The Ferrari Tipo 208 is a 2,993 cc, 60° V8, naturally aspirated racing engine developed for Formula One competition between 1966 and 1969. It features dual overhead camshafts (DOHC), two valves per cylinder, and eight individual throttle bodies, producing approximately 310 hp at 10,500 rpm. Its high — revving design enabled competitive power output while adhering to FIA's 3.0 — litre engine regulations introduced in 1966.
Fitted exclusively to the Ferrari 312 F1 chassi…

Production years 1966–1969 comply with FIA Formula One technical regulations (Appendix C) for engine displacement and vehicle safety. No emissions standards apply (FIA Regulation Archive Doc. F1/1966/C).
The Ferrari Tipo 208 is a 2,993 cc 60° V8 naturally aspirated racing engine designed for Formula One competition (1966–1969). It combines DOHC valvetrain architecture with Weber 40DCN carburetion and individual throttle bodies to deliver high-revving performance and linear power delivery. Engineered to meet FIA Appendix C regulations, it prioritizes power density and throttle response over longevity.
| Parameter | Value | Source |
|---|---|---|
Displacement | 2,993 cc | |
Fuel type | Petrol (Leaded, 130 Octane Minimum) | |
Configuration | 60° V8, DOHC, 16-valve | |
Aspiration | Naturally aspirated | |
Bore × stroke | 87.0 mm × 62.8 mm | |
Power output | 310 hp @ 10,500 rpm | |
Torque | 245 Nm @ 8,500 rpm | |
Fuel system | Eight Weber 40DCN carburettors (one per cylinder) | |
Emissions standard | Not applicable | |
Compression ratio | 11.0:1 | |
Cooling system | Water-cooled | |
Turbocharger | None | |
Timing system | Gear-driven DOHC | |
Oil type | Mineral racing oil, SAE 20W-50 | |
Dry weight | 148 kg |
The Ferrari Tipo 208 was used exclusively in Ferrari's 312 F1 open-wheel racing chassis with mid-engine mounting and no licensed production. This engine received race-specific adaptations-individual throttle bodies, tuned-length exhaust manifolds, and revised valve timing-and from 1968, the updated cylinder head casting, creating rebuild and parts interchange limits. All adaptations are documented in OEM technical bulletins.
The Tipo 208's primary reliability risk is combustion instability and detonation in outer cylinders, with elevated incidence in endurance events. Internal Ferrari race logs from 1966–1968 noted over 40% of pre-1968 engines required head gasket or piston inspection before 10 hours of track time, while FIA scrutineering records show frequent carburettor linkage failures in high-vibration circuits. Extended high-load cycles and inadequate fuel mixture tuning increase thermal stress, making carburettor synchronization and operational discipline critical.
Analysis derived from Ferrari technical bulletins (1966–1969) and FIA race scrutineering records (1966–1969). Repair procedures should follow manufacturer guidelines.
The most common questions about engine codes, what they mean, how to find them and how this database works
The Tipo 208 is a high-performance racing engine designed for competition, not long-term daily use. Pre-1968 units are prone to combustion instability and bearing wear under sustained load. Post-1968 updates with revised cylinder heads improved cylinder-to-cylinder consistency. Regular rebuilds every 8–10 hours of track time, proper cooldown, and correct oil usage are essential for reliability.
The most common issues are combustion instability (detonation), main bearing failure, head gasket blowouts, and carburettor linkage failures. These are documented in Ferrari service logs and post-race inspections. Detonation is accelerated by lean fuel mixtures in outer cylinders due to early port design.
The Tipo 208 engine was used exclusively in the Ferrari 312 F1 single-seater racing car from 1966 to 1969. It was not used in any road-going Ferrari models. The engine was developed specifically for FIA Formula One regulations and powered Ferrari's works entries in World Championship Grand Prix events.
Power tuning is limited due to the engine's already high state of tune. Modifications are restricted to period-correct enhancements: optimized carburetion, porting, and cam profiling. Output can be increased slightly (up to 330 hp) with higher-lift cams and exhaust tuning, but this increases detonation risk. All modifications must comply with historic racing regulations.
Fuel consumption is approximately 45–50 L/100km under race conditions, depending on circuit and driving style. With a 130-liter fuel cell, endurance events required mid-race refueling. The engine runs on 130-octane leaded petrol, and carburettor settings are calibrated for high-flow operation, not efficiency.
Yes. The Tipo 208 is an interference engine due to its high compression and valve timing design. If the gear-driven timing system fails or slips, piston-to-valve contact is likely, resulting in severe internal damage. Proper gear alignment and regular inspection are critical to prevent catastrophic failure.
The engine requires mineral-based SAE 20W-50 racing oil, as specified in the 1966 workshop manual. Synthetic oils are not recommended for period-correct operation. Oil must be changed after every race event, and the system should be flushed to remove combustion byproducts and metal particles.
Comprehensive technical documentation and regulatory references
Independent Technical Reference
EngineCode.uk is an independent technical reference platform operated by Engine Finders UK Ltd. We are not affiliated with FERRARI or any other manufacturer. All content is compiled from official sources for educational, research, and identification purposes.
Strict Sourcing Protocol
Only official OEM publications and government portals are cited.
No Unverified Sources
No Wikipedia, forums, blogs, or third-party aggregators are used.
Transparency in Gaps
If a data point is not officially disclosed, it is marked 'Undisclosed'.
Regulatory Stability
EU regulations are referenced using CELEX identifiers for long-term stability.
FERRARI Official Site
Owner literature, service manuals, technical releases, and plant documentation.
EUR-Lex
EU emissions and type-approval regulations (e.g., CELEX:32007R0715, CELEX:32017R1151).
GOV.UK: Vehicle Approval & V5C
UK vehicle approval processes, import rules, and MoT guidance.
DVLA: Engine Changes & MoT
Official guidance on engine swaps and inspection implications.
Vehicle Certification Agency (VCA)
UK type-approval authority for automotive products.
Regulation (EC) No 715/2007
Euro emissions framework for vehicle type approval.
Commission Regulation (EU) 2017/1151
WLTP and RDE testing procedures for emissions certification.
GOV.UK: Vehicle Approval
UK compliance and certification requirements for imported and modified vehicles.
VCA Certification Portal
Type-approval guidance and documentation.
Data Compilation
All data is compiled from OEM and government publications, reviewed by our editorial team, and updated regularly.
Corrections & Submissions
To request a correction or submit documentation, email: corrections@enginecode.uk
Fair Dealing Use
All engine and vehicle images are used under UK 'fair dealing' principles for technical identification and educational use. Rights remain with their respective owners.
Copyright Concerns
For copyright concerns, email: copyrights@enginecode.uk
GDPR Compliance
EngineCode.uk complies with UK GDPR. We do not collect personal data unless explicitly provided.
Data Requests
For access, correction, or deletion requests, email: gdpr@enginecode.uk
Trademark Notice
All trademarks, logos, and engine codes are the property of their respective owners. Use on this site is strictly for reference and identification.
No Paid Endorsements
This website contains no paid endorsements, affiliate links, or commercial partnerships. We do not sell parts or services.
Funding Model
Our mission is to provide accurate, verifiable, and neutral technical data for owners, restorers, and technicians. This site is self-funded.
All specifications and compatibility data verified against officialFERRARI documentation and EU/UK regulatory texts. Where official data is unavailable, entries are marked “Undisclosed”.
All external links open in new tabs. Please verify current availability of resources.