Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Considerations for Scientists Getting Involved in Oil Spill Research

View through CrossRef
From the outset of the Deepwater Horizon (DWH) oil spill, scientists from many different sectors (e.g., government, industry, academia, independent) sprang into action to establish appropriate experimental procedures, collect essential samples, and gather meaningful data. The scale of the spill and the unprecedented use of dispersants challenged scientists familiar with oil spill research, but also drew in many scientists new to hydrocarbon studies. The response to DWH, as with other oil spills, was centered on environmental and human safety concerns as mandated by the US Clean Water Act, the Oil Pollution Act of 1990, and the National Contingency Plan, which defines roles and responsibilities of multiple parties. These roles, however, are usually carried out by government, industry, or government-contracted researchers and until DWH have included limited input from academic investigators. In studying the DWH spill, most researchers also had to navigate the logistics and liability issues that can be associated with an oil spill event, including the formal government response processes that can be unfamiliar to academic researchers. In particular, biological researchers had to rapidly educate themselves on the nuances and complexity of the hydrocarbons and dispersants throughout the water column. Nonetheless, biological studies were hampered by the lack of controls or challenges with employing experimental approaches in the field. DWH spill research also highlighted challenges and opportunities that arose due to the interactions of researchers from the academic, government, and industry sectors. The objective of this document is to provide some perspective and to highlight issues that researchers new to the area should consider when approaching oil spill and dispersant studies.
Title: Considerations for Scientists Getting Involved in Oil Spill Research
Description:
From the outset of the Deepwater Horizon (DWH) oil spill, scientists from many different sectors (e.
g.
, government, industry, academia, independent) sprang into action to establish appropriate experimental procedures, collect essential samples, and gather meaningful data.
The scale of the spill and the unprecedented use of dispersants challenged scientists familiar with oil spill research, but also drew in many scientists new to hydrocarbon studies.
The response to DWH, as with other oil spills, was centered on environmental and human safety concerns as mandated by the US Clean Water Act, the Oil Pollution Act of 1990, and the National Contingency Plan, which defines roles and responsibilities of multiple parties.
These roles, however, are usually carried out by government, industry, or government-contracted researchers and until DWH have included limited input from academic investigators.
In studying the DWH spill, most researchers also had to navigate the logistics and liability issues that can be associated with an oil spill event, including the formal government response processes that can be unfamiliar to academic researchers.
In particular, biological researchers had to rapidly educate themselves on the nuances and complexity of the hydrocarbons and dispersants throughout the water column.
Nonetheless, biological studies were hampered by the lack of controls or challenges with employing experimental approaches in the field.
DWH spill research also highlighted challenges and opportunities that arose due to the interactions of researchers from the academic, government, and industry sectors.
The objective of this document is to provide some perspective and to highlight issues that researchers new to the area should consider when approaching oil spill and dispersant studies.

Related Results

Oil Spill Combat Strategy & Lesson Learnt of Balikpapan Spill
Oil Spill Combat Strategy & Lesson Learnt of Balikpapan Spill
Among many discussions on effective response strategies during oil spill response operations at sea, this paper elaborates comprehensive information on oil spill combat strategy an...
Control of oil spills in urban areas
Control of oil spills in urban areas
The City of Toronto has experienced about 300 oil spills per year (Li 1997). Traditionally, the city recommends that businesses and industries practise pollution prevention and ins...
Control of oil spills in urban areas
Control of oil spills in urban areas
The City of Toronto has experienced about 300 oil spills per year (Li 1997). Traditionally, the city recommends that businesses and industries practise pollution prevention and ins...
The Southern Traffic Lane Spill (T/V Command): A Case Study of Spiller Accountability1
The Southern Traffic Lane Spill (T/V Command): A Case Study of Spiller Accountability1
ABSTRACT On September 24, 1998, the T/V Command had a small spill in San Francisco Bay, California while taking on bunkers in Anchorage Nine. The cause was determine...
Journal of ASTM International
Journal of ASTM International
This paper presents a two-phase study of spill and leakage of antibiotics in hospitals. The first phase was a screening of spill and leakage at 21 hospital wards in 16 hospitals. P...
OIL SPILL INTELLIGENCE REPORT INTERNATIONAL OIL SPILL DATABASE: TRENDS IN OIL SPILL VOLUMES AND FREQUENCY1
OIL SPILL INTELLIGENCE REPORT INTERNATIONAL OIL SPILL DATABASE: TRENDS IN OIL SPILL VOLUMES AND FREQUENCY1
ABSTRACT The Oil Spill Intelligence Report International Oil Spill Database contains records of more than 4100 major oil spill incidents (involving at least 10,000 g...
Remote Monitoring of the Impact of Oil Spills on Vegetation in the Niger Delta, Nigeria
Remote Monitoring of the Impact of Oil Spills on Vegetation in the Niger Delta, Nigeria
The widespread oil extraction in the Niger Delta and the impacts on different types of vegetation are poorly understood due to lack of ground access. This study aims to determine t...

Back to Top