CDR Sample for Electronics Engineer
The demands for Electronics engineer is increasing more than ever. The job scope for electronics engineer is what is attracting engineers to migrate to Australia.
You can get 100% genuine CDR Sample for Electronics Engineer written by our professional and skilled engineering writers. The samples we provide are the report which have already been submitted and positively assessed by the Engineers Australia for Skilled Migration Visa. Please use the sample for reference purpose only and do not copy and paste from the sample.
CDR Report Sample: Electronics Engineer ANZSCO Code: 233411
CDR Sample for Electronics Engineer includes all the necessary reports such as Three Career Episodes, Continuing Professional Development, Summary Statement and Curriculum Vitae.
The Content of the CDR Report Sample is as follows:
- Curriculum Vitae: Resume based on a professional template.
- Continuing Professional Development Sample: CPD Sample clearly explains the author’s Engineering Knowledge- 290 words.
- Electronics Engineer Career Episode Sample – 1:“A Multi-frequency Signal Processing Method for fibre-optic Gyroscopes with Square Wave Modulation”- 1630 words.
- Electronics Engineer Career Episode Sample – 2: “Design and Test of Prototype Attitude Control System as Telescope Stabilizer with Fiber Optic Gyroscopes”- 1515 words.
- Electronics Engineer Career Episode Sample – 3: “High Sped Multiphoton Imaging”- 1540 words.
- Electronics Engineer Summary Statement Sample: Detail explanation of all the competency element- 2012 words.
Electronics Engineer Career Episode Report: Sample 1
Project Name: A Multi-frequency Signal Processing Method for fibre-optic Gyroscopes with Square Wave Modulation
In first Career Episode, the author discusses the project he carried out when he was a university student and was titled “A Multi-frequency Signal Processing Method for fibre-optic Gyroscopes with Square Wave Modulation”. In this project, his roles were:
- To perform a full literature review on existing Fibre optic gyroscope
- To prepare the design of experimental configuration
- To suppress IFOG noises through multi-dimensional quadrature demodulation
- To design combined adaptive filter with optimized control system of IFOG
- To perform several tests on the experimental setup
- To test and analyse the experimental result
Electronics Engineer Career Episode Report: Sample 2
Project Name: Design and Test of Prototype Attitude Control System as Telescope Stabilizer with Fiber Optic Gyroscopes
In the second Career Episode, the author writes in detail about the project entitled “Design and Test of Prototype Attitude Control System as Telescope Stabilizer with Fiber Optic Gyroscopes”. This project was developed with the aim to present it in the 7th International Conference on Sensing Technology, 2013. Some of the important tasks he did on this project are listed as follows:
- To do research in project field and prepare literature review
- To study the use of IFOGs in control system for stabilizer
- To design and develop a attitude control system model
- To design and develop the all- depolarized IFOGs measurement unit
- To achieve lower stability in telescopes using purposed prototype
- To implement multi-dimensional quadrature demodulation
- To establish communication among team members and share related information
Electronics Engineer Career Episode Report: Sample 3
Project Name: High Sped Multiphoton Imaging
In third Career Episode, the author discusses the project he was involved in as a research assistant. The Project name was “High Sped Multiphoton Imaging”. The major task he performed during the project are as follow:
- To conduct online and offline research and gather information on the project field
- To design the schematic diagram of the software PScan 1.0 and analyse the interfacing software
- To design the control parts of microscope and improve the performance of multiphoton microscope
- To achieve the extended field of view of the image using the conjugate galvanometer
- To obtain higher pixel count in the polygon scanning system without increasing the overall acquisition rate