70-Year-Old Man Builds His Dream Wooden Boat by Hand | Full DIY Journey‪@TipsfromaShipwrightvideos‬

Nearly 10 years after the original idea was conceived, the 23-foot V-bottom skiff is finally complete. A design brought to life entirely through hands-on fabrication and assembly, with each detail shaped and fitted directly to the hull. To bring this design to life, the process begins with building the hull. Side planks, over 25 feet long, are joined into two large sections for the port and starboard sides. Each edge is planed and fitted section by section until the two plank assemblies close up tightly from end to end. Without a complete set of plants, the dimensions are taken directly from the scale model, using reference lines such as the centerline and waterline, then transferred to full scale to establish the main mold. The transom is laminated from six layers of white oak, each 7 over 16 inch thick. The layers are set at slightly different angles and bonded with epoxy under vacuum, creating a solid structure with greater resistance to splitting. Once cured, the six layers become almost a single piece, roughly 6 feet wide and 30 inches tall, strong enough to handle the loads from the outboard motor. From there, the stem is beveled to receive the side planks. The 25 foot planks are left overhanging the stem before being cut back to follow the actual shape of the hull. Next come the chinelogs, running from the stem at the bow, bending inward toward the stern, before returning against the transom. Their forward ends are beveled to create the transition for the bottom planking. Bedded in polysulfite and fastened with bronze screws, the chines begin to define the transition between the sides and the v-shaped bottom of the hull. Next comes the frame system, made from the remaining white oak and shaped to wrap around the chines. Once secured along the hull, the frames pull the cupped side planks back into shape, while controlling the roll of the chines. A batten running around the frame heads then locks in the shear and stabilizes the shape of the upper hull. Once the frame structure is stabilized, the sole is laid across the boat from chine to chine using 1 1⁄8 inch white cedar planks. This flat sole not only provides the interior standing surface, but also becomes an integral part of the hull structure. The planks are pressed tightly together and held temporarily with nails and washers, rather than permanent fasteners. This allows all the fasteners to be removed after the epoxy cures, so the chine and the edge of the first plank can be shaped with an electric planer to create a fair surface for the bottom planking that follows. After the sole comes the keelson, a timber running along the centerline from the stem to the transom. At the stern, the keelson fits into a slot in the transom, while at the bow, it connects to the stem with a long glue scarf that provides a large bonding surface. Once the keelson is in position, the bevels and rabbet are shaped directly to the hull's actual form, creating the bearing surface for the bottom planking. Next, three longitudinal stringers are added between the sole and the bottom, dividing the structure into smaller spans and providing additional support for the bottom planking. The two outer stringers run parallel to the centerline aft, then bend and twist inward toward the bow to follow the shape of the v-bottom. At this point, the structure beneath the sole has all of its main supports in place, ready for the first layer of bottom planking. The first layer of bottom planking is made from three-eighths-inch Atlantic white cedar, fitted piece by piece against the keel, bonded with epoxy and temporarily secured with ring nails. The bow is the most challenging area because of the severe twist, so narrower planks are used to make the bend easier. The hangover and cut-off method allows the plank edges to be trimmed accurately after they have been fitted to the hull. After the first layer of bottom planking, 1,708 fiberglass is applied across the centerline, tying both sides of the bottom together and sitting between the first layer of planking and the second keel layer in the composite structure. The second layer of bottom planking also uses three-eighths-inch Atlantic white cedar. The planks are pressed into epoxy and temporarily secured with duplex nails and washers, which are later removed and replaced with permanent bronze screws. Once the bronze screws are recessed below the surface, all the screw holes are filled with total fair and fared smooth. The bottom has now become a wood core approximately three-quarters of an inch thick, ready for two additional layers of 1,708 fiberglass to complete the composite structure. The entire hull is coated with two layers of Total Protect two-part epoxy barrier coat, thinned by approximately 10% with sanding between coats. The coating protects the fiberglass while helping fair out the remaining imperfections in the hull. At the same time, additional lumber is prepared for the rails, inwales and other finishing pieces, including the center runner running along the center of the bottom. It helps with directional stability, provides a solid point for jacking or moving the boat and protects the fiberglass underneath. To flip the skiff within the tight space of the workshop, a large wheel system is built from leftover plywood. Each wheel is approximately 104 inches in diameter, with its center carefully positioned according to the hull shape to provide just enough clearance from the floor and ceiling. The two wheels are set on trailer rollers and connected as a system that allows the entire hull to rotate around its axis. After the flip, the upper hull is completed with the four remaining side planks, two on each side. The planks have already been fitted, then bedded in polysulfide and fastened to the frame system. Once the final planks are secured, the upper hull is closed up and the shape of the v-bottom skiff becomes much more defined. The sheer line is adjusted to match the intended design, using a long batten as a guide for the circular saw as the cutting angle changes with the hull's flare. Once the excess planking is removed, the frame heads are finished with a hand saw. The top of the transom is also lowered by about three inches and cut along its curve, bringing the sheer line into its intended final shape. The bow is further finished with a cutwater, laminated from multiple thin layers of white oak and shaped directly to the curve of the stem. Once the epoxy cures, the laminated piece is planed to fit the contours of the bow. The two guards are then bedded in polysulfide and fastened along the sheer. Their outer edges are tapered to bring the contact surface closer to plumb, helping protect the upper edge when coming alongside a dock or another boat. At the bow, the breast hook is made from a figured white oak crook. Its shape and contact angles are taken directly from the bow of the boat and transferred to the blank for cutting and shaping. Once fitted into position, the grainlines nearly converge at the center, creating a structural detail that is both strong and visually striking. The inwales are fitted from the breast hook at the bow to the lodging knees at the stern, creating a continuous structural line along the inside edge of the hull. Both white oak pieces are saw fitted repeatedly to achieve tight joints. The challenge is keeping the inwales at the correct height relative to the guards along the entire hull, even though the contact angles at each end are quite different. Once in place, the inner edge of the skiff is substantially closed in. Before installing the caps, the tops of the inwales and guards are planed to create a matching bevel with a slight slope to allow water to drain away from the gunwale. The white oak cap sections are then joined with scarf joints approximately 13 inches long. The shoulders help keep the glue lines straight and tight, as the cap sections are joined into one continuous line around the gunwale. With construction complete, the hundreds of fastener holes in the woodwork are filled with white oak plugs made from leftover capstock. The plugs are lined with a grain, set with epoxy, then cut and leveled to leave a seamless surface. Once all the fastener holes have been treated, the bright work is ready for varnish. The first sealer coat brings out the grain of the white oak, especially in the pieces made from highly figured stock. After the varnish work, the transom is cut down to the proper height to receive the outboard. The cut is laid out from the centerline, with the upper corners shaped to a radius and finished with a handsaw and chisel. Finally, the hull receives its wet-edged topside paint, completing the exterior finish. The skiff is then loaded onto the trailer and prepared to head to the outboard shop before its first sea trials. Once in the water, the skiff quickly gets on plane and remains stable even through light chop. The hull holds its course well, turns smoothly and stays controlled at higher speeds. A V-bottom that improves the ride on the water without sacrificing the stability and practicality of a work skiff, exactly what the design set out to achieve from the beginning.