Title: Shell Global Solutions – Introducing Shell Turbo Trays
Duration: {2:46} minutes
Description:
This animation demonstrates the benefits achieved through using Shell Turbo Trays over conventional trays, as well as showing how the trays work to achieve these benefits.
Shell Global Solutions – Introducing Shell Turbo Trays
[Background music plays]
The music is light and airy, with an upbeat and open feel. It runs throughout the full video.
{scene transition}
[Animated sequence]
Gas molecules float onto the screen.
[Text displays]
Caption displays: Designed to enhance the capacity and efficiency of your gas absorber
{scene transition}
[Animated sequence]
Two columns appear.
On the left there is a column, captioned: Conventional Tray
This column has 10 trays and shows solvent entering from the top of the column, while CO2 and natural gas enter from the bottom, flowing upwards through the conventional trays.
On the left there is a column, captioned: Shell Turbo Tray
This column has 3 trays and also shows solvent entering from the top of the column, while CO2 and natural gas enter from the bottom, flowing upwards through the Shell Turbo Trays, but at a much higher volume than the conventional trays.
[Text displays]
Caption displays: Brownfield applications
Caption displays: Why use Shell Turbo Trays?
Caption displays: Increase capacity by up to 80%
[Animated sequence]
In both columns, the gas contaminants are absorbed with the gas. The trays separate the gas from the liquid. The deaerated liquids flow down.
{scene transition}
[Animated sequence]
Two columns appear.
On the left there is a column, captioned: Conventional Tray
This column has 10 trays and shows solvent entering from the top of the column, while CO2 and natural gas enter from the bottom, flowing upwards through the conventional trays.
On the left there is a column, captioned: Shell Turbo Tray
This column has 2 trays and also shows solvent entering from the top of the column, while CO2 and natural gas enter from the bottom, flowing upwards through the Shell Turbo Trays, but at a much higher volume than the conventional trays with an increase in contaminants (CO2).
[Text displays]
Caption displays: Brownfield applications
Caption displays: Why use Shell Turbo Trays?
Caption displays: Manage increased contaminant levels
[Animated sequence]
In both columns, the gas contaminants are absorbed with the gas, the Turbo trays absorbing more contaminants. The trays separate the gas from the liquid. The deaerated liquids flow down.
{scene transition}
[Text displays]
Caption displays: Brownfield Applications
Caption displays: Up to 80% increased gas capacity
Caption displays: Manage increased contaminant levels
Caption displays: Increased solvent performance
Caption displays: Optimized energy consumption
{scene transition}
[Animated sequence]
Two columns appear.
On the left there is a column, captioned: Conventional Tray
This column has 10 trays and shows solvent entering from the top of the column, while CO2 and natural gas enter from the bottom, flowing upwards through the conventional trays.
On the left there is a column, captioned: Shell Turbo Tray
This column is half the size of the column with Conventional Trays. It has 3 trays and shows solvent entering from the top of the column, while CO2 and natural gas enter from the bottom, flowing upwards through the Shell Turbo Trays, with the same volume as the conventional trays.
[Text displays]
Caption displays: Greenfield applications
Caption displays: Why use Shell Turbo Trays?
Caption displays: Reduced column size
Caption displays: Up to 50% reduced Capex
[Animated sequence]
In both columns, the gas contaminants are absorbed with the gas. The trays separate the gas from the liquid. The deaerated liquids flow down.
{scene transition}
[Text displays]
Caption displays: Greenfield applications
Caption displays: Capex reduced by up to 50%
Caption displays: Reduced opex
Caption displays: Reduced absorber weight improves constructability
Caption displays: Suitable for offshore applications
{scene transition}
[Text displays]
Caption displays: How do Shell Turbo Trays work?
Caption displays: Gas contaminants are absorbed with higher upward gas velocity.
[Animated sequence]
The camera pans upwards, showing the natural gas and CO2 flowing upwards in the column, through the Shell Turbo Trays, as the solvent flows downwards. The camera zooms into the mixing box showing a cut-through of a Shell Turbo Tray. The background fades, and foreground focuses on a gas contaminant being absorbed by the solvent.
[Text displays]
Caption displays: Centrifugal motion separates gas from the liquid.
[Animated sequence]
The camera refocuses to show the gas and liquid in a centrifugal motion up through the top of the tray. The liquid is caught in the collar and pushed downwards, while the gas flows upwards through to the next tray, reducing in CO2.
[Text displays]
Caption displays: The deaerated liquids easily flow through the downcomers, increasing the liquid capacity.
[Animated sequence]
The camera zooms out, showing the process throughout the column.
{scene transition}
[Text displays]
Caption displays: Why use Shell Turbo Trays?
Caption displays: Brownfield Applications
Caption displays: Increase gas production capacity by up to 80%
Caption displays: Handle higher CO2 levels
Caption displays: Greenfield applications
Caption displays: Lower capex with up to 50% smaller column
Caption displays: Improved constructability
{scene transition}
[Animated sequence]
Screen fades to white and Shell Pecten appears.
[Text displays]
Caption displays: gasprocessing@shell.com
[Animated sequence]
Music and Shell Pecten fade out.
