Examination Paper: Technological Maths 2 (MATH6015) - Winter 2008, Exams of Applied Mathematics

An old examination paper from the cork institute of technology for the module technological maths 2 (math6015), which was part of the bachelor of engineering programs in mechanical engineering, biomedical engineering, and building services engineering. Instructions for the exam, the questions, and the required mathematical tables. The questions cover various topics such as differentiation, integration, and optimization.

Typology: Exams

2012/2013

Uploaded on 04/10/2013

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CORK INSTITUTE OF TECHNOLOGY
INSTITIÚID TEICNEOLAÍOCHTA CHORCAÍ
Semester 1 Examinations 2008/09
Module Title: Technological Maths 2
Module Code: MATH6015
School: School of Mechanical & Process Engineering
School of Manufacturing, Biomedical & Facilities Engineering
Programme Title:
Bachelor of Engineering in Mechanical Engineering – Year2
Bachelor of Engineering in Biomedical Engineering – Year2
Bachelor of Engineering in Building Services Engineering – Year2
Programme Code:
EBIME_7_Y2
EBSEN_7_Y2
EMECH_7_Y2
External Examiner(s): Dr. Brendan O’Regan
Internal Examiner(s): Ms M Harley, Mr Gerard O Driscoll
Instructions: Answer Q1 (compulsory – 40 Marks) and 2 other questions
(30 Marks each)
Duration: 2 Hours
Sitting: Winter 2008
Requirements for this examination: Mathematical Tables
Note to Candidates: Please check the Programme Title and the Module Title to ensure that you have
received the correct examination paper.
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CORK INSTITUTE OF TECHNOLOGY

INSTITIÚID TEICNEOLAÍOCHTA CHORCAÍ

Semester 1 Examinations 2008/

Module Title: Technological Maths 2

Module Code: MATH

School: School of Mechanical & Process Engineering

School of Manufacturing, Biomedical & Facilities Engineering

Programme Title:

Bachelor of Engineering in Mechanical Engineering – Year

Bachelor of Engineering in Biomedical Engineering – Year

Bachelor of Engineering in Building Services Engineering – Year

Programme Code:

EBIME_7_Y

EBSEN_7_Y

EMECH_7_Y

External Examiner(s): Dr. Brendan O’Regan

Internal Examiner(s): Ms M Harley, Mr Gerard O Driscoll

Instructions: Answer Q1 (compulsory – 40 Marks) and 2 other questions

(30 Marks each)

Duration: 2 Hours

Sitting: Winter 2008

Requirements for this examination: Mathematical Tables

Note to Candidates: Please check the Programme Title and the Module Title to ensure that you have received the correct examination paper.

Q1a Differentiate from first principles f ( ) x = 2 x^2 − 5 x + 8.

(5 marks)

Q1b If y = 5 e −^4 t^ − 3 e −^2 t , show that

2 2 6 8 0

d y dy y dt dt

(5 marks)

Q1c Find the slope of the tangent line to the function y = 3 x^2 − 8 x + 1 at the point

where x = 2. Hence find the equation of the tangent line. (5 marks)

Q1d The surface area A of a closed cylindrical container is given

by 2

A 2 r r

= π + where r is the radius of the tank.

Determine the radius which will minimise this surface area. (5 marks)

Q1e Evaluate ∫ +

  1. 5

  2. 2

10 sin( 3 t ) 4 cos( 2 t ) dt.

(5 marks)

Q1f Evaluate dx x x

x

1

3

2

( 3 )

(5 marks)

Q1g Determine the total shaded area in the diagram below given that the equation of the

graph is y = x^2 − 4 x + 3.

(5 marks)

Q1h The acceleration of an object is given by 2 t − 5 ms -2where t (s) is the time. Initially the object is 2 m from a point P and has a velocity of 4 ms -1. Find expressions for the object’s velocity and displacement from P at any time t.

Q4a Show that the equation x^2 − e −^3 x = 0 has a solution between x = 0 and x = 1. Use the Newton-Raphson method twice to solve the equation correct to 2 decimal places. (10 marks) Q4b A rectangular sheet of metal having dimensions 18 cm by 8 cm has squares of side x cm removed from each of the four corners and the sides bent upwards to form an open box. Show that the volume of the box is given by V = 4 x^3 − 52 x^2 + 144 x. Determine the maximum possible volume of the box. (10 marks)

Q4c The force F (kN) acting on an object is given by (^2)

F

x

where x cm is the

displacement of the object from a point P. A and B are points 1.5 cm and 5 cm from P respectively_._

Determine (i) the mean force between P and A (ii) the work done by the force in moving the object from A to B stating the units.