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Previous year question hub

Integral Analysis for a Control Volume - Engineering Sciences Previous Year Questions

Practice Integral Analysis for a Control Volume - Engineering Sciences previous year questions organised from real papers, with year-wise coverage and clear topic navigation.

10Papers
10Years
20Questions
1Topics

Integral Analysis for a Control Volume question pattern

Every graph below is calculated only from this selection.

Questions by year

Year-wise coverage for Integral Analysis for a Control Volume. Each bar uses a separate theme-derived color.

Difficulty distribution

How the classified questions are distributed by difficulty.

Medium 14 70%
Easy 6 30%

Question type distribution

MCQ, numerical, multiple-select and other formats found in these papers.

Numerical Answer Type (NAT) 12 60%
MCQ 7 35%
MSQ 1 5%

Subject weightage

Top subjects by unique question coverage.

Engineering Sciences
20 Qs

Most asked topics

Top topics across the included previous year papers.

Integral Analysis for a Control Volume
20 Qs

Subtopic coverage

Top subtopics inside this exact selection.

Reynolds Transport Theorem and Conservation Laws
20 Qs

Paper coverage

Question coverage for the most populated papers. Every active PYP paper remains listed below.

Engineering Sciences (XE) 2026
1 Qs
Engineering Sciences (XE) 2025
2 Qs
Engineering Sciences (XE) 2024
4 Qs
Engineering Sciences (XE) 2022
2 Qs
Engineering Sciences (XE) 2021
3 Qs
Engineering Sciences (XE) 2020
1 Qs
Engineering Sciences (XE) 2019
2 Qs
Engineering Sciences (XE) 2014
1 Qs
Engineering Sciences (XE) 2013
2 Qs
Engineering Sciences (XE) 2012
2 Qs

Browse by subtopics

Open a focused page built from the same verified paper data.

Reynolds Transport Theorem and Conservation Laws

Explore previous-paper coverage, trends and focused practice for Reynolds Transport Theorem and Conservation Laws.

20 questions10 papers10 years

Included previous year papers

Newest papers appear first. Sort by year, question coverage or name.

PaperYear / sessionQuestions in this viewOpen
Engineering Sciences (XE) 202620261View paper
Engineering Sciences (XE) 202520252View paper
Engineering Sciences (XE) 202420244View paper
Engineering Sciences (XE) 202220222View paper
Engineering Sciences (XE) 202120213View paper
Engineering Sciences (XE) 202020201View paper
Engineering Sciences (XE) 201920192View paper
Engineering Sciences (XE) 201420141View paper
Engineering Sciences (XE) 201320132View paper
Engineering Sciences (XE) 201220122View paper

Sample previous year questions

A varied preview from the papers represented in this selection, with every available option.

1
2012 · Engineering Sciences · Integral Analysis for a Control Volume · Reynolds Transport Theorem and Conservation Laws
Engineering Sciences (XE) 2012
The total kinetic energy imparted to the water per second (in kW) by the pump is
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2
2013 · Engineering Sciences · Integral Analysis for a Control Volume · Reynolds Transport Theorem and Conservation Laws
Engineering Sciences (XE) 2013

The magnitude of the force, in kN, required to hold the pipe in place, is

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3
2014 · Engineering Sciences · Integral Analysis for a Control Volume · Reynolds Transport Theorem and Conservation Laws
Engineering Sciences (XE) 2014
A reducing elbow is used to deflect water upward by \(30^{\circ}\) as shown in the figure. The mass flow rate at the inlet is 14 kg/s. Water is entering at a gauge pressure of 200 kPa and exits to the atmosphere. The cross-sectional area is \(113 \text{ cm}^2\) at the inlet and \(7 \text{ cm}^2\) at the exit. Density of water and acceleration due to gravity are 1000 kg/m³ and 10 m/s², respectively. Magnitude of \(x\)-component of the water force on the elbow is ____ N.
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4
2019 · Engineering Sciences · Integral Analysis for a Control Volume · Reynolds Transport Theorem and Conservation Laws
Engineering Sciences (XE) 2019
An incompressible fluid flows past a flat plate as shown in the figure below with a uniform inlet velocity profile u = U and a parabolic exit velocity profile u = U(2η - η²), where u is the component of velocity parallel to the wall, y is the normal distance from the plate and η = y/δ. If the volume flow rate across the top surface of the control volume (CV) is Q = pUδ per unit width (perpendicular to the x-y plane) of the plate, the value of p (rounded off to 2 decimal places) is ______

Question diagram

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5
2020 · Engineering Sciences · Integral Analysis for a Control Volume · Reynolds Transport Theorem and Conservation Laws
Engineering Sciences (XE) 2020
A liquid flow through a horizontal smooth pipe of diameter 5 cm and discharges into a collection tank of dimension 50 cm x 50 cm x 50 cm. Time taken for a 10 cm rise of liquid level in the collection tank is 40 s.

The flow velocity in the pipe is -------- m/s (rounded off to two decimal places).
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6
2021 · Engineering Sciences · Integral Analysis for a Control Volume · Reynolds Transport Theorem and Conservation Laws
Engineering Sciences (XE) 2021
A spherical ball is steadily supported against gravity by an upward air jet as shown in the figure. Take acceleration due to gravity to be \( g = 10\, \text{m/s}^2 \). The mass flow rate of air, reaching the ball, is 0.01 kg/s and the air reaches the ball at an upward velocity of 3 m/s. Neglecting the buoyancy force, and using the principle of integral momentum balance, the mass (in grams, up to one decimal place) of the ball is ____.

Question diagram

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