A late addition to the discussion I know, but the Webb Institute might be of interest (especially since you mention cost)
Student Body: 67 undergraduates
Faculty: 11 full-time teaching faculty; the student to faculty is 6:1. There are no teaching assistants at Webb: The faculty are the instructors in both the classrooms and laboratories, and they maintain "open door" policies in support of student success.
Academic program: Our only major, Naval Architecture and Marine Engineering, involves several engineering disciplines, including ship design and systems engineering; marine engineering; electrical engineering; mechanical engineering; and civil/structural engineering. During Winter Work Term, students work in the maritime industry— making us the only private college of naval architecture that provides a salaried work experience during each of the four years of study.
Job placement: Our job placement rate is 100 percent. Graduate- school placement is also high: Change Magazine has ranked Webb fifth in the nation as a source of empirical science Ph.D.s.
Tuition: It’s true: all students admitted to Webb receive a four-year, full tuition scholarship. Fees are limited to room, board, books, and personal expenses.
Student life: Students live on campus, a 26-acre estate with a private beach, and, of course, boats. Webb has a time-tested honor code, and a full range of student activities.
Webb Institute was founded by William H. Webb, the foremost shipbuilder in New York City during the second half of the 19th century. Webb learned the art of shipbuilding from his father, Isaac, and took over his father’s shipping firm in 1840. Over the next 30 years, he designed and built 135 wooden vessels of all types, including fishing schooners, ferry boats, fast-sailing packets, clipper ships, and large ocean-going steamships, as well as ironclad warships for European navies.
As shipbuilders began to replace wooden hulls with iron ones, Webb realized that a formal and detailed shipbuilding education was needed to replace the apprenticeship system that had taught him his trade. In 1894, he opened the Webb Academy and Home for Shipbuilders, with a freshman class of eight students.
We’re bigger now, and the name has changed to Webb Institute, but the essence of the place is the same. We offer the rare opportunity to learn naval architecture and marine engineering in a college setting unencumbered by tuition.
Ship design engineering requires the study of electrical engineering, mechanical engineering (fluid mechanics) and civil/structural engineering, as well as marine engineering, ship design, and systems engineering. Few if any other engineering degrees provide this breadth of engineering education.
First Semester—18.5 semester hours, 21 class hours
Technical Communication — 2 semester hours, 2 class hours
Mathematics I/Calculus I—4 semester hours, 4 class hours
General Chemistry—3.5 semester hours, 4 class hours
Physics I/Elementary Mechanics—3 semester hours, 3 class hours
Engineering Graphics (CAD)—1 semester hour, 2 class hours
Marine Engineering I/Marine Engineering Systems—2 semester hours, 2 class hours
Naval Architecture/ Introduction to Ships and Shipbuilding—3 semester hours, 4 class hours
Second Semester—19 semester hours, 21 class hours
Marine Engineering II/Principles and Equipment—3 semester hours, 3 class hours
Political Philosophy—3 semester hours, 3 class hours
Mathematics II/Calculus II—4 semester hours, 4 class hours
Physics II/Heat, Light, and Sound—3 semester hours, 4 class hours
Materials Science—3 semester hours, 4 class hours
Statics – 3 semester hours, 3 class hours
First Semester—18 semester hours, 21 class hours
Humanities Elective—3 semester hours, 3 class hours
Mathematics III/Differential Equations—3 semester hours, 3 class hours
Numerical Methods and Computer Programming—3 semester hours, 4 class hours
Naval Architecture II/Ship Statics—3 semester hours, 4 class hours
Strength of Materials—3 semester hours, 4 class hours
Dynamics—3 semester hours, 3 class hours
Second Semester—19 semester hours, 20 class hours
Western Literature—3 semester hours, 3 class hours
Mathematics IV/Advanced Engineering Mathematics—4 semester hours, 4 class hours
Physics III/Electricity and Magnetism—3 semester hours, 4 class hours
Fluid Mechanics—3 semester hours, 3 class hours
Marine Engineering III/Machine Design—3 semester hours, 3 class hours
Thermodynamics—3 semester hours, 3 class hours
First Semester — 20.5 semester hours, 23 class hours
American History — 3 semester hours, 3 class hours
Engineering Economics — 1 semester hour, 1 class hour
Probability and Statistics—4 semester hour, 4 class hours
Marine Engineering IV/Machinery Systems Design—4 semester hours, 4 class hours
Electrical Engineering I/Circuits and Electronics—3 semester hours, 4 class hours
Naval Architecture III/Ship Resistance and Propulsion—2.5 semester hours, 3 class hours
Naval Architecture IV/Ship Hydrodynamics—3 semester hours, 4 class hours
Second Semester—17.5 semester hours, 24 class hours
American National Government, 2 semester hours, 2 class hours
Marine Engineering V – Steam Plants, 3 semester hours, 3 class hours
Engineering Laboratory, 3 semester hours, 5 class hours
Electrical Engineering II/Machines and Controls—3 semester hours, 4 class hours
Naval Architecture V/Ship Structures—3 semester hours, 4 class hours
Naval Architecture VI/Ship Design I— 3 semester hours, 5 class hours
Thesis— .5 semester hour, 1 class hour
First Semester—17 semester hours, 22 class hours
Ethics and the Profession—3 semester hours, 3 class hours
Ship Vibrations— 3 semester hours, 3 class hours
Naval Architecture VII/Ship Design II—4 semester hours, 6 class hours
Marine Engineering VI/Marine Diesel and Gas Turbine Plants—4.5 semester hours, 5 class hours
Thesis—2.5 semester hours, 5 class hours
Second Semester—16.5 semester hours, 24 class hours
Professional Presentation—2 semester hours, 2 class hours
Naval Architecture VIII/Ship Design III—3.5 semester hours, 6 class hours
Naval Architecture IX/Propeller Design and Vibrations—3 semester hours, 3 class hours
Naval Architecture X/Marine Transportation—3 semester hours, 3 class hours
Thesis— 3 semester hours, 6 class hours
Senior Seminar—0 semester hours, 2 class hours
Free Elective—2 semester hours, 2 class hours
Naval Architecture I – Introduction to Ships and Shipbuilding
This course presents an overall introduction to the marine industry, including the terminology and the technologies of naval architecture. Graphic techniques, which form the basis for the naval architect’s understanding of ship form and lines drawing, are introduced. The broad spectrum of ship types—from sailing yachts and tugs to mammoth tankers and aircraft carriers, from submarines to air cushion vehicles— are described. Basic principles of hull structure are introduced, and from this a consideration of how to build ships is presented. The final part of the course is a direct preparation for the first winter work period. Two hours of lecture and two hours of lab per week in the first semester, freshman year.
Naval Architecture II - Ship Statics
This introductory course in hydrostatics of ships covers buoyancy, weights, metacenters, and stability at small and large angles of heel and trim. Stability after damage, and hydrostatic considerations in dry-docking and grounding are treated. In the project part of the course, students calculate curves of form for a small vessel, with much of the work done on a computer. Cross curves of stability are also calculated for the same hull form. Two hours of class and two hours of lab per week in the first semester, sophomore year.
Naval Architecture III – Ship Resistance and Propulsion
This course focuses on the components of a ship’s resistance and the effects of important hull parameters, as well as the special problems of bulbous bows and hull appendages. Full-scale prediction of ship resistance by means of model tests, standard series, and regression analyses are examined and criticized. Wake fraction, thrust deduction, and propulsive coefficient are presented and the screw propeller is considered as a propulsion device. Two hours per week of lecture and a two-hour laboratory every other week in the first semester, junior year.
Naval Architecture IV – Ship Hydrodynamics
This course introduces water wave theory. The student applies knowledge of basic mathematics, dynamics, and hydrodynamics to the study of ship performance in the areas of maneuvering and seakeeping. Hydrodynamic theory is developed for foil shapes, and stationary and non-stationary singularity theory leads to strip-theory for ship motion. Rudder design, steering, course keeping, and maneuvering simulation are studied. We examine the response of ships to ocean waves, first to a single wave train and then to a wave spectrum using linear superposition principles. Seakeeping criteria are discussed. Critical vessel responses such as roll, slamming, deck wetness, and impact loads are also treated. Four hours per week in the first semester, junior year.
Naval Architecture V – Ship Structures
The course covers ship structural analysis and design using analytical and finite element techniques. Longitudinal strength of the hull and the design of a midship section are discussed, and we study hull girder bending and torsion in detail. Shear flow in a typical ship cross section is calculated. Bending and buckling of stiffened and unstiffened panels are presented. Concepts of fatigue are discussed and material properties important in structural design are reviewed. Projects are done using analytical as well as finite element methods. Four hours per week in the second semester, junior year.
Naval Architecture VI – Ship Design I
This course introduces the design process—from feasibility to detail. Small teams of students undertake the initial design of a small ship, with the aid of accompanying lectures on various aspects: hull sizing, weights and centers estimation, power prediction, initial stability, space and general arrangements, etc. Students apply the knowledge from previous naval architecture courses, and learn to appreciate the effects on the design process of physical and fiscal restraints, government and classification society regulations, and unique mission requirements. Oral and written design reports are required. The design problem statement for a large, oceangoing ship is developed and initial conceptual sizing is performed. This oceangoing ship design will be developed further in subsequent courses (NA VII, NA VIII, NA IX, and ME VI). One hour of class and four drawing room hours per week in the second semester, junior year.
Naval Architecture VII – Ship Design II
Students continue the preliminary design of a commercial ship to meet the specific set of owner requirements, developing preliminary lines and a general arrangement. Iteration of design decisions and overall ship system synergy are stressed. Damaged condition analysis and seakeeping performance analyses are performed. Two hours of class and four drawing room hours per week in the first semester, senior year.
Naval Architecture VIII – Ship Design III
In this course, students conclude the preliminary design of a ship from the previous semesters. We determine hull girder loads and design a midship section. Structural performance of the hull girder is analyzed. Hydrostatic, classification society, and finite element software will be used in the structural design and analysis. Material selection, structural weight, producibility, and access for inspection and maintenance will be emphasized during the design. Ship production practices are presented. One hour of class and five drawing room hours per week in the second semester, senior year.
Naval Architecture IX – Propeller Design and Vibrations
This course concentrates on the theory and design of the screw propeller for ship propulsion. Lifting line and lifting surface representations are used to design blade sections of a propeller for the ship developed in the preceding ship design courses. Cavitation and blade strength are checked, and the propeller drawing is prepared with the aid of computer graphics. Students consider modes of ship hull vibration, propeller-induced exciting forces, and methods of reducing hull vibrations. Three hours per week in the second semester, senior year.
Naval Architecture X – Marine Transportation
This course gives an overview of marine transportation systems, including tankers, breakbulk, drybulk, and container lines from a business standpoint. The fundamentals of maritime economics and financial management are presented, including a fleet analysis based on the ship design project begun in the Naval Architecture VI course. Case studies and a research paper are the primary learning tools. Management techniques and linear programming are included. Three hours per week in the second semester, senior year.
Marine Engineering I – Marine Engineering Systems
This course provides an overview of the marine engineering systems that support a ship’s mission requirements. These systems include: propulsion, steering, electrical power general and distribution, compressed air, hydraulics, fuel oil, lubricating oil, heating and cooling, cargo handling, and many others. The course includes several field trips to visit ships and marine engineering laboratories. Two hours per week in the first semester, freshman year.
Marine Engineering II – Marine Engineering Principles and Equipment
In this course, the focus shifts from systems to individual components. The principles of energy conversion are introduced. Coverage of components includes diesel engines, boilers, steam and gas turbines, gearing, pumps, heat exchangers, air compressors, piping and valves, etc. The course includes several field trips to visit ships and marine engineering laboratories. Three hours per week in the second semester, freshman year.
Marine Engineering III – Machine Design
This course involves the design of specific machine elements such as shafts, gears, couplings, clutches, brakes, screw fasteners, and joints. It applies the theory from the Strength of Materials course to practical problems in machine design. In addition, dynamic and fatigue analysis are introduced. A team project over the whole semester integrates all elements into the design of a single machine. Three hours per week in the second semester, sophomore year.
Marine Engineering IV – Machinery Systems Design
This course covers the design of shipboard machinery systems, building on the introduction of Marine Engineering II and the students’ examination of systems while on board ships. Students use principles of fluid flow to design pumps, piping and hydraulic systems. An introduction to heat transfer is given, followed by heat exchanger design. The course covers heating, ventilation, and air conditioning design, and the final part of the course introduces monitoring and control systems, using analog/ digital conversions, programmable logic controllers, and feedback controls. Throughout all of the design work students, consider the relevant regulatory requirements. Four hours per week during the first semester, junior year.
Marine Engineering V – Marine Steam Plants
Steam plants are analyzed in principle and practice, beginning with the development of a heat balance. The effects on the balance of alternative criteria and sub-systems are examined. Selected system components are analyzed at various operating conditions. A laboratory experiment and, usually, a ship visit, are included in the course. Three hours of class per week in the second semester, junior year.
Marine Engineering VI – Marine Diesel and Gas Turbine Plants
This course begins with an analysis of diesel machinery. Alternative engines are selected to correlate with the Ship Design course, and auxiliary systems, machinery lists, and arrangement drawings are prepared. We review gas turbine principles, characteristics, and installation aspects, and undertake economic analysis of these and other alternatives. Field trips are included. Five hours per week in the first semester, senior year. http://www.webb-institute.edu/
Glen Cove, NY