What I did in Week 03

The work this week focused on understanding and using computer controlled cutting tools, especially the laser cutter and vinyl cutter, and documenting a parametric construction kit that can be assembled in multiple ways.

Deliverables for the week:
  • Grupal: Do your lab's safety training. Characterize your lasercutter's focus, power, speed, rate, kerf, joint clearance and types
  • Individual: cut something on the vinyl cutter
  • Individual: design, lasercut, and document a parametric construction kit, accounting for the lasercutter kerf
  • extra credit: design it to be assembled in multiple ways
  • extra credit: include elements that aren't flat
  • extra credit: engrave as well as cut

Vinyl cutter

Vinyl cutting is a digital fabrication technique that uses a cutting plotter to cut precise shapes and designs from sheets of vinyl material. The machine's blade follows time-defined paths in a digital file, allowing for the creation of everything from letters and logos to complex decorative designs with great accuracy. Excess material is removed manually, leaving only the desired design on paper. This technique is widely used in signage, decoration, clothing, electronics, and prototyping, making it one of the most accessible and versatile tools in digital fabrication labs.

TinstallGIT

Phase 1 ·

Our digital fabrication lab has a Roland VersaSTUDIO GS2-24 cutter with the following specifications:

  • Maximum Cutting Speed: 850 mm/s
  • Maximum Cutting Force: 500 gf
  • Maximum Cutting Width: 581 mm
  • Maximum Cutting Length: 25 m
  • GitLab — User

    Phase 2 ·

    We must install the Roland cutStudio program which is easy to access and install for both Windows and iOS.

    open git

    Phase 3 ·

    With the software installed, let's load the vectors we want to cut. In our case, we want to cut the laboratory logo, which we have in AutoCAD. To load the vectors into CutStudio, we simply copy them from AutoCAD and paste them into CutStudio. There, we can position them on the vinyl where we want the cut to be made and adjust the size of the cut area.

    ssh key

    Phase 4 ·

    To make a cut we will use a red textile vinyl, this material is used to print on a textile garment using a heat iron.

    open git

    Phase 5 ·

    We load the material from the back of the machine and push the lever down to adjust the material.

    open git

    Phase 6 ·

    We configure the presentation of our material, which in our case is a roll.

    open git

    Phase 7 ·

    We set the cutting force of the machine, which for this textile vinyl is 220gf.

    open git

    Phase 8 ·

    8. In cutStudio we select the Cut icon, confirm that the GS2-24 machine is selected and send to cut.

    open git

    Phase 9 ·

    We check our cut, remove the material that we don't need, and the cut is ready.

    Laser cut

    Laser cutting is a digital manufacturing technique that uses a high-powered laser beam to cut or engrave materials such as wood, acrylic, cardboard, leather, and fabric with great precision. The machine interprets vector or image files to direct the laser onto the material, capable of both complete cutting and surface engraving depending on the configured intensity and speed.

    TinstallGIT

    Phase 1 ·

    Our digital fabrication laboratory has an Epilog Fusion Maker 24, 40W laser cutter.

    TinstallGIT

    Phase 2 ·

    We must install the program and drivers to control the laser cutter. The program can be downloaded from the Epilog website; it is free to download and easy to install.

    TinstallGIT

    Phase 3 ·

    Now we continue with the design of what we want to cut, for now design in AutoCAD some geometric shapes that can be assembled together.

    TinstallGIT

    Phase 4 ·

    In order to load the file we designed into the laser cutter program, we send it to print from AutoCAD, but we choose the EPILOG ENGRAVER printer and we must configure the paper size in which our design is located, in my case it is A4 size.

    TinstallGIT

    Phase 5 ·

    In this case the material I used is 3 mm acrylic, it is leftover from a previous project which I am going to give a new use to which are geometric figures that can be assembled together.

    TinstallGIT

    Phase 6 ·

    We place the material on the cutting bed of our laser machine and the advantage of this machine is that it has a camera where we can observe from the computer and place the vectors on the pieces.

    TinstallGIT

    Phase 7 ·

    The next step is to configure the frequency, power, and speed of the laser to cut the material. The advantage of this program is that it has a library of materials where the optimal parameters for the process are already set.

    TinstallGIT

    Phase 8 ·

    With the cutting parameters ready, we choose automatic material focus and send the file to PRINT.

    TinstallGIT

    Phase 9 ·

    For engraving, the same process is followed, but the difference is that in the process type we choose ENGRAVING

    TinstallGIT

    Phase 10 ·

    On the laser cutter, we select the corresponding file and press play. Please note that the fume extractor and compressor must be turned on ALWAYS for cutting!

    TinstallGIT

    Phase 11 ·

    In the end, with all the pieces I cut, I painted some of them and was able to assemble that structure.

    TinstallGIT

    Phase 12 ·

    Also, have the laboratory logo laser engraved.