MTA11-G2-B Generator Engines
Engine Model | MTA11-G2-B |
Standby Power | 283 kW / 1800 RPM @ 60 Hz |
Prime Power | 257 kW / 1800 RPM @ 60 Hz |
Compression Ratio | 16.1 : 1 |
Type | 4 Cycle; 6 Cylinder |
Fuel System | PT-STC |
Aspiration | Turbocharged & Aftercooled |
Emission Standard | Euro II |
Displacement | 10.8 L |
Bore * Stroke | 125 mm × 147 mm |
Packing Size (L * W * H) | 3200 mm * 980 mm * 1760 mm |
General Infomation of CCEC MTA11-G2-B Generator Engines
General Infomation of CCEC MTA11-G2-B Generator Engine | |||
Engine Model | MTA11 – G2B | Configuration | D353009GX03 |
Performance Curve | C – 2487A | CPL No. | 2165 |
Type | 6 – Cylinder; In – line; 4 – Cycle | Aspiration | Turbocharged & Aftercooled |
Bore * Stroke | 125 mm * 147 mm / 4.92 in * 5.79 in | Displacement | 661 in3 / 10.8 L |
Compression Ratio | 16.1 : 1 | Firing Order | 1 – 5 – 3 – 6 – 2 – 4 |
Fuel System | PT | Prime Power | 257 kW / 1800 RPM @ 60 Hz |
Standby Power | 283 kW / 1800 RPM @ 60 Hz | ||
Installation Data of CCEC MTA11-G2-B Generator Engine | |||
Wet Weight – Engine Only | 2160 lb / 980 kg | ||
Wet Weight – Heat Exchanger Cooled Engine | N / A | ||
Moment of Inertia of Rotating Components – with FW 2141 Flywheel | 62.4 lbm.ft2 / 2.63 kg.m2 | ||
Center of Gravity Above Crankshaft Centerline | 7.5 in / 190 mm | ||
Center of Gravity from Front Face of Block | 17.7 in / 450 mm | ||
Dry Weight – Heat Exchanger Cooled Engine | N / A | ||
Dry Weight – Including Flywheel and Generator Excluding other Electrial Component | 2072 lb / 940 kg | ||
Maximum Bending Moment at Rear Face of Block | 1000 lb.ft / 1356 N.m | ||
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Engine Performance Data CCEC MTA11-G2-B Generator Engines
Performance Data of CCEC MTA11-G2-B Generator Engine | |||||
Stanby Power | Prime Power | Stanby Power | Prime Power | ||
Engine Speed | 1800 RPM | 1800 RPM | Engine Idle Speed | 675 – 750 RPM | 675 – 750 RPM |
Gross Engine Power Output | 283 kW | 257 kW | Brake Mean Effective Pressure | 1742 kPa | 1586 kPa |
Piston Speed | 8.8 m / s | 8.8 m / s | Friction Horsepower | 30.6 kW | 30.6 kW |
Intake Air Flow | 380 L / s | 362 L / s | Exhaust Gas Temperature | 440 °C | 429 °C |
Exhaust Gas Flow | 858 L / s | 802 L / s | Heat Rejection to Ambient | 40 kW | 35 kW |
Heat Rejection to Coolant | 148 kW | 138 kW | Heat Rejection to Exhaust | 190 kW | 162 kW |
Engine Water Flow | 5 L / s | 5 L / s |
System Technical Data of CCEC MTA11-G2-B Generator Engines
Performance Data of CCEC MTA11-G2-B Generator Engine | |||||
Stanby Power | Prime Power | Stanby Power | Prime Power | ||
Engine Speed | 1800 RPM | 1800 RPM | Engine Idle Speed | 675 – 750 RPM | 675 – 750 RPM |
Gross Engine Power Output | 283 kW | 257 kW | Brake Mean Effective Pressure | 1742 kPa | 1586 kPa |
Piston Speed | 8.8 m / s | 8.8 m / s | Friction Horsepower | 30.6 kW | 30.6 kW |
Intake Air Flow | 380 L / s | 362 L / s | Exhaust Gas Temperature | 440 °C | 429 °C |
Exhaust Gas Flow | 858 L / s | 802 L / s | Heat Rejection to Ambient | 40 kW | 35 kW |
Heat Rejection to Coolant | 148 kW | 138 kW | Heat Rejection to Exhaust | 190 kW | 162 kW |
Engine Water Flow | 5 L / s | 5 L / s |
MTA11-G2-B Generator Engines Product Advantages
Durable and Rugged
The cylinder block and cylinder head feature high-strength integrated design, reducing failure rates and ensuring long-lasting durability. Renowned for exceptional reputation.
High Reliability
Equipped with Cummins’ advanced PT fuel system, offering unique overspeed protection and low-pressure fuel supply. Minimal piping reduces failure rates. Derived from superior overall design, delivering outstanding reliability.
Superior Performance
- High-efficiency Cummins exhaust turbocharger ensures optimal air intake, enhancing engine efficiency.
- Pressure pulse exhaust manifold fully utilizes exhaust energy, further improving combustion and increasing low-load efficiency while reducing specific fuel consumption.
- High torque output, powerful performance, fast transient response, and exceptional torque reserve.
Easy Maintenance
Six-cylinder single-head integrated design with modularized structure ensures compactness. Components are detachable and highly reusable.