Welcome to the Presentation of Plasma Based HNO3 Manufacturing Plant.

Slides:



Advertisements
Similar presentations
Antero Punttila Analyzing most typical energy saving measures Energy Efficiency of Steam and Condensate Systems Antero Punttila, Motiva Oy.
Advertisements

Welcome to the Presentation of Plasma Based HNO3 Manufacturing Plant
Pacific  Labs  & VVX  engineering Uk Presented New Technology Products for Air Pollution Control & Acid manufacturing plant Based on PLASMA Technology.
Production of Nitric Acid
ENERGY FROM WASTES A TRANSFORMATION PROGRAMME Transforming waste and carbonaceous materials into emission free fuel, potable water and energy, through.
30,000 Ton Melamine Plant Please click on our logo or any link in this presentation to be redirected to our website & . Thank You! Click on Logo or.
Welcome to the Presentation of Plasma Based Industrial Desulphurisation & Denitrification Plant from flue Gas.
FUNDED BY THE EUROPEAN COMMISSION S ustainable and C leaner Production in the Manufacturing I ndustries of Pak istan SCI-Pak Mar Feb 2012.
NOx Sources and Control Methods CE/AE 524B Air Pollution J. (Hans) van Leeuwen.
Please click on our logo or any link in this presentation to be redirected to our website & . Thank You! 17A Marlen Drive  H amilton, NJ 
Control of Sulfur Oxides Dr. Wesam Al Madhoun
Standard Grade Revision Unit 14 Q. 1 Industrially ammonia (NH 3 ) is made by reacting together nitrogen and hydrogen. (a) What is the source of the (i)
14. REFRIGERATION.
Production of Ammonia Aims Explain the conditions in which NO 2 can be formed Describe the Ostwald process.
Environmental Resources Unit C Animal Wildlife Management.
MANUFACTURING PROCESS
Objectives: i. Outline the steps in the manufacture of ammonia from its elements, by the Haber Process. ii. Discuss the uses of ammonia iii. Assess the.
Pharos University جامعه فاروس Faculty of Engineering كلية الهندسة Petrochemical Department قسم البتروكيماويات LECTURE (10) NITRIC ACID PRODUCTION 1-INTRODUCTION.
Industrial chemistry Kazem.R.Abdollah (Asiaban) The Haber Process & The Ostwald Process 1.
SPENT CAUSTIC TREATMENT OPTIONS Hadi M. Al-Daghman, 2014
Air Pollution- Measures to Improve Air Quality Cheung Wing Yu 7S (24) Poon Shu Ying 7S (29)
Control of Nitrogen Oxides Dr. Wesam Al Madhoun. Specific sources of NO x Combustion sources Automobiles Boilers Incinerators High-temperature industrial.
Waste incineration plants
Aminata Kamara. About oxygen Also known as O 2 Colorless, odorless and tasteless comprises 21 percent of the earth's atmosphere comprises 85 percent of.
Wednesday, 12/12/2007, FYROM Prevention of Contamination from Mining & Metallurgical Industries in FYROM Strategic Plan for Prevention of Contamination.
Lecture Outline - Sulfuric Acid - History of Manufacture Development - Manufacture - Oleum Production - Heat Integration Issues / By-products - Markets.
TEAM UP! FOR Waste-Heat AND Recovery SAVINGS It can be as easy as re-using hot exhaust air.
The manufacture of sulfuric Acid
POWER PLANT.
OZONE DRINKING WATER SYSTEM. CONTENTS Properties of Ozone Production of Ozone Water Treatment Plant – 25 m 3 /hr Ozone Generation System.
POWER PLANT TECHNOLOGY INTRODUCTION AND OVERVIEW Prof. Anand Bhatt.
HYDROPROCESSING PROJECT PROCESS DESCRIPTION
Passive Solar Energy  Uses solar radiation to maintain a comfortable temp in the building without electrical aid  South-facing windows, which absorb.
CHAPTER 4 CPB 20004: Plant Utility n Maintenance
Lecture Objectives: Finish boilers and furnaces Start with thermal storage systems.
Production of Syngas and Ethanol Group II. Definition of Syngas Syngas is the abbreviated name for synthesis gas. It is a gas mixture that comprises of.
Environmental Impacts of Chemical Industries Dr. Lek Wantha.
Lecture Objectives: Continue with power generation Learn basics about boilers and furnaces.
Pool large-scale production. Modern production of ammonia is based on virtually waste-free technology with minimal emissions The main problems are gas.
Residual Analysis of the Production of Nitric Acid Erik Tolonen Nick Poulin Environmental Engineering Environmental Planning and Decision Making ENVE4104.
Title: Lesson 3 Equilibrium and Industry
THE GEOGRAPHY OF POLLUTION. GROUNDING INDUSTRY AND POLLUTION As a country develops, it industrializes, and industrial waste products are major polluters.
Chapter 13 Renewable Energy and Conservation. Overview of Chapter 13  Direct Solar Energy  Indirect Solar Energy  Wind  Biomass  Hydropower  Geothermal.
Welcome PRESENTATION BY ASHISH MISHRA.
STEAM POWER PLANTS.
Shaping the Future Exhaust After Treatment Systems.
 Nitrogen has a triple bond which is very strong. :N:::N:  Only at very high temperatures will it react with oxygen.  This occurs in the combustion.
HABER PROCESS. What is ammonia? It is made industrially by reacting nitrogen with hydrogen in the Haber process. It is a reversible reaction, so it never.
E2 acid deposition State what is meant by the term acid deposition and outline its origins. Discuss the environmental effects of acid deposition and possible.
Module P9 - Energy Aim - Electricity is a secondary energy source. This means that some other energy resources have to be used to make it. We (the human.
Fertilisers IGCSE Chemistry
Biofuels Biomass is a renewable energy source because its supplies are not limited. We can always grow trees and crops, and waste will always exist. Environmentally,
Pharos University جامعه فاروس Faculty of Engineering كلية الهندسة Petrochemical Department قسم البتروكيماويات LECTURE (11) NITRIC ACID PRODUCTION 6-6Contact.
Title: Lesson 13: Acid Deposition
Objectives Name five primary air pollutants, and give sources for each. Name the two major sources of air pollution in urban areas. Describe the way in.
Presentation on Steam Power Plants R.C.Chaturvedi
IGCSE CHEMISTRY SECTION 5 LESSON 4. Content The iGCSE Chemistry course Section 1 Principles of Chemistry Section 2 Chemistry of the Elements Section 3.
Cycles Respiration, Photosynthesis, Evaporation and Condensation, The Weathering of Rock, and the Decay of Organic Matter.
Manufacturing nitric acid. Mainly fertilisers Global production of nitric acid Around 60,000,000 tonnes of nitric acid are produced annually. However,
VAPOUR ABSORPTION REFRIGERATION SYSTEM
PRODUCTION OF SULFURIC ACID
What is Degassing? Degassing is removing dissolved gases from liquids. Applications includes: Removing biogenic hydrogen sulfide from groundwater, used.
Natural Gas Production Chapter 6 Misc. Gas Conditioning
Name: Aditi Trivedi Enrollment no
Lecture Outline - Sulfuric Acid
Crude oil Treatment process
Production of Sulfuric Acid
2.3 Optimizing Production Chemical Industry
Kathryn thumath 02/08/2019 KTHUMATH.
Presentation transcript:

Welcome to the Presentation of Plasma Based HNO3 Manufacturing Plant

We thankful to authority for offering opportunity to Present our New PLASMA Based Technology Products.

HNO3 Manufacturing Plant based on Plasma Technology in Details

 Due to rapid change in technology, the correct design of all steps of the process & last application of Cold Plasma Technology, VVX can offer a complete plant ECO-FRIENDLY and Energy saving, totally powered with green energy, so the final Production cost is low.

INTRODUCTORY REPORT The Nitric Acid can be produced by 3 ways : 1- Starting by Sodium Nitrate (Chile Nitrate) that is a natural mineral. 2- Starting from Air. Birkeland-Eyde process. 3- Starting from Ammonia. Ostwald process & followings. (Currently used in manufacturing) The 1^ and 2^ method have been abandoned for a lot of reasons.

PRESENT PRESENT  The Available Technique is considered the OSTWALD process and its variants.  At the moment all plants for the production of nitric acid are currently based on the same basic chemical operations, developed on original process called “OSTWALD, which includes: – Oxidation of ammonia with air to give nitric oxide. – Oxidation of the nitric oxide to nitrogen dioxide and absorption in water to give a solution of nitric acid.

 The first step reaction is carried out at low pressure whereas the second step is at high pressure. These considerations, combined with economic reasons give rise to two types of nitric acid plant, Single pressure plants and Dual pressure plants.

 In the single pressure plant, the oxidation and absorption steps take place at the same pressure. In dual pressure plants absorption takes place at a higher pressure than the oxidation stage.  The oxidation and absorption steps can be classified as:- – Low pressure (pressure below 1.7bar) – Medium pressure (pressure between 1.7 and 6.5bar) – High pressure (pressure between 6.5 and 13bar)

 The main unit operations involved in the nitric acid process is same for all types of plant and in sequential order these are:-  – Air filtration.  – Air compression.  – Air/ammonia mixing.  – Air/ammonia oxidation over catalytic gauzes.  – Energy recovery by steam generation and/or gas re-heating, Gas cooling. gas re-heating, Gas cooling.

 Gas compression, energy recovery and cooling (dual pressure plants only).  Absorption with the production of nitric acid.  Waste gas (tail gas) heating.  Energy recovery by expansion of the waste gas to atmosphere, in a gas turbine. waste gas to atmosphere, in a gas turbine.

The problems and disadvantages of this, OSTWALD process are : The problems and disadvantages of this, OSTWALD process are :  The use of Ammonia as a raw material, that have a cost and is dangerous.  Explosion risk in every step of line for formation of Ammonia explosive mix.  Explosion risk in absorbing column for formation of Nitrous/Nitric explosive mix.

 Toxic risk for handling and storage of Ammonia.  Liquid waste to treat from boiler and heat exchanger.  Solid waste as salt from boiler, from condensing tower and catalyst.  Gas emission as NOx between 200 to 3500 ppmv to treat.

 Precious catalyst loss (Platinum-Rhodium) around 0.2 to 0.25 gm/ T of HNO3.  High temperature in line, until +900 °C.  High pressure in line, until 13 Bar.  High Power requirement for operation. Only some part of power partially generated by self-production.

 Produced acid to 40-60% in water. If need more concentrated acid is necessary a Final step with Sulphuric Acid.  Use of equipments expensive and need for careful monitoring.

OLD Plasma Technology Process: OLD Plasma Technology Process:  The AIR have around 21% of Oxygen and 78% of Nitrogen plus a very little other gas as Carbon Dioxide and others.  At the beginning of Year 1900 the production of nitric acid was also made with this process known as Birkeland-Eyde or arch, from oxygen and atmospheric nitrogen.

This process has been abandoned for a number of reasons that did not meet the demand of the industry, including: A : Technological difficulty in past time to have the right components as pumps, spray nozzle, corrosion resistant materials and others. B : High consumption of electricity & operating cost.

The New Plasma Technology process The New Plasma Technology process  High Voltage Ionisation  High Voltage Ionisation 1) N2 + 2O > 2NO2 gas Wet Reactor Wet Reactor 2) 3NO2 + H2O ---> 2HNO3 + NO 2) 3NO2 + H2O ---> 2HNO3 + NO liquid + gas (Untreated) liquid + gas (Untreated) Recirculation with High Voltage Ionisation & Cold Plasma Recirculation with High Voltage Ionisation & Cold Plasma

3) 2NO + O > 2NO2 gas 3) 2NO + O > 2NO2 gas Wet Reactor Wet Reactor 4) 2NO2 + 2H > 2HNO3 4) 2NO2 + 2H > 2HNO3 Final Product liquid Final Product liquid The N2 gas added with O2 gas go in first step where cross a special High Voltage Reactor. In this reactor the N2 react with O2 to form NO + NO2 = NOx (reaction 1) NO + NO2 = NOx (reaction 1)

 The Air is filtered to remove dust and other materials and blowers in the first step where air enters into a special VVX’s Cold Plasma Reactor.  In this reactor the N2 react with O2 to form NO + NO2 = NOx (reaction 1) NO + NO2 = NOx (reaction 1)

 The NOx cross a special wet reactor in which it is contacted with a diffuses fog water.  The only NO2 in NOx react with water to form Nitric Acid (reactions 2).  The partially unreacted NO return to Cold plasma reactor to complete the reaction into NO2 ( reaction 1).

 The unreacted NO and the excess N2 goes to Waste Air Treatment Plant by second blowers.  The Nitric Acid produced is drained as a liquid from wet reactor and go in some tanks for storage.  The water need for reactions can be taken from river, lake or well and is treated to remove the pollutants.

 Finally this water cross a deionising plant to Osmosis or Resin before to go to fog nozzle inside the wet reactor.  The Waste Air Treatment Plant is foresee to Biofilter, with special biomass preinoculated of bacteria.  The waste air treated, rich only in Nitrogen gas, is unload in environment

Advantage of VVX’s process : Advantage of VVX’s process : 1. The start gas is simply to have is nitrogen & oxygen from Air. & oxygen from Air. 2. The oxidizing reaction of the nitrogen is at ambient temp. & press. Thank the utilization of Cold Plasma Technology. 3. The synthesis reaction of nitric acid by NO2 is carried from low temp. & press., until ambient temp. & press.

4. Catalyst Not required. 5. Energy requirement can be self- produced with Solar Panel and Wind produced with Solar Panel and Wind Turbine.. Turbine.. 6. Only final product is conc. Acid and require special storage. require special storage. 7. No need of high press. or high temp. vessels and piping.

8. No explosion risk. 9. Less risks of chemical accidents. 10. No high corrosion in piping, pumps, blowers and others thanks the low Press. & temp. 11. No cost for raw chemicals & energy. 12. No cost for storage of raw chemicals. 13. Eco-friendly

Thank You For Your Attention.