How to Make a Web 2.0 Play Button in Adobe Illustrator CS6ZillionDesigns
Check out our extremely easy step-by-step guide to making a Play Button in Adobe Illustrator. We promise our guide helps you learn how to create 3D buttons without a design generator no matter what their shape. Visit our blog for more tips and tutorials. http//www.zilliondesigns.com/blog
This was also printed out for pupils to use, (many felt it too tricky to switch between powerpoint and Inventor). Slide six asks them to import two files that I had made and placed in a 'Shared Area' for the whole class to access - this of course would need to be set up for pupils to do!
This slideshow was a continuation of 'Intro to Inventor using MugTree example', it is accepted that the pupils have already made the 'base cross halving' section...
In this lesson, you create a mold tooling for a telephone handset.
You start with a model of a telephone handset. Before creating the mold tooling, you add mounting bosses to the model. This demonstrates the fastening features commonly used on molded products.
How to Make a Web 2.0 Play Button in Adobe Illustrator CS6ZillionDesigns
Check out our extremely easy step-by-step guide to making a Play Button in Adobe Illustrator. We promise our guide helps you learn how to create 3D buttons without a design generator no matter what their shape. Visit our blog for more tips and tutorials. http//www.zilliondesigns.com/blog
This was also printed out for pupils to use, (many felt it too tricky to switch between powerpoint and Inventor). Slide six asks them to import two files that I had made and placed in a 'Shared Area' for the whole class to access - this of course would need to be set up for pupils to do!
This slideshow was a continuation of 'Intro to Inventor using MugTree example', it is accepted that the pupils have already made the 'base cross halving' section...
In this lesson, you create a mold tooling for a telephone handset.
You start with a model of a telephone handset. Before creating the mold tooling, you add mounting bosses to the model. This demonstrates the fastening features commonly used on molded products.
Using AutoDesk Inventor to create a Trinket boxkrysia
Again, this was intended for 2nd year students who were making a Trinket box in Craft&Design. It shows the steps required to make a simple 'Trinket Box' using AutoDesk Inventor.
It is a basic design that can be easily adapted. Pupils worked through the slides using booklets. Their final rendered model was used in their folio.
This document is intended to my personal reference when delivering training.
I thankful to Siemens Digital Industries Software.
This document is incomplete. Will update in sometime.
I used this with a 2nd year class, they were making the MugTree in Craft&Design. The powerpoint was actually printed out for them to use in Booklet form
How to use Sketchup
Once you have downloaded the Sketchup app on desktop and created a Trimble ID, you are ready to go on a Sketchup ride!
I’ll be explaining the free version of Sketchup on the web:
Suppose, you are encountered with John when you open Sketchup. John enjoys long strolls, in the fields, basketball, and other sports. You can remove John or just let him hang there.
The toolbar on the left contains a pencil, the arc, and squares. These are used to make sketch lines, make circles and draw squares respectively. You can visit sketchup 3d by LiveTrainingLab.
https://livetraininglab.pk/courses/google-sketchup/
Fluid Mechanics Project Assignment (Total 15) Due Dates .docxbryanwest16882
Fluid Mechanics Project Assignment (Total 15%)
Due Dates:
Report: to D2L Assignment Dropbox by 4pm, 5/01/2020 Friday
Problem: Steady flows pass a cylinder (see ‘Problem Specification’ in the Tutorial).
Requirements: Report should include Introduction, Theory (Potential Flow), Computational Model, Results, and Conclusions, Discussion and References. Use 1” margin on top, bottom, left, and right. Use Times New Roman 12 font and 1.5 line spacing. In Results session, present and compare the velocity field, streamlines, and drag forces on the cylinder from both the model and theoretical results. In Discussion, discuss why these results from two approaches are similar or different.
Tutorial 1. Flow over a Cylinder – Two Dimensional Case
Using ANSYS Workbench
Simple Mesh
The primary objective of this Tutorial is to guide the student using Fluent for first time through the very basics of CFD simulation using ANSYS Workbench.
The objective of this simulation is to determine the velocity and pressure fields produced when a fluid flows over a cylinder. In addition, the drag force exerted by the fluid over the cylinder is computed. Streamline plots are also available.
Summary: In this exercise, the flow over a cylinder is modeled. The flow is assumed to be two dimensional therefore the cylinder can be represented by a circle. A flow domain surrounding the cylinder is created and meshed. Boundary conditions are applied to the simulation to obtain plots of static pressure, velocity magnitude, and streamlines. The drag coefficient can be calculated using the forces exerted by the fluid on the cylinder as computed by the software.
1. Starting ANSYS Workbench • Click on the Start Menu, and then select Workbench 14.0. • Close Getting Started window. • Left click on the tab corresponding to FluidFlow (FLUENT) and without releasing the mouse button drag the icon to the Project Schematic window (central big window). • Click twice on the lower tab and rename the project to Cylinder1
• Now right click on the Geometry tab and select the properties option, a Properties of Schematic window will open. Change the Analysis Type under the Advanced Geometry Options from 3D to 2D. • Back to the Project Schematic Window, click twice on the Geometry tab. This action will launch ANSYS Design Modeler (green logo DM).
2. Create Geometry • Set units to centimeters (cm) and click ok. • Right click on icon corresponding to XYPlane and select look at. • Down below the Tree Outline window you will see the Sketching and Modeling tabs. Select the Sketching tab. • A Sketching Toolboxes window will replace the Tree Outline window with a new set of tabs, select the Settings tab. • Select Grid and activate the buttons Show in 2D and Snap. • Make sure that Major Grid Spacing is set to 5 cm, Minor–Steps per Major is 5, and Snaps per Minor is 1.
• Click on the icon corresponding to New Sketch to c.
3. Launching the SolidWorks environment
and creating a new environment
• Double-click on the solidworks icon on the
desktop to launch the solidworks then:
i. Click new then choose the part option to
start a new single part drawing.
ii. Or choose the assembly option to assemble
already created parts.
iii. Click ‘OK’
4. Drawing a simple wall bracket
When drawing on a 3 D environment, there are
usually several ways of realizing a model. This is
due to our different ways of picturing images.
This reason explains why different times are
spent on same drawing, using different
concepts.
6. Steps
• Select ‘Top Plane’ from the draw tree at
the left pane of the drawing environment
• Select ‘center rectangle’ from the sketch
option, snap the mouse to the origin and draw a
rectangle
• Note: All dimensions in ‘mm’ already
• Select ‘Smart Dimension’ and pick the
horizontal side, type 100 mm
• Also, pick the vertical side, type 70 mm
• You should see a drawing similar to fig. 2
8. Steps
• Click ‘Features’ to display a number of
possible options
• Click ‘Extruded Boss/Base’ and in the
space provided for dimension, type 10 mm
• Click the ‘OK’ to confirm the dimensions
• You should see a cuboid that looks like fig. 4 as
shown below
11. Steps
• Click on the top face of the cuboid
• Select a ‘corner rectangle’
• Sketch by snapping the mouse pointer from
the corner of the rectangle face to the
adjacent edge
• Dimension the side to 10 mm by using the
‘smart dimension’
• Extrude by 40 mm using the ‘Extruded
Boss/Base’
• Click ‘OK’
14. Creating a rib on the wall bracket
• Select the right plane of the model
• Click on ‘Normal To’. This enables the
plane to face you.
• Select a line and draw from the top edge of
the drawing as shown in fig. 7
• Select isometric on the top of the menu to
give a 3D view of the model.
• Dimension the vertical edge with the end of
the drawn line as 20 mm
17. Steps
• From the ‘Features’ option, click rib
• On the left pane, a rib menu dialog shows,
make the thickness ‘both sides’ keeping it to
10 mm
• Change the ‘Extrusion direction’ and check
‘Flip material side’ as appropriate
• Click ‘OK’
• The result should look like fig. 9 below