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Modern disruptive techniques....by dwivedi

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given paper is grabbed so much attention of 2nd year guys during brief explanation about "modern disruptive techniques".you will find out sweet and simple explanation of modern disruptive techniques to control pollution from ship at sea.

Published in: Engineering
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Modern disruptive techniques....by dwivedi

  1. 1. PRESENTED BY: GAURAV GOSAIN ANAND DWIVEDI KAUSHIK SINHA CHETAN SHIVANSH RANDEV MODERN DISRUPTIVE TECHNIQUES
  2. 2. Problems in 20th Century Global Pollution No Control over Emissions Unchecked Fuel Consumption
  3. 3. Our Goal… •To make an Ultimate Green Ship1. •To Comply with IMO Regulations2. •Least Carbon Footprint.3.
  4. 4. SOLAR SAIL TECHNOLOGY
  5. 5. NEED OF SOLAR SHIP:-
  6. 6. ENERGYSAILS
  7. 7. • A Rigid Sail device designed by Eco Marine Power that allows ships to harness the power of the wind and sun • It is to reduce fuel costs plus lower noxious gas and carbon emissions. • It can be used even when a ship is at anchor or in port and has been designed to withstand high winds or even sun heat • It will also help ships collect and store energy even while docked. • The sails — made of carbon fiber or steel — can also be lowered during rough weather conditions.
  8. 8. FEATURES
  9. 9. Energy Sail - Key Features  Flexible design. Can be upgraded and modified after installation if required.  Automatic positioning via computer control system.  Can be integrated with other systems and equipment on-board ships via control system architecture.  Designed to be safe, robust & reliable. Multiple layers of safety are incorporated into the design.  Can be lowered and stored when not in use.  Suitable for a wide range of ships and vessels.  Pathway to low emission & low carbon shipping.
  10. 10. WASTE HEAT RECOVERY SYSTEM
  11. 11. MAIN ENGINE EXHAUST  PRIMARY SOURCE OF WASTE HEAT APPROXIMATELY 25% OF FUEL ENERGY HEAT FLOW AND TEMPERATURE
  12. 12. UTILISATION POSSIBLE TO PRODUCE ELECTRICITY FROM A GAS AN ELECTRICAL OUTPUT OF UPTO 11% OF MAIN ENGINE POWER INCREASE IN TOTAL EFFICIENCY TO ABOUT 55% FOR A SLIGHT REDUCTION IN MAIN ENGINE EFFICIENCY
  13. 13. Power turbine stand alone unit: PTG – Power Turbine Generator Unit Steam turbine stand alone unit: STG – Steam Turbine Generator Unit Combined turbines unit: ST–PT – Steam Turbine & Power Turbine Generator Unit TYPES RECOMMENDATIONS…  Main engine power > 25,000 kw – ST-PT  Main Engine Power < 25,000 kw – PTG or STG  Main engine power < 15,000 kw – PTG
  14. 14. Based on a HFO fuel saving of 3,555 tons per year (with 3% sulphur content), the installation of a WHRS on a large container ship will save the environment for the following emission amounts:  CO2 emission saving per year: 11,260 tons  NOx emission saving per year: 319 tons  SOx emission saving per year: 214 tons  Particulates saving per year: 29 tons EEDI= 𝐶𝑂2 𝐸𝑚𝑖𝑠𝑠𝑖𝑜𝑛 [ 𝑔 ℎ ] 𝐶𝑎𝑝𝑎𝑐𝑖𝑡𝑦 𝑡𝑜𝑛 × 𝑠𝑝𝑒𝑒𝑑 [ 𝑚𝑖𝑙𝑒 ℎ ]
  15. 15. NO BALLAST SHIP
  16. 16. {  A constant flow of local seawater through a network of large pipes, called trunks. The trunks runs from the bow to the stern, below the waterline. Ship continuously sweeps water through the ship and out. Ship is always filled with local sea water rather than hauling seawater. Reduces the harmful effects on the marine environment.
  17. 17.  The pipes will function as longitudinal ballast tanks with valves at fore and aft end of the ship which can be controlled.  Valves will be open to the sea during the ballast voyage to ensure loss in buoyancy and closed during the loaded departure and the sea water will be pumped out.  Water will enter the pipes at the bow region of ship and will flow out from stern region of ship.  By this the local sea water will be present in the ship at any point of time.
  18. 18. ADVANTAGES DISADVANTAGES • Provides a significant savings in power as much as 7.3%. • Difficulties in running at rough seas. • Construction costs are much low. • Difficult to maintain safe draught while loading. • No filtration system and ballast tanks.
  19. 19. CONCLUSION • The Disruptive technologies discussed would help in making the Oceans cleaner & local species safe. • Significant reduction in NOx and SOx, keeping in mind the International Maritime Organization(IMO) regulations.
  20. 20. BIBLIOGRAPHY • Waste Heat Recovery System (WHRS) for Reduction of Fuel Consumption, Emission and EEDI, MAN Diesel & Turbo SE • Press Release, MAN Diesel & Turbo SE, Copenhagen, June 07, 2011. • www.brighthubengineering.com • www.marineinsight.com • http://www.ecomarinepower.com/en/technologies • http://www.imuv.edu.in/Publications/11.DevelopmentofBalla stFreeShipDesign.pdf • https://www.maritime-executive.com/article/moving- towards-a-ballast-free-future#gs.izYwgEI
  21. 21. Mr. Suresh Kumar O UNDER THE GUIDANCE OF :-

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