A lakeside lot in New York’s Catskill Mountains came with two conflicting demands: the new home had to fit the character of its neighbors in a private community, and it had to open onto a lake at the bottom of a steep slope. The timber frame house that resulted solves the problem with a layout the designers call upside-down living. Entry and guest rooms sit at the top of the site, while the living spaces drop to lake level, where a great room with a wall of windows meets the water. The structural timber engineering behind the frame makes the arrangement work, because long clear spans and a balcony that overlooks the great room both depend on posts and beams rather than interior walls.
From the street the house reads low-slung, clad in stone and wood, with peeled timber posts flanking the front door. Inside, curved stairs lead down past a loft and balcony to the lake level, where the kitchen, dining area, great room, master suite, library, and garage all gather. The upside-down plan hides the house’s full height from the road while giving every main room direct access to the shore. The kitchen, with its oversized island, shares the lake views through the great room’s wall of windows, so cooking and conversation stay connected to the water.
Upside Down Living: Flipping the Conventional Layout
Most homes put bedrooms upstairs and living spaces down. This plan reverses the order because the grade, not tradition, decides the arrangement. Comparing log home and timber frame construction shows why a frame suits the flip: the open great room at lake level needs clear spans, and the balcony above needs a post and beam grid that a stacked log wall would not allow.
Entry at the Top, Living at the Water
The entry level holds the loft, a long balcony overlooking the great room, three guest bedrooms, and a game room paneled with reclaimed barn siding under Douglas fir trusses. Handcrafted stairs curve down to the lake level, where the great room opens to the shore. Guests arrive at the top and are pulled downward by the view, which makes the descent part of the experience. The game room adds a wet bar and a raised deck reached by patio doors, so the entry level holds its own gathering space instead of acting as a pure hallway.
Guest Bedrooms on the Entry Level
Keeping the guest rooms upstairs separates sleeping quarters from the main living floor, so late-night conversation in the great room does not carry into the bedrooms. The connecting balcony gives each guest room a view down into the house and out toward the water, and the loft adds a reading spot that overlooks both.
Reclaimed Timber: Sourcing and Specifying Salvaged Wood
Reclaimed wood runs through nearly every surface of this house: timbers, stairs, flooring, siding, and cabinetry all came from salvaged sources. Owners who want this look often start with the log and timber home online university, where courses cover how to specify salvaged material and what to inspect before a beam goes into the frame.
Where Reclaimed Timbers Come From
The best salvaged stock comes from deconstructed barns and former industrial buildings, where crews take the structure apart piece by piece rather than bulldozing it. A barn yields timbers with decades of seasoning already complete, which means the wood is dimensionally stable and ready to work. Industrial buildings add another source of large-section beams, though each piece has to be screened for the chemicals and fasteners it may have absorbed. The millwork side of the project, kitchen cabinetry and the custom stairs, was handcrafted from the same reclaimed family of woods so the grain story carries from frame to furniture.
Grading and Testing Salvaged Lumber
Not every old beam is structural material. Salvaged stock needs a metal scan to find hidden nails and bolts, a moisture check, and a grade assessment before an engineer will accept it into a frame. The character that makes reclaimed wood beautiful, the saw marks, bolt holes, and weathering, also makes it harder to grade, so the design team has to decide early which pieces carry loads and which are decorative.
| Consideration | Reclaimed timber | New timber |
|---|---|---|
| Sourcing | Deconstructed barns and industrial buildings | Fresh-sawn from managed forests |
| Character | Weathered patina, saw marks, nail holes | Uniform grain and predictable color |
| Lead time | Variable, depends on available inventory | Scheduled from the mill |
| Engineering | Needs grading, moisture check, metal scan | Graded at the mill with traceability |
The Building Envelope: Structural Insulated Panels
The frame is left exposed on the interior, but the exterior enclosure comes from stress-skin panels that wrap the house in a continuous layer of insulation. Timber companies display this combination at log and timber home shows, and seeing the panel joints in person makes the trade-offs easier to judge than any brochure.
How SIPs Work With an Exposed Frame
A structural insulated panel sandwiches a rigid foam core between two structural facings, usually oriented strand board. The panels span between the timber frame members, so the frame carries the loads while the panels carry the insulation and air barrier. The result is an efficient, weathertight envelope with the wood structure left visible inside.
Air Sealing and Weathertightness
Panel performance depends on the joints. Every seam between panels and timbers has to be gasketed and sealed, and window and door openings need flashing integrated into the panel layup. A blower door test after installation finds the leaks while the joints are still reachable.
- Set panel dimensions to the frame grid so every joint lands on a timber face
- Gasket each panel to timber joint before fastening the panel in place
- Tape or seal all panel seams, then verify the envelope with a blower door test
- Detail window and door openings with flashing built into the panel layup
Radiant Heat and Indoor Climate
Radiant heat throughout keeps the house warm without blowing dust around exposed timber surfaces. The system also changes the mechanical budget, so the path to home affordability for log and timber builders includes comparing radiant options against forced air before the concrete is poured.
Radiant Floor Heating Basics
Radiant heat warms people and objects directly instead of heating the air first. Water circulates through tubing embedded in the floor, and the slab or subfloor acts as a large radiator that releases heat evenly. In a house with soaring ceilings, that matters: forced air would dump heat at the ceiling line, while radiant keeps the occupied zone comfortable.
Zoning and Controls
Radiant systems are easiest to control room by room. The great room at lake level needs a different schedule than the guest bedrooms upstairs, and the thermostat zones should follow the floor plan. Controls that link the radiant loops to the ventilation system keep indoor air quality stable without overworking the heat source.
Planning a Timber Frame Build
Before timbers are ordered, most owners work through timber framing fundamentals: joint selection, species, moisture content, and erection sequencing. The decisions made at this stage determine whether the frame raises in days or drags on for weeks.
The Design Team and the Timber Package
A timber build usually brings together an architect, a frame company, and specialty millwork shops. In this house the kitchen cabinetry and the custom stairs were handcrafted as part of the package, which kept the detailing consistent from the frame to the finishes. Owners should ask which trades are in the contract and which arrive as separate quotes.
Phasing the Project
- Design and engineering: joint schedules, load calculations, panel layout
- Timber sourcing and milling: reclaimed stock selection and grading
- Foundation and site work: footings, utilities, and access for the crane
- Frame raising: erection, connections, and temporary bracing
- Envelope: SIP installation, windows, roofing, and air sealing
- Interiors: cabinetry, stairs, flooring, and mechanical trim-out
Old Wood, Modern Systems
The house pairs century-old wood with contemporary building systems, and the two coexist because the mechanical design keeps everything out of sight. Radiant tubing hides in the floors, ventilation ducts route through panel cavities, and lighting schedules, humidity monitoring, and security systems keep a lakeside retreat in shape between visits. That kind of smart home technology sits quietly alongside exposed timber when the controls are planned early.
Keeping the Systems Invisible
Every wire, pipe, and duct that would cross an exposed timber ceiling has to be routed before the finishes close in. The payoff is a room where the only visible technology is the light switch. Maintenance access still matters: access panels behind cabinet runs and service chases at the mechanical core keep future repairs from cutting into the wood.