This video chronicles a one-day project to build a large sliding door for a new workshop. The creator utilizes construction lumber for the frame, OSB panels for the cladding, and a pre-made sliding door kit. The construction emphasizes strong mortise and tenon joints for the frame and incorporates a unique design for mounting the OSB panels flush. Challenges include adapting the door kit for a thicker-than-intended door and addressing significant noise from the steel rollers. The creator experiments with 3D-printed shims and guides to mitigate the noise, achieving some improvement. Despite not completing the project in a single day and still having some noise issues, the door becomes functional, and the video concludes with plans for a future, more integrated electric sliding door system.
Summarizing the Workshop Sliding Door Build:
0:00 Project Goal: The creator aims to build a large (1.7m wide, 2.2m tall) sliding door for their new workshop in a single day, prioritizing functionality over an immediate electric/automatic system.
0:47 Materials: The primary materials are construction lumber for the frame, OSB panels for the door face, and a pre-packaged sliding door kit.
2:19 Frame Construction: The door frame is built using robust mortise and tenon joints, cut with a pan router, and reinforced with screws for strong clamping.
2:47 Team Effort: The creator is joined by friends Stefan and Robin who assist with the project, including coffee breaks.
5:41 Bottom Guide Channel: A slot is routed into the bottom piece of the door frame to accommodate two aluminum channels, which will serve as the bottom guide for the door.
8:02 Frame Assembly: The large door frame is successfully assembled with tight-fitting, glued, and screwed mortise and tenon joints, ensuring perfect flushness and good diagonals.
10:57 OSB Panel Preparation: Four large OSB panels are cut to size to fit within the door frame.
12:00 Panel Mounting Design: Strips of wood are mounted around the inner frame, creating a recess for the OSB panels to sit slightly below the outer surface, adding a design detail with chamfered edges.
14:43 Rail Installation Prep: The 4-meter-long sliding door rails are cut to 3.5 meters, and an additional layer of OSB is added to the wall to create the correct offset for the door's increased thickness.
16:19 Rail Mounting Height: The precise mounting height for the rail is calculated using the door's height and the kit's specifications, then marked with a laser for accurate installation.
20:10 Roller Installation: The rollers, which attach to the door for hanging, are mounted onto the door frame despite minor drilling misalignments.
21:14 Door Hanging: The large, heavy door is successfully lifted and hung on the installed rail, allowing it to slide, though it initially scratches the floor.
21:34 Bottom Guide Mechanism: A custom bottom guide is fabricated using an angle bracket, a bearing, and a 3D-printed "rubber wheel" designed to ride in the door's bottom channel.
25:01 Panel Installation & Painting: The OSB panels are screwed into place, and then painted white to give the door a finished appearance, despite the surrounding wall not yet being complete.
25:27 Noise Troubleshooting & Solutions: The steel-on-steel contact of the rollers and track causes significant noise. The creator diagnoses it as metal rubbing due to play and attempts to fix it by 3D printing shims to center the rollers and thoroughly cleaning the tracks.
28:25 Final Guides & Stops: End stops from the kit are installed, along with an additional custom bottom guide for the closed position, to prevent the door from bumping into the wall.
29:16 Functional Door: The door is functional and slides, albeit still a bit loud.
30:25 Future Plans: The creator reiterates long-term plans to build an electric sliding door and potentially a false wall for the door to slide into, reclaiming wall space.