Human body 2
•Download as PPT, PDF•
1 like•207 views
The human body consists of muscles, a skeleton, and other systems. Muscles allow movement and provide structure, while the skeleton provides an internal framework and protection for organs. Together, muscles and the skeleton work in tandem to allow the human body to move.
Report
Share
Report
Share
Recommended
01 Shoemake Ja
The production of nitric acid begins with natural gas or petroleum gas being converted into ammonia. Ammonia is then oxidized by reacting it with oxygen, forming nitrogen dioxide gas. This gas is absorbed by water, producing nitric acid. There are two main separation processes used: separation by barriers to remove sulfur from natural gas, and separation by solid agents to extract carbon dioxide when producing ammonia. Ammonia is then oxidized using air heated by a catalyst, forming nitrogen dioxide which is absorbed by water to create nitric acid.
Hno3 lecture
Nitric Acid Manufacturing by Engineer Ghulam Abbas (Chemical Engineering Lecturer University of Gujrat)
Gemaco Nitrogen Syngas Kuala Lumpur 2012
The document discusses corrosion issues and solutions for urea and nitric acid plants. It describes the different corrosion phenomena in these plants and the special stainless steels required. These include grades 316L UG, 25.22.2, 304L, 1.4361, and 1.4335. The presentation covers projects, shut downs, revamping, debottlenecking, repairs and improvement of supply chain management for these plants. It also discusses urgent material needs, tailor made products, technical and logistic support, and contractor services.
Asit education student review
This all of our Bangalore institute successful student review.I hope it will support for software domain.For any query direct contacts also.
Nitric acid flow diagram
The document appears to be a flow diagram for a nitric acid production process. It shows the inputs of air and ammonia gas which are mixed and burned in an ammonia burner. The resulting gases pass through various cooling steps before the nitric acid product is separated out and the remainder passes through an expander and stack to the atmosphere. The diagram also includes components like an air compressor, steam drum, and bleacher column.
Nitric acid
1) The document provides information on a 60-70% nitric acid solution, including identification, ingredients, physical properties, fire and explosion hazards, toxicological properties, first aid measures, and handling/storage instructions.
2) The main ingredient is nitric acid at 60-70% concentration. It is a clear, colorless to slightly yellow fuming aqueous solution with a pungent odor.
3) Nitric acid is a strong oxidizer and corrosive liquid that can cause burns to skin, eyes, lungs and digestive tract upon contact. Proper protective equipment and handling procedures should be followed to prevent injury.
Nitric acid Industries
Lecture Slides by Prof. Imitaz Ali at Ghulam Ishaq Khan Institute for Engineering Sciences and Technology (GIKI).
Recommended
01 Shoemake Ja
The production of nitric acid begins with natural gas or petroleum gas being converted into ammonia. Ammonia is then oxidized by reacting it with oxygen, forming nitrogen dioxide gas. This gas is absorbed by water, producing nitric acid. There are two main separation processes used: separation by barriers to remove sulfur from natural gas, and separation by solid agents to extract carbon dioxide when producing ammonia. Ammonia is then oxidized using air heated by a catalyst, forming nitrogen dioxide which is absorbed by water to create nitric acid.
Hno3 lecture
Nitric Acid Manufacturing by Engineer Ghulam Abbas (Chemical Engineering Lecturer University of Gujrat)
Gemaco Nitrogen Syngas Kuala Lumpur 2012
The document discusses corrosion issues and solutions for urea and nitric acid plants. It describes the different corrosion phenomena in these plants and the special stainless steels required. These include grades 316L UG, 25.22.2, 304L, 1.4361, and 1.4335. The presentation covers projects, shut downs, revamping, debottlenecking, repairs and improvement of supply chain management for these plants. It also discusses urgent material needs, tailor made products, technical and logistic support, and contractor services.
Asit education student review
This all of our Bangalore institute successful student review.I hope it will support for software domain.For any query direct contacts also.
Nitric acid flow diagram
The document appears to be a flow diagram for a nitric acid production process. It shows the inputs of air and ammonia gas which are mixed and burned in an ammonia burner. The resulting gases pass through various cooling steps before the nitric acid product is separated out and the remainder passes through an expander and stack to the atmosphere. The diagram also includes components like an air compressor, steam drum, and bleacher column.
Nitric acid
1) The document provides information on a 60-70% nitric acid solution, including identification, ingredients, physical properties, fire and explosion hazards, toxicological properties, first aid measures, and handling/storage instructions.
2) The main ingredient is nitric acid at 60-70% concentration. It is a clear, colorless to slightly yellow fuming aqueous solution with a pungent odor.
3) Nitric acid is a strong oxidizer and corrosive liquid that can cause burns to skin, eyes, lungs and digestive tract upon contact. Proper protective equipment and handling procedures should be followed to prevent injury.
Nitric acid Industries
Lecture Slides by Prof. Imitaz Ali at Ghulam Ishaq Khan Institute for Engineering Sciences and Technology (GIKI).
Cumene Production Slide Show (group 7)
The document presents an undergraduate design report for a plant to produce 10,000 tons per day of cumene from the reaction of propylene and benzene using an acid catalyst. It describes the chosen reactive distillation process route and provides justification. It includes the process description with flow diagram and block diagram. Results and discussion sections provide material and energy balances, equipment design details, and economic analysis showing a net profit and payback period of 2 years. Recommendations include considering a yearly design basis and using more realistic cost data.
Production of phthalic anhydride from xylene
This document presents the design of a process to produce phthalic anhydride from o-xylene. It includes a literature review on the production process, kinetic data, safety and environmental precautions. Mass and energy balances were developed for the key units: a mixing point, reactor, condenser, and two distillation columns. Process simulation and equipment sizing were performed. The reactor was designed to operate adiabatically at 150°C and 30 bar. The first distillation column was designed to separate o-xylene from other components with a minimum reflux ratio.
Nitric acid
Nitric acid is a colorless liquid that is highly corrosive. It was first discovered in the 13th century and was known as aqua fortis. Nitric acid can be produced via the sodium nitrate process or by oxidizing ammonia. It is commonly used to make fertilizers and as a cleaning agent. While useful, nitric acid must be handled with care due to its corrosive nature.
Nitric acid
Nitric acid is manufactured industrially using the Ostwald process. The process involves reacting ammonia and oxygen gas over a platinum or rhodium catalyst at high temperatures and pressures to produce nitric oxide. The nitric oxide further reacts with oxygen to form nitrogen dioxide, which then reacts with water to produce nitric acid and nitric oxide in a cycle. The nitric acid is separated through distillation. One major use of nitric acid is in producing ammonium nitrate for nitrogen-based fertilizers.
Nitric acid presentation
Nitric acid is a colorless, corrosive, and toxic mineral acid. It is composed of one hydrogen atom, one nitrogen atom, and three oxygen atoms. Nitric acid was first identified in the 9th century and has had various names over time. It was first synthesized in the early 20th century and was used by Germans prior to WWI to produce nitrates for weapons. Nitric acid is commonly used in industry, agriculture, and for making explosives and rocket fuel due to its strong oxidizing properties. It poses severe health and safety hazards if mishandled.
DESIGN PROJECT 2013
This document provides a design for a plant to produce 400,000 metric tonnes of nitric acid per year using the Ostwald process. It selects a single pressure process as most advantageous after considering several factors such as efficient energy management. The process involves vaporizing ammonia at 1000 kPa and 35°C using process heat, then superheating it to 80°C with steam before mixing it with compressed air in a converter reactor over a platinum catalyst to produce nitrogen oxides, which are then absorbed in water to form the nitric acid product. The plant is estimated to cost ₦5.41 billion with a 26.25% return on investment and a 3 year, 7 month payback period, making the project technically
Manufacturing nitric acid by ostwald process
Nitric acid is a colourless liquid most commonly manufactured by Ostwald process which converts ammonia to nitric acid, nitric acid used for fertilizers, dye intermediates, explosives
Industrial manufacturing of Nitric acid
Industrial manufacturing of Nitric acid
This document contain detailed step of Industrial manufacturing of Nitric acid.
Presentation Nitric Acid
Nitric acid is a strong acid that is colorless as a pure liquid but commercial samples may appear yellowish. It is highly corrosive and a strong oxidizer. Nitric acid is produced industrially via the Ostwald process, which involves ammonia oxidation over a platinum catalyst in three steps: primary oxidation to nitric oxide, secondary oxidation to nitrogen dioxide, and absorption of nitrogen dioxide in water to form nitric acid. Nitric acid has many industrial and laboratory uses including fertilizer and explosive production.
More Related Content
Viewers also liked
Cumene Production Slide Show (group 7)
The document presents an undergraduate design report for a plant to produce 10,000 tons per day of cumene from the reaction of propylene and benzene using an acid catalyst. It describes the chosen reactive distillation process route and provides justification. It includes the process description with flow diagram and block diagram. Results and discussion sections provide material and energy balances, equipment design details, and economic analysis showing a net profit and payback period of 2 years. Recommendations include considering a yearly design basis and using more realistic cost data.
Production of phthalic anhydride from xylene
This document presents the design of a process to produce phthalic anhydride from o-xylene. It includes a literature review on the production process, kinetic data, safety and environmental precautions. Mass and energy balances were developed for the key units: a mixing point, reactor, condenser, and two distillation columns. Process simulation and equipment sizing were performed. The reactor was designed to operate adiabatically at 150°C and 30 bar. The first distillation column was designed to separate o-xylene from other components with a minimum reflux ratio.
Nitric acid
Nitric acid is a colorless liquid that is highly corrosive. It was first discovered in the 13th century and was known as aqua fortis. Nitric acid can be produced via the sodium nitrate process or by oxidizing ammonia. It is commonly used to make fertilizers and as a cleaning agent. While useful, nitric acid must be handled with care due to its corrosive nature.
Nitric acid
Nitric acid is manufactured industrially using the Ostwald process. The process involves reacting ammonia and oxygen gas over a platinum or rhodium catalyst at high temperatures and pressures to produce nitric oxide. The nitric oxide further reacts with oxygen to form nitrogen dioxide, which then reacts with water to produce nitric acid and nitric oxide in a cycle. The nitric acid is separated through distillation. One major use of nitric acid is in producing ammonium nitrate for nitrogen-based fertilizers.
Nitric acid presentation
Nitric acid is a colorless, corrosive, and toxic mineral acid. It is composed of one hydrogen atom, one nitrogen atom, and three oxygen atoms. Nitric acid was first identified in the 9th century and has had various names over time. It was first synthesized in the early 20th century and was used by Germans prior to WWI to produce nitrates for weapons. Nitric acid is commonly used in industry, agriculture, and for making explosives and rocket fuel due to its strong oxidizing properties. It poses severe health and safety hazards if mishandled.
DESIGN PROJECT 2013
This document provides a design for a plant to produce 400,000 metric tonnes of nitric acid per year using the Ostwald process. It selects a single pressure process as most advantageous after considering several factors such as efficient energy management. The process involves vaporizing ammonia at 1000 kPa and 35°C using process heat, then superheating it to 80°C with steam before mixing it with compressed air in a converter reactor over a platinum catalyst to produce nitrogen oxides, which are then absorbed in water to form the nitric acid product. The plant is estimated to cost ₦5.41 billion with a 26.25% return on investment and a 3 year, 7 month payback period, making the project technically
Manufacturing nitric acid by ostwald process
Nitric acid is a colourless liquid most commonly manufactured by Ostwald process which converts ammonia to nitric acid, nitric acid used for fertilizers, dye intermediates, explosives
Industrial manufacturing of Nitric acid
Industrial manufacturing of Nitric acid
This document contain detailed step of Industrial manufacturing of Nitric acid.
Presentation Nitric Acid
Nitric acid is a strong acid that is colorless as a pure liquid but commercial samples may appear yellowish. It is highly corrosive and a strong oxidizer. Nitric acid is produced industrially via the Ostwald process, which involves ammonia oxidation over a platinum catalyst in three steps: primary oxidation to nitric oxide, secondary oxidation to nitrogen dioxide, and absorption of nitrogen dioxide in water to form nitric acid. Nitric acid has many industrial and laboratory uses including fertilizer and explosive production.