Autodesk Inventor Autodesk Inventor EdgeCAM – Part 2 EdgeCAM – Part 2 CNC Motion CNC Motion Prolight CNC Mill Prolight CNC Mill CNC Box.

Slides:



Advertisements
Similar presentations
HST Toolpaths.
Advertisements

EdgeCAM Solid Machinist for SolidWorks
Working with Profiles in IX1D v 3 – A Tutorial © 2006 Interpex Limited All rights reserved Version 1.0.
Roofs and Ceilings Revit® Architecture C H A P T E R OBJECTIVES Learn how to place a Roof by Footprint. Learn how to make a wall meet a roof. Learn.
By: Matt Mihelish Joe Winston
S2 INVENTOR GAME BOY part one MAIN BODY. S2 INVENTOR Here is what the finished result might look like once put together...
Sean Dalton Computer Aided Manufacture Sean Dalton
Designer Soap Making A Team Project from Concept to Completion.
Shape Editor Programming Example
HST Rough Toolpaths. Cut Parameters Note: The cut parameters will change based on the toolpath type. When possible the same settings will be brought into.
Prismatic Machining CATIA Training Foils Version 5 Release 9 June 2002
CHOCOLATE MOLD If there is anything missing from this PowerPoint beyond what is acknowledged, please tell Grant Dunbar. Thanks!!!
BASIC TUTORIAL ON AUTODESK REVIT Created By MHS Architecture Portfolio.
Geometry Control – Modifying and Relimiting; Using Axes and Transformation Ideas Chapter 2: 2.4 & 2.5 R. Lindeke IE 1225.
Using Surfcam to Produce a Numeric Control (NC) Program An Introduction to the CAD/CAM Process Instructions for 3 Axis Programming Using the D&M CNC Milling.
Welcome Mill Lesson 12 – Part-1
Power Point Presentation - Advanced Julia J. Stahl Distributed System Specialist.
Autodesk Inventor Professional 2013 Phase 4. Parametric Modeling Parametric Modeling is using the computer to design objects by modeling their components.
FeatureCAM Feature-based Programming Sian Humphreys Business Development Manager Delcam plc.
SolidWorks: Extruded Cuts, Fillets, and Patterns Introduction to Robotics.
SOLIDWORKS: Lesson III – Patterns & Mirrors
1 Exercise Two The Digital Camera Helpful Notes 2004.
Database – Tools Tools Opens the Tools management dialog box. Notes: Use speed and feed settings that are recommended by the tooling manufacturer. Always.
ProLIGHT 1000 Control Software PLTW Computer Integrated Manufacturing.
August 02, 2012 Abdolreza Bayesteh Kaustubh Ladia.
SolidWorks Teacher Guide Lesson2
INDUSTRY DAY TOULOUSE 2006/06/ th ISO TC184/SC4 meeting Industry Day STEP-NC AP-238 Martin Hardwick STEP Tools, Inc.
University of Puerto Rico at Mayagüez Department of Mechanical Engineering Introduction to NX 6.0 Tutorial 3 Modified by (2011): Dr. Vijay K. Goyal and.
Chapter 4 Creating Placed Features
University of Puerto Rico at Mayagüez Department of Mechanical Engineering Introduction to NX 6.0 Tutorial 1 Modified by (2011): Dr. Vijay K. Goyal and.
ME 418 M8, M9, & M Robert Peace
1 Draw Mode. 2 Notable Points (RMB) End point: Snaps to the closest end point of the selected entity. Mid point: Snaps to the middle point of the selected.
SOLIDWORKS: Lesson II – Revolutions, Fillets, & Chamfers UCF Engineering.
Intuitive Programming System For The Mill
This is what we want to draw Extrude Mirror Round Edges.
Using Pro-Engineer to Create 3 Dimensional Shapes Kevin Manner Kevin Manner Tim Reynolds Tim Reynolds Thuy Tran Thuy Tran Vuong Nguyen Vuong Nguyen.
1.To begin click: File, New, then select Design 2.Draw a circle, then use the dimension tool to set it’s size to 84 diameter or 42 radius. 3. Next draw.
Module 2: Introduction to MTS TopTurn and G & M codes
Introduction to 3d Modeling Simple Polygon Modeling Using 3D Max
1 Ι © Dassault Systèmes Ι Confidential Information Ι Instructor’s Guide to Teaching SolidWorks Software Lesson 2 School’s Name Teacher’s Name Date.
Welcome Mill Lesson 15 – Part-2 Computer Aided Manufacturing Using Mastercam.
This is the finished body RADIUS LOFT EXTRUDE. Creating the body taper Open the wing Click on new part in context.
Introduction To CNC-Programming
For Higher Graphic Communication
Subtractive Manufacturing Exercise #1 Part 3 Key Fob Project Using Velocity CNC Software for the CNC Milling Machine Note: In order to use this set of.
Subtractive Manufacturing Exercise #1 Step #2 Key Fob Project Using Velocity CNC Software for the CNC Milling Machine Note: In order to use this set of.
Cardboard Bridge Construction Inventor Step 1 1.Open Autodesk Inventor Open the Card Board Bridge ipt file from the assignment log 3.Use.
The Lego Man Basic 3D Modelling. The Head Use the Revolve Tool to get the sketch from 2D to 3D.
Learning Objectives • Create sweep features. • Create lofted features.
The Tail, this is what we want to make. Extrude Mirror Radius.
Train Body The next series of slides will guide you through the construction of the train body. Start a new drawing and save it as Train Body.
This is what we want to produce Import sketch dimensions Label angles Set the scale Add linear dimensions.
Autodesk Inventor Autodesk Inventor EdgeCAM EdgeCAM CNC Motion - Part 3 CNC Motion - Part 3 Prolight CNC Mill Prolight CNC Mill CNC Box.
Autodesk Inventor Design Exercise 2: F1 Team Challenge Car Developed by Tim Varner – Synergis Technologies © Tim Varner
Autodesk Inventor – Part 1 Autodesk Inventor – Part 1 EdgeCAM EdgeCAM CNC Motion CNC Motion Prolight CNC Mill Prolight CNC Mill CNC Box.
CNC Motion BenchMill 6000 Machining Center
Chapter 4 Creating Placed Features
Wooden Toy Body Production: DXF Creation in SolidWorks
Lecture 14 SolidWorks Basic Functionality
School’s Name Teacher’s Name Date
Using Surfcam to Produce a Numeric Control (NC) Program
Introduction to CNC Milling
3D Max screen shot Top view Right side view Front view
Computer Integrated Manufacturing
3d Machining - hsm Rotary & Helmets Phil Dixon – Technical instructor
Welcome Mill Lesson 15 – Part-3
CAM与自动编程 封志明
3D Modelling Workshop By Keith Phelan!.
Presentation transcript:

Autodesk Inventor Autodesk Inventor EdgeCAM – Part 2 EdgeCAM – Part 2 CNC Motion CNC Motion Prolight CNC Mill Prolight CNC Mill CNC Box

Edgecam Base

Setup Ensure both post and config. files are installed – Place prolight post – Place config. profile Edgecam – SETUP

Setup Set Configuration to PLTW – Right Click in the grey area of the top tool bar – Select: Profiles Mill Profile PLTW_CIM.config Edgecam – SETUP

View Open BASE Inventor file in Edgecam Right Click on the View Selector – Select Isometric – Notice the CPL/PRZ/Origin is in the incorrect location for this file Edgecam – BASE

Stock Select Stock/Fixture – Check –Automatic Stock – Ensure all Box Offsets are set to 0.0 – Select OK Edgecam – BASE

Create New CPL Right click and hold to rotate the BASE Select Create CPL Setup – Define Name NEWTOP – Define Plane Through 3 Points – Select OK Edgecam – BASE Parallel

Create New CPL Select the following corners in order – Bottom Left (Origin) – Bottom Right (+X) – Top Left (+Y) The CPL will reset to the correct Origin on the stock – Top Face-Bottom- Left – RGB = XYZ Edgecam – BASE 1st 2nd 3rd

Feature Finder Select Feature Finder Select Mill – Unselect Flat Faces - Find – Select 2D Pocket 2D Boss Select OK Edgecam – BASE

Feature Finder Features Found Edgecam – BASE

Manufacture Mode Enter Manufacture Mode Select – Discipline Mill – Machine Tool Prolight_1000 – Initial CPL NEWTOP Edgecam – BASE

Profiling / Retaining Lip Select the Features Tab Right click 2D Boss – Retaining Lip Boss – Select Profiling Operation – Hit enter to select no boundary Edgecam – BASE

Edgecam Container BASE – Profiling - General Select – Mill Type Climb – Offset 0.0 – Z Offset 0.0 – Lead Radius 0.0 Edgecam – BASE

Edgecam Container BASE – Profiling - Tooling Select Find For this example, select ½” End Mill created in the tool store – If specific tools have not been created, do so at this time Ensure fields are auto filled – Feedrate – Plunge Feed 50% Feedrate – Spindle Speed – Position – Diameter – Corner Radius If applicable Edgecam – BASE

Edgecam Container BASE – Profiling - Depth Ensure fields are auto filled – Clearance 0.25 – Level 0.0 – Depth 0.0 – Cut Increment Select OK Edgecam – BASE

Profiling / Retaining Lip Retaining Lip Height = 0.25” Cut Increment = 0.125” Total passes for feature = x2 Save File Edgecam – BASE

1 st Profiling / Box Boss Right click 2D Boss – Box Boss – Select Profiling Operation – Hit enter to select no boundary Edgecam – BASE

1 st Profiling - General Select Offset 0.5 Z Offset 0.0 Leave all other setting for this tab Edgecam – BASE

1 st Profiling - Tooling Select – Use Current Tool Leave all other settings for this tab Edgecam – BASE

1 st Profiling - Depth Select – Clearance 0.5 – Level 0.25 Leave all other settings for this tab Select OK Edgecam – BASE

1st Profiling / Box Boss Total Box Height = 1.5” Cut Increment = 0.125” Total passes for feature = x12 Re-Save File Edgecam – BASE

2 nd Profiling / Box Boss Again Right click 2D Boss – Box Boss – Select Profiling Operation – Hit enter to select no boundary Edgecam – BASE

2 nd Profiling - General Select – Offset 0.25 – Z Offset 0.0 Leave all other setting for this tab Select OK Edgecam – BASE

2 nd Profiling - Tooling Select – Use Current Tool Leave all other settings for this tab Edgecam – BASE

2 nd Profiling - Depth Select – Clearance 0.5 – Level 0.25 Leave all other settings for this tab Select OK Edgecam – BASE

2 nd Profiling / Box Boss Total Box Height = 1.5” Cut Increment = 0.125” Total passes for feature = x12 Re-Save File Edgecam – BASE

3 rd Profiling / Box Boss Again Right click 2D Boss – Box Boss – Select Profiling Operation – Hit enter to select no boundary Edgecam – BASE

3 rd Profiling - General Select – Offset 0.0 – Z Offset 0.0 Leave all other setting for this tab Select OK Edgecam – BASE

3 rd Profiling - Tooling Select – Use Current Tool Leave all other settings for this tab Edgecam – BASE

3 rd Profiling - Depth Select – Clearance 0.5 – Level 0.25 Leave all other settings for this tab Select OK Edgecam – BASE

3 rd Profiling / Box Boss Total Box Height = 1.5” Cut Increment = 0.125” Total passes for feature = x12 Re-Save File Edgecam – BASE

Roughing / Box Pocket Right click 2D Pocket – Box Pocket – Select Rouging Operation – Hit enter to select no boundary Edgecam – BASE

Roughing / General General Tab should read similar Edgecam – BASE

Roughing / Tooling Select – Use Current Tool Leave all other settings for this tab Edgecam – BASE

Roughing / Depth Depth Tab should read similar Select OK Edgecam – BASE

Roughing / Box Pocket Total Pocket Depth = 1.25” Cut Increment = 0.125” Total passes for feature = x10 Re-Save File Edgecam – BASE

Verify Select Simulate Machining Select Play Edgecam – BASE

Verify Select View Comparison Blue material is the difference between actual machining and the inventor part file – The blue in this example shows material that does not represent a functional dimension / tolerance – This material could be removed with a second roughing operation used as a rest rough with a smaller tool – It will not effect how the lid fits and is acceptable for this activity Close the simulator window Edgecam – BASE

Generate / Post Code Select Generate Code Select Use Part Name Select OK Enter Programmer’s Name Select OK Edgecam – BASE

Edit Code Enter any necessary entrance and/or exit codes to the posted program Re-Save the NC file Edgecam – BASE

Edgecam Lid Interior

View Open LID INTERIOR Inventor file in Edgecam Right Click on the View Selector – Select Isometric – Notice the CPL/PRZ/Origin is in the correct location for this file Edgecam – LID INTERIOR Parallel

Stock Select Stock/Fixture – Check –Automatic Stock – Select OK Edgecam – LID INTERIOR

Feature Finder Select Feature Finder Select Mill – Unselect Flat Faces - Find – Select 2D Pocket 2D Boss Select OK Edgecam – LID INTERIOR

Feature Finder Features Found Edgecam – LID INTERIOR

Manufacture Mode Enter Manufacture Mode Select – Discipline Mill – Machine Tool Prolight_1000 – Initial CPL TOP Edgecam – LID INTERIOR

Profiling / Boss Select the Features Tab Right click 2D Boss – Retaining Lid Boss – Select Profiling Operation – Hit enter to select no boundary Edgecam – LID INTERIOR

1 st Profiling - General Select Offset 0.5 Z Offset 0.0 Leave all other setting for this tab Edgecam – LID INTERIOR

1 st Profiling - Tooling Select Find For this example, select ½” End Mill created in the tool store – If specific tools have not been created, do so at this time Ensure fields are auto filled – Feedrate – Plunge Feed 50% Feedrate – Spindle Speed – Position – Diameter – Corner Radius If applicable Edgecam – LID INTERIOR

1 st Profiling - Depth Leave all other settings for this tab Select OK Edgecam – LID INTERIOR

1 st Profiling / Lid Boss Total Box Height = 0.75” Cut Increment = 0.125” Total passes for feature = x6 Re-Save File Edgecam – LID INTERIOR

2 nd Profiling / Lid Boss Again Right click 2D Boss – Lid Boss – Select Profiling Operation – Hit enter to select no boundary Edgecam – LID INTERIOR

2 nd Profiling - General Select – Offset 0.25 – Z Offset 0.0 Leave all other setting for this tab Select OK Edgecam – LID INTERIOR

2 nd Profiling - Tooling Select – Use Current Tool Leave all other settings for this tab Edgecam – LID INTERIOR

2 nd Profiling - Depth Leave all other settings for this tab Select OK Edgecam – LID INTERIOR

2 nd Profiling / Lid Boss Total Box Height = 0.75” Cut Increment = 0.125” Total passes for feature = x6 Re-Save File Edgecam – LID INTERIOR

3 rd Profiling / Lid Boss Again Right click 2D Boss – Lid Boss – Select Profiling Operation – Hit enter to select no boundary Edgecam – LID INTERIOR

3 rd Profiling - General Select – Offset 0.0 – Z Offset 0.0 Leave all other setting for this tab Select OK Edgecam – LID INTERIOR

3 rd Profiling - Tooling Select – Use Current Tool Leave all other settings for this tab Edgecam – LID INTERIOR

3 rd Profiling - Depth Leave all other settings for this tab Select OK Edgecam – LID INTERIOR

3 rd Profiling / Lid Boss Total Box Height = 0.75” Cut Increment = 0.125” Total passes for feature = x6 Re-Save File Edgecam – LID INTERIOR

Roughing / Lid Pocket Right click 2D Pocket – Lid Pocket – Select Rouging Operation – Hit enter to select no boundary Edgecam – LID INTERIOR

Roughing / General General Tab should read similar Edgecam – LID INTERIOR

Tooling Select – Use Current Tool Leave all other settings for this tab Edgecam – LID INTERIOR

Roughing / Depth Depth Tab should read similar Select OK Edgecam – LID INTERIOR

Roughing / Lid Pocket Total Pocket Depth = 0.5” Cut Increment = 0.125” Total passes for feature = x4 Re-Save File Edgecam – LID INTERIOR

Verify Select Simulate Machining Select Play Edgecam – LID INTERIOR

Verify Select View Comparison Blue material is the difference between actual machining and the inventor part file – Notice that there is no blue inside the lid that will create an interference fit with the box bottom Close the simulator window Edgecam – LID INTERIOR

Generate / Post Code Select Generate Code Select Use Part Name Select OK Enter Programmer’s Name Select OK Edgecam – LID INTERIOR

Edit Code Enter any necessary entrance and/or exit codes to the posted program Re-Save the NC file Edgecam – LID INTERIOR

Edgecam Lid Surface

View Open LID EXTERIOR Inventor file in Edgecam Right Click on the View Selector – Select Isometric – Notice the CPL/PRZ/Origin is upside down for this file – We need to relocate this origin to the opposite corner since the lid will be machined twice. Edgecam – LID EXTERIOR

Stock Select Stock/Fixture – Select the layer tab – Ensure the Stock layer is listed If not – Right click in the name column and select new – Set the name to Stock Edgecam – LID EXTERIOR

Stock Select Stock/Fixture – Select the Stock/Fixture from the Geometry Drop Down – Ensure the layer is set to stock – Select OK Edgecam – LID EXTERIOR

Create New CPL In order to use through three points, we need a point along the X axis past the part – Select Geometry – Select Line Select Horizontal Set Length to -1 Select the front top right corner Edgecam – LID EXTERIOR

Create New CPL Select Create CPL Setup – Define Name NEWTOP – Define Plane Through 3 Points – Select OK Old CPL New CPL Edgecam – LID EXTERIOR

Create New CPL Must be setup up directly to the right of the old CPL Select the following corners in order – Bottom Left (Origin) – Bottom Right (+X) – Top Left (+Y) The CPL will reset to the correct Origin on the stock – Top Face-Bottom- Right – RGB = XYZ 1st 2nd 3rd Edgecam – LID EXTERIOR

Define Boundary 1 Select Define Geometry from Loops Select the circular loop on the top surface – If the loop does not auto select, hit the tab key to cycle through multiple optional selections Multiple Selections Available Icon Edgecam – LID EXTERIOR

Define Boundary 2 Select Define Geometry from Edges Select each element that creates the bottom profile loop Edgecam – LID EXTERIOR

Offset Boundary Select Offset from the Geometry Drop Down Set the Offset box – Check Continuous – Set an offset of ¼ the bit diameter to be used for finishing In this example – ¼ Ball – Offset = 1/16 – Default Side = Outside Edgecam – LID EXTERIOR

Offset Boundary Select all the individual edges used to create the bottom profile in the last step Select enter to end the selection – Make sure the side arrow point outside the shape Select enter to accept the side The offset profile will project up to the top surface Edgecam – LID EXTERIOR

New Layer Select the layer tab Right click under geometry – Select new – Set the new layer to NewStock – Select OK Edgecam – LID EXTERIOR

Profile Shaped Stock Select Stock/Fixture from the Geometry drop down menu Set the following fields – Unselect Automatic Stock – Shape – Profile – Depth – 0.75 – Color – Red – Layer NewStock Select OK Edgecam – LID EXTERIOR

Profile Shaped Stock Select the individual edges that create the bottom shape profile Hit Enter Edgecam – LID EXTERIOR

Layer Visibility Double click the stock layer to hide its visibility Only the profile stock will remain visible Edgecam – LID EXTERIOR

Manufacture Mode Enter Manufacture Mode Select – Sequence Name Surface – Discipline Mill – Machine Tool Prolight_1000 – Initial CPL NEWTOP Edgecam – LID EXTERIOR

Surface Operation Select the Surfaces from the Operations drop down Edgecam – LID EXTERIOR

Surface Operation Select the entire part Hit enter to end selection Select the circular defined loop and the offset profile Hit enter to end boundaries Hit enter to accept default start point Edgecam – LID EXTERIOR

General Mill Type Optimized Level 0 Depth Edgecam – LID EXTERIOR

Roughing Strategy Z Level Lace % Stepover 50 Offset 1/32 Lace Angle 0 Cut Increment ToolStore Created ½” End Mill Edgecam – LID EXTERIOR

Finishing Strategy Parallel Lace Angle 45 % Stepover 50 Offset 0 ToolStore Created ¼” Ball Edgecam – LID EXTERIOR

Results Yellow toolpath – Roughing Purple toolpath – Finishing Edgecam – LID EXTERIOR

2 nd Surface Operation Repeat the Surface Setup – Select the entire part – Hit enter to end selection – Select the circular defined loop and the offset profile – Hit enter to end boundaries – Hit enter to accept default start point Edgecam – LID EXTERIOR

General All setting should remain the same for the General tab Edgecam – LID EXTERIOR

Roughing Select No Roughing Edgecam – LID EXTERIOR

Finishing Change 45 degrees to -45 degrees Reselect to ¼” ball tool from the ToolStore Edgecam – LID EXTERIOR

Results Yellow toolpath – Roughing Purple toolpath – Finishing Edgecam – LID EXTERIOR

Verify Results Edgecam – LID EXTERIOR

Comparison Using a 50% stepover along with a ball end mill will leave a pattern not from the inventor file and creates a diamond pattern Edgecam – LID EXTERIOR

Generate / Post Code Select Generate Code Select Use Part Name Select OK Enter Programmer’s Name Select OK Edgecam – LID EXTERIOR

Edit Code Enter any necessary entrance and/or exit codes to the posted program Re-Save the NC file Edgecam – LID EXTERIOR

Final Product