The Farr 40 ILC represents a pivotal era in grand prix racing, emerging in 1994 as a purpose-built weapon for the International Level Class (ILC) and the International Measurement System (IMS). Designed by the prolific team at Farr Yacht Design as Design #341, the model was a direct response to the demand for a 40-foot level-rating racer that could compete on the world stage, most notably in the Admiral’s Cup. Unlike the later and more ubiquitous Farr 40 One Design (Design #374), the ILC version was an uncompromising "rule boat," optimized for rating efficiency and raw speed. Construction typically involved high-tech materials for the time, including Kevlar and E-glass with epoxy resin, post-cured in an oven to achieve a high strength-to-weight ratio.
Farr 40 ILC Information, Review, Specs
- Make
- Farr
- Model
- 40 ILC
- Builder
- —
- Designer
- —
- Number Built
The ILC 40 was part of a larger family of Farr-designed rule racers of the mid-90s. Its siblings included the smaller ILC 30 (Design #342) and the larger ILC 46 (Design #368). While the Farr 40 One Design eventually overshadowed the ILC 40 in terms of volume, the ILC 40 served as the performance benchmark that informed its successor. Builders such as Cookson Yachts in New Zealand and Carroll Marine in the United States were instrumental in delivering these hulls to competitive teams globally.
Sailing Performance & Handling
The sailing characteristics of the Farr 40 ILC are defined by its high ballast-to-displacement ratio and a light, responsive hull. With a deep bulb keel and a significant sail plan, the boat is exceptionally stiff and capable of generating high speeds both upwind and down. Unlike modern cruiser-racers, the ILC 40 was originally designed with a fractional carbon rig featuring running backstays and checkstays to control mast bend, a setup that demands a skilled and coordinated crew.
In terms of handling, the boat is known for its "dinghy-like" responsiveness. The large, open cockpit is optimized for a crew of nine to ten, with primary winches and traveler controls positioned for high-speed maneuvers. Anecdotal reports from early campaigns, such as those published in the archives of Yachting World, suggest the boat tracks with remarkable precision but can be unforgiving if the trim is not synchronized with the helm. Because it was optimized for the IMS rule, it excels in medium breeze but relies heavily on the "human ballast" of a full crew on the rail to reach its design potential in anything over 12 knots of true wind.
Interior Comfort & Variations
Below decks, the Farr 40 ILC is a functional workspace rather than a living area. To maintain the light displacement required for the ILC 40 rule, the interior is largely stripped of amenities. The layout typically features four to eight pipe cots for offshore racing, a spartan galley with a simple stove, and a centrally located navigation station. Materials are primarily exposed Kevlar or painted fiberglass, emphasizing structural integrity over aesthetics.
Variation in the model often depends on its post-rule history. While some hulls have remained in pure grand prix racing trim, others were modified for IRC or ORC handicap racing. These modifications frequently included replacing the complex running backstay rig with a swept-spreader configuration to allow for shorthanded sailing or "performance cruising" refits. Despite these changes, the headroom remains relatively good for a racer, though the lack of furniture and insulation makes it a loud and utilitarian environment.
Popular Mentions & Media
The Farr 40 ILC achieved significant fame during the 1995 Admiral’s Cup, where it formed the core of many national teams. High-profile boats like Flash Gordon and Morning Glory helped establish the design's reputation as a winner. In more recent years, the model has gained a second life in the used market, often discussed in technical circles as a "performance bargain" for owners looking to enter the world of offshore racing at a fraction of the cost of a modern TP52.
Known Issues & Buyer’s Checklist
Purchasing a former grand prix racer requires a rigorous technical inspection. Data from technical forums and owner archives suggest several high-signal areas for concern:
- Structural Grid & Frames: Early ILC 40s have been known to show stress cracking around frames 2 through 4, particularly near the wheel well and chainplates. This is often attributed to the extreme hydraulic loads applied to the mast step and forestay.
- Keel-to-Hull Interface: Given the deep draft and the high-leverage bulb, the keel attachment area should be inspected for "frowns" or hairline cracks that might indicate past groundings or structural fatigue.
- Deck Core Integrity: While the hulls were built to high standards, the balsa or foam-cored decks can suffer from delamination around high-load hardware if moisture has compromised the seal.
- Rigging Fatigue: If the boat still carries its original carbon mast, a non-destructive test (NDT) is highly recommended. Many older carbon spars from this era are reaching the end of their fatigue life, especially if they have been raced hard in heavy weather.
Community & Resources
Owners of the Farr 40 ILC often find support through the Farr Yacht Design technical archives, which provide original design drawings and specifications for many hulls. While there is no longer a dedicated ILC class association, these boats remain active in the ORC (Offshore Racing Congress) and IRC circuits. Technical enthusiasts often share knowledge through regional yacht clubs where these boats continue to compete in premier distance races like the Sydney to Hobart or the Fastnet.
The Verdict
The Farr 40 ILC is a precision instrument designed for a specific era of grand prix sailing. It remains one of the most cost-effective ways to access a high-performance, carbon-rigged 40-footer.
Pros:
- Exhilarating speed-to-cost ratio.
- High-tech construction that remains stiff if well-maintained.
- Proven pedigree in international offshore racing.
- Excellent platform for ORC or IRC optimization.
Cons:
- Extremely high crew requirement for optimal performance.
- Spartan, utilitarian interior unsuitable for family cruising.
- Maintenance-intensive rigging and hydraulic systems.
- Rule-based design can lead to "quirky" handling in specific wind conditions compared to modern hull shapes.
Measurements
Construction & Hull
- Construction Material
- —
- Hull Type
- — Sailboat
- Keel Type
- —
- Ballast
- -
- Displacement
- -
- Water Capacity
- -
- Fuel Capacity
- -
Dimensions
- Length Overall (LOA)
- -
- Waterline Length (LWL)
- -
- Beam
- -
- Draft
- -
- Max Headroom
- -
- Air Draft
- -
Rig & Sails
- Rig Type
- —
- P (Main Luff)
- -
- E (Main Foot)
- -
- I (Foretriangle Height)
- -
- J (Foretriangle Base)
- -
- Forestay Length (est)
- -
- Sail Area
- -
Calculations
- Sail Area / Displacement (SA/D) Ratio
- —
- Ballast / Displacement Ratio
- —
- Displacement / Length Ratio (D/L) Ratio
- —
- Comfort Ratio
- —
- Capsize Screening Formula
- —
- Hull Speed
- — kn