All 9 Topics

Grouped into 3 Modules. Every Topic Has a Visual Approach.

Click any module to expand. The golden rule of reasoning: DRAW IT, DON'T THINK IT. Family trees for blood relations, grids for seating, Venn circles for syllogisms. Students who draw solve faster and more accurately than students who reason verbally. Every topic card shows the DIAGRAM METHOD alongside the concept.

01

⭐ Series, Coding-Decoding & Pattern Recognition

Identify patterns, decode rules, classify elements β€” the speed-based reasoning topics

1.1 πŸ”₯ HIGH Coding-Decoding

Letter coding: shift patterns (Aβ†’D = +3 shift for each letter), reverse alphabet coding (A↔Z, B↔Y), mirror coding. Number coding: assign numbers to letters with rules. Symbol-based coding: newer TCS NQT format where symbols replace operations. Alphanumeric coding: mixed letter-number substitution. "If COMPUTER = RFUVQNPC, what is PRINTER?" β€” identify the rule from the example, apply to the new word. 3–5 questions per exam β€” highest individual reasoning topic weightage.

πŸ“‹ Strategy: Write alphabets with position numbers (A=1, B=2...Z=26). Write the EJOTY sequence (E=5, J=10, O=15, T=20, Y=25) for instant position lookup. For shift coding: check the shift on the FIRST letter, verify on the SECOND β€” then apply to all.
1.2 Number & Alphabet Series

Find the pattern and predict the next/missing term. Number series: arithmetic (+3, +5, +7...), geometric (Γ—2, Γ—3...), alternating operations (+2, Γ—3, +2, Γ—3...), difference series (differences between terms form their own pattern), square/cube-based (1, 4, 9, 16...). Alphabet series: skip patterns, alternating vowel-consonant, position-based. Wrong number in series: one number doesn't follow the pattern β€” identify it.

πŸ“‹ Strategy: Write out DIFFERENCES between consecutive terms first. If differences form a pattern β†’ arithmetic/polynomial series. If RATIOS form a pattern β†’ geometric. If neither β†’ check alternating patterns (odd position follows one rule, even position another).
1.3 Odd One Out & Classification

Find the element that doesn't belong to the group. Categories: by type (prime vs composite), by property (all multiples of 3 except one), by pattern (all have same letter structure except one), by meaning (all are fruits except one). Multi-level classification: "All are prime AND less than 20 except one." The trap: there may be TWO possible odd-ones-out β€” choose the one based on the MOST OBVIOUS classification.

πŸ“‹ Strategy: Find what 4 elements SHARE β€” the odd one is what DOESN'T share it. Check: number property (prime/even/multiple) β†’ category (all animals/all cities) β†’ pattern (all have double letters). Try the most basic classification first.
Module weightage: Coding-decoding alone accounts for 3–5 questions per exam β€” the single highest-weightage reasoning topic. Series questions are 2–3 per exam. These are SPEED topics β€” the pattern is either spotted quickly or not. Students who know the EJOTY sequence and common shift patterns solve coding-decoding in 30–45 seconds. Suggested training: 4–5 hours live + 400 practice problems.
02

⭐ Seating Arrangement, Blood Relations & Directions

The diagram-based topics β€” draw it and the answer appears

2.1 πŸ”₯ HIGH Seating Arrangement

Linear arrangement: people in a row, fixed positions, relative positions ("A sits 3rd from left, B sits to the right of A but not adjacent"). Circular arrangement: people around a table, clockwise/anticlockwise orientation. Complex arrangements: 2D grid (floor + position), multi-parameter (person + department + city + age). Set-based questions: 5 clues β†’ one arrangement β†’ 3–5 questions from it. These are HIGH-WEIGHTAGE (3–5 questions as a set) and reward systematic diagramming.

πŸ“‹ Strategy: Fix the MOST CONSTRAINED element first (the person with the most specific position), then place others relative to that anchor. For circular: fix one person's position (removes rotational ambiguity), then build outward. Use βœ“/βœ— grids for multi-parameter problems.
2.2 πŸ”₯ HIGH Blood Relations

"A is the mother of B, B is the brother of C, C is the daughter of D β€” how is A related to D?" Single-statement questions (quick) and multi-statement set-based questions (5 clues β†’ family tree β†’ 3–5 questions). Gender traps: "brother" = male, "sibling" = either, "parent" = either. Generation mapping: identify which generation each person belongs to. The #1 rule: ALWAYS DRAW THE FAMILY TREE. Never try to solve blood relations mentally β€” it's the fastest way to get them wrong.

πŸ“‹ Strategy: Draw a family tree: males on left, females on right (or use β–³ for male, β—‹ for female). Mark generations as rows. Process clues ONE AT A TIME into the tree. After all clues are placed, the answer is VISIBLE in the diagram β€” no reasoning needed.
2.3 Direction Sense

"Start at point A, walk 5km North, turn right, walk 3km, turn left, walk 2km β€” how far from start and in which direction?" Use a coordinate system: North = up, East = right. Track position as (x,y) coordinates. "Turn right" from North = East, from East = South. Distance from start: Pythagorean theorem on final coordinates. Combined problems: blood relation + direction ("A's father's house is 5km south of A's office"). 1–2 questions per exam β€” quick marks for students who use coordinates.

πŸ“‹ Strategy: Draw a coordinate grid. Mark starting point. Process each instruction as movement on the grid: N(↑), S(↓), E(β†’), W(←). Final distance = √((xβ‚‚-x₁)Β² + (yβ‚‚-y₁)Β²). Direction = look at quadrant of final position relative to start.
Module weightage: Seating arrangement is the HIGHEST-WEIGHTAGE reasoning topic β€” 3–5 questions as a SET sharing one arrangement. Blood relations are 2–3 questions per exam. Together these two topics can be 30–40% of the reasoning section. The universal principle: DRAW THE DIAGRAM. Students who draw solve in 60–90 seconds with 90%+ accuracy. Students who reason verbally take 3–4 minutes with 50% accuracy. Suggested training: 5–7 hours live + 500 practice problems.
03

Syllogisms, Puzzles & Advanced Reasoning

Logical deductions, constraint-based puzzles, and visual/spatial reasoning

3.1 πŸ”₯ HIGH Syllogisms & Logical Connectives

"All dogs are animals. Some animals are cats." β†’ What definitely follows? Venn diagram approach: "All A are B" = A circle INSIDE B. "Some A are B" = overlapping circles. "No A are B" = separate circles. Draw ALL possible configurations β†’ check each conclusion against ALL configurations β†’ conclusion follows ONLY if true in EVERY configuration. Complementary pairs: "Either conclusion 1 OR conclusion 2 must follow." Logical connectives: AND, OR, IF-THEN, IF AND ONLY IF truth tables for compound statements.

πŸ“‹ Strategy: ALWAYS use Venn diagrams β€” never reason verbally about "All" and "Some." The key trap: "Some A are B" does NOT mean "Some A are NOT B" β€” "some" includes the possibility of "all." For connectives: write the truth table, check row by row.
3.2 Analytical Puzzles & Constraints

Schedule puzzles: "5 people, 5 days, 5 tasks β€” assign given constraints." Ranking puzzles: "A scored more than B, C scored less than D, D scored more than A..." β†’ determine order. Distribution problems: "Divide 12 items among 3 people given constraints." Truth-teller/liar puzzles. Grid-based logic puzzles. These test STRUCTURED THINKING under pressure β€” systematically eliminate possibilities rather than guess.

πŸ“‹ Strategy: Create a table/grid with ALL possible assignments. Process clues one by one β€” each clue ELIMINATES some possibilities. After all clues: remaining possibilities = answer. Never try to build the answer directly β€” eliminate what's impossible.
3.3 Symboperation, Ranking & Input-Output

Symboperation: symbols represent mathematical operations or relationships (β™  means >, ♣ means <). Apply to statements and determine relationship. Ranking: "A is 5th from top, B is 8th from bottom, total = 15" β†’ find A's rank from bottom, B's from top, or if A and B are the same person. Input-output: a machine applies rules to input numbers/words β†’ track through steps β†’ predict output at step N. Each type has a FIXED approach β€” learn the pattern, don't re-derive each time.

πŸ“‹ Strategy: For symboperations: write the symbol meanings as a legend, then substitute and evaluate mechanically. For ranking: draw a number line with positions marked. For input-output: track each element through each step in a table β€” row per step, column per element.
3.4 Visual, Spatial & Abstract Reasoning

Figure series: identify the pattern in shapes/rotations/transformations β†’ predict next figure. Mirror images and water reflections. Paper folding: fold paper, punch hole β†’ how many holes and where when unfolded? Cube views: given unfolded cube β†’ which 3D arrangement is possible? Dice questions: opposite faces, adjacent faces. Non-verbal patterns: rotation, addition/deletion of elements, shading patterns. These appear on Capgemini game-based assessments and some TCS NQT formats.

πŸ“‹ Strategy: For figure series: check EACH element separately (does the shape rotate? does it change size? does shading alternate?). For paper folding: trace the fold, mark the hole, then unfold symmetrically. For dice: use the "L-rule" β€” elements on an L-shaped arrangement can be on adjacent faces.
Module weightage: Syllogisms appear on EVERY placement exam (2–3 questions) β€” Venn diagram method guarantees accuracy. Analytical puzzles are 2–3 questions and test the structured thinking product companies value. Visual/spatial reasoning appears on Capgemini and some Accenture formats. Together these topics cover 30–40% of reasoning sections. Suggested training: 5–7 hours live + 400 practice problems.
How This Module Is Delivered

See the Approach Live. Practice Under Time Pressure. Build the Instinct.

Live Diagram-First Sessions

Trainers solve problems live using the VISUAL METHOD β€” family trees, Venn circles, coordinate grids, elimination tables. Students SEE the approach before practising it. "Here's the problem β†’ here's the diagram I draw β†’ here's how the answer appears in the diagram." The process is the lesson.

Timed Practice Sets

After every topic: 20-question timed set. Speed targets: 90 seconds per standalone question, 10 minutes per 5-question set. The timer forces students to DRAW instead of overthink β€” because drawing is faster. Weekly improvement tracked on the platform.

Reasoning Mock Tests

Full-length reasoning mock tests in company formats: TCS NQT (30 Qs/50 min), Infosys, Wipro. Post-test analytics: accuracy per topic type (coding vs seating vs syllogisms), time per question, where students are slowest. "You're 90% on coding-decoding but 50% on seating" β†’ targeted seating practice.

Daily Puzzle Practice

5 minutes daily: one puzzle (Sudoku, grid logic, constraint problem). Builds the analytical thinking MUSCLE that reasoning questions test β€” the "intuition" that experienced solvers develop. Not exam-pattern practice β€” THINKING practice. The daily habit that makes all reasoning topics easier over time.

What Students Gain

From "I Can't See the Pattern" to "I Drew It and the Answer Appeared"

Diagram-First Instinct for Every Question Type

Blood relations β†’ family tree. Seating β†’ grid/circle. Syllogisms β†’ Venn diagrams. Directions β†’ coordinate grid. Coding β†’ EJOTY + alphabet positions. The trained response: "What diagram do I draw?" instead of "How do I think?" Drawing is faster, more accurate than verbal reasoning.

60–90 Seconds Per Question with 85%+ Accuracy

Coding-decoding: 30–45 seconds (identify shift, apply). Blood relations: 60 seconds (draw tree, read relationship). Seating arrangement: 8–10 minutes per set of 5 questions (2 min/question). Syllogisms: 45 seconds (draw Venn, check conclusions). Speed comes from PROCESS, not intelligence.

Handle Set-Based Questions That Most Students Skip

Seating arrangement sets (3–5 questions sharing one arrangement) are the HIGHEST-VALUE questions on any reasoning section β€” but most students skip them because they look complex. The grid method makes these SYSTEMATIC: 5 minutes to build the arrangement, then each question answers itself from the grid. Students who master sets outscore those who skip them by 10–15 marks.

Know Your Reasoning Profile from Analytics

After 10+ mock tests: "95% on coding (fast pattern recognition), 80% on syllogisms (Venn method mastered), 55% on seating (needs more constraint-elimination practice)." Per-topic accuracy and speed data. Preparation becomes targeted: practice what's weak, maintain what's strong. Data-driven reasoning improvement.