Understanding the global scientific value of industry ROV data, to quantify marine ecology and guide offshore decommissioning strategies

D. L. McLean, P. Macreadie, D. J. White, P. G. Thomson, A. Fowler, A. R. Gates, M. Benfield, T. Horton, D. Skropeta, T. Bond, D. J. Booth, E. Techera, C. Pattiaratchi, S. P. Collin, D. O.B. Jones, L. Smith, J. C. Partridge

Research output: Chapter in Book/Conference paperConference paper

5 Citations (Scopus)

Abstract

This paper describes the potential global scientific value of video and other data collected by Remotely Operated Vehicles (ROVs). ROVs are used worldwide, primarily by the offshore oil and gas industry, to monitor the integrity of subsea infrastructure and, in doing so, collect terabytes of video and in situ physical data from inaccessible regions and poorly understood marine environments. The paper begins by describing how recent ROV surveys for projects in Australia have gained a new dimension by involving marine scientists in their interpretation. A previously unrecognised influence of marine life on oil and gas pipelines was uncovered, triggering new collaborations between industry and marine science. This new collaboration prompted a team of international engineers and marine scientists to gather together with West Australian based members of the oil and gas sector and ROV operators, to examine the global scientific value of ROV-collected data. If made available for research, these data have immense value for science to quantify the marine ecology and assist good stewardship of this environment by industry. It was found that most ROV operations are conducted by industry in a way that fulfils immediate industry requirements but which can confound scientific interpretation of the data. For example, there is variation in video resolution, ROV speed, distance above substrate and time (e.g. both seasonal and time of day), and these variations can limit the quantitative conclusions that can be drawn about marine ecology. We examined potential cost-effective, simple enhancements to standard ROV hardware and operational procedures that will increase the value of future industrial ROV operational data, without disrupting the primary focus of these operations. The ecological value of existing ROV data represents an immense and under-utilized resource with worldwide coverage. We describe how ROVs can unravel the mysteries of our oceans, yield scientific discoveries, and provide examples of how these data can allow quantification of the ecological value of subsea infrastructure. By using these data, we can greatly improve our knowledge of marine biodiversity on and around offshore infrastructure and their environmental impact on marine ecosystems, both of which are particularly important in the consideration and selection of decommissioning strategies. Predicting the environmental consequences of removing or retaining subsea structures after decommissioning relies on an understanding of the ecological communities that have developed in association with these structures during their operational lives. Making industrial ROV data available for scientific research, and collating it in the future using modified protocols, would provide a very positive contribution to both science and industry, allowing the environmental impacts of subsea infrastructure to be quantified. It will also allow industry to contribute to a broader scientific understanding of our oceans, given the location of ROVs in areas that can rarely be accessed by independent researchers. This would provide novel and valuable information about under-researched and little known regions of the world's oceans.

Original languageEnglish
Title of host publicationOffshore Technology Conference Asia 2018, OTCA 2018
Place of PublicationMalaysia
PublisherOffshore Technology Conference
Number of pages10
ISBN (Print)9781510862159
DOIs
Publication statusPublished - 2018
EventOffshore Technology Conference Asia 2018, OTCA 2018 - Kuala Lumpur, Malaysia
Duration: 20 Mar 201823 Mar 2018

Conference

ConferenceOffshore Technology Conference Asia 2018, OTCA 2018
CountryMalaysia
CityKuala Lumpur
Period20/03/1823/03/18

Fingerprint

Remotely operated vehicles
Ecology
Industry
Environmental impact
Oceanography
Aquatic ecosystems
Biodiversity
Gas industry
Gas pipelines
Ecosystems

Cite this

McLean, D. L., Macreadie, P., White, D. J., Thomson, P. G., Fowler, A., Gates, A. R., ... Partridge, J. C. (2018). Understanding the global scientific value of industry ROV data, to quantify marine ecology and guide offshore decommissioning strategies. In Offshore Technology Conference Asia 2018, OTCA 2018 [OTC-28312-MS] Malaysia: Offshore Technology Conference. https://doi.org/10.4043/28312-MS
McLean, D. L. ; Macreadie, P. ; White, D. J. ; Thomson, P. G. ; Fowler, A. ; Gates, A. R. ; Benfield, M. ; Horton, T. ; Skropeta, D. ; Bond, T. ; Booth, D. J. ; Techera, E. ; Pattiaratchi, C. ; Collin, S. P. ; Jones, D. O.B. ; Smith, L. ; Partridge, J. C. / Understanding the global scientific value of industry ROV data, to quantify marine ecology and guide offshore decommissioning strategies. Offshore Technology Conference Asia 2018, OTCA 2018. Malaysia : Offshore Technology Conference, 2018.
@inproceedings{414823aa70534a6b88a420036df2db28,
title = "Understanding the global scientific value of industry ROV data, to quantify marine ecology and guide offshore decommissioning strategies",
abstract = "This paper describes the potential global scientific value of video and other data collected by Remotely Operated Vehicles (ROVs). ROVs are used worldwide, primarily by the offshore oil and gas industry, to monitor the integrity of subsea infrastructure and, in doing so, collect terabytes of video and in situ physical data from inaccessible regions and poorly understood marine environments. The paper begins by describing how recent ROV surveys for projects in Australia have gained a new dimension by involving marine scientists in their interpretation. A previously unrecognised influence of marine life on oil and gas pipelines was uncovered, triggering new collaborations between industry and marine science. This new collaboration prompted a team of international engineers and marine scientists to gather together with West Australian based members of the oil and gas sector and ROV operators, to examine the global scientific value of ROV-collected data. If made available for research, these data have immense value for science to quantify the marine ecology and assist good stewardship of this environment by industry. It was found that most ROV operations are conducted by industry in a way that fulfils immediate industry requirements but which can confound scientific interpretation of the data. For example, there is variation in video resolution, ROV speed, distance above substrate and time (e.g. both seasonal and time of day), and these variations can limit the quantitative conclusions that can be drawn about marine ecology. We examined potential cost-effective, simple enhancements to standard ROV hardware and operational procedures that will increase the value of future industrial ROV operational data, without disrupting the primary focus of these operations. The ecological value of existing ROV data represents an immense and under-utilized resource with worldwide coverage. We describe how ROVs can unravel the mysteries of our oceans, yield scientific discoveries, and provide examples of how these data can allow quantification of the ecological value of subsea infrastructure. By using these data, we can greatly improve our knowledge of marine biodiversity on and around offshore infrastructure and their environmental impact on marine ecosystems, both of which are particularly important in the consideration and selection of decommissioning strategies. Predicting the environmental consequences of removing or retaining subsea structures after decommissioning relies on an understanding of the ecological communities that have developed in association with these structures during their operational lives. Making industrial ROV data available for scientific research, and collating it in the future using modified protocols, would provide a very positive contribution to both science and industry, allowing the environmental impacts of subsea infrastructure to be quantified. It will also allow industry to contribute to a broader scientific understanding of our oceans, given the location of ROVs in areas that can rarely be accessed by independent researchers. This would provide novel and valuable information about under-researched and little known regions of the world's oceans.",
author = "McLean, {D. L.} and P. Macreadie and White, {D. J.} and Thomson, {P. G.} and A. Fowler and Gates, {A. R.} and M. Benfield and T. Horton and D. Skropeta and T. Bond and Booth, {D. J.} and E. Techera and C. Pattiaratchi and Collin, {S. P.} and Jones, {D. O.B.} and L. Smith and Partridge, {J. C.}",
year = "2018",
doi = "10.4043/28312-MS",
language = "English",
isbn = "9781510862159",
booktitle = "Offshore Technology Conference Asia 2018, OTCA 2018",
publisher = "Offshore Technology Conference",

}

McLean, DL, Macreadie, P, White, DJ, Thomson, PG, Fowler, A, Gates, AR, Benfield, M, Horton, T, Skropeta, D, Bond, T, Booth, DJ, Techera, E, Pattiaratchi, C, Collin, SP, Jones, DOB, Smith, L & Partridge, JC 2018, Understanding the global scientific value of industry ROV data, to quantify marine ecology and guide offshore decommissioning strategies. in Offshore Technology Conference Asia 2018, OTCA 2018., OTC-28312-MS, Offshore Technology Conference, Malaysia, Offshore Technology Conference Asia 2018, OTCA 2018, Kuala Lumpur, Malaysia, 20/03/18. https://doi.org/10.4043/28312-MS

Understanding the global scientific value of industry ROV data, to quantify marine ecology and guide offshore decommissioning strategies. / McLean, D. L.; Macreadie, P.; White, D. J.; Thomson, P. G.; Fowler, A.; Gates, A. R.; Benfield, M.; Horton, T.; Skropeta, D.; Bond, T.; Booth, D. J.; Techera, E.; Pattiaratchi, C.; Collin, S. P.; Jones, D. O.B.; Smith, L.; Partridge, J. C.

Offshore Technology Conference Asia 2018, OTCA 2018. Malaysia : Offshore Technology Conference, 2018. OTC-28312-MS.

Research output: Chapter in Book/Conference paperConference paper

TY - GEN

T1 - Understanding the global scientific value of industry ROV data, to quantify marine ecology and guide offshore decommissioning strategies

AU - McLean, D. L.

AU - Macreadie, P.

AU - White, D. J.

AU - Thomson, P. G.

AU - Fowler, A.

AU - Gates, A. R.

AU - Benfield, M.

AU - Horton, T.

AU - Skropeta, D.

AU - Bond, T.

AU - Booth, D. J.

AU - Techera, E.

AU - Pattiaratchi, C.

AU - Collin, S. P.

AU - Jones, D. O.B.

AU - Smith, L.

AU - Partridge, J. C.

PY - 2018

Y1 - 2018

N2 - This paper describes the potential global scientific value of video and other data collected by Remotely Operated Vehicles (ROVs). ROVs are used worldwide, primarily by the offshore oil and gas industry, to monitor the integrity of subsea infrastructure and, in doing so, collect terabytes of video and in situ physical data from inaccessible regions and poorly understood marine environments. The paper begins by describing how recent ROV surveys for projects in Australia have gained a new dimension by involving marine scientists in their interpretation. A previously unrecognised influence of marine life on oil and gas pipelines was uncovered, triggering new collaborations between industry and marine science. This new collaboration prompted a team of international engineers and marine scientists to gather together with West Australian based members of the oil and gas sector and ROV operators, to examine the global scientific value of ROV-collected data. If made available for research, these data have immense value for science to quantify the marine ecology and assist good stewardship of this environment by industry. It was found that most ROV operations are conducted by industry in a way that fulfils immediate industry requirements but which can confound scientific interpretation of the data. For example, there is variation in video resolution, ROV speed, distance above substrate and time (e.g. both seasonal and time of day), and these variations can limit the quantitative conclusions that can be drawn about marine ecology. We examined potential cost-effective, simple enhancements to standard ROV hardware and operational procedures that will increase the value of future industrial ROV operational data, without disrupting the primary focus of these operations. The ecological value of existing ROV data represents an immense and under-utilized resource with worldwide coverage. We describe how ROVs can unravel the mysteries of our oceans, yield scientific discoveries, and provide examples of how these data can allow quantification of the ecological value of subsea infrastructure. By using these data, we can greatly improve our knowledge of marine biodiversity on and around offshore infrastructure and their environmental impact on marine ecosystems, both of which are particularly important in the consideration and selection of decommissioning strategies. Predicting the environmental consequences of removing or retaining subsea structures after decommissioning relies on an understanding of the ecological communities that have developed in association with these structures during their operational lives. Making industrial ROV data available for scientific research, and collating it in the future using modified protocols, would provide a very positive contribution to both science and industry, allowing the environmental impacts of subsea infrastructure to be quantified. It will also allow industry to contribute to a broader scientific understanding of our oceans, given the location of ROVs in areas that can rarely be accessed by independent researchers. This would provide novel and valuable information about under-researched and little known regions of the world's oceans.

AB - This paper describes the potential global scientific value of video and other data collected by Remotely Operated Vehicles (ROVs). ROVs are used worldwide, primarily by the offshore oil and gas industry, to monitor the integrity of subsea infrastructure and, in doing so, collect terabytes of video and in situ physical data from inaccessible regions and poorly understood marine environments. The paper begins by describing how recent ROV surveys for projects in Australia have gained a new dimension by involving marine scientists in their interpretation. A previously unrecognised influence of marine life on oil and gas pipelines was uncovered, triggering new collaborations between industry and marine science. This new collaboration prompted a team of international engineers and marine scientists to gather together with West Australian based members of the oil and gas sector and ROV operators, to examine the global scientific value of ROV-collected data. If made available for research, these data have immense value for science to quantify the marine ecology and assist good stewardship of this environment by industry. It was found that most ROV operations are conducted by industry in a way that fulfils immediate industry requirements but which can confound scientific interpretation of the data. For example, there is variation in video resolution, ROV speed, distance above substrate and time (e.g. both seasonal and time of day), and these variations can limit the quantitative conclusions that can be drawn about marine ecology. We examined potential cost-effective, simple enhancements to standard ROV hardware and operational procedures that will increase the value of future industrial ROV operational data, without disrupting the primary focus of these operations. The ecological value of existing ROV data represents an immense and under-utilized resource with worldwide coverage. We describe how ROVs can unravel the mysteries of our oceans, yield scientific discoveries, and provide examples of how these data can allow quantification of the ecological value of subsea infrastructure. By using these data, we can greatly improve our knowledge of marine biodiversity on and around offshore infrastructure and their environmental impact on marine ecosystems, both of which are particularly important in the consideration and selection of decommissioning strategies. Predicting the environmental consequences of removing or retaining subsea structures after decommissioning relies on an understanding of the ecological communities that have developed in association with these structures during their operational lives. Making industrial ROV data available for scientific research, and collating it in the future using modified protocols, would provide a very positive contribution to both science and industry, allowing the environmental impacts of subsea infrastructure to be quantified. It will also allow industry to contribute to a broader scientific understanding of our oceans, given the location of ROVs in areas that can rarely be accessed by independent researchers. This would provide novel and valuable information about under-researched and little known regions of the world's oceans.

UR - http://www.scopus.com/inward/record.url?scp=85051639581&partnerID=8YFLogxK

U2 - 10.4043/28312-MS

DO - 10.4043/28312-MS

M3 - Conference paper

SN - 9781510862159

BT - Offshore Technology Conference Asia 2018, OTCA 2018

PB - Offshore Technology Conference

CY - Malaysia

ER -

McLean DL, Macreadie P, White DJ, Thomson PG, Fowler A, Gates AR et al. Understanding the global scientific value of industry ROV data, to quantify marine ecology and guide offshore decommissioning strategies. In Offshore Technology Conference Asia 2018, OTCA 2018. Malaysia: Offshore Technology Conference. 2018. OTC-28312-MS https://doi.org/10.4043/28312-MS