It is a project propasal which is supposed to be done with a group
SEBE-GW from a Macintosh.pdf
SEBE-GW access from a Macintosh
1. Download the Junos Pulse VPN client from
http://www.deakin.edu.au/software/connectivity.php?anchor=securevpn
2. Install the Junos Pulse Client.
3. Every time you want to connect to the remote desktop software you will need to start the
Junos Pulse client and click on the Connect button. This will create a network connection to
the inside of the Deakin network which is required to be able to locate the sebe‐farm server.
4. Got to the Apple store and install the Microsoft Remote Desktop Application.
5. Start the Microsoft Remote Desktop program.
6. Click on the Preferences button and enter the details as below. Replace username with your
Deakin username.
7. Click the New Button and enter the details as below. Make sure to set the Gateway to sebe‐
gw.
8. Click on the Start button to start the remote desktop session.
9. When you are finished running your application make sure that you logout of your remote
desktop session.
Assignments.html
Assessment for SEM313 Manufacturing Technology
Please see the instructions below for using sciencedirect (if you use that database to find journal articles). You should all have free access to the documents.
- Go to library homepage
- Click on “Options”
- Select “A-Z databases”
- Select “ Sciencedirect” from the popular databases list or use this link
- If at home, you will need to log in here with your Deakin credentials [username/password]
- Then you can search and access ScienceDirect content (download PDFs)
Project proposal 1
Project proposal 1 is the report justifying a proposed manufacturing route for a composite panel
- Project details are here - Project proposal 1
- You will require the CES material selection software to undertake the first part of this project. For those without access to a Deakin campus computer, please see instructions below.
We have a remote server now that will allow you to access the CES software from anywhere with an internet connection through a web-browser. To access you must first connect to Junos Pulse.
Link to Deakin eSolutions regarding connecting via Junos (VPN) - link
Then use the following - http://sebe-gw.deakin.edu.au
for you username, you will need the prefix of "du\" before your actual username. So for instance if your username is tim, you would put du\tim in when it requests your username. The password is your usual Deakin password.
For mac users see the attached pdf SEBE-GW from a Macintosh.
Project proposal 2
Project proposal 2 is the report justifying the proposed manufacturing routes for four metal multi-tools
- Project details are here - Project proposal 2
- Nominal compositions of the four prototype materials are here - Nominal compositions
- MULTI-TOOL - details about the currently available multi-tool are here ( SEM313 Multitool), with this video ( Testing of the multi-tool) showing you the tests that were done to obtain this data
- This is a list of some of the equipment available in the Deakin labs ( List of equipment). Please note there are more equipment available - please ask regarding availability if you an unsure on whether a specific process can be carried out at Deakin for the project.
- Since it will be necessary to start working on this project BEFORE the project proposal 1 has been completed, a recommended road-map has beeen created to give you an indication of what stages your group should be up too each week for project 2 - see the details here - Project 2 roadmap
- Dropbox - Project proposal 2 - due thurs 4th September
Oral presentation
The oral presentation is the presentation of the justification for the proposed manufacturing route for project proposal 2. Students will present as a group, but will be marked individually based on their demonstration of understanding of fundamental theory
- Presentations will be schedued during week 9
Project 2 portfolio
Project portfolio 2 includes results and analysis from the manufacturing and testing of the two metal multi-tools in project 2, as well as cost and quality models
Project proposal 1.pdf
Project proposal 1 – Composite manufacturing
SEM313 Due Date – Thursday 7th August 2014
Written reports should be uploaded either as word docs or pdf’s to the appropriate dropbox on DSO.
Introduction
Composites that have continuous-fibre reinforcement in a polymer matrix are an important class of materials used in many applications requiring an excellent stiffness to weight ratio. There are different ways to manufacture a continuous-fibre composite, as well as a different range of both fibre and matrix types that can be used. This assignment is intended to deepen your understanding of the how these materials achieve their mechanical properties and how to manufacture components using these materials to meet quality targets.
Project specifications
In this assignment students will be required to work in groups of 5. Each group will be required to design a processing route to manufacture a continuous-fibre reinforced polymer matrix material that meets a specified set of mechanical property requirements. Initially each team will need to use CES material selection software (level 3) to identify appropriate fibre and matrix types and then use appropriate literature to design a fully-justified manufacturing process route to make a flat panel from that material. The flat panel should have the dimensions 140 mm x 12.5 mm (tolerance of 0.5 mm) and should have a thickness between 4 mm and 5mm. The fibres should be uni-directional and oriented in the longitudinal (140 mm) direction.
While the panel will not be manufactured, the processing route should be designed to ensure that the porosity level in the panel is less than 2% and the panel should not deflect more than 1 mm when the load, F=0.5kN (see formula and diagram below) under four-point bend loading when supported over a 90 mm span (Ltotal). While the panel MUST meet the minimum loading properties, it is advantageous to make your composite as cheap as possible.
Note that 2L1 = L2
Project proposal requirements
While each group will design the material and processing route together, each individual team member will submit their OWN report. Individual reports should be ~ 2000 words and include:
• Calculations that show the material composition (fibre and matrix type and volume fractions) will meet the property specifications, and a justification of why this material composition is the cheapest option
• A clear and detailed flow-chart highlighting each step of the proposed process route • A clear and detailed justification of the conditions/parameters required for each step of the
process using both literature references and fundamental theory • Evidence of the individual student’s contribution to the project proposal (in an appendix) • Individual reflection (~ 250 words – additional to the ~ 2000 word report)) – this should be
an honest individual reflection on how the team interacted and performed (including any negative aspects that need to be fixed for the second project, or any positive aspects need to be reinforced) as well as an assessment on what parts of the proposal you were least confident in and why you are unsure on those aspects (it is often necessary go with the best information available, even when you know it is not perfect – it is also important to recognise when you are doing this so that backup plans can be in place). Note - this reflection should not include other individual team member’s names.
Team members may share raw information sources (such as journal articles); however, reports must be written individually.
Each team will also have a Cloud Deakin group site that they are required to use for the project. ALL information found should be uploaded to the site, including team meeting minutes, details of websites, journal articles or textbook information as they are found, as well as questions or problems encountered by the team. It is up to each individual in the team to PROVE their contribution to the project.
Assessment criteria:
• Accuracy of calculations • Clarity and justification of decision making in material composition and process selection • Clear explanation of the designed processing route and evidence that it will allow the
porosity limit to be met • Demonstration of fundamental knowledge in justifying ALL decisions in process variable
selection (i.e. not just citing a paper or website that used a particular variable, but actually explaining why that exact value was chosen based on material behaviour)
• Appendix containing proof of your individual contribution to the proposal (this can be done in different ways including proof of attendance at team meetings, uploading literature to the group Cloud Deakin site along with a summary of how the literature can be useful, etc.)
• Demonstration of insight in the individual reflection in relation to both an understanding of the limitations of potential uncertainties in the approach taken, as well as in the performance and of the team.
• Quality of written report – structure, grammar and presentation
References should be cited using an approved style and avoiding plagiarism (see link below). This means you are expected to write the assignment in your words, and not use those of the references you find.
http://www.deakin.edu.au/current-students/study-support/study-skills/handouts/refer-plag.php
Note a more detailed marking criteria rubric for the individual reports will be provided on Cloud Deakin
Assignments/Project 2 roadmap.pdf
Project 2 – Manufacture of a metal multi-tool
This is intended as a suggested guide to the important stages in developing the project 2 proposal and the manufacturing and testing of your multi-tools for Project 2 for SEM313.
Trimester week
Recommended Tasks Assessment
2 • Discussions on how the group will be structured and how tasks will be split up among group members
• Discussing/understanding the requirements of the project
• Identifying the material used in the currently available multi-tool
• Identifying important properties that a multi-tool requires
3 • Identifying the four materials to be used for the prototype multi-tools
• Agreeing on target property and surface condition specifications for the four prototype multi-tools
4 • Individual research into hardening mechanisms and manufacturing processes that could be used for obtaining the target specifications for the four prototype multi- tools
5 • Individual research into hardening mechanisms and manufacturing processes that could be used for obtaining the target specifications for the four prototype multi- tools
6 • Finishing and presenting individual research to the group and agreeing upon a final process route for each of the four given materials
7 • Finalising proposal report • Discussions with unit chair to schedule
equipment/technical officers for each
Project 2 proposal due Thursday
processing step for the two multi-tools to be manufactured
8 • Conducting hot working processes for the manufacture of the two selected multi- tools
• Individual research into cost model and quality plan
9 • Conducting cold working processes for the manufacture of the two selected multi- tools
• Individual research into cost model and quality plan
Oral presentation
10 • Conducting heat treatment processes for the manufacture of the two selected multi- tools
• Individual research into cost model and quality plan
11 • Testing and microstructural characterisation of the two manufactured multi-tools
• Individual research into cost model and quality plan
• Finalising project portfolio Project 2 portfolio due
Assignments/SEM313 Multitool.pdf
SEM313 – Pocket/card Muti-tool Test Results
1. Spectroscopy Instrument : SPECTROMAX
Method : Optical Emission Spectroscopy (OES)
Element wt.% Fe 85.8333 Cr 12.5633 Si 0.4163 Mn 0.3510 C 0.3283 Ni 0.1440 N 0.0925 V 0.0622 Cu 0.0421 Nb 0.0168 P 0.0164 Co 0.0161 Zn 0.0135 Mg 0.0134 Sn 0.0080 Ce 0.0060 Al 0.0049 Ti 0.0023 Pb 0.0020 Bi 0.0020 S 0.0018 As 0.0015 Zr 0.0015 Ca 0.0013 La 0.0008
B 0.0003
Fe, 85.83%
Cr, 12.56%
Si, 0.42%
Mn, 0.35% C, 0.33%
Ni, 0.14%
Cu-Mg-Zn etc., 0.36%
Spectroscopy
2. Hardness Test Instrument : Vickers' hardness tester
Load : 1 kg (9.8N)
Dwell : 20sec
Model : Durascan/Struers
Trial 1 2 3 4 5 6 7 Avg.
HVN 672 722 693 692 654 680 692 694
3. Bend test
Instrument : Instron 30kN
Rig : 3-point bend
Speed : 10 mm/sec
Span : 45mm
Sample : l=68mm, w=45mm, t=1.7mm
Peak Load : 1045 N
Max. Ext : 1.76 mm
0
200
400
600
800
1000
1200
0 0.2 0.4 0.6 0.8 1 1.2 1.4 1.6 1.8 2
Lo ad
(N )
Extension (mm)
Bend test on Multi-tool
4. Metallography Instrument : Struers’ Rotopol / Olympus camera (DP71)
Method : OPS polish and 2 % Nital etch
Cross-section Surface
Tool features
1. For cans 2. Knife 3. Flat-head screwdriver. 4. Ruler 5. For bottles 6. Wrench 7. Adjustable wrench 8. Double staggered filing saw 9. Direction recognizer - Compass 10. Positioning wrench 11. Hole for key-ring
Assignments/List of equipment.pdf
List of equipment
1. Big rolling mill
Two-high reversing rolling mill with motor driven aperture adjustment. Cold and hot rolling of most metal samples can be done.
Location: ni1.101
Specifications: Max. Capacity : 200 Tonne Roll Diameters : 350mm Roll Face Width : 450mm Surface speed : 16m/min Max Roll Aperture : 110mm Motor Power : 75kW
2. Small rolling mill
Rolling mill with motor driven aperture adjustment. Cold and hot rolling of most metal samples can be done.
Location: ni1.101
Specifications: Max. Capacity : 50 Tonne Roll Diameters : 200mm Roll Face Width : 180mm Surface speed : 12m/min Max Roll Aperture : 30mm
3. Fluid bed furnace
Laboratory-scale fluid -bed furnace that is capable of performing a range of thermo-chemical surface modification processes.
Location: ni1.101
Specifications:
Max. Temp : 1000 °C Retort Dia : 200mm Retort Depth : 900mm Atmosphere : Inert gas (Argon) available
4. Tube furnace
Location: ni1.101
Specifications:
Make : Gero-GmbH Maximum Temp : 900 °C Chamber (mm) : Dia = 100, Length = 200. Atmosphere : Inert gas (Argon) available
5. Muffle furnace (Small No.4)
Location: ni1.101
Specifications:
Make : Labec Maximum Temp : 1200 °C Chamber (mm) : W = 150, H = 130, Depth = 220 Atmosphere : Inert gas (Argon) available
6. Struers Hardness tester (Durascan-20) Durascan-20 is a low-load hardness tester, with vertical movable test head and automatic 6-position measurement turret. This equipment has high-resolution camera, LED illumination, and integrated PC with 8.4” colour touch screen. Auto focus, automatic image evaluation, unit conversion and sample geometry correction can be done with “ecos” Workflow software. Software includes module for CHD determination and allows both manual and automatic measurement of test indent.
Location: na1.204
Specifications: Indenter: Vickers Test loads: 0.098 – 98 N (10g – 10 kg) Optical lens: 10x, 60x Zoom: 1x and 2x Auto focus (AF) camera and AF Indentation Manual XY-stage size: 135×135 mm Stroke: 25×25 mm Max. Work-piece weight: 50 kg Max. Work-piece height: 200 mm Single, multiple indents, CHD, and nht.
7. Pendulum impact tester (JC-50D)
JC-50D is a table-top pendulum impact tester, an ideal equipment to conduct dynamic impact analysis of metallic materials. Mainly used to perform charpy tests on materials machined to specified dimensions.
Location: ni1.200
Specifications: Max Impact energy : 50 J Raise angle : 97 - 160° Max Impact velocity : 3.8 m/s Support span : 40 mm Size of specimen (mm) : L=50, W=6, t=4 Max pendulum torque : 25 Nm Blade rounding angle : 1 mm
8. Instron - 30kN Instron-30kN is a dual column, tabletop, screw driven testing machine. Mainly used by research groups for tension, compression and bend tests. Range of load cells (2, 5 and 30kN) are available to ensure accurate measurements for specific application. A high resolution digital camera is used to measure strain by tracking contrasting gauge marks placed on the specimen. Bluehill materials testing software is used to, create test method, control test, acquire data, and analyse results
Location: ni1.200
Specifications:
Maximum load capacity : 30kN Maximum test speed : 16mm/s Vertical Test Space : 1.2m Data Acquisition Rate at the PC : Up to 1.0 kHz Non-contact Video extensometers for axial and transverse strain measurements
9. Grit blaster
Grit blasting is a process by which abrasive particles are made to impinge on a component to clean (remove sand and scale) or modify its surface properties. It is often used to prepare surfaces before welding (removal of scale, rust or paint), and improve adhesion of coatings (e.g. paint, or galvanising).
Location: ni1.101
Specifications: Max rated pressure : 8.6 bar Air consumption : 680 L/min @ 8.6 bar Sand blast cabinet (mm) : 1175(L) x 885(W) x 625(H) Rating : 1210 W
Tensile test Compression test
3-point bend test Video extensometers
- Specifications:
- Specifications:
- Specifications:
- Specifications:
Assignments/Nominal composition of the four prototype materials.pdf
Prototype material compositions
Nominal composition of the four prototype materials (exact compositions will be made available soon). All numbers are in weight percent.
Budget material 1
C Mn Fe 0.2 0.5 balance
Budget material 2
C Si Mn Cr Mo Ni Fe 0.4 0.3 1.5 2.0 0.2 1.1 balance
Premium material 1
C Mn Si Cr Ni Fe 0.08 2.0 0.75 19.0 9.0 balance
Premium material 2
Al V Ti 6.0 4.0 balance
Assignments/Project proposal 2.pdf
Project 2 - Proposal - Manufacture of a metal multi-tool
SEM313 Due Date – Thursday 4th September 2014
Written reports should be uploaded either as word docs or pdf’s to the appropriate dropbox on DSO.
Introduction
The selection and operation of manufacturing processes requires careful consideration of many factors. Key considerations include the following:
1. Achievability – is the process possible for the selected material? 2. Cost – what is the process cost and is it the most cost effective of the alternatives? 3. Microstructure change – how will the process create the microstructure needed to achieve
the final properties? 4. Dimensional accuracy – how close will the dimensions be to specification and how will this
be achieved? 5. Defects – what is the likelihood of introducing defects and what defects might arise? 6. Surface – what does the process do to surface condition/appearance and what can be done
about this? 7. Controllability – how consistent is the process likely to be and how can consistency be
assured? 8. Integration – what issues, if any, need to be considered that impact on subsequent
processing steps?
This assignment requires that you propose and justify a series of sequential production processes to turn a block of metal into the multi-tool illustrated below in Figure 1 with key properties as close as possible to those currently on offer. In your proposal, you will need to show you have considered each of the issues above – using your logic and with reference to texts and available literature.
Figure 1 - Multi-tool to be manufactured.
Project specification
In this assignment students will be required to work in groups of 5 (the same groups as project 1). Each group will provide a detailed proposed manufacturing route for four prototype multi-tools, each made from a different material (note this means you will likely require a different manufacturing route for each material):
• Budget model 1 – medium carbon steel. • Budget model 2 – high carbon steel. • Premium model 1 – stainless steel. • Premium model 2 – titanium.
The starting material will be a block slightly larger in length and width to the final multi-tool dimensions but approximately 15 mm thick. The final internal slots and fine edge shaping will be performed using wire cutting. The challenge for this assignment is to select and specify the operating parameters for primary and secondary processing steps to arrive at a blank with the same outer dimensions as for the multi-tool in Figure 1.
In the next assignment you will select one Budget model and one Premium model to manufacture so the processing steps in your proposal manufacturing routes should be achievable with Deakin resources and within the timeframe of the Unit.
Project proposal requirements
While the work will be conducted as a team, each student must submit their OWN proposal. Individual reports should be approximately 2500 words and include sections addressing the following:
• A description of the target dimensions, material properties and surface condition for your multi-tools – you will obtain this by inspection, analysis, measurement and with data provided to you by staff.
• Identify other material properties that are likely to be important, even if these may not be able to be practically measured within the scope of the Unit.
• A description of material composition, grade specification, microstructure and main likely hardening mechanism used for the current model multi-tool provided to you.
• A description of the initial composition, microstructure and dimensions of each of the four prototype materials provided.
• An explanation of the main hardening mechanisms that you aim to exploit for each of the four prototype materials and how, in general terms, this will be achieved during manufacture. (Trust us, the currently available multi-tool is really hard so achieving this will be challenging.)
• A clear and detailed flow chart highlighting each step of the designed process routes. • Justification of the choice of each processing step with reference to each of the eight issues
listed in the Introduction along with specifications for operating conditions – with reference to literature, texts, charts, theory and, where possible, supported by calculation.
• An explanation of the tests that would be ideally conducted to prove the target properties were met – some, but not all, of these must be achievable in the Deakin labs.
• Evidence of the individual student’s contribution to the project proposal (in an appendix) • Individual reflection (~ 250 words) – this should be an honest individual reflection on how
the team performed (including an update on any negative aspects that were identified in the first project and whether these were improved) as well as an assessment on what parts of the proposal you were least confident in and why (it is often necessary go with the best information available, even when you know it is not perfect – it is also important to recognise when you do this so that backup plans can be in place). Note - this reflection should not include other individual team member’s names.
Team members may share raw information sources (such as journal articles); however, reports must be written individually.
Each team will also have a Cloud Deakin group site that they are required to use for the project. ALL information found should be uploaded to the site, including team meeting minutes, details of websites, journal articles or textbook information as they are found, as well as questions or problems encountered by the team. It is up to each individual in the team to PROVE their contribution to the project.
Assessment criteria:
• Degree of completion of each of the requested sections of the proposal. • Demonstration of fundamental knowledge in justifying ALL decisions in manufacturing
process variable selection (i.e. not just citing a paper or website that used a particular variable, but actually explaining why that exact value was chosen based on material behaviour)
• Appendix containing proof of your individual contribution to the proposal (this can be done in different ways including proof of attendance at team meetings, uploading literature to the group Cloud Deakin site along with a summary of how the literature can be useful, etc.)
• Demonstration of insight in the individual reflection in relation to both an understanding of the limitations of potential uncertainties in the approach taken, as well as in the performance and of the team.
• Quality of written report – structure, grammar and presentation
References should be cited using an approved style and avoiding plagiarism (see link below). This means you are expected to write the assignment in your words, and not use those of the references you find.
http://www.deakin.edu.au/current-students/study-support/study-skills/handouts/refer-plag.php
Note a more detailed marking criteria rubric for the individual reports will be provided on Cloud Deakin