NOVELTY - The turbine has counter or contra rotating dual rotors for reducing gyroscopic effect. Each rotor includes blades that comprise carbon fiber and are reinforced with Kevlar (RTM: strong para-aramid synthetic fiber). Tips of the blades include a built 1 weak point to allow each tip to bend completely backward above at speed of 4 minutes/seconds to reduce wake related effects. A front hub moves horizontally toward/away from a rear hub to increase/decrease slip stream effect. The turbine is transported onto sea worthy surface ships and installed onto a foundation e.g. floating bed.    USE - Wind turbine for offshore applications i.e. offshore electricity generation applications, in wind farms.    ADVANTAGE - The turbine avoids disassembly of main components e.g. tower, nacelle, hub and blades, before installing on a foundation. The turbine is installed effectively on the platform or foundation including floating beds, and operates twin dual blades in counter rotating fashion to reduce the effect of gyroscopic forces creating undue unstable turning moments in a base of a floating foundation. The turbine utilizes transport fixtures at a base of a tower and Nacelle to negate the need for additional fixtures to transport the assembled turbine without the need for special fixtures, thus reducing cost and use of special ships. The turbine utilizes front and rear blades to ensure that the turbine in a fully assembled condition. The turbine is installed on the foundation with limited operations, limited equipment, limited resources, limited time, limited cost and limited number of additional vessels. The front and rear blades are manufactured from pre-formed and pre-preg carbon fiber material with Kevlar (RTM: Strong para-aramid synthetic fiber) reinforcement, thus providing lighter, stronger, longer and bigger blades for offshore use. The turbine allows front and rear carbon fiber Kevlar (RTM: Strong para-aramid synthetic fiber) reinforced blade design to incorporate torsional adjustment flexibility along trailing edge of the blade so as to enhance energy generating performance at high and low wind speed. The turbine allows the trailing edge of the blade to bend to allow reduced drag resistance at high wind speed. The trailing edge remains in position to capture more wind at lower wind speed to allow more alternate shapes and forms of the blade so as to increase wind capture capability at a root of the blade. The special shapes and forms of the blade are achieved by using different material fiber strengths orientated such that fibers of carbon fiber blade material increases strength or flexibility to twist without inducing unwanted shear and strain loads. The turbine allows the leading edges to incrementally increase lift and decrease lift for the trailing edges, thus optimizing flow and stall angles and reducing turbulence and vortex related wake generating conditions. The turbine allows effect of counter rotation to be electronically controlled to ensure that maximum gyroscopic loads are reduced by moving the hub away from the rear hub or decreasing distance so as to increase slip stream effect to the rear rotor, thus increasing rotational velocity of the rear rotor to produce more electricity, and improving efficiency.    DESCRIPTION OF DRAWING(S) - The drawing shows a schematic view of a wind turbine.