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| - | ====== Wood CNC - Shapeoko 3 XL -Not yet commissioned====== | + | ======Wood CNC - Shapeoko 3 XL ====== |
| - | ===== Page under construction ===== | + | |
| - | *add picture here | + | |
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| - | ===== Wood CNC overview ===== | ||
| - | ==== Common terms explained ==== | ||
| - | Most of the information below is taken from a direct transcript of a series of videos made by Carbide3D, the manufacturer of the Shapeoko CNC, with some minor alterations to match our particular combination of machine, router and accessories. There are links at the bottom of the page to the original videos and we would recommend you take the time to watch these though the induction quiz is just based on the transcribed text on this page. | + | ======Introduction===== |
| - | \\ | + | Our CNC Router is a Shapeoko 3 XL. |
| - | ===CNC=== | + | The router has a usable bed size of 800mm X 350mm. |
| - | Computer Numerical Control is a manufacturing method that automates the control, movement and precision of machine tools through the use of preprogrammed computer software, which is embedded inside the tools. The laser cutter, 3D printers, Metal Mill, PCB mill and vinyl cutter are all examples | + | |
| - | \\ | + | We have 1/4" and 1/8" collets for the router, and a small collection of bits for basic operations. For anything more complex (or to guarantee a sharp bit) you should use your own router bits. |
| - | ===CAD=== | + | The router is driven using Carbide Motion, which is loaded on the Raspberry Pi the wooden box beside it. |
| - | CAD software, Computer Aided Design. This is the entry point to getting your machine to make something. First, design the item in this software, to create | + | The router |
| - | \\ | + | This wiki page will explain the basics of how to safely set up and run a simple job on the router. It will not teach you how to design things for the router, prepare files for cutting. |
| - | ===CAM=== | + | To learn more about the router, including how to design and prepare files for it, check out these videos by the manufacturer: |
| - | CAM software, Computer Aided Manufacturing, | + | * [[https:// |
| + | * [[https:// | ||
| + | * [[https:// | ||
| - | \\ | + | For first time CNC users, we recommend using the free version of Carbide Create to design and prepare your files, as this software comes pre-programmed with the parameters of our machine and our communial bits. |
| - | ===G Code=== | + | ======Parts and Layout===== |
| - | The is the language the CNC speaks, this is just a fancy word for the coordinates | + | |
| - | \\ | + | {{: |
| - | ===X, Y and Z=== | + | {{: |
| - | These are the directions or reference for the movement of the machine. X is side to side, Y is backward and forward, Z is up and down. One easy way to remember the directions is that there are 'Y rails' and a 'Z axis' on the machine physically. Therefore, the only thing left is X: side to side. | + | |
| - | \\ | + | {{: |
| - | ===Vector Graphics=== | ||
| - | Vector graphics, such as images saved in a SVG format, consist of lines and nodes, sometimes called points. These lines and nodes define the boundaries of any shape and art that you want to put in the computer. The information in the vector graphic allows the machine to follow the coordinates and create your art. | ||
| - | \\ | + | ====== Permitted Materials ====== |
| - | ===Tool Paths=== | + | You can work with the following materials on the CNC router: |
| - | Tool paths are the paths created by you and the CAD software. | + | * Hard wood |
| + | * Soft wood | ||
| + | * MDF | ||
| + | * Plywood | ||
| + | * Acrylic | ||
| + | * Delryn | ||
| - | \\ | + | You must NOT work with these materials: |
| + | * Metal | ||
| + | * Humans | ||
| - | ===Stock=== | + | ====== |
| - | The stock is the material that you put in the machine to be cut. | + | |
| - | \\ | + | ====1. Pre-Useage Checks==== |
| - | ===Feeds and Speeds=== | + | Before you use the CNC Router, it's important |
| - | Feed rate is the rate at which your end mill is being pushed through the material. This is generally in X & Y, so forward and backward, side to side. The Z or the plunge rate is something you also see and that is how fast it is being put into the material in a vertical fashion. | + | |
| - | The speed is the spin rate generated by your router. For the Shapeoko you'll adjust this via the dial on top of the router. | + | * That the drive belts look in good condition, with no cuts of frays. |
| + | * There is not a thick dust build up on top of the big silver gantries. | ||
| + | * That there is nothing inside | ||
| - | These two factors, in concert with your end mill, cut and shape your stock to produce your item. Feeds and speeds can be used generally or quite specifically. | + | You also need to check that: |
| - | \\ | + | * The fire extinguisher is present in the woodshop. |
| + | * The dust collector bag is not full. | ||
| - | ===Types | + | If you see anything wrong with the condition |
| - | Cutters, end mills or bits. | + | |
| - | End mills have a varying number of flutes or cutting | + | |
| - | **The Flat End Mill** is one that finishes in a completely flat surface designed to give you a flat bottom cut in your stock. These are the workhorses of CNC. 1/ | + | ====2. Starting |
| - | **The Ball End Mill** finish in a ball whose nose radius | + | |
| + | | ||
| + | * If the emergency stop button has been pressed, rotate it clockwise to reset it. | ||
| - | **V Cutters/ | + | Once the Raspberry Pi has booted: |
| - | **Fly Cutters**. These are used for face milling material, flattening | + | |
| + | * In Carbide Motion, press the " | ||
| + | * Press the " | ||
| - | **Upcut and Downcut**. Coming back to the topic of flutes, upcut or downcut refers to the direction of the flutes, the direction of the flutes creates a few basic effects. First, any chips or debris travelling off the cutter will be forced either upward or downward. Upward will have them automatically removed from the piece you are cutting, whereas downward will force those pieces towards the bottom of your stock. Second, up cut end mills pull at your part as they spin, they will put pulling force on your stock and therefore try and pry loose your material and your work holding better beyond | + | The router will now move to the rear rightmost |
| - | There are lots of other specialty end mills that you may come across or choose to experiment with as you progress in CNC But the above will take you 95% of the way to making nearly anything. | + | {{: |
| - | \\ | + | ====3. Clamping Down your Stock==== |
| - | ===Types of Machining=== | ||
| - | 2D, 2.5D and 3D machining. These are three types of machining you will hear referenced. | + | NOTE: All items for the CNC including probe pins, router bits, collets spanners and allen key can be found in the small draw under the Raspberry Pi and returned here after use. |
| - | 2D and 2.5 are nearly the same thing. 2D refers to the machine running in the X, side to side, and the Y, front to back, directions only. This assumes | + | *****Before |
| - | 2.5D machining indicates that the features | + | * Press the " |
| + | * From the Jog Screen, use the buttons on the screen or the USB pendant to move the router | ||
| - | 3D tool paths are created off 3D models. Depending upon the software you're using, you'll be able to see the 3D model of your design part, that part and your inputting of tool paths will create situations where the machine | + | * Place your stock on the spoilboard. Use the small "stop blocks" |
| + | * Use the Crush-It clamps on the opposite side of your stock to hold it securely. To do this. first loosen (but don't remove) the small screws on the front of the clamps, position the clamps tightly against your stock, bolt the clamps to the spill board, then tighten the front screw to push the clamp face firmly against the stock. | ||
| + | * Double-check | ||
| - | ===== Instructions ===== | + | Tip: The stop blocks have smooth and serated sides, and the Crush-It clamps have replacable smooth and serrated jaws. The serrated surfaces give better grip but can leave marks on some stock. |
| - | \\ | + | Tip: Make sure the clamps don't block your toolpath! |
| - | === Ground Rules === | + | Tip: Use bolts of the correct length |
| - | * All users must complete an induction prior to using the machine. | + | |
| - | * No metal materials, this CNC is just for use with wood and suitable plastics. | + | |
| - | * Don't try and bypass the safety interlocks. They are there to protect you and the machine. | + | |
| - | * Wear eye protection when the door is open. End mills can shatter if crashed. | + | |
| - | * Wear hearing protection and offer hearing protection to others | + | |
| - | * Keep fingers away from moving parts. | + | |
| - | * Tidy up afterwards. Vacuum up your dust and wipe down any dirty surfaces. | + | |
| - | \\ | + | ====4. Probing your Stock Location==== |
| + | We have a BitZero probe kit, which we use to accurately locate corner of your stock is and how tall it is. This is known as setting the "Work Zero". The kit consists of a probe pin, a probe plate, and a magnetic earth connection. To use the BitZero: | ||
| - | ===Creating a design in Carbide Create=== | + | * Remove the dust shoe (it's magnetically attached and just pulls downwards) |
| - | At the time of writing | + | * Install a probe pin into the router collet (using the instructions for installing router bits and probe pins at the bottom |
| + | * Place the probe plate on your stock so so that is tight to the front left corner. | ||
| + | * From the Jog Screen, use the buttons on the screen or the USB pendant to position the router so that the tip of the probe is within the circular hole in the probe plate. | ||
| + | * Attach the magnetic earth to the router collet. | ||
| + | * From the Jog Screen, press Probe. A pop-up window will open. | ||
| + | * Press " | ||
| - | The is just a basic How-To | + | The router will move slowly |
| - | When you first open Carbide Create you will be presented with the design screen. This is where you create/ | + | When it has finished doing this, a pop-up window |
| - | Hovering your mouse over any of the buttons brings up a tooltip with a brief description of what it does. | + | * Remove |
| + | * Press the Ok button. | ||
| - | == Stock and machine | + | The router will now move to the front-right |
| - | The first step is to enter your stock and machine settings. | + | {{: |
| + | {{: | ||
| - | Click on the settings icon. | + | ====5. Loading your File==== |
| - | {{: | + | * Insert your USB drive into USB port on the front of the Raspberry Pi case. |
| + | * Cancel the " | ||
| - | This brings up the 'Job Setup' box. | + | * Press " |
| + | * Press "Load New File" on the Job Info Screen. | ||
| + | * In the Open File pop-up, navigate to your USB drive (computer → / → media → cncuser → your USB drive) and open your .C2D file. | ||
| - | {{:equipment: | + | Tip: You can sanity-check your file is correct by switching to the Top View tab. |
| - | Enter the width and height of your material(stock). Once applied this will also update the grid on the design screen to match. | ||
| - | Enter the stock thickness, if you are cutting all the way through it then it's very important to get this correct. The 'Zero Height' | + | ====6. Starting your Job==== |
| - | The Toolpath Zero drop down allows you to select where in relation to your design you are going to set the zero point on the machine. This might sound complicated but it should become clear when we cover setting | + | * Press "Start Job" |
| + | * On the pop-up, press " | ||
| - | Under the ' | + | The spindle will now move to the front-right, and a new pop-up |
| - | Once you have finished click ' | + | * Install your first router bit into the router (using the instructions for installing router bits and probe pins at the bottom of this page). |
| + | * Re-fit the magnetic dust shoe. | ||
| + | * Switch on the dust collector. | ||
| + | * Open the blast gate for the CNC router, and close the blast gates for any machines | ||
| + | * Close the cabinet doors. | ||
| + | * Press the " | ||
| - | == Creating | + | The spindle will now spin up, and a new pop-up will ask you to check the speed setting on the router. |
| - | Now you can use the 'Crete Vector' | + | |
| - | {{: | + | * Check the speed dial on the router matches the requested speed in the pop-up. |
| + | * If it doesn' | ||
| + | * Press " | ||
| - | For this example we are going to draw a square 150mm X 150mm which will be the outer line of our design. | + | After a brief pause, |
| - | Click on the create rectangle tool, click once on the grid to select the centre of the rectangle then move your cursor to set the size of the rectangle and click again to finish. You don't have to worry about getting the square the correct size or in the correct place when drawing it as these can be easily changed later. | + | {{: |
| + | {{: | ||
| + | {{: | ||
| + | {{: | ||
| - | With the rectangle drawn and selected you will then see more options in the toolbar on the left. | + | ====7. While the Machine is Running==== |
| - | {{:equipment: | + | The machine MUST be closely supervised at all times when running. This is to ensure: |
| - | In the 'Parameters' | + | * The workpiece remains firmly clamped |
| + | * The machine doesn't jam or get stuck | ||
| + | * The extraction is clearing dust effectively | ||
| + | * There is no risk of fire | ||
| - | The ' | + | Opening |
| - | {{: | + | Hitting the E-stop button during the job will kill the power to the controller and spindle. |
| - | The Anchor point selection allows you to choose what point on the shape to use for the measurements. The Position shows the location of the selected point in relation to the bottom left corner. X is how far the shape is away left to right and Y is the distance bottom to top. By selecting the anchor point in the lower left and specifying 10mm in both the X and Y boxes the square is moved 10mm away from both the lower and left edge of my stock. | + | ====8. Changing Bit During a Job==== |
| - | {{: | + | Some jobs require more than one bit to complete, and you will be asked to change bits partway through. |
| - | For the sake of simplicity I will not be covering any of the other ' | + | When this happens, |
| - | == Edit Tabs == | + | ====9. After your Job==== |
| - | In the ' | + | |
| - | If you are cutting a part out from a larger piece of stock that it clamped in place it is important that your part doesn't become separated | + | When you're finished, you should always: |
| + | * Clear any waste or debris | ||
| + | * Log out of the machine | ||
| + | * Shut down the Raspberry Pi if the machine isn't going to be used again soon. | ||
| - | The easiest way to ensure a part you want to fully cut out doesn' | + | ====How |
| - | Selecting the 'Edit Tabs' option will allow you to click anywhere along a vector line to place a tab. You can also click the 'Clear all tabs' button to delete all the tabs. I will click roughly on the midpoint of each line of the square to add a tab, we will specify the physical sizes in a later step. | + | The cutting edges of bits can be sharp so gloves should be worn when changing bits. |
| - | Tabs added to the square. | + | To install a router bit or probe pin: |
| + | * Remove the dust shoe. | ||
| + | * Hold the yellow button on the side of the router and use a 17mm spanner | ||
| + | * Once the collet is loose, you can withdraw | ||
| - | {{:equipment: | + | * We have a 1/4" and 1/8" collet, to suit different bits. If you need to swap to the other collet: |
| + | * Continue to unscrew the collet nut until the collet and nut can be removed from the router. | ||
| + | * Screw the other collet and nut into the router in it's place. | ||
| - | == Importing designs == | + | * Insert the new bit or pin into the collet. |
| - | On the main design screen, just below the Create Vector section | + | * Make sure that the bottom of your bit or pin does not protrude more than 150mm below the bottom of the aluminum bracket that holds the router. There is a helpful L-shaped guide in the drawer to assist when measuring this. |
| + | * Hold the yellow button on the side of the router, and use a 17mm spanner to firmly tighten | ||
| - | {{: | + | {{: |
| - | As the title suggest, this allows you to import designs. The ' | + | ====== Glossary |
| - | For this design I am going to import the Hackspace logo the adjust its size and position to centre it within | + | Most definitions here are adapted from Carbide3D’s video series, with small changes for our machine |
| + | **Tip:** These are the basics you’ll need for your induction quiz. Links to the original videos are at the bottom if you want to go deeper. | ||
| - | {{: | + | ==== Core Concepts ==== |
| - | Something to note is because this file contains two vector drawings | + | **CNC** – //Computer Numerical Control// |
| + | A computer-controlled machine that moves a cutting tool with high precision. Our laser cutter, 3D printers, | ||
| - | {{: | + | **CAD** – // |
| + | Software used to design your part. You draw shapes, add features, and prepare them for cutting. | ||
| + | * **We use:** Carbide Create (free version is fine) | ||
| + | * **Why it matters:** This is where you create the geometry of your project. | ||
| - | The Boolean section has tools to combine separate vector drawings whilst doing things like cutting one shape from another or only keeping parts that overlay. Please refer to the manual for more details. | + | **CAM** – // |
| + | Software | ||
| + | * **We use:** Carbide Motion (pre-installed on the workshop Raspberry Pi) | ||
| + | * **Why it matters:** This is the “translator” between your design and the machine. | ||
| - | For this particular design I want the cog outline but not the big H inside it, so I will click on an empty space to deselect the two vectors then click on the H to select just the H and hit Delete on my keyboard | + | **G-code** |
| + | The text-based “language” CNC machines read. Generated automatically by CAD/CAM software. You don’t need to write it manually. | ||
| - | {{: | + | ==== Machine Movement ==== |
| - | I can now click on the cog outline to select it and use the ' | + | **Axes** |
| + | * **X:** Left ↔ Right | ||
| + | * **Y:** Front ↔ Back | ||
| + | * **Z:** Up ↔ Down | ||
| + | //Tip: Y has the “Y rails” | ||
| - | To align it with the square I could use the move tool and work out the position relative | + | **Home Position** – The fixed point the machine returns |
| + | **Work Zero** – Your chosen starting point for a specific job (usually a corner or centre of the stock). | ||
| - | {{: | + | ==== Design Files ==== |
| - | This can work in a couple | + | **Vector Graphics**\\ |
| + | Drawings made of lines and points (e.g., SVG files). Ideal for CNC because | ||
| - | Click on the cog first then hold the Shift key and click on the square so both are now selected. | + | **Toolpaths**\\ |
| + | The routes your cutter will follow. Defined in CAD, turned into G-code in CAM. | ||
| - | Click on the Align tool button and the 'Align / Space' tool bar will show. | + | ==== Materials & Workholding ==== |
| - | {{: | + | **Stock** – The material you’re cutting.\\ |
| + | **Spoilboard** – A sacrificial board under the stock to protect the machine.\\ | ||
| + | **Workholding** – Clamps or other methods to secure your stock so it doesn’t move. | ||
| - | The 'Align Reference' | + | ==== Cutting Parameters ==== |
| - | We want to align the centres so we are going to select | + | **Feed Rate** – How fast the cutter moves through |
| + | **Plunge Rate** – How fast the cutter moves down into the material | ||
| + | **Spindle Speed** – How fast the bit spins (RPM), adjusted on the router dial.\\ | ||
| - | The cog is not aligned with the outer square. | + | //Why it matters:// These three settings determine cut quality and safety. Carbide Create has safe starting values for common materials. |
| - | {{: | + | ==== Tools & Cutters ==== |
| - | The last thing we are going to do it add some text inside the cog. In the ' | + | **End Mill / Bit** – The cutting |
| + | * **Flat End Mill** – Flat tip, general-purpose cutting. | ||
| + | * **Ball End Mill** – Rounded tip, for 3D contours and smooth finishes. | ||
| + | * **V-Cutter** – Angled tip, ideal for engraving and sign work. | ||
| + | * **Fly Cutter** – Large flat cutter for surfacing spoilboards or material tops. | ||
| - | This opens the Create Test toolbar and adds the text to the centre of your design space. | + | **Flutes** – The cutting edges on a bit. More flutes = smoother cut, fewer flutes = faster removal. |
| - | {{:equipment:woodshop:carbide_create_mainscreen_text.jpg? | + | **Upcut / Downcut** – Direction of flute spiral: |
| + | * **Upcut:** Pulls chips up and away (better chip removal, but can lift stock). | ||
| + | * **Downcut:** Pushes chips down (better surface finish, but can trap chips). | ||
| - | You can then use the tools on the left to input the text you want, select font size and spacing, change | + | **Shank size** – the size of the diameter |
| + | * **1/8** - 1/8 inch (3.175mm). | ||
| + | * **1/4** - 1/4 inch (6.35mm). | ||
| - | {{: | + | ==== Machining Types ==== |
| - | + | ||
| - | I can then use the same steps from above to align the test with the centre of the cog or square. | + | |
| - | + | ||
| - | {{: | + | |
| - | + | ||
| - | For this How-To the design is not complete. The next step is to generate the toolpaths for the machine. | + | |
| - | + | ||
| - | Don't forget to save your work by clicking on File - Save. | + | |
| - | + | ||
| - | ===Generating toolpaths in Carbide Create=== | + | |
| - | + | ||
| - | Now we have our completed design the next step is to create the tool paths so the machine knows what we are milling out and with what tools. | + | |
| - | + | ||
| - | Select the ' | + | |
| - | + | ||
| - | {{: | + | |
| - | + | ||
| - | There are a number of different 2D toolpaths available, for our design we will be using the Contour, Pocket and VCarve toolpaths. | + | |
| - | + | ||
| - | To cut our design out we first need to pocket out the cog shape, carve the text into the bottom of the pocket then finally cut around the outside of our design. You should create your toolpaths in the same order you plan to run the actually cutting jobs on the machine. | + | |
| - | + | ||
| - | SO our first step is to pocket out the cog shape. Click on the cog vector line so it is selected. Click on ' | + | |
| - | + | ||
| - | You will now see the Pocket toolpath parameters. | + | |
| - | + | ||
| - | {{: | + | |
| - | + | ||
| - | The first step is to select the tool/bit you are using. Carbide Create has a tool library where each bit is already configured with the recommended Speeds & Feeds for that particular bit used with a particular material type. The Hackspace provides a small selection of bits that are equivalent to the some of the bits in the tool library. We recommend you stick to using this bits until you are more confident with using the machine. | + | |
| - | + | ||
| - | I want to perform the pocket with a 1/8" ball nose endmill to give the edge of the pocket a rounder shape and give the bottom of teh pocket an interesting texture. | + | |
| - | + | ||
| - | To select your tool click on the ' | + | |
| - | + | ||
| - | {{: | + | |
| - | + | ||
| - | In this window you can override some of the default setting for the tool, we are going to use all the default settings for our design. | + | |
| - | + | ||
| - | The top section allows you to change the selected tool by clicking the the ' | + | |
| - | + | ||
| - | {{: | + | |
| - | + | ||
| - | The tools are separated into different categories based on the material you will be cutting. Again please note that even though there is a Aluminium category cutting metal on this CNC is not permitted. | + | |
| - | + | ||
| - | The tool I want to use is the 1/4 Ball Endmill which had the equivalent tool number #202. My material is a hardwood so I will navigate to the ' | + | |
| - | + | ||
| - | The next selection down in the ' | + | |
| - | + | ||
| - | The next section down is the ' | + | |
| - | + | ||
| - | The final option is the ' | + | |
| - | + | ||
| - | Once you are happy with your chosen parameters click ' | + | |
| - | + | ||
| - | {{: | + | |
| - | + | ||
| - | The next step is the text VCarve. Like before we are going to select the vector we want to work with, the text " | + | |
| - | + | ||
| - | {{: | + | |
| - | + | ||
| - | Like before we can click on ' | + | |
| - | + | ||
| - | {{: | + | |
| - | + | ||
| - | We now need to make a change to the cutting depth. As we are VCarving on the bottom of a pocket cut-out we need to change the start depth to the same depth that we cut the pocket to. SO in this instance out start depth needs to be 10mm. We then need to change the Max Depth. The way VCarving works in Carbide Create is that regardless of what the Max Depth is set to the V bit will only go as deep as it needs to carve out the width of the text. The one cavate to this is if Max Depth is set to is set to a shallower depth the bit will only cut to the set shallower depth. For this design I will set the Max Depth to 15mm meaning the tip of the V bit will either cut to 5mm depth or until the width of the V bit fills the width of the text, whichever comes first. | + | |
| - | + | ||
| - | As before, give it a suitable name and then click OK. This job should now appear under the 'Cog Pocket' | + | |
| - | + | ||
| - | The final step is to use the ' | + | |
| - | + | ||
| - | As before select the vector we want to work with, the outer square, and click on the ' | + | |
| - | + | ||
| - | The Contour Toolpath parameters are very similar to what we have already seen but with a couple more options. | + | |
| - | + | ||
| - | {{: | + | |
| - | + | ||
| - | In the tool section we are going to click Edit then Select Tool and select the tool #102 End Mill (1/8") from the same Hardwood section we have used before. | + | |
| - | + | ||
| - | In the Cutting Depth section we are going to set out starting depth to 0mm, which if you recall is the top of our stock, and set the Max Depth to cut all the way through our stock. You can enter the depth manually or click on 'Use Stock Bottom' | + | |
| - | + | ||
| - | In Toolpath Setting there is a dropdown that allow you to choose an offset, either ' | + | |
| - | + | ||
| - | The next section down is ' | + | |
| - | + | ||
| - | Lastly, give the toolpath a suitable name and click OK. | + | |
| - | + | ||
| - | The toolbar should now list the three job we have configured as shown below. | + | |
| - | + | ||
| - | {{: | + | |
| - | + | ||
| - | Below the list is the ' | + | |
| - | + | ||
| - | Clicking on 'Show Simulation' | + | |
| - | + | ||
| - | {{: | + | |
| - | + | ||
| - | You can use the left mouse button to rotate the view and the right mouse button to drag the view. If you rotate it you will be able to see the toolpath preview showing the pocket and contour being cut with several passes at slightly different depths. | + | |
| - | + | ||
| - | To get a better view of what your part will look like you can use the checkboxes on the ' | + | |
| - | + | ||
| - | {{: | + | |
| - | + | ||
| - | We are now finished designing out part and configuring all the toolpaths. | + | |
| - | + | ||
| - | Below the Simulation section there is the 'Save Toolpaths' | + | |
| - | + | ||
| - | You can now transfer your design file, that now also includes the toolpaths, onto a USB stick and head over to the machine. | + | |
| - | + | ||
| - | ===Powering up machine=== | + | |
| - | ===Homing=== | + | |
| - | ===Clamping stock=== | + | |
| - | ===Installing bit=== | + | |
| - | ===Setting workspace coordinates and probing=== | + | |
| - | ===Loading, Checking and Running the Gcode Toolpath=== | + | |
| - | ===Cleaning Up=== | + | |
| - | + | ||
| - | ===== External links ===== | + | |
| - | === Carbide 3D video guide on using Carbide Create === | + | |
| - | https:// | + | |
| - | + | ||
| - | Video tutorials. | + | |
| - | Cut Rocket | + | |
| - | YouTube | + | |
| + | **2D Machining** – Cutting shapes at a constant depth.\\ | ||
| + | **2.5D Machining** – Multiple depths, but cutting one flat layer at a time (e.g., pockets + cutouts).\\ | ||
| + | **3D Machining** – Machine moves in X, Y, and Z simultaneously to create complex curves.\\ | ||