& Construction
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Integrated BIM tools, including Revit, AutoCAD, and Civil 3D
& Manufacturing
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Professional CAD/CAM tools built on Inventor and AutoCAD
Integrated BIM tools, including Revit, AutoCAD, and Civil 3D
Professional CAD/CAM tools built on Inventor and AutoCAD
Transcript
00:02
In this video, you’ll validate feature location and size,
00:07
and update machine parameters based on probing cycle output.
00:13
Many machine tools come with wireless probing systems that can help to set the work coordinate systems for parts.
00:21
Open the file 3D Advantage Probe.f3d in the Manufacture workspace of Fusion 360.
00:30
From the ViewCube, click Home to properly orient the model.
00:36
From the Browser, select Setup1.
00:40
Notice that this setup only machines one side of the part.
00:45
Review a few toolpaths by selecting them in the Browser.
00:50
In Setup2 in particular, notice that the work coordinate system is placed in the center of the part.
00:58
Since Z is being set off the bottom of the model,
01:03
the Z datum must be set in the machine off the top of the parallels before the part is inserted in the vise.
01:12
Once the Z datum has been probed in, the part can be placed in the vise so that X and Y and can probed off the stock.
01:22
Now, select both Setup1 and Setup2.
01:27
From the Toolbar, Milling tab, Actions panel, click Simulate.
01:34
Back in the Browser, under Setup2, select Adaptive2.
01:41
Notice that there is a protective hat of material on the part from Setup1
01:47
that prevents the probe from touching off on the machined surfaces of the part.
01:53
Because the X and Y axes have been set based on the raw, uncut stock of the part, they are not accurate.
02:02
Play the simulation.
02:05
The Adaptive2 toolpath removes the hat of material,
02:10
and then the facing operation provides a final cleanup of the part.
02:16
Close the Simulation dialog.
02:19
With the material removed, an in-process probing cycle can be used to shift the current WCS based on the machined faces of the part.
02:30
This ensures that X and Y datums are located exactly in the center of the part instead of the previous location,
02:39
which was based off of the saw cut edges of the stock with poor accuracy.
02:45
To do this, from the Toolbar, expand the Setup drop-down, and then select Probe WCS.
02:54
From the Probe WCS dialog, click the Tool selection prompt.
03:01
In the Tool Library, there is already a Probe tool within the document.
03:07
From the list, select 31 – Probe, and then click Select.
03:15
Back in the Probe WCS Dialog, open the Geometry tab.
03:21
In the canvas, select the faces you want it to probe.
03:27
The program updates its operation based on your selections.
03:33
Click OK.
03:35
Now that the probe has been used to accurately locate the X and Y datums of the part,
03:41
a chamfer operation can be used to deburr the perimeter of the part,
03:46
and the operator can be confident that the toolpath will line up with the previously machined geometry
03:53
that was cut on the first side of the part.
03:56
Once a part is completely machined, it needs to be inspected to ensure it conforms to the design requirements.
04:04
Manual Inspection is a process where an inspection plan is created for manufactured parts,
04:11
and then measurement data is recorded directly into Fusion 360
04:16
using a manual measuring instrument, such as a caliper, micrometer, or height gauge.
04:23
Here, you can see a series of inspection dimensions being placed on the part
04:29
that the programmer would like inspected after the part has been machined.
04:34
When creating a manual inspection, you can choose to measure critical dimensions of features.
04:40
In Fusion 360, you pick features directly from the model in the canvas
04:46
and set tolerances to define the allowable variations from the nominal values.
04:52
In addition, you can include checks in the inspection plan that are not directly associated with features on the model.
04:60
For example, you can include a simple pass/fail check
05:05
or type a user-defined action for when you want the inspector to record their observations.
05:11
There are a few different inspection tools available for inspection.
05:16
Bluetooth calipers send dimensions directly into Fusion 360.
05:22
Wired micrometers work similarly, syncing measurements to the program.
05:28
You can also use digital or analog gauges not connected to the computer.
05:35
If you are using a digital measuring instrument to measure dimensions in a manual inspection,
05:41
set up the connection with your computer.
05:45
If you are using an analog instrument, you will use the keyboard to enter the measurements.
05:51
Open the file 3D Advantage Inspect and navigate to the Manufacture workspace.
05:59
From the Browser, right-click Final Inspection, and from the shortcut menu, select Record Manual Inspection.
06:09
This displays the Record Manual Inspection dialog.
06:14
Here, you can see a list of already recorded inspection results.
06:19
Navigate through the list of results.
06:22
Once a result is selected, the canvas view updates to where the feature is located,
06:28
and the current inspection result and a value input field display.
06:33
Review each measurement using your inspection tool and check for accuracy.
06:40
Use the value input fields as necessary to update the results.
06:45
The dialog displays the deviation of the measured value from the nominal value,
06:51
and, if it is out of tolerance, it also displays the error by which the measured value exceeds the specified tolerance.
06:59
Now, navigate to the Inspection Result No Burrs.
07:05
Examine the part for burrs, and then select either Pass or Fail.
07:11
Then, in the dialog, click Next.
07:15
In the Inspector Name Result text box, enter your name.
07:21
Click OK.
Video transcript
00:02
In this video, you’ll validate feature location and size,
00:07
and update machine parameters based on probing cycle output.
00:13
Many machine tools come with wireless probing systems that can help to set the work coordinate systems for parts.
00:21
Open the file 3D Advantage Probe.f3d in the Manufacture workspace of Fusion 360.
00:30
From the ViewCube, click Home to properly orient the model.
00:36
From the Browser, select Setup1.
00:40
Notice that this setup only machines one side of the part.
00:45
Review a few toolpaths by selecting them in the Browser.
00:50
In Setup2 in particular, notice that the work coordinate system is placed in the center of the part.
00:58
Since Z is being set off the bottom of the model,
01:03
the Z datum must be set in the machine off the top of the parallels before the part is inserted in the vise.
01:12
Once the Z datum has been probed in, the part can be placed in the vise so that X and Y and can probed off the stock.
01:22
Now, select both Setup1 and Setup2.
01:27
From the Toolbar, Milling tab, Actions panel, click Simulate.
01:34
Back in the Browser, under Setup2, select Adaptive2.
01:41
Notice that there is a protective hat of material on the part from Setup1
01:47
that prevents the probe from touching off on the machined surfaces of the part.
01:53
Because the X and Y axes have been set based on the raw, uncut stock of the part, they are not accurate.
02:02
Play the simulation.
02:05
The Adaptive2 toolpath removes the hat of material,
02:10
and then the facing operation provides a final cleanup of the part.
02:16
Close the Simulation dialog.
02:19
With the material removed, an in-process probing cycle can be used to shift the current WCS based on the machined faces of the part.
02:30
This ensures that X and Y datums are located exactly in the center of the part instead of the previous location,
02:39
which was based off of the saw cut edges of the stock with poor accuracy.
02:45
To do this, from the Toolbar, expand the Setup drop-down, and then select Probe WCS.
02:54
From the Probe WCS dialog, click the Tool selection prompt.
03:01
In the Tool Library, there is already a Probe tool within the document.
03:07
From the list, select 31 – Probe, and then click Select.
03:15
Back in the Probe WCS Dialog, open the Geometry tab.
03:21
In the canvas, select the faces you want it to probe.
03:27
The program updates its operation based on your selections.
03:33
Click OK.
03:35
Now that the probe has been used to accurately locate the X and Y datums of the part,
03:41
a chamfer operation can be used to deburr the perimeter of the part,
03:46
and the operator can be confident that the toolpath will line up with the previously machined geometry
03:53
that was cut on the first side of the part.
03:56
Once a part is completely machined, it needs to be inspected to ensure it conforms to the design requirements.
04:04
Manual Inspection is a process where an inspection plan is created for manufactured parts,
04:11
and then measurement data is recorded directly into Fusion 360
04:16
using a manual measuring instrument, such as a caliper, micrometer, or height gauge.
04:23
Here, you can see a series of inspection dimensions being placed on the part
04:29
that the programmer would like inspected after the part has been machined.
04:34
When creating a manual inspection, you can choose to measure critical dimensions of features.
04:40
In Fusion 360, you pick features directly from the model in the canvas
04:46
and set tolerances to define the allowable variations from the nominal values.
04:52
In addition, you can include checks in the inspection plan that are not directly associated with features on the model.
04:60
For example, you can include a simple pass/fail check
05:05
or type a user-defined action for when you want the inspector to record their observations.
05:11
There are a few different inspection tools available for inspection.
05:16
Bluetooth calipers send dimensions directly into Fusion 360.
05:22
Wired micrometers work similarly, syncing measurements to the program.
05:28
You can also use digital or analog gauges not connected to the computer.
05:35
If you are using a digital measuring instrument to measure dimensions in a manual inspection,
05:41
set up the connection with your computer.
05:45
If you are using an analog instrument, you will use the keyboard to enter the measurements.
05:51
Open the file 3D Advantage Inspect and navigate to the Manufacture workspace.
05:59
From the Browser, right-click Final Inspection, and from the shortcut menu, select Record Manual Inspection.
06:09
This displays the Record Manual Inspection dialog.
06:14
Here, you can see a list of already recorded inspection results.
06:19
Navigate through the list of results.
06:22
Once a result is selected, the canvas view updates to where the feature is located,
06:28
and the current inspection result and a value input field display.
06:33
Review each measurement using your inspection tool and check for accuracy.
06:40
Use the value input fields as necessary to update the results.
06:45
The dialog displays the deviation of the measured value from the nominal value,
06:51
and, if it is out of tolerance, it also displays the error by which the measured value exceeds the specified tolerance.
06:59
Now, navigate to the Inspection Result No Burrs.
07:05
Examine the part for burrs, and then select either Pass or Fail.
07:11
Then, in the dialog, click Next.
07:15
In the Inspector Name Result text box, enter your name.
07:21
Click OK.
Step-by-steps
How to buy
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