and the small outlined side square sits on the left edge. The upward arrow and circle arrangement must continue in that same stream. Option A is the only answer that satisfies all of those constraints together.
Strongest distractor: Option D preserves part of the circle logic but places the side marker on the right, which breaks the odd-position pattern.
Which triangular response completes the diagram?
Answer and complete explanation
- X–O arrangement
- —OX arrangement
- —XO arrangement
- OX— arrangement
- O–X arrangement
Correct answer: E — O–X arrangement.
Worked explanation: Read the figure quadrant by quadrant. Each completed triangle combines information from the outer corner symbols and expresses it as an ordered internal sequence. When you compare the three completed quadrants, the missing upper-right sector must place the symbols in the order O, dash, X. That makes option E the only consistent response.
Strongest distractor: Option D is tempting because it starts with O, but it places the dash at the end instead of in the middle.
Which symbol completes the matrix?
Answer and complete explanation
- Three vertical lines
- Two vertical lines
- Three horizontal lines
- Two horizontal lines
- One vertical line
Correct answer: A — Three vertical lines.
Worked explanation: Analyse the matrix by columns rather than by rows. In each column, the top cell determines the vertical-line contribution. The middle cell contributes horizontal lines after a 90-degree rotation. In the third column, the final combined cell shows two vertical and three horizontal lines. Since the horizontal part comes from the rotated middle cell, the missing middle-right item must be three vertical lines before rotation. Therefore option A is correct.
Strongest distractor: Option B focuses only on the visible two vertical lines in the final cell and ignores that the middle cell contributes the horizontal component after rotation.
Finish with These Easy SHL-Style Inductive Tests
End the free practice with three simpler questions covering rotation, a basic matrix and a mobile-friendly drag-and-drop movement rule.
Which figure comes next in the sequence?
Answer and complete explanation
- Outline triangle pointing left
- Filled triangle pointing up
- Outline triangle pointing right
- Filled triangle pointing left
Correct answer: D — Filled triangle pointing left.
Worked explanation: The triangle rotates 90 degrees clockwise in every step. At the same time, fill alternates outline, filled, outline, filled. Both rules must be satisfied.
Strongest distractor: Option A has the correct direction but ignores the alternating fill rule.
Which figure completes the lower-right cell?
Answer and complete explanation
- Outline circle
- Filled triangle
- Filled square
- Outline square
Correct answer: C — Filled square.
Worked explanation: Moving from left to right changes circle into square. Moving from top to bottom changes outline into filled. The missing cell must satisfy both relationships.
Strongest distractor: Option D follows the row rule but fails the column fill rule.
Drag the panel that completes the clockwise movement rule
Answer and complete explanation
- Marker at top-right
- Marker at bottom-left
- Marker at centre
- Marker at bottom-right
Correct answer: B — Marker at bottom-left.
Worked explanation: The marker visits the four corners clockwise: top-left, top-right, bottom-right, bottom-left.
Strongest distractor: Option D repeats the previous position instead of continuing the cycle.
Practice score: 0 / 8.
What the Complete ReasoningCampus Package Includes
The free questions above introduce the solving approach. The complete programme gives you a progressive practice route for building accuracy, recognising recurring rule families and maintaining your method under realistic time pressure.
Inductive-Reasoning Practice
- visual sequences and transformations;
- matrix-completion questions;
- counting, movement, rotation and fill rules;
- dependency and multi-rule patterns;
- answer-choice elimination;
- easy, intermediate, advanced and extreme practice.
Complete Reasoning Preparation
- inductive reasoning;
- numerical reasoning;
- verbal reasoning;
- deductive reasoning;
- worked explanations and strategy guidance;
- English-language online preparation.
How Each Exercise Helps
- identify the tested rule family;
- separate relevant from irrelevant visual features;
- understand why the correct answer works;
- recognise why the strongest distractor fails;
- transfer the same reasoning to a new diagram;
- build speed without replacing accuracy with guessing.
Your Recommended Practice Route
- Learn the common question formats.
- Practise one pattern family at a time.
- Review every worked explanation.
- Repeat weak categories.
- Add timed sets after the method is stable.
- Finish with mixed practice and mock-test conditions.
Approach unfamiliar diagrams in a fixed order rather than scanning randomly.
Use wrong-answer analysis to identify the rule or feature you overlooked.
Move from clear single-rule questions to denser multi-rule visual problems.
Combine inductive practice with numerical, verbal and deductive reasoning.
Two Worked Visual Examples
Study the diagram first, form your own rule and then compare it with the complete explanation.
Triangle and Circle Dependency Pattern
One visual zone controls the colour distribution in another zone.
The upper and lower zones repeat the same black-to-white distribution.
Each filled circle produces a filled triangle and each outline circle produces an outline triangle.
E — three filled triangles and one outline triangle.
Read the complete explanation
- Separate every panel into an upper circle zone and a lower triangle zone.
- Count filled and outline circles independently.
- Compare that count with the triangles directly below.
- The distribution is preserved in both completed panels.
- The target therefore needs three filled triangles and one outline triangle.
Why option D fails: it copies only the filled shapes and ignores the outline circle.
Lines, Circles and Squares Matrix
The number of connecting lines controls the number of filled circles.
The square is only a frame. The active features are the horizontal lines and filled circles.
The number of horizontal lines equals the number of filled circles.
A — three lines and three filled circles.
Read the complete explanation
- Ignore the outer square temporarily.
- Count the lines and circles in each completed panel.
- The first panel contains one of each; the second contains two of each.
- The missing panel must therefore contain three lines and three filled circles.
Why option B fails: it contains three circles but only two lines, so it preserves only half of the relationship.
What to Do After the Questions
Your score matters less than the reason behind each mistake. Use the sequence below to turn every question into a reusable skill.
Identify the rule family
Was the question testing count, movement, rotation, matrix logic or dependency?
Explain the complete rule
State the rule in one sentence and verify it against every panel or matrix cell.
Review the distractor
Record which partial rule made the wrong answer look attractive.
Add time pressure gradually
Move from untimed accuracy to short timed sets and then to a complete mock test.
- mixed sequences and matrices;
- complete worked explanations;
- wrong-answer analysis;
- targeted repetition of weak rule families;
- timed practice after accuracy becomes stable.
Understand the Test
Build a reliable mental model of the assessment before studying advanced rules or adding time pressure.
Complete SHL Inductive Reasoning Knowledge Hub, Practice Page and Trust Resource
The SHL Inductive Reasoning Test is a cognitive-ability assessment used in recruitment to measure how well a candidate can identify hidden visual rules, infer patterns and apply those rules to unfamiliar information.
Most candidates do not struggle because they are “bad at logic”. They struggle because they inspect the figures in the wrong order, miss visual dependencies, choose visually similar distractors or fail to test a proposed rule across the complete pattern.
ReasoningCampus teaches SHL-style inductive reasoning through a structured learning system: the OSCC-VEC Method, the ReasoningCampus Pattern Classification System, the ReasoningCampus Difficulty Index, the Error Taxonomy and a step-by-step visual-search process.
What This Page Helps You Learn
- what SHL-style inductive reasoning measures;
- how interactive and non-interactive formats differ;
- how inductive reasoning differs from deductive, numerical and verbal reasoning;
- why candidates misidentify visual rules;
- how to apply the eight-step OSCC-VEC Method;
- how to classify patterns using RC pattern codes;
- how to estimate training difficulty using the RCDI scale;
- how to review mistakes through the ReasoningCampus Error Taxonomy;
- how to progress from beginner practice to mixed timed mock tests.
Foundation: What SHL Inductive Reasoning Measures
What Is the SHL Inductive Reasoning Test?
The SHL Inductive Reasoning Test is a pre-employment reasoning assessment. It usually presents non-verbal information such as shapes, symbols, lines, grids, colours, rotations or matrices. Your task is to infer the hidden rule and select the answer that completes the pattern.
Inductive reasoning is different from memorisation. You are not asked to recall facts. You are asked to infer a probable rule from the evidence shown.
Common SHL-style tasks include:
- completing a sequence
- filling a missing matrix cell
- identifying the next figure
- detecting a visual relationship
- solving a diagrammatic pattern
- completing an interactive reasoning task.
SHL Direct describes inductive reasoning examples as tasks where the candidate must identify the underlying pattern in the information shown.
Who Should Use This Guide?
This guide is for candidates preparing for:
- SHL Inductive Reasoning
- SHL Verify G+
- SHL-style abstract reasoning
- diagrammatic reasoning tests
- non-verbal reasoning tests
- graduate programme assessments
- internship assessments
- management trainee tests
- online psychometric assessments
- assessment centre screening.
It is especially useful for candidates applying to roles in consulting, finance, technology, engineering, energy, operations, public sector recruitment, aviation, pharmaceuticals and graduate schemes.
Important Independence Notice
ReasoningCampus provides independent SHL-style practice and learning resources.
The purpose of this page is educational: to help candidates build the pattern recognition, visual reasoning and timed problem-solving skills commonly required in SHL-style inductive reasoning assessments.
How SHL Inductive Reasoning Fits Into Recruitment
Inductive reasoning is part of a wider assessment ecosystem.
- Employment Assessment
- Psychometric Assessment
- Cognitive Ability Test
- Reasoning Test
- Inductive Reasoning
- Abstract / Diagrammatic / Figural Reasoning
- Matrix, Sequence, Analogy, Dependency and Interactive Pattern Tasks
SHL’s Verify G+ Ability Test Report page describes the report as providing an overall General Ability score alongside scores on Numerical, Deductive and Inductive Reasoning.
Candidate Journey
A typical recruitment journey may look like this:
- Application
- Assessment invitation
- Practice or familiarisation questions
- Timed online assessment
- Candidate report or recruiter review
- Shortlisting decision
- Interview
- Assessment centre
- Final decision
Not every employer uses the same process. The test version, timing, scoring and weighting depend on the employer, role and assessment setup.
Key Takeaways
- SHL inductive reasoning tests hidden pattern recognition.
- Candidates must infer rules, not recall facts.
- Scores may be interpreted relative to comparison groups.
- Preparation should focus on transferable reasoning skills, not memorising example answers.
- Your assessment invitation is always the source of truth for timing, format and instructions.
What to Expect on the SHL Inductive Reasoning Test
Candidates may encounter SHL-style inductive reasoning in different formats depending on the employer, role, assessment platform and test invitation.
The exact structure can vary, but most SHL-style inductive reasoning questions test the same core skill: identifying a hidden visual rule and applying it quickly.
Main SHL-Style Inductive Test Formats
| Format | What You Usually Do | Main Candidate Challenge |
|---|---|---|
| Interactive inductive reasoning | Click, drag, connect or manipulate visual elements | Understanding the task quickly before solving |
| Non-interactive inductive reasoning | Choose the correct option from multiple answers | Fast rule detection and elimination |
| Matrix completion | Select the missing figure in a grid | Row and column verification |
| Sequence completion | Choose the next or missing figure in a sequence | Tracking progression, movement and transformation |
| Diagrammatic reasoning | Interpret relationships between symbols or figures | Mapping rules and dependencies |
| Legacy-style logical / inductive questions | Solve classic abstract or figural patterns | Recognising older pattern formats |
Interactive vs Non-Interactive SHL-Style Questions
Interactive questions require the candidate to do something on screen. This may involve dragging, connecting, selecting or manipulating visual elements.
Non-interactive questions are usually closer to classic multiple-choice abstract reasoning. The candidate selects one answer from several options.
SHL Direct provides practice tests and candidate-facing example questions, which can help candidates become familiar with assessment styles before taking a real test.
Candidate Note
Always check the exact instructions in your assessment invitation. The test name, timing, number of questions and interaction style may vary depending on the employer and assessment setup.
The safest preparation strategy is not to memorise one format. It is to train the underlying reasoning skill: pattern recognition, rule testing, feature separation and timed elimination.
SHL Inductive vs Deductive vs Numerical Reasoning
Many candidates confuse inductive, deductive and numerical reasoning because they may appear in the same assessment ecosystem.
They test different thinking skills.
| Reasoning Type | What It Tests | Typical Format | Main Skill |
|---|---|---|---|
| Inductive reasoning | Inferring a hidden rule from examples | Shapes, symbols, sequences, matrices | Pattern recognition |
| Deductive reasoning | Applying given rules to reach a logical conclusion | Rules, statements, logical conditions | Rule application |
| Numerical reasoning | Interpreting numerical data | Tables, charts, percentages, ratios | Data interpretation |
| Verbal reasoning | Evaluating written information | Passages and statements | Evidence-based reading |
| Diagrammatic reasoning | Understanding visual relationships | Symbols, flows, diagrams | Relationship mapping |
| Abstract reasoning | Solving non-verbal visual patterns | Shapes and transformations | Visual logic |
Simple Difference
Inductive reasoning asks:
“What rule can I infer from what I see?”
Deductive reasoning asks:
“What conclusion follows from the rules I am given?”
Numerical reasoning asks:
“What does the data show?”
This distinction matters because many candidates practise the wrong skill. A candidate who is strong in verbal reasoning may still struggle with inductive reasoning if they have not trained visual rule detection.
SHL Verify G+ and Test Formats
SHL’s Verify G+ product factsheet describes Verify G+ as measuring three types of ability: Numerical, Deductive and Inductive. The factsheet states that the test has 30 questions, with 10 questions for each of the three abilities measured.
This means candidates may encounter inductive reasoning as part of a broader general ability assessment, depending on the employer and assessment setup.
SHL Verify G+ Style Reasoning
SHL Verify G+ style reasoning may include:
- numerical reasoning
- deductive reasoning
- inductive reasoning
- mixed cognitive ability tasks
- timed online assessment conditions.
Interactive SHL Verify G+ Style Reasoning
Interactive SHL-style reasoning can feel harder than classic multiple-choice reasoning because the candidate must first understand what action is required.
Instead of only selecting an answer, the candidate may need to:
- drag a line
- complete a sequence
- connect visual elements
- click or manipulate parts of the screen
- understand a dynamic rule
- remember how elements behave.
Why Interactive Questions Feel Harder
Interactive questions add an extra layer of difficulty.
The candidate must solve two problems:
- What does the task want me to do?
- What is the hidden reasoning rule?
- This is why interactive reasoning practice should train both task comprehension and pattern recognition.
ReasoningCampus Strategy for Interactive Questions
For interactive SHL-style questions, use this order:
- Read the instruction carefully.
- Identify what action is required.
- Ignore unnecessary visual noise.
- Find the rule family.
- Complete the action.
- Check that the result follows the rule.
Non-Interactive SHL Inductive Reasoning
Non-interactive SHL-style inductive reasoning is usually closer to classic multiple-choice abstract reasoning.
The candidate sees a sequence, matrix or visual pattern and selects the correct answer from several options.
Main Non-Interactive Question Types
- next figure in a sequence
- missing figure in a matrix
- pattern completion
- odd one out
- visual analogy
- diagrammatic relationship.
Why Non-Interactive Questions Are Still Difficult
They may look simpler because you only click an answer, but the distractors can be very strong.
A wrong answer may:
- match the shape but not the colour
- match the count but not the position
- match the row but not the column
- match one rule but break another
- look visually close but fail the dependency.
Legacy / CEB-Style Logical-Inductive Formats
Candidates may also see online references to older CEB/SHL logical or inductive reasoning formats. These references can be useful for understanding classic abstract reasoning patterns, but your current employer invitation should always be treated as the most reliable source for the actual test format.
SHL has also announced the retirement of some legacy Verify tests, which is why candidates should rely on their current assessment invitation and current SHL product information rather than older online descriptions.
Why Official Practice Alone May Not Be Enough
Official practice is useful because it helps candidates understand the test environment, instructions and general style.
However, many candidates need more than a few familiarisation questions.
Official SHL practice pages are useful for understanding the assessment environment and seeing candidate-facing examples, but structured preparation helps candidates go beyond exposure and learn how to recognise, classify and solve rule families.
Structured preparation helps you understand:
- why the correct answer is correct
- why the wrong answers are wrong
- which rule family is being tested
- which mistakes you repeat
- which pattern types take you too long
- how to improve under timed conditions.
The Difference Between Familiarisation and Training
| Practice Type | Main Purpose |
|---|---|
| Familiarisation practice | Understand the test style and interface |
| Skill training | Learn rule families and solving methods |
| Timed mock testing | Build speed and assessment readiness |
| Error review | Fix repeated mistakes |
| Pattern classification | Understand the structure behind questions |
ReasoningCampus focuses on training, not just exposure.
The aim is not to show candidates a few examples. The aim is to help them build a repeatable solving system.
SHL Inductive Reasoning Scores Explained
Candidates often want to know what score they need.
The answer depends on the employer, role, comparison group and assessment process. SHL’s ability report materials describe reporting that includes overall General Ability as well as Numerical, Deductive and Inductive Reasoning results.
What This Means Practically
A candidate should not prepare only to “get a few questions right”.
The real goal is to become consistent across unfamiliar questions under time pressure.
How to Think About Performance
| Candidate Level | Typical Behaviour |
|---|---|
| Weak preparation | Guesses based on visual similarity |
| Basic preparation | Solves simple count and rotation rules |
| Good preparation | Recognises common pattern families |
| Strong preparation | Handles matrices, dependencies and distractors |
| Assessment-ready preparation | Applies a consistent method under time pressure |
Important Note
Learn the Solving Method
Move from random visual inspection to a repeatable process for isolating, testing and confirming the rule.
Strategy & Preparation Tips
Isolate One Element at a Time
Do not process the whole diagram as one object. Track one feature—shape, line, fill, position, count or rotation—identify its rule, eliminate options that violate it and then move to the next feature.
Work Backwards Through Elimination
Once one rule is confirmed, remove every answer that breaks it. Elimination reduces working- memory load and prevents a visually attractive but incomplete option from surviving.
Expect Multiple Overlapping Rules
Harder questions often combine two or three simultaneous transformations, such as rotation plus fill, count plus position, or movement plus a changing polygon.
Practise Under Real Assessment Conditions
Build accuracy without time pressure first. Then use the timing and navigation rules stated in your own assessment invitation, because test length and configuration can vary.
Common Patterns to Track
To solve visual puzzles under time pressure, focus on how each feature changes from one panel, cell or zone to the next.
Rotation
Check clockwise or anticlockwise movement and test likely angles such as 45°, 90° and 180°.
Movement & Position
Track a symbol through corners, rows, columns, diagonals, circular paths or alternating sides.
Shading & Colour
Look for alternating fill, colour-dependent actions, inversion, solid/outline cycles or category-specific counts.
Shape Counting
Count sides, objects, intersections and filled versus empty elements separately.
Frequency & Alternation
Test whether a transformation repeats every second, third or fourth frame or resets after a cycle.
Dependencies
Ask whether one feature controls another—for example, colour controlling movement or dot count controlling lines.
Theory: How Inductive Reasoning Works
Inductive Reasoning Knowledge Graph
- Inductive Reasoning
- → Abstract Reasoning
- → Diagrammatic Reasoning
- → Non-Verbal Reasoning
- → Figural Reasoning
- → Visual Reasoning
- → Pattern Recognition
- → Fluid Reasoning
- → Cognitive Ability
- → Psychometric Assessment
- → Online Recruitment
- → Graduate Assessment
- → Assessment Centre
This semantic layer matters because candidates and employers use different terms for related reasoning skills. A candidate searching for “diagrammatic reasoning test”, “abstract reasoning assessment” or “SHL inductive reasoning practice” may be preparing for very similar underlying skills.
Cognitive Science Behind Inductive Reasoning
Inductive reasoning feels difficult because it activates several cognitive systems at the same time.
Working Memory Working memory helps you hold and manipulate information temporarily. In an SHL-style matrix, you may need to remember the number of black circles, movement direction, row logic, column logic and answer options at the same time.
Research has found a strong relationship between working memory and fluid intelligence, although the exact nature of that relationship remains debated.
Selective Attention Selective attention helps you focus on relevant visual features and ignore distractors. In abstract reasoning, the most visible feature is not always the rule.
Executive Function Executive functions support control processes such as switching strategies, inhibiting premature answers and managing novel tasks. Research on executive functions describes them as supporting activities such as thinking before acting, handling novel challenges, resisting distractions and staying focused.
Visual Search Visual search is the ability to scan the image efficiently. A candidate may understand the logic but still solve slowly if their eyes move randomly across the figure.
Why Candidates Misidentify the Rule
Candidates usually misidentify rules for five reasons:
- They notice the most visually obvious feature first.
- They stop after finding one partial rule.
- They do not separate black, white, filled and empty objects.
- They ignore row-column verification in matrices.
- They choose the answer that looks closest rather than the answer that follows the rule.
Concept Card: Dependency Rule
Definition
A dependency rule exists when one visual feature controls another visual feature.
Visual Indicators
- one area appears to “code” another area
- the number of one object matches the number of another object
- lines correspond to active shapes
- colour controls movement
- position controls fill.
Difficulty
Usually moderate to advanced.
Typical Errors
Candidates often treat all features as independent and miss the controlling relationship.
Related Rules
- RC-801 Count Controls Lines
- RC-805 Top Zone Controls Bottom Zone
- RC-610 Matrix Transformation
- Visual Complexity VC-5 to VC-7
Concept Card: Matrix Operator
Definition
A matrix operator is a rule that explains how rows, columns or cells interact in a grid.
Visual Indicators
- each row follows a pattern
- each column follows a pattern
- two cells combine to produce a third
- repeated elements disappear
- each row or column contains a fixed distribution.
Difficulty
Usually intermediate to advanced.
Typical Errors
Candidates solve a row but forget to verify the column.
Related Rules
- RC-601 Row Addition
- RC-606 Column Distribution
- RC-607 Third Cell Combination
- RC-703 Cancellation
Key Takeaways
- Inductive reasoning is not only visual; it also uses working memory, attention and executive control.
- Many mistakes happen because candidates stop after one incomplete rule.
- Dependency and matrix rules are often harder because they require relationship tracking.
- A strong candidate checks both visible features and hidden relationships.
Methodology: The ReasoningCampus System
The ReasoningCampus Method
The ReasoningCampus Method is our step-by-step approach for solving SHL-style inductive reasoning questions.
We call it the OSCC-VEC Method:
Observe → Separate → Count → Compare → Connect → Verify → Eliminate → Confirm
Step 1: Observe
Identify the question format.
Ask:
- Is it a sequence?
- Is it a matrix?
- Is it an analogy?
- Is it an odd-one-out question?
- Is it interactive?
- Is the missing item at the end, middle or inside a grid?
Step 2: Separate
Break the figure into features.
Separate:
- shape type
- number of objects
- colour or fill
- position
- rotation
- size
- connection lines
- symmetry
- row logic
- column logic.
Step 3: Count
Count by category.
Do not count all objects together.
Count:
- black circles
- white circles
- filled shapes
- empty shapes
- lines
- intersections
- triangles
- squares
- repeated objects.
Step 4: Compare
Compare neighbouring figures, rows and columns.
Ask:
- What changes?
- What stays the same?
- Does the rule repeat?
- Does the rule alternate?
- Is one feature increasing while another decreases?
Step 5: Connect
Look for dependencies.
A dependency exists when one feature controls another.
Examples:
- black circles control the number of lines
- top symbols control bottom shapes
- arrow direction controls movement
- number of corners controls number of dots.
Step 6: Verify
Test the rule across the whole question.
- A weak rule works once.
- A strong rule works across the full pattern.
Step 7: Eliminate
Remove options that break a confirmed rule.
Elimination is essential when time is limited.
Step 8: Confirm
Before selecting the answer, confirm it with a second feature.
For example:
- count is correct
- colour is correct
- position is correct
- line relationship is correct.
Visual Search Strategy
Use this eye path when a question looks complex.
For Sequences
- First figure
- Second figure
- Third figure
- Change between figures
- Answer options
- Eliminate options that break the change rule
For Matrices
- Top row
- Second row
- Left column
- Second column
- Missing row/column intersection
- Answer options
- Confirm both row and column logic
For Two-Zone Figures
- Top zone
- Bottom zone
- Left-to-right relationship
- Colour and count relationship
- Answer options
Pattern Recognition Checklist
Before answering, ask:
- Is there a count rule?
- Is there a rotation rule?
- Is there a movement rule?
- Is there a colour or fill rule?
- Is there a symmetry rule?
- Is there a line or connector rule?
- Is there a matrix row rule?
- Is there a matrix column rule?
- Is one feature controlling another?
- Can I eliminate at least two options?
- Does my answer satisfy more than one feature?
Question Taxonomy
Pattern families are not the same as question types. A question type is the format. A pattern family is the underlying rule.
| Question Type | What It Asks | Common Pattern Families |
|---|---|---|
| Sequence | What comes next? | Movement, rotation, count, alternation |
| Matrix | What completes the grid? | Row operators, column operators, distribution |
| Odd One Out | Which figure breaks the rule? | Symmetry, count, colour, transformation |
| Analogy | A is to B as C is to ? | Transformation, rotation, substitution |
| Interactive | Complete by clicking or dragging | Sequence, line connection, dynamic rule |
| Grid | Fill a missing cell | Matrix, distribution, row-column logic |
| Dependency | What feature controls another? | Count-line, top-bottom, colour-position |
| Transformation | How does the figure change? | Rotation, reflection, overlay, cancellation |
ReasoningCampus Pattern Classification System
The ReasoningCampus Pattern Classification System assigns RC codes to recurring SHL-style rule families.
This is not an official SHL taxonomy. It is a ReasoningCampus educational system for organising practice.
| Code Range | Pattern Family |
|---|---|
| RC-100 | Counting Rules |
| RC-200 | Movement Rules |
| RC-300 | Rotation Rules |
| RC-400 | Colour and Fill Rules |
| RC-500 | Symmetry and Reflection Rules |
| RC-600 | Matrix Operator Rules |
| RC-700 | Overlay and Boolean Rules |
| RC-800 | Dependency Rules |
| RC-900 | Interactive Reasoning Rules |
| RC-1000 | Compound and Expert Rules |
Pattern Evolution Tree
- Count
- Simple Count
- Dual Count
- Conditional Count
- Dependency Count
- Matrix Count
- Compound Count
- Movement
- Linear Movement
- Circular Movement
- Alternating Movement
- Movement + Colour
- Movement + Rotation
- Conditional Movement
- Rotation
- Single Rotation
- Alternating Rotation
- Nested Rotation
- Double Rotation
- Rotation + Matrix
- Compound Rotation
ReasoningCampus Difficulty Index
The ReasoningCampus Difficulty Index, or RCDI, is a training scale from 1 to 100.
It is not an official SHL score. It is a ReasoningCampus learning tool used to estimate how demanding a question is.
| Factor | Meaning |
|---|---|
| Visual Complexity | How visually dense the item is |
| Rule Complexity | How many rules are active |
| Working Memory Load | How many features must be tracked |
| Time Pressure | How quickly the rule must be found |
| Distractor Strength | How convincing the wrong options are |
| Transfer Difficulty | How hard it is to recognise the rule in a new format |
RCDI Scale
| RCDI Score | Level | Meaning |
|---|---|---|
| 1–15 | Very easy | One obvious rule |
| 16–30 | Easy | One rule with mild distractors |
| 31–45 | Moderate | Two features to track |
| 46–60 | Challenging | Matrix or multi-feature logic |
| 61–75 | Difficult | Dependency or compound rule |
| 76–90 | Very difficult | Several interacting rules |
| 91–100 | Expert | High density, hidden dependency and strong distractors |
Visual Complexity Scale
| Level | Visual Features | Candidate Challenge |
|---|---|---|
| VC-1 | Few objects, one colour | Easy scanning |
| VC-2 | Multiple objects, one main rule | Basic feature tracking |
| VC-3 | Multiple colours or fills | Separate counting |
| VC-4 | Several positions or directions | Movement tracking |
| VC-5 | Lines, connectors or zones | Relationship tracking |
| VC-6 | Matrix with row and column logic | Dual verification |
| VC-7 | Multiple dependencies | High working memory load |
| VC-8 | Compound transformations | Expert-level reasoning |
ReasoningCampus Error Taxonomy
A vague statement such as “I did not see the pattern” is not useful.
At ReasoningCampus, we classify mistakes so candidates know what to fix.
| Error Type | Description | Example |
|---|---|---|
| Visual Error | Missing a visible feature | Ignoring white circles |
| Scanning Error | Looking in the wrong order | Checking options too early |
| Counting Error | Counting the wrong objects | Counting all circles together |
| Dependency Error | Missing a controlling relationship | Lines depend on black circles |
| Inference Error | Inferring too early | Choosing after one observation |
| Matrix Error | Solving only row or column | Ignoring column logic |
| Working Memory Error | Losing track of features | Forgetting the colour rule |
| Distractor Error | Choosing a similar wrong option | Picking the closest-looking figure |
| Strategy Error | Spending too long on one path | Refusing to eliminate |
| Transfer Error | Knowing a rule but missing it in a new form | Failing a rotated version of a familiar rule |
Prerequisite Graph
Before learning matrix operators, you should already know:
- counting
- colour and fill rules
- basic rotation
- position movement
- row comparison
- column comparison
- elimination.
- Before learning dependency rules, you should already know:
- feature separation
- category counting
- line recognition
- zone comparison
- answer verification.
- Before doing timed mixed mock tests, you should already know:
- the main RC pattern families
- the OSCC-VEC Method
- the Pattern Recognition Checklist
- your most common error types.
Key Takeaways
- The OSCC-VEC Method gives candidates a repeatable solving process.
- Pattern codes help organise practice by rule type.
- RCDI separates easy, moderate and advanced items.
- Error taxonomy turns mistakes into targeted practice.
Study the Pattern Library
Use the classification system to connect unfamiliar diagrams with recurring rule families and worked examples.
Practice: Examples, Checklists and Mock Test Strategy
Pattern Database: Core RC Pattern Families
RC-100: Counting Rules
| Code | Pattern |
|---|---|
| RC-101 | Simple count increase |
| RC-102 | Simple count decrease |
| RC-103 | Dual count |
| RC-104 | Nested count |
| RC-105 | Conditional count |
| RC-106 | Alternating count |
| RC-107 | Row count |
| RC-108 | Column count |
| RC-109 | Filled vs empty count |
| RC-110 | Shape-specific count |
RC-200: Movement Rules
| Code | Pattern |
|---|---|
| RC-201 | Linear movement |
| RC-202 | Circular movement |
| RC-203 | Diagonal movement |
| RC-204 | Corner-to-corner movement |
| RC-205 | Alternating movement |
| RC-206 | Two-object movement |
| RC-207 | Opposite-direction movement |
| RC-208 | Step-size movement |
| RC-209 | Hidden position cycle |
| RC-210 | Movement controlled by colour |
RC-300: Rotation Rules
| Code | Pattern |
|---|---|
| RC-301 | 45-degree rotation |
| RC-302 | 90-degree rotation |
| RC-303 | 180-degree rotation |
| RC-304 | Alternating rotation |
| RC-305 | Clockwise rotation |
| RC-306 | Anti-clockwise rotation |
| RC-307 | Double rotation |
| RC-308 | Nested rotation |
| RC-309 | Rotation plus movement |
| RC-310 | Rotation controlled by position |
RC-600: Matrix Operator Rules
| Code | Pattern |
|---|---|
| RC-601 | Row addition |
| RC-602 | Column addition |
| RC-603 | Row subtraction |
| RC-604 | Column subtraction |
| RC-605 | Row distribution |
| RC-606 | Column distribution |
| RC-607 | Third cell combination |
| RC-608 | Missing-set completion |
| RC-609 | Row-column intersection |
| RC-610 | Matrix transformation |
RC-800: Dependency Rules
| Code | Pattern |
|---|---|
| RC-801 | Count controls lines |
| RC-802 | Colour controls movement |
| RC-803 | Shape controls rotation |
| RC-804 | Position controls fill |
| RC-805 | Top zone controls bottom zone |
| RC-806 | Left side controls right side |
| RC-807 | Number of corners controls dots |
| RC-808 | Arrow direction controls sequence |
| RC-809 | Matrix cell controls another cell |
| RC-810 | Dependency plus distractor feature |
- RC-801 Count Controls Lines
- RC-610 Matrix Transformation
- Matrix Operator Rules
Pattern Recognition Checklist
Visual Search Strategy
Mastery Indicators
You have mastered dependency questions if you can:
- identify when one zone controls another
- separate controlling and controlled features
- count by category
- explain why a distractor fails
- transfer the same logic to a new figure.
- You have mastered matrix questions if you can:
- compare rows
- compare columns
- identify the operator
- test the answer in two directions
- avoid choosing an answer that satisfies only one rule.
Key Takeaways
- Worked examples should teach the rule, not just reveal the answer.
- Expert review helps candidates transfer the logic to new questions.
- Every example should connect to a pattern code, difficulty level and error type.
Resources, FAQ and Next Steps
Review the essential study resources, common candidate questions and the best next step for your preparation.
Designed for Clear, Transferable Reasoning
The ReasoningCampus Assessment Editorial Team reviews every worked solution for rule consistency, answer-choice quality, accessibility and practical value.
Resources: Curriculum, Glossary, FAQ and Next Steps
ReasoningCampus Curriculum
Module 1: Foundations of Inductive Reasoning
You learn:
- what inductive reasoning measures
- how SHL-style questions are structured
- how to identify question formats.
- Before continuing, make sure you can:
- Explain the difference between a sequence, a matrix and an analogy question.
Module 2: Visual Feature Separation
You learn to separate:
- shape
- colour
- count
- position
- rotation
- lines
- zones.
- Before continuing, make sure you can:
- List all changing features before choosing an answer.
Module 3: Counting and Colour Rules
You learn:
- simple count
- dual count
- filled vs empty rules
- colour-specific counting.
- Before continuing, make sure you can:
- Count black, white, filled and empty objects separately under time pressure.
Module 4: Movement and Rotation
You learn:
- linear movement
- circular movement
- diagonal movement
- rotation angles
- alternating rotation.
- Before continuing, make sure you can:
- Distinguish movement from rotation.
Module 5: Matrix Reasoning
You learn:
- row operators
- column operators
- distribution
- combination
- cancellation.
- Before continuing, make sure you can:
- Confirm an answer using both row and column logic.
Module 6: Dependency Patterns
You learn:
- feature control
- top-bottom dependency
- line-count dependency
- colour-position dependency.
- Before continuing, make sure you can:
- Identify which feature controls another feature.
Module 7: Timed Mixed Practice
You learn:
- fast scanning
- elimination
- time management
- error review.
- Before continuing, make sure you can:
- Solve mixed questions without abandoning your method.
Learning Path
| Stage | Focus | Main Goal |
|---|---|---|
| Stage 1 | Basic patterns | Stop guessing |
| Stage 2 | Feature separation | See what changes |
| Stage 3 | Rule families | Recognise recurring logic |
| Stage 4 | Matrix logic | Verify row and column rules |
| Stage 5 | Dependencies | Detect controlling features |
| Stage 6 | Timed practice | Solve under pressure |
| Stage 7 | Error review | Fix repeated mistakes |
| Stage 8 | Mock tests | Become assessment-ready |
ReasoningCampus vs Generic Practice
| Feature | Generic Practice | ReasoningCampus Approach |
|---|---|---|
| Random questions | Common | Organised by rule family |
| Explanations | Often short | Step-by-step reasoning |
| Error review | Often absent | Classified by error type |
| Difficulty system | Rare | RCDI 1–100 |
| Pattern taxonomy | Rare | RC Pattern Classification |
| Visual search strategy | Rare | Explicit solving process |
| Matrix logic | Often basic | Row, column and operator focus |
| Dependency rules | Often underexplained | Dedicated training focus |
| Revision system | Usually absent | 30-minute, 2-day and 1-week review |
| Trust approach | Often marketing-led | Transparent methodology and independence notice |
Recommended Internal Links
This page should connect to the wider ReasoningCampus assessment hub.
Recommended internal links:
- SHL Verbal Reasoning Practice
- SHL Numerical Reasoning Practice
- SHL Deductive Reasoning Practice
- SHL Verify G+ Guide
- Abstract Reasoning Practice
- Diagrammatic Reasoning Practice
- Cognitive Ability Tests
- Assessment Centre Preparation
- Free SHL-Style Practice Test
- Matrix Reasoning Examples
- Rotation Pattern Examples
- Dependency Pattern Examples
- Pattern Classification Library
Glossary
| Term | Meaning |
|---|---|
| Abstract reasoning | Reasoning with shapes, symbols or non-verbal patterns |
| Alternation | A rule that switches between states |
| Analogy | A relationship where one pair mirrors another |
| Cognitive ability | Mental ability used to learn, reason and solve problems |
| Dependency | A rule where one feature controls another |
| Diagrammatic reasoning | Reasoning with diagrams and symbolic relationships |
| Distractor | A wrong answer designed to look plausible |
| Error taxonomy | A classification system for mistakes |
| Figural reasoning | Reasoning with visual figures |
| Inductive reasoning | Inferring a rule from examples |
| Matrix | A grid-based reasoning question |
| Pattern family | A group of questions based on the same rule type |
| RCDI | ReasoningCampus Difficulty Index |
| Rotation | A rule involving angle change |
| Sequence | A series of figures following a rule |
| Visual complexity | The density and difficulty of visual information |
| Working memory | Holding and manipulating information in mind |
References
This guide is informed by SHL Direct candidate-facing example and practice materials, including SHL inductive reasoning examples and SHL practice tests.
The SHL Verify G+ discussion is informed by SHL product and report pages describing Numerical, Deductive and Inductive Reasoning in the Verify G+ assessment and reporting structure.
The learning science sections are informed by research on working memory, executive function, spaced learning, interleaving and retrieval practice.
Inductive Reasoning Guides and Official SHL Resources
Use the ReasoningCampus guides for deeper preparation and the official SHL pages for first-party examples, practice information and product updates.
ReasoningCampus In-Depth Guides
Complete SHL Inductive Reasoning Test Guide Test overview, formats, pattern types and candidate preparation. SHL Inductive Test Rules, Patterns and Strategy Rule families, visual dependencies and systematic solving techniques. How to Prepare for SHL Inductive Reasoning Tests A progressive study plan from untimed accuracy to timed practice.Official SHL Resources
SHL Direct Inductive Reasoning Example Questions Official short examples with answer feedback. SHL Direct Practice Tests Official practice-test area for candidates. SHL Practice Tests and Assessment Advice Official candidate guidance and practice information. SHL Verify Inductive-Reasoning Product Update Official information on the move from legacy Verify tests to the interactive assessment.SHL Inductive Reasoning Practice FAQs
What does the SHL Inductive Reasoning Test measure?
It measures the ability to identify hidden patterns, infer rules from abstract information and apply those rules to select the correct response.
Is SHL inductive reasoning the same as abstract reasoning?
They are closely related. SHL-style inductive reasoning commonly uses abstract, diagrammatic, figural and non-verbal information.
What is SHL Verify G+?
Verify Interactive G+ assesses general cognitive ability through Numerical, Deductive and Inductive Reasoning. The exact configuration, timing and question count depend on the current assessment selected by the employer.
What is the ReasoningCampus Method?
It is the eight-step OSCC-VEC process: Observe, Separate, Count, Compare, Connect, Verify, Eliminate and Confirm.
Can I improve my SHL inductive reasoning performance?
Yes. Candidates can improve rule recognition, accuracy and speed through structured pattern-family practice, timed mixed exercises and error review.
What is the hardest part of SHL-style inductive reasoning?
For many candidates, the hardest part is identifying which feature matters while ignoring distractors and incomplete rules.
Are SHL questions repeated?
Do not rely on repeated questions. A safer strategy is to learn transferable rule families that can appear in unfamiliar visual forms.
How should I approach interactive questions?
Identify the required screen action first, then solve the reasoning rule. Do not start dragging, connecting or clicking before you understand the instruction.
Why are matrix questions difficult?
Candidates often confirm a rule across one row but fail to verify the columns. A valid answer must satisfy every relevant relationship.
What should I practise first?
Begin with feature separation, counting, position, movement, rotation and fill. Progress to matrices, dependencies, overlay and compound rules.
What is the ReasoningCampus Difficulty Index?
RCDI is an internal 1–100 training scale based on visual density, rule complexity, working-memory load, distractor strength and transfer difficulty. It is not an official SHL score.
How many exercises are included in the complete package?
The complete preparation package includes 150 targeted inductive-reasoning exercises. This public page contains eight selected free examples: five moderate and three easy.
Does the package include other reasoning categories?
Yes. The complete programme covers inductive, numerical, verbal and deductive reasoning.
How long should I spend on one inductive reasoning question?
During untimed practice, spend enough time to state the complete rule clearly. During timed sets, use an initial scan, test the strongest rule and move on when the question is consuming disproportionate time.
When should I begin timed practice?
Begin timed practice after you can solve the main pattern families accurately without guessing. Timing should strengthen a reliable method, not replace it.
Stop Guessing the Picture. Start Decoding the Rule.
Use the eight free interactive exercises and the complete knowledge hub to learn the method. Continue with the full package for 150 targeted inductive exercises, four difficulty levels, four reasoning categories, worked solutions and unlimited English-language access.
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