In this unit students study the engineering principles that are used to explain the physical properties of integrated systems and how they work. Through the application of their knowledge, students design and plan an operational, mechanical-electrotechnology integrated and controlled system. They learn about the technologies used to harness energy sources to provide power for engineered systems.
Area of study 1
Controlled and integrated systems engineering design
Investigate, analyse and use advanced mechanical-electrotechnology integrated and control systems concepts, principles and components, and using selected relevant aspects of the Systems Engineering Process, design, plan and commence construction of an integrated and controlled system.
Outcome tasks:
Continued completion of theory exercise, research tasks and other learning activities outlined bellow. All work to be completed in engineering notebook.
SAT:
Major Project.
A record of investigation, design, planning and production.
AND
Preliminary production work.
End of year exam
Major Project:
You should follow the Systems Engineering process to design, plan, construct and document an integrated system to be completed in Unit 4.
You need to keep a record of design, planning and production and preliminary production work
You should effectively use diagnostic procedures for the system.
The record of design, planning and production should include:
A design brief (student or teacher generated)
Criteria for evaluating the integrated, controlled system
research (background information to produce ideas for the design options such as safety, relevant Australian Standards, conventions, components, materials, processes, component assembly methods, suitability of tools, equipment and machines). Students must accurately cite all sources of information they use
Design alternatives and options. Where relevant, alternative options should be provided and the preferred option should be clearly indicated with justification for its selection
A design plan (drawings, sketches, annotations, diagrams, block diagrams, flow charts) for the configuration, assembly, integration and resourcing of manufactured systems, subsystems and components intended to produce an operational device with a control device
Components and materials list, including sources and cost
A production work plan (including processes, proposed methods of diagnostic testing and a timeline for the manufacture of the integrated system)
A record of progress that may include photographic evidence of production work (e.g. logbook) including decisions made and notes of modifications with justifications.
One product only is to be completed over Units 3 and 4. By the end of Unit 3 the production work should be partially constructed.
By the end of Unit 4, the production work will result in an operational device in the form of an integrated system with a control device, i.e. a system which is a functional integration of a mechanical subsystem (includes pneumatic, hydraulic) and an electrotechnology (electrical/electronic) subsystem (includes microelectronic).
All products must be compliant with safety standards and Australian Standards. Risk assessment and risk management must be addressed throughout the design, construction, testing and operation of the product, which must adhere to safety standards, laws and regulations.
When undertaking diagnostic procedures students need to document (using appropriate technical language)
The purpose of the test
Procedural steps to perform the test including the equipment used
Expected results
Actual results of the test in quantified (numerical) form
Explanation of the results.
Students are also required to evaluate their management of the project and their work practices.
Examples of recommended production activities for the School-assessed Task:
Micro-controlled toys, games, monitoring and control systems (such as remote weather stations)
Electromechanical toys and games
Controlled robot arms and vehicles
Compliant electric bicycles and scooters
Controlled model systems (such as automated model houses)
Model cars, watercraft, robot walkers and aircraft
Controlled sporting equipment and accessories (such as mechanical ball throwers)
Audio equipment with integrating mechanical components (such as iPod-connected amplifiers with some integration of mechanical components).
3D printer kits or DIY CNC equipment
Area of Study 2:
Clean Energy Technologies:
Discuss the advantages and disadvantages of renewable and non-renewable energy sources, and analyse and evaluate the technology used to harness, generate and store non-renewable and renewable energy.
Outcome tasks:
Completion and submission of research tasks, report and presentation.
SAC:
Written report.
50 marks which equates to 10% of overall mark
End of year Exam
Chapter 3:
Take notes on, and ensure you have an understanding of:
Potential energy (gravitational & elastic)
Kinetic
Mechanical
Electrical
Heat
Sound
Radiant (light)
Chemical
Nuclear
Complete Learning activity 3.1
Gain a clear understanding of the issues around the production, transportation, storage and use of renewable and non-renewable energy. Read pages 66-72.
Complete activity 3.3. (page 72)
Coal power explained. (youtube)
Energy Conversion.
Define and describe the factors that determine the efficiency of energy conversion when it come to renewable and non renewable energy.
SAT: Major Project Template