Oceanographer

What is this job like?

Oceanographers, specifically, study the motion and circulation of ocean waters, the physical and chemical properties of the oceans, and how these properties affect coastal areas, climate, and weather.

Oceanographers are part of the broader field of geoscientists. Geoscientists, in general, usually study and work in one of several closely related geosciences fields, including geology, geophysics, and hydrology. Geophysicists use the principles of physics, mathematics, and chemistry to study not only the Earth’s surface, but also its internal composition, ground and surface waters, atmosphere, oceans, and magnetic, electrical, and gravitational forces. Hydrologists study the quantity, distribution, circulation, and physical properties of water and the water cycle.

Geoscientists can spend a large part of their time in the field, identifying and examining geological formation, studying data collected by remote sensing instruments, conducting geological surveys, constructing field maps, and using instruments to measure the Earth’s gravity and magnetic field.

How do you get ready?

A bachelor’s degree is adequate for a few entry-level positions, but most oceanographers need a master’s degree, which is the preferred educational requirement for most research positions in private industry, Federal agencies, and State geological surveys. A Ph.D. is necessary for most high-level research and college teaching positions, but is generally not required for other jobs.

Computer knowledge is essential for geoscientists. Students who have experience with computer modeling, data analysis, and digital mapping will be the most prepared to enter the job market.

Oceanographers must be inquisitive, able to think logically, and capable of complex analytical thinking, including spatial visualization and the ability to infer conclusions from sparse data.

How much does this job pay?

The median annual wage for geoscientists was $89,780 in May 2016.

What about the future?

Employment of geoscientists is projected to grow 10 percent from 2014 to 2024, faster than the average for all occupations. The need for energy, environmental protection, and responsible land and resource management is projected to spur demand for geoscientists in the future.

Some information on this page has been provided by the U.S Bureau of Labor Statistics.

More details ⇣: 

Overview:

Oceanographers, specifically, study the motion and circulation of ocean waters, the physical and chemical properties of the oceans, and how these properties affect coastal areas, climate, and weather.

Oceanographers are part of the broader field of geoscientists. Geoscientists study the physical aspects of the Earth, such as its composition, structure, and processes, to learn about its past, present, and future.

Geoscientists, in general, typically do the following:

  • Plan and conduct field studies, in which they visit locations to collect samples and conduct surveys
  • Analyze aerial photographs, well logs (detailed records of geologic formations found during drilling), and other data to locate natural resource deposits and estimate their size
  • Conduct laboratory tests on samples collected in the field
  • Produce geologic maps and charts
  • Prepare written scientific reports
  • Present their findings to clients, colleagues, and other interested parties
  • Review reports and research done by other scientists

Geoscientists use a wide variety of tools, both simple and complex. In a day in the field, they may use a hammer and chisel to collect rock samples and then use sophisticated radar equipment to search for oil underground. In laboratories, they may use x rays and electron microscopes to determine the chemical and physical composition of rock samples. They also use remote sensing equipment to collect data and advanced geographic information systems (GIS) and modeling software to analyze data.

Geoscientists often supervise the work of technicians, both in the field and in the lab. They also usually work as part of a team with other scientists and engineers. For example, they work closely with petroleum engineers to find and develop new sources of oil and natural gas.

Many geoscientists are involved in the search for and development of natural resources and minerals such as petroleum. Others work in environmental protection and preservation and are involved in projects to clean up and reclaim land. Some specialize in a particular aspect of the Earth, such as its oceans.

The following are other examples of types of geoscientists:

Engineering geologists apply geologic principles to civil and environmental engineering. They offer advice on major construction projects and help in other projects, such as environmental cleanup and reducing natural hazards.

Geochemists use physical and organic chemistry to study the composition of elements found in groundwater, such as water from wells or aquifers, and earth materials, such as rocks and sediment.

Geologists study the materials, processes, and history of the Earth. They investigate how rocks were formed and what has happened to them since their formation.

Geophysicists use the principles of physics to learn about the Earth’s surface and interior. They also study the properties of Earth’s magnetic, electric, and gravitational fields.

Paleontologists study fossils found in geological formations to trace the evolution of plant and animal life and the geologic history of the Earth.

Petroleum geologists explore the Earth for oil and gas deposits. They analyze geological information to identify sites that should be explored. They collect rock and sediment samples from sites through drilling and other methods and test them for the presence of oil and gas. They also estimate the size of oil and gas deposits and work to develop sites to extract oil and gas.

Seismologists study earthquakes and related phenomena like tsunamis. They use seismographs and other instruments to collect data on these events.

Work Environment:

Geoscientists held about 36,400 jobs in 2014. About 3 out of 10 geoscientists were employed in Texas, because of the prominence of the oil and gas industry in that state.

About 1 in 5 worked in the mining, quarrying, and oil and gas extraction industry in 2014. Also, about 3 out of 10 geoscientists were employed in Texas in 2014, because of the prominence of those activities in that state. Workers in natural resource extraction fields usually work as part of a team, with other scientists and engineers. For example, they may work closely with petroleum engineers to find and develop new sources of oil and natural gas.

Most geoscientists split their time among working in the field, in laboratories, and in offices. Fieldwork can take geoscientists to remote locations all over the world. For example, oceanographers may spend months at sea on a research ship, and researchers studying advanced topics may need to collaborate with top scientists around the world. Extensive travel and long periods away from home can be physically and psychologically demanding.

The search for natural resources often takes geoscientists involved in exploration to remote areas and foreign countries. When in the field, geoscientists may work in both warm and cold climates, in all types of weather. They may have to travel by helicopter or in vehicles with four-wheel drive and cover large areas on foot. Having outdoor skills, such as camping and boat-handling skills, may be useful.

Most geoscientists work full-time. They may work additional or irregular hours when doing fieldwork. Geoscientists travel frequently to meet with clients and to conduct fieldwork.

Education and Training:

Geoscientists need at least a bachelor’s degree for most entry-level positions. However, some workers begin their careers as geoscientists with a master’s degree. A Ph.D. is necessary for most basic research and college teaching positions.

A degree in geoscience is preferred by employers, although a degree in physics, chemistry, biology, mathematics, engineering, or computer science usually is accepted if it includes coursework in geology.

Most geoscience programs include geology courses in mineralogy, petrology, and structural geology, which are important for all geoscientists. In addition to classes in geology, most programs require students to take courses in other physical sciences, mathematics, engineering, and computer science. Some programs include training on specific software packages that will be useful to those seeking a career as a geoscientist.

Computer knowledge is essential for geoscientists. Students who have experience with computer modeling, data analysis, and digital mapping will be the most prepared to enter the job market.

Many employers seek applicants who have gained field and laboratory experience while pursuing a degree. Summer field camp programs offer students the opportunity to work closely with professors and apply their classroom knowledge in the field. Students can gain valuable experience in data collection and geologic mapping.

Skills to Develop:

Critical-thinking skills: Geoscientists base their findings on sound observation and careful evaluation of data. 

Interpersonal skills: Most geoscientists work as part of a team with engineers, technicians, and other scientists.

Problem-solving skills: Geoscientists work on complex projects filled with challenges.

Speaking skills: Geoscientists must be able to explain their findings to clients or professionals who do not have a background in geosciences.

Stamina: Geoscientists may need to hike to remote locations while carrying testing and sampling equipment when they conduct fieldwork.

Writing skills: Geoscientists write reports and research papers that explain their findings.

Job Outlook:

Employment of geoscientists is projected to grow 10 percent from 2014 to 2024, faster than the average for all occupations. The need for energy, environmental protection, and responsible land and resource management is projected to spur demand for geoscientists.

Horizontal drilling and hydraulic fracturing are examples of new technologies that are expected to increase demand for geoscientists. These technologies allow for the extraction of previously inaccessible oil and gas resources, and geoscientists will be needed to study the effects such technologies have on the surrounding areas. As oil prices increase in the future, even more technologies will likely be introduced that expand the ability to reach untapped oil reserves or introduce alternative ways to provide energy for the expanding population.

Geoscientists will be needed to help plan the construction of wind farms, geothermal power plants, and solar power plants. Alternative energies, such as wind energy, geothermal energy, and solar energy, can use large areas of land and affect wildlife and other natural processes. In addition, only certain areas are suitable for harvesting these energies. For example, geothermal energy plants must be located near sufficient hot ground water, and one task for geoscientists would be studying maps and charts to decide if the site is suitable.

An expanding population and the corresponding increased use of space and resources may create a continued need for geoscientists.

Earnings:

The median annual wage for geoscientists was $89,780 in May 2016. The median wage is the wage at which half the workers in an occupation earned more than that amount and half earned less. The lowest 10 percent earned less than $47,450, and the highest 10 percent earned more than $189,020.

College Courses: 

Sample courses that might be required for a degree in Geology:

Science Courses

  • Introduction to Geology
  • Geology Laboratory
  • Mineralogy and Chemistry of the Earth
  • Mineral Structures and Equilibria Laboratory
  • Sedimentology and Surface Processes
  • Field Investigation
  • Petrology
  • Petrology Laboratory
  • Paleontology
  • Paleontology Laboratory
  • Stratigraphy
  • Introduction to Field Geology
  • Field Geology
  • Structural Geology
  • Geophysics / Plate Tectonics and Geodynamics
  • (5) Geology Elective Courses

Colleges will also require you to take some core undergraduate courses in addition to some electives. Required core courses and electives will vary from college to college. Here are a number of examples:

Arts and Humanities

  • Arts
  • History
  • Languages
  • Literature
  • Music

Math

  • Algebra
  • Calculus
  • Computer Science
  • Logic
  • Statistics

Natural Sciences

  • Astronomy
  • Biology
  • Chemistry
  • Environmental Science
  • Physics

Social Sciences

  • Anthropology
  • Economics
  • Government
  • Psychology
  • Sociology