
IBPS Clerk Reasoning Ability 2026 is a section where speed and precision are the ultimate differentiators between success and failure. Because the difficulty level is generally moderate, the examination sees exceptionally high cut-off scores, often requiring candidates to attempt nearly every question correctly within the narrow 20-minute window. To help you navigate this high-pressure environment, here we break down the latest paper patterns, identify the high-weightage chapters that guarantee the bulk of your marks, and provide step-by-step solutions to complex puzzles. Whether you are mastering the "only a few" logic in Syllogism or tackling uncertain linear arrangements, this analysis is your roadmap to achieving a top-tier score.
The IBPS Clerk Reasoning section features 35 questions worth 35 marks, to be completed in 20 minutes. While the questions are generally not challenging, the primary hurdle is maintaining speed and accuracy. This leads to high cut-off scores, making efficient problem-solving crucial. A competitive score for selection typically ranges from 29-30+.
For the Clerk-level examination, two chapters stand out due to their significant weightage, demanding focused preparation:
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Strategic Focus on High-Weightage Chapters |
|||
|---|---|---|---|
|
Chapter |
Minimum Questions |
Maximum Questions |
Marks
|
|
Puzzles |
15 |
20 |
15 - 20 |
|
Alphabets |
7 |
12 |
7 - 12 |
Together, these two topics guarantee a minimum of 22 out of 35 marks, highlighting their critical importance. To master Puzzles, candidates can explore resources such as "251 Rules of Puzzles by Sachin Sir" for foundational concepts and "40 Hours Puzzles by Sachin Sir" for comprehensive practice.
Syllogism is a fundamental topic in Reasoning. Understanding the specific interpretations of keywords is vital.
Example 1: Basic Syllogism
Statements:
No Car is a bike.
All planes are bikes.
No Plane is a jet.
Conclusions:
No Plane are Car. โ Correct. (Since all Planes are inside Bike, and no Car can touch Bike, no Plane can be a Car).
No Car is a Jet. โ Incorrect. (A 'some' relationship between Car and Jet is possible, so a definite 'no' conclusion is not certain).
Example 2: "Only a Few" Condition
Statements:
Only a few Plants are roses. (This implies some Plants are roses and some Plants are not roses.)
Only a few Plants are marigolds. (This implies some Plants are marigolds and some Plants are not marigolds.)
Conclusions:
Some Marigolds are Rose is a possibility. โ Correct. (There is no definite relation established, so a possibility is valid.)
Some Marigolds are Rose. โ Incorrect. (This is a definite conclusion, which cannot be inferred directly.)
Example 3: "At Most" and "Can Never Be" Conditions
Statements:
Some pens are tablets.
At most Erasers are pens. (The term "At most" means "Some").
No Tablet is Paper.
Conclusions:
Some Tablets are Eraser is a possibility. โ Correct. (No definite relation exists between Tablet and Eraser; thus, a possibility holds).
All Pens can never be Paper. โ Correct. (The phrase "Allโฆ can never beโฆ" is equivalent to a definite "Someโฆ notโฆ" conclusion. Here, the part of Pen that is Tablet cannot be Paper, making the conclusion true).
This section tests understanding of mixed series involving letters, numbers, and symbols. The Alphabets chapter typically includes 5 questions from a series and 2 from miscellaneous types.
Given Series: R M % C 2 O 9 F 5 @ P $ B P 1 Q U 8 R A # 7 G & 6 X H
Question 1: If all symbols are dropped, which element is 7th to the right of the 17th element from the right end?
Logic: A right-right combination requires subtraction: 17th from Right - 7th from Right = 10th from the Right End.
Answer: Q
Question 2: How many consonants are there that are immediately followed by a number?
Identification: C followed by 2, F followed by 5, G followed by 6.
Answer: 3
Question 3: Complete the sequence: M%C, O9F, $BP,?
Pattern: Within each group, the movement is +2 positions, then -3 positions. The starting element of each subsequent group is 4 positions after the start of the previous group. Applying this pattern from the start of $BP (which is '$'), the next starting element is '1'. Then 1 (+2) โ Q, and Q (-3) โ R.
Answer: 1QR
Question 4: How many numbers are there that are immediately preceded by a symbol?
Answer: None
Question 5: Find the odd one out: R1, P O, F5@, QU1, XFK.
Pattern Analysis: Most elements follow a +1 position, then a -4 position pattern. QU1 follows a +1, then -3 pattern.
Answer: QU1
This type of question involves applying specific operations to a given number and identifying changes.
Question: In the number 9851610254, if all digits are arranged in reverse (descending) order from left to right, how many digits will remain in their original position?
Original Number: 9 8 5 1 6 1 0 2 5 4
Arranged Number: 9 8 6 5 5 4 2 1 1 0
Answer: As observed in the lecture, one digit (the first '9') did not change its position.
Uncertain puzzles require careful case analysis based on definitive clues.
Question: How many bats are there to the right of P?
Approach:
Begin with the most certain condition: P is at one of the extreme ends, creating two main cases.
Incrementally place other elements (N, F, M, J) using conditions like "N is 3rd to the left of F" or "Only 5 bats are between N and P".
Utilize numerical equalities, e.g., "The number of bats between M and P is the same as between N and J," to establish relationships.
Continuously cross-verify with negative constraints like "Not more than 6 bats are between N and J" and "S is not an immediate neighbor of F" to eliminate invalid cases.
Place remaining elements (A, E) to finalize the arrangement.
Final Arrangement (from left to right): J E M S F A N _ _ _ _ _ P
Answer: Since P is at the extreme right end, there are zero bats to its right.
Box stack puzzles involve arranging items vertically based on given conditions.
Question: Which box is kept between D and A?
Approach:
Establish the base structure: Seven boxes stacked from 1 (bottom) to 7 (top).
Start with conditions that provide specific locations or limited possibilities, such as "Box E is on an odd-numbered position" and "Box B is immediately above Box E." This leads to a few initial cases for (E, B) pairs.
Place other boxes like D (two boxes between B and D) and C (two boxes between E and C).
Apply crucial relational conditions like "D is placed above A" and "Not more than one box is between D and A" to narrow down possibilities.
Incorporate fixed placements (G immediately below E) and negative constraints (G is not immediately above F) to eliminate conflicting arrangements.
Final Arrangement (from Top to Bottom):
7: F
6: B
5: D
4: C
3: E
2: G
1: A
Answer: Box C is kept between D and A.
These puzzles involve arranging events or people across different time periods, often months, considering their specific properties (e.g., number of days).
Question: How many people were born between G and C?
Approach:
List the months with their respective days (Jan 31, Mar 31, Apr 30, Jun 30, Sep 30, Oct 31, Nov 30, Dec 31).
Use conditions like "G was born before June" to identify initial possibilities for G.
Place D based on "Two people were born between G and D" and the critical condition "D was born in a month with 30 days," which helps eliminate cases.
Identify and place blocks of consecutive events, such as "The sequence B, F, H were born in consecutive months."
Arrange other individuals like A, E, and C using their relative placement conditions ("One person was born between C and A," "E was born just after A").
Test each possible scenario, and eliminate those that contradict any given condition.
Final Arrangement:
Jan: G
Mar: C
Apr: D
Jun: A
Sep: E
Oct: B
Nov: F
Dec: H
Answer: There are zero people born between G and C.
Circular arrangement puzzles involve arranging individuals around a table, considering their relative positions.
Question: How many employees sit between I and J, when counted from the left of I?
Approach:
Start by drawing an 8-seater circular table.
Place key individuals using conditions that provide relative positions, such as "J is 3rd to the right of I" and "J is 2nd to the left of H." These form the backbone of the arrangement and often lead to two initial cases due to the circular nature.
Use conditions involving neighbors ("I and L are immediate neighbors").
Apply numerical equality constraints, such as "The number of people between H and L is the same as the number of people between J and F," to place F.
Critically, use immediate placement conditions like "K is the immediate left of F" to eliminate one of the initial cases, as one position might already be occupied.
Place M based on "One employee sits between M and K."
The last remaining employee (G) fills the final vacant spot.
Final Arrangement (Partial sequence in one direction): โฆ I, L, M, H, K, F, J, G โฆ
Answer: Counting from the left of I (counter-clockwise), the employees between I and J are L, M, H, K, and F. Thus, there are five employees.