Academic Calendar - Fisheries and Marine Institute - Memorial ...
Academic Calendar - Fisheries and Marine Institute - Memorial ...
Academic Calendar - Fisheries and Marine Institute - Memorial ...
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COURSE DESCRIPTIONS<br />
NARC 2209 (Navigation Safety)<br />
This course in navigation safety covers the International<br />
Regulations for Preventing Collisions at Sea with Canadian<br />
modifications as contained in Transport Canada’s Collision<br />
Regulations TP 10739. It includes IMO’s basic watchkeeping<br />
principles <strong>and</strong> recommendations as stated in the STCW’95 Code<br />
sections A-VIII/2 <strong>and</strong> B-VIII/2.<br />
General; Steering <strong>and</strong> Sailing Rules; Lights <strong>and</strong> Shapes;<br />
Sound <strong>and</strong> Light Signals; Exemptions <strong>and</strong> Additional Canadian<br />
Provisions; Positioning <strong>and</strong> Technical Details of Lights <strong>and</strong><br />
Shapes; Additional Signals for Fishing Vessels in Close<br />
Proximity; Technical Details of Sound Signal Appliances; Distress<br />
Signals; STCW’95 St<strong>and</strong>ard Watchkeeping Procedures <strong>and</strong><br />
Practices<br />
Prerequisites - NASC 1204 (Seamanship II), WKTM 1102 (Sea<br />
Phase I)<br />
Duration - 13 weeks<br />
Lectures - 3 hours/week for 13 weeks = 39 hours total<br />
Laboratories - 2 hours/week for 13 weeks = 26 hours total<br />
NARC 3100 (Naval Architecture)<br />
This is an intermediate year course designed for students in the<br />
<strong>Marine</strong> Engineering Diploma of Technology program to prepare<br />
them for Transport Canada examinations as Second <strong>and</strong> Chief<br />
Engineers.<br />
Rudder Construction; Rudder Theory; Resistance, Powering,<br />
<strong>and</strong> Fuel Consumption; Propellers; Tailshafts <strong>and</strong> Propeller<br />
Mountings; Kort Nozzles or Ducted Propellers; Voith Schneider<br />
Propulsion Units; Engine <strong>and</strong> Boiler Rooms; Casings;<br />
Superstructures <strong>and</strong> Deckhouses; Bulwarks <strong>and</strong> Freeing Ports;<br />
Testing of Compartments <strong>and</strong> Tanks; Shipyard Practices; Safety<br />
Related Issues; Insulations; Ventilators, Air Sounding Pipes, <strong>and</strong><br />
Filling Pipes; Tonnage, Freeboard, <strong>and</strong> Hull Markings<br />
Prerequisite - NARC 2101 (Naval Architecture)<br />
Duration - 13 weeks<br />
Lectures - 3 hours/week<br />
NARC 3102 (Ship Design)<br />
This course is designed to introduce students of Naval<br />
Architecture to the concept of rational design, <strong>and</strong> to provide<br />
them with the st<strong>and</strong>ard tools required.<br />
Mission Profile; State of the Art; Proportions; Lines; Hull<br />
Shape Calculations; Preliminary Structural Calculations;<br />
General Arrangement; Powering; Weight Estimate; Electrical<br />
Considerations; Machinery Considerations; Capacities; Trim <strong>and</strong><br />
Stability; Damaged Stability; Regulations; Economic Considerations<br />
Prerequisites - MTPR 3201 (Strength of Materials); ELTK<br />
2104 (Electrotechnology); MREK 2201 (<strong>Marine</strong> Engineering<br />
Knowledge); NARC 2110 (Ship Operations Management)<br />
Duration - 13 weeks<br />
Lectures - 5 hours/week = 65 hours total<br />
Laboratories - 0 hours/week = 0 hours total<br />
NARC 3103 (Ship Structural Design)<br />
This the second of two courses designed to give the student a<br />
working knowledge of the structural calculations involved in the<br />
design of a ship.<br />
Structural Design Considerations; Survey <strong>and</strong> Inspection; Testing<br />
of Compartments <strong>and</strong> Tanks; Drydocking Facilities <strong>and</strong> Docking<br />
Procedures; Launching<br />
Prerequisites - MTPR 3201 (Strength of Materials);<br />
NARC 2207 (Ship Building); NARC 2208 (Ship Building)<br />
Duration - 13 weeks<br />
Lectures - 3 hours/week<br />
Laboratories - 2 hours/week<br />
NARC 3104 (Preliminary Design Project)<br />
This course is designed to give students of Naval Architecture the<br />
opportunity to apply skills learned in preceding courses <strong>and</strong> in the<br />
ship design course, which must be taken concurrently.<br />
Mission Profile; State of the Art; Proportions; Lines; Hull<br />
Shape Calculations; Preliminary Structural Calculations;<br />
General Arrangement; Powering;; Weight Estimate; Electrical<br />
Considerations; Machinery Considerations; Capacities; Trim<br />
<strong>and</strong> Stability; Damaged Stability; Regulations; Economic<br />
Considerations<br />
Prerequisites - MTPR 3201 (Strength of Materials); ELTK<br />
2104 (Electrotechnology); MREK 2201 (<strong>Marine</strong> Engineering<br />
Knowledge); NARC 2110 (Ship Operations Management)<br />
Duration - 13 weeks<br />
Lectures - 0 hours/week = 0 hours total<br />
Laboratories - 5 hours/week = 65 hours total<br />
NARC 3106 (Stability)<br />
This course develops an underst<strong>and</strong>ing of the effect of dynamic<br />
forces on stability <strong>and</strong> studies in detail methods of assessing<br />
damaged ship stability including computer software applications.<br />
Methods of launching are described <strong>and</strong> end launch calculations<br />
performed. The student becomes familiar with Loadline <strong>and</strong><br />
Tonnage regulations <strong>and</strong> their application. Throughout, emphasis<br />
is placed on calculations <strong>and</strong> presentation required by regulatory<br />
agencies.<br />
Dynamic Stability; Subdivision; Damaged Stability; Docking <strong>and</strong><br />
Grounding; Launching; Freeboard; Tonnage<br />
Prerequisite - NARC 2103 (Ship Stability)<br />
Duration - 13 weeks<br />
Lectures - 3 hours/week<br />
Laboratories - 2 hour/week<br />
NARC 3108 (Boat Design - Composite Structure)<br />
The purpose of this course is to provide the student with a basic<br />
knowledge of the materials, processes <strong>and</strong> structural details<br />
involved with the construction of composite boats,. This will<br />
enable the selection of suitable materials <strong>and</strong> fabrication methods<br />
for the design <strong>and</strong> production of Fibre Reinforced Plastic boat<br />
hulls <strong>and</strong> decks. The student will be able to determine structural<br />
scantlings <strong>and</strong> create the appropriate drawings required for<br />
approval by internationally recognized classification societies.<br />
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