Process packages

Direct fuel fired furnaces supplied by Chaman have been used in refinery operations, providing the thermal energy required to drive high temperature processes such as distillation, cracking and reforming. The evolution of petrochemical and gas production applications means that heaters are being installed in a wide variety of production units and as low carbon fuel production grows, furnaces will remain an essential part of the energy transition.

There are 3 main design types for direct flame furnaces: Cylindrical, box and cabinet. The most common type of heater is the cylindrical one with vertical coils. Cylindrical furnaces with spiral coils are also offered for smaller heater duties.

Chaman Company offers a dynamic approach by considering the design aspect for cost control and construction feasibility during assembly and installation.

Also, using our experience to provide modular furnaces for the construction of a project, from engineering to delivery and commissioning operations, it is available to all our customers.

Distillation Processes - Titanium Dioxide Producer - Solvent Deasphalting - Steam Methane Reforming - Gas to Liquids (GTL) Naphtha Reforming - Waxing Units - Alkane Dehydrogenation - Styrene Monomer Production - Hydrosulfurization - Hydrocracking Isomerization - LNG - Laboratory - Thermal Cracking - Hydrotherapy

Direct flame catalytic cracking furnaces are widely used to convert the high molecular weight hydrocarbon fractions of petroleum crude oil into gasoline, olefinic gases, and other more valuable products. Cracking of petroleum hydrocarbons was originally accomplished by thermal cracking, which has been almost completely replaced by catalytic cracking because it produces more gasoline with higher octane ratings.

It also produces by-products that have more carbon-carbon double bonds (i.e., more olefins) and therefore have greater economic value than gases produced by thermal cracking.

FCC feed is typically that portion of crude oil that has an initial boiling point of 340°C or higher at atmospheric pressure and an average molecular weight of about 200 to 600 or more.

This fraction of crude oil is often known as heavy gas oil or vacuum gas oil (HVGO).

In the FCC process, the feedstock is heated to high temperatures and moderate pressures and comes into contact with a hot, powdered catalyst. The catalyst breaks the long-chain molecules of high-boiling hydrocarbon liquids into much shorter molecules that are collected as vapors.

Direct flame catalytic cracking furnaces are widely used to convert the high molecular weight hydrocarbon fractions of petroleum crude oil into gasoline, olefinic gases, and other more valuable products. Cracking of petroleum hydrocarbons was originally accomplished by thermal cracking, which has been almost completely replaced by catalytic cracking because it produces more gasoline with higher octane ratings.

It also produces by-products that have more carbon-carbon double bonds (i.e., more olefins) and therefore have greater economic value than gases produced by thermal cracking.

FCC feed is typically that portion of crude oil that has an initial boiling point of 340°C or higher at atmospheric pressure and an average molecular weight of about 200 to 600 or more.

This fraction of crude oil is often known as heavy gas oil or vacuum gas oil (HVGO).

In the FCC process, the feedstock is heated to high temperatures and moderate pressures and comes into contact with a hot, powdered catalyst. The catalyst breaks the long-chain molecules of high-boiling hydrocarbon liquids into much shorter molecules that are collected as vapors.

Direct fuel fired furnaces supplied by Chaman have been used in refinery operations, providing the thermal energy required to drive high temperature processes such as distillation, cracking and reforming. The evolution of petrochemical and gas production applications means that heaters are being installed in a wide variety of production units and as low carbon fuel production grows, furnaces will remain an essential part of the energy transition.

There are 3 main design types for direct flame furnaces: Cylindrical, box and cabinet. The most common type of heater is the cylindrical one with vertical coils. Cylindrical furnaces with spiral coils are also offered for smaller heater duties.

Chaman Company offers a dynamic approach by considering the design aspect for cost control and construction feasibility during assembly and installation.

Also, using our experience to provide modular furnaces for the construction of a project, from engineering to delivery and commissioning operations, it is available to all our customers.

Distillation Processes - Titanium Dioxide Producer - Solvent Deasphalting - Steam Methane Reforming - Gas to Liquids (GTL) Naphtha Reforming - Waxing Units - Alkane Dehydrogenation - Styrene Monomer Production - Hydrosulfurization - Hydrocracking Isomerization - LNG - Laboratory - Thermal Cracking - Hydrotherapy

Direct flame catalytic cracking furnaces are widely used to convert the high molecular weight hydrocarbon fractions of petroleum crude oil into gasoline, olefinic gases, and other more valuable products. Cracking of petroleum hydrocarbons was originally accomplished by thermal cracking, which has been almost completely replaced by catalytic cracking because it produces more gasoline with higher octane ratings.

It also produces by-products that have more carbon-carbon double bonds (i.e., more olefins) and therefore have greater economic value than gases produced by thermal cracking.

FCC feed is typically that portion of crude oil that has an initial boiling point of 340°C or higher at atmospheric pressure and an average molecular weight of about 200 to 600 or more.

This fraction of crude oil is often known as heavy gas oil or vacuum gas oil (HVGO).

In the FCC process, the feedstock is heated to high temperatures and moderate pressures and comes into contact with a hot, powdered catalyst. The catalyst breaks the long-chain molecules of high-boiling hydrocarbon liquids into much shorter molecules that are collected as vapors.

Direct fuel fired furnaces supplied by Chaman have been used in refinery operations, providing the thermal energy required to drive high temperature processes such as distillation, cracking and reforming. The evolution of petrochemical and gas production applications means that heaters are being installed in a wide variety of production units and as low carbon fuel production grows, furnaces will remain an essential part of the energy transition.

There are 3 main design types for direct flame furnaces: Cylindrical, box and cabinet. The most common type of heater is the cylindrical one with vertical coils. Cylindrical furnaces with spiral coils are also offered for smaller heater duties.

Chaman Company offers a dynamic approach by considering the design aspect for cost control and construction feasibility during assembly and installation.

Also, using our experience to provide modular furnaces for the construction of a project, from engineering to delivery and commissioning operations, it is available to all our customers.

Distillation Processes - Titanium Dioxide Producer - Solvent Deasphalting - Steam Methane Reforming - Gas to Liquids (GTL) Naphtha Reforming - Waxing Units - Alkane Dehydrogenation - Styrene Monomer Production - Hydrosulfurization - Hydrocracking Isomerization - LNG - Laboratory - Thermal Cracking - Hydrotherapy

Direct flame catalytic cracking furnaces are widely used to convert the high molecular weight hydrocarbon fractions of petroleum crude oil into gasoline, olefinic gases, and other more valuable products. Cracking of petroleum hydrocarbons was originally accomplished by thermal cracking, which has been almost completely replaced by catalytic cracking because it produces more gasoline with higher octane ratings.

It also produces by-products that have more carbon-carbon double bonds (i.e., more olefins) and therefore have greater economic value than gases produced by thermal cracking.

FCC feed is typically that portion of crude oil that has an initial boiling point of 340°C or higher at atmospheric pressure and an average molecular weight of about 200 to 600 or more.

This fraction of crude oil is often known as heavy gas oil or vacuum gas oil (HVGO).

In the FCC process, the feedstock is heated to high temperatures and moderate pressures and comes into contact with a hot, powdered catalyst. The catalyst breaks the long-chain molecules of high-boiling hydrocarbon liquids into much shorter molecules that are collected as vapors.