Skip to main content

Thermal Power Plant : Principle, Parts, Working, Advantages and Disadvantages

Basic Introduction or Principle: We all are aware with the term "Generator". A device which converts mechanical energy into electrical energy is known as generator. This generator makes rotate with the help of some kind of external energy. When this energy extract from the energy of steam, the plant is known as steam power plant.  A simple steam plant works on Rankine cycle. In the first step, water is feed into a boiler at a very high pressure by BFP (boiler feed pump). This high pressurized water is heated into a  boiler   which converts it into high pressurized super heated steam. This high energized steam passes through steam  turbine  (a mechanical device which converts flow energy of fluid into mechanical energy) and rotate it. Owing to extract full energy of steam, three stage turbines is used which is known as LPT (Low pressure turbine), IPT (intermediate pressure turbine) and HPT (High pressure turbine). The turbine shaft is connected to the generator rot

Top 5 Fastest Car in the World

Every car lover wants to drive a fastest car. Cars is always an interesting topic on which we want to discuss. Often we like cars because of its speed and cool looks. Today I am going to tell you about top five coolest and fastest cars with their cool pics. I hope after reading this article, you want to ride one of them. 


Top 5 Fastest Cars in the World:


5. Porsche 9ff GT9-R:

Overview:
Engine type      : Flat 6 cylinder turbocharged engine
Acceleration      : 100km/h in just 2.9 seconds
Power              : 1105 bhp at 8150rpm
Torque             : 1050 Nm at 6170rpm
Displacement    : 4000cc

Top speed : 413 km/h (256.68 mph)

Top 5 Fastest Car in The World 2014

4. SSC Ultimate Aero:

Overview:
Engine type      SSC Designed Billet Aluminum V8 engine
Acceleration      : 96.56km/h in just 2.78 seconds
Power              : 1287 bhp at 6075 rpm
Torque             :1508 Nm at 6150 rpm
Displacement    : 6350cc

Top speed : 414.26 km/h (257.41 mph)

Top 5 Fastest Car in The World 2014

3. Koenigsegg Agera R:

Overview:
Engine type      Koenigsegg aluminum 5.0L V8, 4 valves per cylinder, DOHC
Acceleration      : 100 km/h in just 2.8 seconds
Power              : 1140 bhp at 7100 rpm
Torque             : 1000 Nm at 2700 to 7300 rpm 
Displacement    :5000cc

Top speed : 418.43 km/h (260 mph)

Top 5 Fastest Car in The World 2014

2. Bugatti Veyron Super Sport:

Overview:
Acceleration      : 80km/h in just 2.2 seconds
Power              : 1183 bhp at 6400 rpm
Torque             : 1500 Nm at 3000 rpm
Displacement    : 8000cc

Top speed : 434 km/h (269.08 mph)

Top 5 Fastest Car in The World 2014

1. Hennessey Venom GT:

Overview:
Engine type      90-degree V8 engine
Acceleration      : 100km/h in just 2.7 sec.
Power              : 1244 bhp at 6600 rpm
Torque             : 1566 lNm at 4400 rpm
Displacement    : 7000 cc

Top speed          : 435.31 km/h (270.49 mph)
Projected speed : 447.4 km/h (278 mph)

Top 5 Fastest Car in The World 2014

Comments

Post a Comment

Popular posts from this blog

Automated Portable Hammering Machine

Automated Portable Hammering Machine Hammering is the most widely used industrial as well as construction activity. Hammering or screws, metal sheets, parts etc requires a lot of time and effort. So here we propose an automated hammering system that allows for fully automatic hammering process. This allows for accurate, fast and automated hammering wherever and whenever needed using a 12V battery. The person just needs to insert workpeice and start the hammering machine. This machine can be used for automatic hammering work as and when needed. We here use a dc motor in order to move the hammer. The DC motor consists of a pulley attached to it which is connected to a larger pulley for efficient power transfer and to increase torque. This large pulley is connected to a shaft that has a connecting rod attached to it. This rod is used to achieve lateral motion from the spinning shaft. We now connect the other end of hammer to this connecting rod through a mid swinging arrangement in

Pedal Operated Hacksaw

Pedal Operated Hacksaw Operating a hacksaw manually is a very tiring and time consuming task. It requires a lot of manual effort and delivers uneven cutting. Operating a electrical hacksaw does deliver good results but consumes a lot of energy. So here we propose a semi automated hacksaw using pedal power. Here we design and fabricate a hacksaw that is run by pedal power and achieves even cutting with very less efforts. Here we use a chain sprocket arrangement to transfer power from pedals to hacksaw. A strong and firm base frame allows for efficient power transfer between the system. We use bearings and mounts to mount and setup the entire system and ensure a smooth circular motion of pedals. Now we attach a hub to the other sprocket. This hub is connected with a connecting rod which moves with the hub in order to produce a lateral motion. We now develop a supporting frame and connect a saw to the other end in order to achieve desired cutting movement of saw. We also attach

New imaging technique could detect acoustically 'invisible' cracks

The next generation of aircraft could be thinner and lighter thanks to the development of a new imaging technique that could detect damage previously invisible to acoustic imaging systems. The nonlinear acoustic technique developed by researchers from the University of Bristol's Ultrasonics and Non-destructive Testing (NDT) research group is published in the current issue of  Physical Review Letters  together with an accompanying article in  Physics . It has long been understood that acoustic nonlinearity is sensitive to many physical properties including material microstructure and mechanical damage. The lack of effective imaging has, however, held back the use of this important method. Currently engineers are able to produce images of the interior of components using ultrasound, but can only detect large problems such as cracks. This is like detecting only broken bones in a medical environment. Imaging of acoustic nonlinearity is achieved by exploiting differences in