Methods and systems for selecting and acquiring data to update a geophysical database

a geophysical database and data acquisition technology, applied in the field of data management, can solve the problems of time-consuming and expensive, large and expensive effort in collecting and processing geophysical data, and marine data collection, typically done by private boat operators in accordance with business relationships,

Inactive Publication Date: 2005-10-13
HALLIBURTON ENERGY SERVICES INC
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Benefits of technology

[0031] It will be seen that one significant advantage of the invention is that of providing E&P companies access to plentiful and geographically diverse seismic data in a cost-effective manner.
is that of providing E&P companies access to plentiful and geographically diverse seismic data in a cost-effective manner.

Problems solved by technology

The collection and processing of geophysical data is a massive and costly effort.
Marine data collection, typically done by private boat operators in accordance with business relationships described below, is time consuming and expensive.
This cost does not include marketing and equipment deployment costs, which can add substantially to the data collection costs.
Seismic surveys are the first in a series of costly and time-consuming exploratory efforts undertaken prior to drilling for the production of gas and oil.
If the results of a seismic survey appear promising, then exploratory drilling may be performed, typically through the use of expensive boat-based technology to explore deep-water resources.
Such an infrastructure is extraordinarily expensive to both construct and operate.
It will thus be seen that the collection, review and analysis of seismic data comprises the first in an expensive and long-term series of exploration, drilling and production activities.
Dated, corrupt or otherwise faulty or inadequate seismic data could initiate a chain of events that would waste significant amounts of money and result in the loss of valuable alternate opportunities.
Despite the value and importance of geophysical data, the existing market for collecting, updating and marketing such data is not an efficient one.
If the seismic company is unsuccessful, they may loose a great deal of money on the shoot.
In fact, E&P companies may be reluctant to provide too much guidance because E&P company information may be considered trade secret.
Thus, while speculative shoot data may be of value, it may not cover the most important area or include the most desirable shoot parameters for any single E&P customer.
This type of data collection model is thus risky for the seismic company and not necessarily most efficient for a given E&P company.
This model of geophysical data collection shifts much of the risk from the seismic company to the E&P company.
However, the cost to the E&P company is very high.
If the data turns out to be of a lower value than expected, the E&P company will have suffered a significant financial loss.
Further, the company will have wasted a significant portion of an allocated seismic budget, thereby reducing opportunities to consider and explore alternate opportunities.
Ultimately, multiple failed opportunities could challenge an E&P company's ability to plan the development and profitable deployment of long-term drilling and production resources.
While superficially a multi-client shoot appears to be one of the most cost-effective types of shoots, it is not without its own significant challenges and risks.
Assembling a multi-client shoot is difficult and expensive.
Matching the needs of multiple E&P clients with the capability of the seismic company can take a long period of time and significant expense.
If the seismic company fails to assemble the multi-client shoot, the will suffer a business loss.
Logistical costs, administrative costs, broker costs, the cost of accidental or convenience-driven overshoots, can all affect the cost and profitability of a shoot.
It will thus be understood that seismic data collection today, particularly boat operation, can be a risky and inefficient business.
The lack of predictable demand results in the taking of speculative shoots and the ad hoc marketing of these shoots.
Because it is difficult for boat owners to predict future demand, they cannot easily determine where to efficiently locate boats.
From a consideration of the above, it will be understood that despite the importance of geophysical data to the development of world energy needs, the processes for collecting such data are not very efficient.
As will now be explained, the current models for managing and distributing collected geophysical data are not in and of themselves efficient, either.
In fact, because of the processing issues associated with collecting and distributing data, collected data is likely to be copied to multiple locations, including the original collector, the end-user and often a facilitating intermediary.
However, licensing or reselling data is often difficult for a variety of legal and logistical reasons.
As a result of transmission, storage and processing, the quality of the data may be questionable.
Data sets may be so large that it becomes inefficient if not impossible to sort them, identify their contents and distribute them to potential new users.
Because of the high costs of even ‘used’ data, a typical licensing structure may include providing access to ‘peek’ data at a first, less expensive cost, followed by access to full data at a second, higher cost.
However, because of the size of the data sets, this type of tiered data distribution creates technical challenges in addition to all of the issues described above.
However, the mere collection and brokering of seismic data does not address, much less solve, many of the problems outlined above.
It is thus seen that there exists huge quantities of costly, collected geophysical data having potentially significant value to various users above and beyond those who sponsored the initial collections.
However, significant problems exist with organizing, identifying, maintaining the integrity of and distributing such data to potential users.
As described above there are significant challenges associated with efficiently selecting, collecting and distributing new data.
The various interested parties often find today's methodologies inefficient and costly.
Boat owners are faced with unorganized, unpredictable demand that makes efficient boat placement and operation challenging if not impossible.
E&P companies face huge expenditures to get access to limited data which may be of unexpectedly low value.
However, brokering of seismic data does not address the core inefficiencies in collection and distribution described above.

Method used

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  • Methods and systems for selecting and acquiring data to update a geophysical database
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  • Methods and systems for selecting and acquiring data to update a geophysical database

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Embodiment Construction

[0042] With reference now to FIG. 1, there is shown a system 20 for geophysical data collection, processing and distribution in accordance with one embodiment of the present invention. System 20 is seen to include a system controller 22 connected through an appropriate interface to various sources of seismic data 24A-24N. System controller 22 is further connected to a user interface 28, such as a graphical display device and keyboard, for receiving input from a user (e.g. a system administrator) including software and control instructions, and to a plurality of data subscribers 26A-26N for sharing various data including seismic data.

[0043] System 20 further includes an administrative database 30 and a geophysical database 32, each connected to system controller 22 through a data bus 36.

[0044] System controller 22 can comprise one or more appropriately sized computers, for example a Sun™ workstation(s) running a Solaris™ operating system. Multiple computers may be located geographi...

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PUM

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Abstract

Methods and systems for collecting, managing, distributing and updating geophysical data primarily for E&P companies include in one embodiment the sale of subscriptions entitling paid subscribers access to all subscribed data including both preview and full data. Initial and subsequent data providers are preferably compensated from subscriber fees and may be compensated based on relative subscriber use of data. Data subscriptions can include for subscribers the right to vote or otherwise provide input relating to desired data updates. Data updates are preferably purchased based on competitive bids. The inventive systems and methods diminish much of the risk and uncertainty associated with the collection, management, distribution and updating of geophysical data under current methodologies, making the process more efficient and cost-effective for participating parties.

Description

Cross Reference to Related Cases [0001] This case is related to U.S. patent application Ser. No. ______ titled METHODS AND SYSTEMS FOR MANAGING AND DISTRIBUTING GEOPHYSICAL DATA by inventors John W. Gibson Jr. and M. Vikram Rao filed on same date herewith and to U.S. patent application Ser. No. ______ titled METHODS AND SYSTEMS FOR MANAGING AND UPDATING A DATABASE OF GEOPHYSICAL DATA by inventors Daniel D. Gleitman, Jimmy R. Coe, John W. Gibson Jr., M. Vikram Rao, and Sharon Rector filed on same date herewith.FIELD OF THE INVENTION [0002] The present invention relates generally to data management and more particularly to the selection and acquisition of data for a geophysical seismic database. BACKGROUND OF THE INVENTION [0003] The collection and processing of geophysical data is critical to the development and management of the world's renewable hydrocarbon-based oil and gas fuels. Geophysical data, including seismic data, is collected for both land and marine geography. Once colle...

Claims

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Application Information

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Patent Type & Authority Applications(United States)
IPC IPC(8): G01V1/00G06F17/30G06Q10/06G06Q30/06G06Q30/08
CPCG01V1/003G06F17/30241G06Q30/08G06Q30/0601G06Q30/0611G06Q10/06G06F16/29
Inventor RAO, M. VIKRAMCOE, JIMMY R.GIBSON, JOHN W. JR.GLEITMAN, DANIEL D.RECTOR, SHARON
Owner HALLIBURTON ENERGY SERVICES INC
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