Simulating Core Drops: Cement Cubes at Gulf of Mexico Oil Conduits

In summary: I: In summary, dropping a 10x10x10 ft cement cube at 15-20 ft from a Gulf of Mexico oil/gas conduit would create a seal of the conduit extending down 1000 ft below sediment surface. The velocity of the drop would be 700+ mph for say 2 seconds.
  • #1
cph
43
0
As previously described,* might one drop a 10x10x10 ft cement cube at 15-20 ft from Gulf of Mexico oil/gas conduit. The intent is to seal up such conduit extending down ~1000 ft below sediment surface. The non-compressible fluid collapsing and sealing soft metal casing and compressible gaseous fluid interior. What might be the velocity of such core drop; and might it extend even through the formation? Might this constitute a simulation for ANY core drop, such as for iron inner core of planetesimal hitting proto-earth? Likewise for final core drop of coalescing black holes? Scaling up of mass would not seem relevant for such core drops. Thus might the velocity of core drop be ~700+ mph for say 2 seconds for at 2000 ft water depth?

* CUBIC BLOCK

Make 10 ft sided cubic block (1000 cu ft) of concrete on platform. Then drop such block 2000 ft (10 secs?), which might penetrate 1000 ft(?) into water soaked sediments. Drop it slightly off target, so that sub-mud surface conduit collapses shut. Water is non-compressible fluid, whereas gas in conduit is a compressible fluid. So the cubic block would push muck over into conduit, collapsing it.
 
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  • #2
cph said:
As previously described,* might one drop a 10x10x10 ft cement cube at 15-20 ft from Gulf of Mexico oil/gas conduit. The intent is to seal up such conduit extending down ~1000 ft below sediment surface. The non-compressible fluid collapsing and sealing soft metal casing and compressible gaseous fluid interior. What might be the velocity of such core drop; and might it extend even through the formation? Might this constitute a simulation for ANY core drop, such as for iron inner core of planetesimal hitting proto-earth? Likewise for final core drop of coalescing black holes? Scaling up of mass would not seem relevant for such core drops. Thus might the velocity of core drop be ~700+ mph for say 2 seconds for at 2000 ft water depth?

* CUBIC BLOCK

Make 10 ft sided cubic block (1000 cu ft) of concrete on platform. Then drop such block 2000 ft (10 secs?), which might penetrate 1000 ft(?) into water soaked sediments. Drop it slightly off target, so that sub-mud surface conduit collapses shut. Water is non-compressible fluid, whereas gas in conduit is a compressible fluid. So the cubic block would push muck over into conduit, collapsing it.

What exactly is your question?

CS
 

Related to Simulating Core Drops: Cement Cubes at Gulf of Mexico Oil Conduits

1. What is the purpose of simulating core drops at Gulf of Mexico oil conduits?

The purpose of this simulation is to study the behavior of cement cubes when dropped into the deep sea environment, specifically at oil conduits in the Gulf of Mexico. This research can help us better understand the potential risks and challenges involved in deep sea cementing operations.

2. How is the simulation conducted?

The simulation is conducted using advanced computer models and algorithms, which take into account various factors such as water pressure, temperature, and turbulence. Physical experiments may also be conducted in a controlled environment to validate the results of the simulation.

3. What are the potential implications of the simulation results?

The simulation results can provide insights into the behavior of cement cubes in deep sea environments, which can help in improving the design and execution of deep sea cementing operations. It can also assist in identifying potential risks and developing mitigation strategies.

4. What data is used in the simulation?

The simulation uses data such as the physical properties of cement, water, and oil, as well as environmental data such as depth, temperature, and pressure. Other factors, such as the size and shape of the cement cubes, may also be taken into consideration.

5. How can the simulation results be applied in real-world scenarios?

The simulation results can be used to inform and improve the practices and procedures for deep sea cementing operations, particularly in the Gulf of Mexico. It can also aid in the development of new technologies and techniques for more efficient and safe cementing in deep sea environments.

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