| MIEV — a proposal for next-generation
                electric vehicles that utilizes to maximum effect the environmental
                technology Mitsubishi Motors has developed over the years.
                The offspring of a marriage between such environmental technology
                and Mitsubishi Motors' sporty characteristics, Lancer Evolution
                MIEV delivers a totally new experience in driving pleasure. Lancer Evolution MIEV derives from the Lancer Evolution IX.
              Utilizing the advantages offered by the electric powertrain
              to craft smooth and slippery, low-drag body lines, the styling
              imparts an aggressive wind-cleaving look to the body. Riding
              on large wheels and tires, Lancer Evolution MIEV projects a
              tempting taste of its potent new-age sport driving potential. The wheels are driven by four outer-rotor
                in-wheel motors. Requiring no speed reducer, these high-efficiency
                direct drive motors fit neatly into the 20-inch wheels. Each
                in-wheel motor produces 50 kW of power and 518 Nm torque.
                With a motor in each wheel, this brings maximum output up
                to 200 kW (270 PS). And because this drive system allows
                precise regulation of power at each individual wheel, it
                opens the door to creating a vehicle dynamics control system
                in its ultimate evolutionary form — one that could
              be dubbed Super All Wheel Control (S-AWC). The in-wheel motors and the lithium-ion battery system, which
              is located under the floor to reduce the center of gravity,
              accelerate Lancer Evolution MIEV from 0 km/h to 100 km/h in
              less than 8 seconds and up to a maximum speed of 180 km/h.
              This is a level of motive performance that leaves today's EV's
              standing.
 
              In-wheel motorThe foremost feature of the in-wheel motor is that it allows drive torque
        and braking force to be regulated with high precision on an individual
        wheel basis without requiring transmission, drive shafts, differential
        gears or other complex and heavy components. Housing the drive system in
        the wheels also gives greater freedom in designing the layout. This will
        facilitate the conversion of internal combustion engine-powered vehicles
        into hybrid vehicles without requiring the introduction of complex hybrid
        power systems. It will also make it easier to provide room for space-consuming
        components such as fuel cell stacks and hydrogen tanks in fuel cell vehicles.
        The space-saving benefits of the in-wheel motor also offer exciting possibilities
        in terms of body design.
 
 
 Lithium-ion batteryThe major shortcoming of the EV to date has been its limited cruising range.
            This is now well on the way to being overcome with recent improvements
            in battery performance. MIEV uses a lithium-ion storage cell for its
            main power source, this offers advantages in terms of energy density
            and life over other types of secondary or rechargeable battery.
 
 
              
                | 1 | S-AWC (Super All Wheel Control): The ultimate 4WD-based
                    vehicle dynamics control system, providing integrated
                    and unified control of torque, braking, steering and
                    suspension. |  
                | 2 | MIVEC (Mitsubishi Innovative Valve Timing Electronic
                    Control): Mitsubishi Motors variable valve timing technology. |  
                | 3 | ACD (Active Center Differential): The ACD incorporates
                    an electronically controlled hydraulic multi-plate clutch.
                    An ECU optimizes clutch cover clamp load for different
                    driving conditions, regulating the differential limiting
                    action between free and locked states. The result is
                    improved steering response together with better traction.
                    ACD provides three modes — Tarmac / Gravel / Snow — to
                    enable quicker control response for changes in road surface.
                    A single ECU provides integrated management of both ACD
                    and Super AYC components. |  
                | 4 | Super AYC (Active Yaw Control): Mitsubishi's Active
                    Yaw Control system uses a torque-transfer mechanism in
                    the rear differential. Under ECU control, the system
                    operates to raise cornering performance by transferring
                    torque between the rear wheels as dictated by driving
                    conditions and so control the yaw moment acting on the
                    car body. In an evolutionary step, switching from the
                    use of a bevel to a planetary gear differential gave
                    Super AYC the ability to transfer almost twice the torque
                    between the rear wheels. As well as reducing understeer
                    further, it delivers LSD-level traction. The use of a
                    single ECU to integrally manage Super AYC with the ACD
                    results in a synergism that makes both components operate
                    more effectively than if they were under independent
                    control. |  
                | 5 | Rib Bone Frame: A ring-structure frame resembling
                    rib bones that is efficient in increasing body strength
                    and stiffness. |  |  |