SlideShare ist ein Scribd-Unternehmen logo
1 von 13
Downloaden Sie, um offline zu lesen
The various components of crude oil have different sizes,
weights and boiling temperatures; so, the first step is to
separate these components. Because they have different
boiling temperatures, they can be separated easily by a
process called fractional distillation.
The steps for fractional distillation are discussed below.
 Heat the mixture of two or more substances (liquids) with
different boiling points to a high temperature. Heating is
usually done with high pressure steam to temperatures of
about 1112 degrees Fahrenheit / 600 degrees Celsius. The
mixture boils, forming vapor (gases); most substances go into
the vapor phase.
 The vapor enters the bottom of a long column (fractional
distillation column) that is filled with trays or plates. The trays
have many holes or bubble caps (like a loosened cap on a soda
bottle) in them to allow the vapor to pass through. They
increase the contact time between the vapor and the liquids in
the column and help to collect liquids that form at various
heights in the column. There is a temperature difference
across the column (hot at the bottom, cool at the top).
 The Vapor Rises
As the vapor rises through the trays in the column, it
cools. When a substance in the vapor reaches a height
where the temperature of the column is equal to that
substance's boiling point, it will condense to form a
liquid. (The substance with the lowest boiling point will
condense at the highest point in the column; substances
with higher boiling points will condense lower in the
column.). The trays collect the various liquid fractions.
The collected liquid fractions may pass to condensers,
which cool them further, and then go to storage tanks, or
they may go to other areas for further chemical
processing.
The oil refining process starts with a fractional distillation
column. On the right, you can see several
chemical processors that are described in the next section.
Very few of the components come out of the fractional
distillation column ready for market. Many of them must be
chemically processed to make other fractions. For example, only
40% of distilled crude oil is gasoline; however, gasoline is one of
the major products made by oil companies. Rather than
continually distilling large quantities of crude oil, oil companies
chemically process some other fractions from the distillation
column to make gasoline.
The top distillates
The top of the fractionating column gives rise to gases and liquids that
have short carbon chains in their composition. While these products are
often used as fuels, many have industrial and chemical uses too.
 Petroleum gases : Butane and propane and other petroleum gases are
formed right at the top of the distillation tower, where it is coolest, a very
mild 25°C: the temperature range that forms these gases is between 25°C
and 50°C. These gases are the lightest products formed in crude oil
distillation and are flammable gases.
 Petrol These gases, being the lightest products formed and flammable
gases too, are then processed into Liquified Petroleum Gas (LPG), which is
usually a mixture of propane and butane. LPG is used for heating
applications and also hot air balloons in the case of propane.
 Naphtha The petroleum gases have four or five hydrocarbons in their
chain. For these distillates, hydrocarbon chains are made up of three
carbon atoms in the case of propane (C3H8), and four carbon atoms in the
case of butane (C4H10).
The middle distillate fuel oils
Oils below this point have a flashpoint of higher than 42°C and are
classified as fuel oils. These are the middle distillates as they form in
the mid-section of the tower.
 Paraffin: Used for heating and burning in domestic applications is
paraffin and paraffin wax, which forms in the column at a range of
100°C to 175°C. Paraffin has between twenty and forty carbon
atoms. Paraffin wax is further processed to be used in industry to
create candles, petroleum jelly that protects skin and many other
products.
 Kerosene: While paraffin can also refer to kerosene, it comes as a
result of paraffin’s history as a domestic heating fuel, which
kerosene is now the default.
 Diesel: Paraffin comes in both liquid and solid form and is used
throughout the UK in a wide range of industries. It’s an extremely
versatile product, and so has a wide range of uses including heating
oil, beauty products, candles and medicines.
Lower distillates
At the bottom extremity of the fractioning tower, the lower distillates form.
These have high densities, higher boiling points and are not used as fuels,
but more as grease for lubrication. These form at temperatures of 350°C to
600°C.
 Lubricating oil
 Bunker fuels and heavy fuel oil
 Marine gas oil (MGO)
 Heavy fuel oil (HFO)
 Marine fuel blends
 Marine diesel oil (MDO)
 Intermediate fuel oil (IFO)
 Marine fuel oil (MFO)
In between MGO and HFO are three additional maritime oils, MDO, IFO and
MFO. These are produced by blending MGO with HFO in varied
proportions.
 Bituminous coal
Bituminous coal is a soft, dense, black coal. Bituminous coal
often has bands of bright and dull material
in it. Bituminous coal is the most common coal and has a
moisture content less than 20 %. Bituminous
coal is used for generating electricity, making coke, and
space heating.
Bituminous coal has calorific values ranging from 6.8 - 9
kW/kG approximately
 Anthracite coal
Often referred to as hard coal, anthracite is hard, black and
lustrous. Anthracite is low in sulphur and high
in carbon. It is the highest rank of coal. Moisture content
generally is less than 15 %.
Anthracite has calorific values of around 9 kW/kG or above
Residuals
When it comes to petroleum products that are produced to
ultimately be burned, it’s essential that waste is absolutely
minimised, so at the bottom of the distillation tower, where
temperatures reach 500°C to 600°C, the residue of crude oil is
retrieved and put to use.
Residue formed at the bottom of the fractionating column includes
bitumen and asphalt.
 Bitumen: Refined bitumen is made from the residue of petroleum
refining, where the column is around 600°C. You’ll have come across
it every day as it is an essential component of construction – used in
tarring roads, sealing roofs and many other applications.
 Asphalt: Bitumen also forms naturally – known as crude bitumen.
END

Weitere Àhnliche Inhalte

Ähnlich wie Fractional Distillaton, Lecture 01, Fuel Tech-ll.pdf

Nabeel Shan
Nabeel ShanNabeel Shan
Nabeel Shan
Nabeel Shan
 
Petroleum in industry
Petroleum in industryPetroleum in industry
Petroleum in industry
roykirk123
 
Petroleum in industry
Petroleum in industryPetroleum in industry
Petroleum in industry
ThePetroleumKid
 
Petroleum and Kerosene in Industry
Petroleum and Kerosene in IndustryPetroleum and Kerosene in Industry
Petroleum and Kerosene in Industry
ThePetroleumKid
 
Petroleum and Kerosene in Industry
Petroleum and Kerosene in IndustryPetroleum and Kerosene in Industry
Petroleum and Kerosene in Industry
ThePetroleumKid
 
Chapter 52
Chapter 52Chapter 52
Chapter 52
mcfalltj
 

Ähnlich wie Fractional Distillaton, Lecture 01, Fuel Tech-ll.pdf (20)

Nabeel Shan
Nabeel ShanNabeel Shan
Nabeel Shan
 
Lecture 19 Refinery.pptx
Lecture 19 Refinery.pptxLecture 19 Refinery.pptx
Lecture 19 Refinery.pptx
 
Fractional Distillation
Fractional Distillation Fractional Distillation
Fractional Distillation
 
Crude Oil Refining
Crude Oil RefiningCrude Oil Refining
Crude Oil Refining
 
Fuel Gas (2).doc
Fuel Gas (2).docFuel Gas (2).doc
Fuel Gas (2).doc
 
Liquid fuels presentation
Liquid fuels presentationLiquid fuels presentation
Liquid fuels presentation
 
Petroleum in industry
Petroleum in industryPetroleum in industry
Petroleum in industry
 
Refining Process.pdf
Refining Process.pdfRefining Process.pdf
Refining Process.pdf
 
Petroleum in industry
Petroleum in industryPetroleum in industry
Petroleum in industry
 
Combustion of gaseous fuels - its characteristics
Combustion of gaseous fuels - its characteristicsCombustion of gaseous fuels - its characteristics
Combustion of gaseous fuels - its characteristics
 
Elective_Refining 2.pptx
Elective_Refining 2.pptxElective_Refining 2.pptx
Elective_Refining 2.pptx
 
Elective_Refining 1.pptx
Elective_Refining 1.pptxElective_Refining 1.pptx
Elective_Refining 1.pptx
 
Petroleum and Kerosene in Industry
Petroleum and Kerosene in IndustryPetroleum and Kerosene in Industry
Petroleum and Kerosene in Industry
 
Petroleum and Kerosene in Industry
Petroleum and Kerosene in IndustryPetroleum and Kerosene in Industry
Petroleum and Kerosene in Industry
 
Chapter 52
Chapter 52Chapter 52
Chapter 52
 
Petroleum industry
Petroleum industryPetroleum industry
Petroleum industry
 
Petroleum Industry
Petroleum IndustryPetroleum Industry
Petroleum Industry
 
Properties of Fuel Oil & Bunkering Procedure by Hanif Dewan
Properties of Fuel Oil & Bunkering Procedure by Hanif DewanProperties of Fuel Oil & Bunkering Procedure by Hanif Dewan
Properties of Fuel Oil & Bunkering Procedure by Hanif Dewan
 
Cracking.pptx
Cracking.pptxCracking.pptx
Cracking.pptx
 
Gasoline
GasolineGasoline
Gasoline
 

Mehr von ShakeelAhmad816993

Gaseous Control Techniques , Lecture 10, Fuel Technology2, (Week 14).pptx
Gaseous Control Techniques , Lecture 10, Fuel Technology2, (Week 14).pptxGaseous Control Techniques , Lecture 10, Fuel Technology2, (Week 14).pptx
Gaseous Control Techniques , Lecture 10, Fuel Technology2, (Week 14).pptx
ShakeelAhmad816993
 
Energy from Waste, Lecture 09, Fuel Technology2, (Week 11).pptx
Energy from Waste, Lecture 09, Fuel Technology2, (Week 11).pptxEnergy from Waste, Lecture 09, Fuel Technology2, (Week 11).pptx
Energy from Waste, Lecture 09, Fuel Technology2, (Week 11).pptx
ShakeelAhmad816993
 

Mehr von ShakeelAhmad816993 (20)

Applied Thermo, Lecture-03.pdf
Applied Thermo, Lecture-03.pdfApplied Thermo, Lecture-03.pdf
Applied Thermo, Lecture-03.pdf
 
Applied Thermo, Lecture-02.pdf
Applied Thermo, Lecture-02.pdfApplied Thermo, Lecture-02.pdf
Applied Thermo, Lecture-02.pdf
 
Applied Thermo, Lecture-01.pdf
Applied Thermo, Lecture-01.pdfApplied Thermo, Lecture-01.pdf
Applied Thermo, Lecture-01.pdf
 
Lecture 11.pptx
Lecture 11.pptxLecture 11.pptx
Lecture 11.pptx
 
Lecture 10.pptx
Lecture 10.pptxLecture 10.pptx
Lecture 10.pptx
 
Lecture 9.pptx
Lecture 9.pptxLecture 9.pptx
Lecture 9.pptx
 
Lecture 8'.pptx
Lecture 8'.pptxLecture 8'.pptx
Lecture 8'.pptx
 
Lecture 2.pptx
Lecture 2.pptxLecture 2.pptx
Lecture 2.pptx
 
Lecture 1.pptx
Lecture 1.pptxLecture 1.pptx
Lecture 1.pptx
 
Applied Thermo, Lecture-01.pptx
Applied Thermo, Lecture-01.pptxApplied Thermo, Lecture-01.pptx
Applied Thermo, Lecture-01.pptx
 
Gaseous Control Techniques , Lecture 10, Fuel Technology2, (Week 14).pptx
Gaseous Control Techniques , Lecture 10, Fuel Technology2, (Week 14).pptxGaseous Control Techniques , Lecture 10, Fuel Technology2, (Week 14).pptx
Gaseous Control Techniques , Lecture 10, Fuel Technology2, (Week 14).pptx
 
Fuel Additives, Lecture 02, Fuel Tech-ll.pptx
Fuel Additives, Lecture 02, Fuel Tech-ll.pptxFuel Additives, Lecture 02, Fuel Tech-ll.pptx
Fuel Additives, Lecture 02, Fuel Tech-ll.pptx
 
Fuel Additives, Lecture 02, Fuel Tech-ll.pdf
Fuel Additives, Lecture 02, Fuel Tech-ll.pdfFuel Additives, Lecture 02, Fuel Tech-ll.pdf
Fuel Additives, Lecture 02, Fuel Tech-ll.pdf
 
Fractional Distillaton, Lecture 01, Fuel Tech-ll.pptx
Fractional Distillaton, Lecture 01, Fuel Tech-ll.pptxFractional Distillaton, Lecture 01, Fuel Tech-ll.pptx
Fractional Distillaton, Lecture 01, Fuel Tech-ll.pptx
 
Ethanol production, Lecture 07, Fuel Technology2.pptx
Ethanol production, Lecture 07, Fuel Technology2.pptxEthanol production, Lecture 07, Fuel Technology2.pptx
Ethanol production, Lecture 07, Fuel Technology2.pptx
 
Energy from Waste, Lecture 09, Fuel Technology2, (Week 11).pptx
Energy from Waste, Lecture 09, Fuel Technology2, (Week 11).pptxEnergy from Waste, Lecture 09, Fuel Technology2, (Week 11).pptx
Energy from Waste, Lecture 09, Fuel Technology2, (Week 11).pptx
 
Calorific Value Lecture 3, Fuel Tech-ll.pptx
Calorific Value Lecture 3, Fuel Tech-ll.pptxCalorific Value Lecture 3, Fuel Tech-ll.pptx
Calorific Value Lecture 3, Fuel Tech-ll.pptx
 
Calorific Value Lecture 3, Fuel Tech-ll.pdf
Calorific Value Lecture 3, Fuel Tech-ll.pdfCalorific Value Lecture 3, Fuel Tech-ll.pdf
Calorific Value Lecture 3, Fuel Tech-ll.pdf
 
ALTERNATIVE FUELS.pdf
ALTERNATIVE FUELS.pdfALTERNATIVE FUELS.pdf
ALTERNATIVE FUELS.pdf
 
ALTERNATIVE FUELS Lecture 6 Fuel Tech-ll.pptx
ALTERNATIVE FUELS Lecture 6 Fuel Tech-ll.pptxALTERNATIVE FUELS Lecture 6 Fuel Tech-ll.pptx
ALTERNATIVE FUELS Lecture 6 Fuel Tech-ll.pptx
 

KĂŒrzlich hochgeladen

The Role of Taxonomy and Ontology in Semantic Layers - Heather Hedden.pdf
The Role of Taxonomy and Ontology in Semantic Layers - Heather Hedden.pdfThe Role of Taxonomy and Ontology in Semantic Layers - Heather Hedden.pdf
The Role of Taxonomy and Ontology in Semantic Layers - Heather Hedden.pdf
Enterprise Knowledge
 

KĂŒrzlich hochgeladen (20)

How to convert PDF to text with Nanonets
How to convert PDF to text with NanonetsHow to convert PDF to text with Nanonets
How to convert PDF to text with Nanonets
 
The 7 Things I Know About Cyber Security After 25 Years | April 2024
The 7 Things I Know About Cyber Security After 25 Years | April 2024The 7 Things I Know About Cyber Security After 25 Years | April 2024
The 7 Things I Know About Cyber Security After 25 Years | April 2024
 
Breaking the Kubernetes Kill Chain: Host Path Mount
Breaking the Kubernetes Kill Chain: Host Path MountBreaking the Kubernetes Kill Chain: Host Path Mount
Breaking the Kubernetes Kill Chain: Host Path Mount
 
Factors to Consider When Choosing Accounts Payable Services Providers.pptx
Factors to Consider When Choosing Accounts Payable Services Providers.pptxFactors to Consider When Choosing Accounts Payable Services Providers.pptx
Factors to Consider When Choosing Accounts Payable Services Providers.pptx
 
Powerful Google developer tools for immediate impact! (2023-24 C)
Powerful Google developer tools for immediate impact! (2023-24 C)Powerful Google developer tools for immediate impact! (2023-24 C)
Powerful Google developer tools for immediate impact! (2023-24 C)
 
08448380779 Call Girls In Greater Kailash - I Women Seeking Men
08448380779 Call Girls In Greater Kailash - I Women Seeking Men08448380779 Call Girls In Greater Kailash - I Women Seeking Men
08448380779 Call Girls In Greater Kailash - I Women Seeking Men
 
08448380779 Call Girls In Diplomatic Enclave Women Seeking Men
08448380779 Call Girls In Diplomatic Enclave Women Seeking Men08448380779 Call Girls In Diplomatic Enclave Women Seeking Men
08448380779 Call Girls In Diplomatic Enclave Women Seeking Men
 
🐬 The future of MySQL is Postgres 🐘
🐬  The future of MySQL is Postgres   🐘🐬  The future of MySQL is Postgres   🐘
🐬 The future of MySQL is Postgres 🐘
 
Boost PC performance: How more available memory can improve productivity
Boost PC performance: How more available memory can improve productivityBoost PC performance: How more available memory can improve productivity
Boost PC performance: How more available memory can improve productivity
 
Boost Fertility New Invention Ups Success Rates.pdf
Boost Fertility New Invention Ups Success Rates.pdfBoost Fertility New Invention Ups Success Rates.pdf
Boost Fertility New Invention Ups Success Rates.pdf
 
Axa Assurance Maroc - Insurer Innovation Award 2024
Axa Assurance Maroc - Insurer Innovation Award 2024Axa Assurance Maroc - Insurer Innovation Award 2024
Axa Assurance Maroc - Insurer Innovation Award 2024
 
Exploring the Future Potential of AI-Enabled Smartphone Processors
Exploring the Future Potential of AI-Enabled Smartphone ProcessorsExploring the Future Potential of AI-Enabled Smartphone Processors
Exploring the Future Potential of AI-Enabled Smartphone Processors
 
What Are The Drone Anti-jamming Systems Technology?
What Are The Drone Anti-jamming Systems Technology?What Are The Drone Anti-jamming Systems Technology?
What Are The Drone Anti-jamming Systems Technology?
 
A Domino Admins Adventures (Engage 2024)
A Domino Admins Adventures (Engage 2024)A Domino Admins Adventures (Engage 2024)
A Domino Admins Adventures (Engage 2024)
 
From Event to Action: Accelerate Your Decision Making with Real-Time Automation
From Event to Action: Accelerate Your Decision Making with Real-Time AutomationFrom Event to Action: Accelerate Your Decision Making with Real-Time Automation
From Event to Action: Accelerate Your Decision Making with Real-Time Automation
 
The Role of Taxonomy and Ontology in Semantic Layers - Heather Hedden.pdf
The Role of Taxonomy and Ontology in Semantic Layers - Heather Hedden.pdfThe Role of Taxonomy and Ontology in Semantic Layers - Heather Hedden.pdf
The Role of Taxonomy and Ontology in Semantic Layers - Heather Hedden.pdf
 
Scaling API-first – The story of a global engineering organization
Scaling API-first – The story of a global engineering organizationScaling API-first – The story of a global engineering organization
Scaling API-first – The story of a global engineering organization
 
Tata AIG General Insurance Company - Insurer Innovation Award 2024
Tata AIG General Insurance Company - Insurer Innovation Award 2024Tata AIG General Insurance Company - Insurer Innovation Award 2024
Tata AIG General Insurance Company - Insurer Innovation Award 2024
 
Driving Behavioral Change for Information Management through Data-Driven Gree...
Driving Behavioral Change for Information Management through Data-Driven Gree...Driving Behavioral Change for Information Management through Data-Driven Gree...
Driving Behavioral Change for Information Management through Data-Driven Gree...
 
[2024]Digital Global Overview Report 2024 Meltwater.pdf
[2024]Digital Global Overview Report 2024 Meltwater.pdf[2024]Digital Global Overview Report 2024 Meltwater.pdf
[2024]Digital Global Overview Report 2024 Meltwater.pdf
 

Fractional Distillaton, Lecture 01, Fuel Tech-ll.pdf

  • 1.
  • 2. The various components of crude oil have different sizes, weights and boiling temperatures; so, the first step is to separate these components. Because they have different boiling temperatures, they can be separated easily by a process called fractional distillation. The steps for fractional distillation are discussed below.
  • 3.  Heat the mixture of two or more substances (liquids) with different boiling points to a high temperature. Heating is usually done with high pressure steam to temperatures of about 1112 degrees Fahrenheit / 600 degrees Celsius. The mixture boils, forming vapor (gases); most substances go into the vapor phase.  The vapor enters the bottom of a long column (fractional distillation column) that is filled with trays or plates. The trays have many holes or bubble caps (like a loosened cap on a soda bottle) in them to allow the vapor to pass through. They increase the contact time between the vapor and the liquids in the column and help to collect liquids that form at various heights in the column. There is a temperature difference across the column (hot at the bottom, cool at the top).
  • 4.  The Vapor Rises As the vapor rises through the trays in the column, it cools. When a substance in the vapor reaches a height where the temperature of the column is equal to that substance's boiling point, it will condense to form a liquid. (The substance with the lowest boiling point will condense at the highest point in the column; substances with higher boiling points will condense lower in the column.). The trays collect the various liquid fractions. The collected liquid fractions may pass to condensers, which cool them further, and then go to storage tanks, or they may go to other areas for further chemical processing.
  • 5.
  • 6. The oil refining process starts with a fractional distillation column. On the right, you can see several chemical processors that are described in the next section. Very few of the components come out of the fractional distillation column ready for market. Many of them must be chemically processed to make other fractions. For example, only 40% of distilled crude oil is gasoline; however, gasoline is one of the major products made by oil companies. Rather than continually distilling large quantities of crude oil, oil companies chemically process some other fractions from the distillation column to make gasoline.
  • 7.
  • 8. The top distillates The top of the fractionating column gives rise to gases and liquids that have short carbon chains in their composition. While these products are often used as fuels, many have industrial and chemical uses too.  Petroleum gases : Butane and propane and other petroleum gases are formed right at the top of the distillation tower, where it is coolest, a very mild 25°C: the temperature range that forms these gases is between 25°C and 50°C. These gases are the lightest products formed in crude oil distillation and are flammable gases.  Petrol These gases, being the lightest products formed and flammable gases too, are then processed into Liquified Petroleum Gas (LPG), which is usually a mixture of propane and butane. LPG is used for heating applications and also hot air balloons in the case of propane.  Naphtha The petroleum gases have four or five hydrocarbons in their chain. For these distillates, hydrocarbon chains are made up of three carbon atoms in the case of propane (C3H8), and four carbon atoms in the case of butane (C4H10).
  • 9. The middle distillate fuel oils Oils below this point have a flashpoint of higher than 42°C and are classified as fuel oils. These are the middle distillates as they form in the mid-section of the tower.  Paraffin: Used for heating and burning in domestic applications is paraffin and paraffin wax, which forms in the column at a range of 100°C to 175°C. Paraffin has between twenty and forty carbon atoms. Paraffin wax is further processed to be used in industry to create candles, petroleum jelly that protects skin and many other products.  Kerosene: While paraffin can also refer to kerosene, it comes as a result of paraffin’s history as a domestic heating fuel, which kerosene is now the default.  Diesel: Paraffin comes in both liquid and solid form and is used throughout the UK in a wide range of industries. It’s an extremely versatile product, and so has a wide range of uses including heating oil, beauty products, candles and medicines.
  • 10. Lower distillates At the bottom extremity of the fractioning tower, the lower distillates form. These have high densities, higher boiling points and are not used as fuels, but more as grease for lubrication. These form at temperatures of 350°C to 600°C.  Lubricating oil  Bunker fuels and heavy fuel oil  Marine gas oil (MGO)  Heavy fuel oil (HFO)  Marine fuel blends  Marine diesel oil (MDO)  Intermediate fuel oil (IFO)  Marine fuel oil (MFO) In between MGO and HFO are three additional maritime oils, MDO, IFO and MFO. These are produced by blending MGO with HFO in varied proportions.
  • 11.  Bituminous coal Bituminous coal is a soft, dense, black coal. Bituminous coal often has bands of bright and dull material in it. Bituminous coal is the most common coal and has a moisture content less than 20 %. Bituminous coal is used for generating electricity, making coke, and space heating. Bituminous coal has calorific values ranging from 6.8 - 9 kW/kG approximately  Anthracite coal Often referred to as hard coal, anthracite is hard, black and lustrous. Anthracite is low in sulphur and high in carbon. It is the highest rank of coal. Moisture content generally is less than 15 %. Anthracite has calorific values of around 9 kW/kG or above
  • 12. Residuals When it comes to petroleum products that are produced to ultimately be burned, it’s essential that waste is absolutely minimised, so at the bottom of the distillation tower, where temperatures reach 500°C to 600°C, the residue of crude oil is retrieved and put to use. Residue formed at the bottom of the fractionating column includes bitumen and asphalt.  Bitumen: Refined bitumen is made from the residue of petroleum refining, where the column is around 600°C. You’ll have come across it every day as it is an essential component of construction – used in tarring roads, sealing roofs and many other applications.  Asphalt: Bitumen also forms naturally – known as crude bitumen.
  • 13. END