Flybus - Kinetic Energy Recovery by Flywheel. Повторите попытку позже. Опубликовано: 10 апр. 2012 г. Ricardo Kinergy flywheel technology coupled with a Torotrak CVT to provide mechanical energy storage.

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A kinetic energy recovery system (KERS) is an automotive system for recovering a moving vehicle's kinetic energy under braking. The recovered energy is stored in a reservoir (for example a flywheel or high voltage batteries) for later use under acceleration.

Kinetic energy recovery system ppt by gautam khillare 7650 views. Kinetic Energy Recovery Systems by Jeffrey Funk 8023 views. KInetic Energy Recovery System (KERS) by Akheel Ahamed 14499 views. Kinetic energy recovery systems by Trisha Gopalakrishna 8011 views. The mechanical hybrid system storing energy mechanically in a rotating fly wheel eliminates the various energy conversions and provides a global energy conversion efficiency exceeding 70%, more than twice the efficiency of an electric system.

Kinetic Energy Recovery System Regenerative braking should not be confused with dynamic braking, which dissipates the electrical energy as heat and thus is less energy efficient. INTRODUCTION TO FLYWHEEL ENERGY STORAGE: Kinetic storages, also known as Flywheel Energy Storages (FES), are used in many technical fields. Kinetic Energy Recovery System. CONCLUSION In comparison with other battery storage technologies, KERS offers, Cycle durability 90% efficiency of flywheel (including power electronics) in both directions during KERS reference duty cycle.

KINETIC ENERGY RECOVERY SYSTEM BY MEANS OF FLYWHEEL ENERGY STORAGECibulka, . bstract: This paper deals with the design of Kinetic Energy Recovery Systems (KERS) by means of Flywheel Energy Storages (FES). KERS by means of FES are currently under development both for motor sport and road hybrid vehicles. The aim of the work is the optimalization and implementation to the hybrid and electric road vehicles. Testing equipment for the experimental analysis of the simplified FES was designed

The Flybrid Kinetic Energy Recovery System (KERS) was a small and light device designed to meet the FIA regulations for the 2009 Formula One season. The key system features were:  A flywheel made of steel and carbon fibre that rotated at over 60,000 RPM inside an evacuated chamber  The flywheel casing featured containment to avoid the escape of any debris in the unlikely event of a flywheel failure  The flywheel was connected to the transmission of the car on the output side of the gearbox via several. Some systems use flywheels and batteries together to store energy. of Mechanical Engineering 10 Kinetic Energy Recovery System . Hydraulic KERS A further alternative to the generation and storage of energy is to use hydraulics.

During braking, energy is wasted because kinetic energy is mostly converted into heat energy or sometimes sound energy that is dissipated into the environment. Vehicles with KERS are able to harness some of this kinetic energy and in doing so will assist in braking. By a touch of a button, this stored energy is converted back into kinetic energy giving the vehicle extra boost of power.

Working of Kinetic Energy Recovery System. The engine drives the KERS system and it is coupled with the drivetrain. The drive comes into the CVT unit which effectively changes the gear ratio in accordance with the flywheel and rotates the flywheel. The control pistons seamlessly change the gear ratios between the input and the flywheel moving at a much faster rate than the actual drive (5:1 ratio at 64,000 rpm). The amount of energy stored or released depends upon the torque transfer taking place within the CVT unit, which is controlled by the position of the levers.

Kinetic Energy Recovery Systems or KERS works on the basic principle of thermodynamics that states, Energy can neither be created nor destroyed, but it can be converted from one form to another. When a car is being driven it has kinetic energy and the same energy is transformed into heat energy on braking. As per to F1 regulations, the KERS system gives an extra 85 bhp to the F1 cars in less than a few seconds. This system takes the waste energy from the car’s braking process, store it and then reuse it to temporarily increase engine power. This and the diagram below shows the typical placement of the main components at the base of the fuel tank and illustrate the system’s basic functionality - a charging phase and a boost phase. In the charging phase