FOR HIRE: Volcanologist

Richard Fiske discusses his groundbreaking work

  • By Megan Gambino
  • Smithsonian.com, September 27, 2007, Subscribe
View Full Image »
Its like a mystery novel says veteran volcanologist Richard Fiske of his field work. Were uncovering clues. "It's like a mystery novel," says veteran volcanologist Richard Fiske of his field work. "We're uncovering clues."

Brendan McCabe

 

Article Tools

 
  • Comments (4)
  • Font
    		•
  • Email
    		•
  • RSS
    		•
  • Print
    		•
  • Single Page
    		•
    More from Smithsonian.com

    Richard Fiske's 50-year career as a volcanologist includes 13 years with the United States Geological Survey, stints in California's Sierra Nevada, the islands of St. Vincent and Guadalupe, Japan and Hawaii and 30 years with Smithsonian's National Museum of Natural History. Now a year and a half into retirement, Fiske continues to spend five to six weeks per year in the field, collecting enough data and samples to keep him clocking a normal schedule as a geologist emeritus in the museum's Division of Petrology and Volcanology. Fiske's work has helped people understand how and why volcanoes erupt, and now he helps Smithsonian.com understand just what it takes to be a groundbreaking volcanologist.

    How did you get into this line of work?

    It was just a lucky accident in graduate school. I went to graduate school at Johns Hopkins University in Baltimore, and my professor there received a research grant to study Mount Rainier National Park in Washington state and prepare a geologic map of the entire park, including the big volcano, Mount Rainier. This work involved tracing layers of different types of rock from place to place and collecting lots of samples and bringing them back to the laboratory where we would study them in great detail. Once you work on a volcano, speaking for myself, you become hooked for life.

    What sort of training or background is required?

    To be a research scientist of any type these days you have to have a PhD and, better yet, have a few years of post-doctoral experience in your chosen field. After getting a PhD in geology at Johns Hopkins, I spent one year in Japan on a postdoc and two additional years back at Johns Hopkins.

    What's an average day like in the field?

    I'm either working on the active volcano in Hawaii, Kilauea volcano, or I go to Japan and join Japanese research scientists on cruises to submarine volcanoes south of Japan. In Hawaii, we're looking for thin deposits of ash made of particles that erupted violently out of the volcano. These thin layers of ash are often very difficult to see, and in many places they've been covered by younger lava flows. So we have to find places where we can look under a young lava flow to see the ash that is covered by it. Generally, this is done in wide cracks maybe three or four feet wide that we're able to climb down into. Sometimes we go as deep as 40 or 50 feet down to see the ash that is preserved there.

    On a research ship, we are mostly asking the crew of the ship to launch an ROV, a remotely operated vehicle. It's a small submarine that's tethered to the ship by a long cable and lowered down to the sea floor. While we're up on the ship we can see exactly what is located on the sea floor, and the submarine has mechanical arms that can be used to reach out, pick up samples and put them in a little basket on the front of the submersible.

    Any exciting discoveries?

    In Japan, I was a member of the team that discovered an actively growing mineral deposit on the ocean floor—a huge deposit of sulfide minerals very rich in gold and silver. This deposit is about as big as the Pentagon and about twice as high, and it's growing. Basically, we discovered an ore deposit that in today's market might be worth several billion dollars. The problem is that it's located at a depth of about 4,000 feet below sea level. So no attempt has been made thus far to mine it. But maybe someday people will figure out ways to do this that are environmentally acceptable.


    Richard Fiske's 50-year career as a volcanologist includes 13 years with the United States Geological Survey, stints in California's Sierra Nevada, the islands of St. Vincent and Guadalupe, Japan and Hawaii and 30 years with Smithsonian's National Museum of Natural History. Now a year and a half into retirement, Fiske continues to spend five to six weeks per year in the field, collecting enough data and samples to keep him clocking a normal schedule as a geologist emeritus in the museum's Division of Petrology and Volcanology. Fiske's work has helped people understand how and why volcanoes erupt, and now he helps Smithsonian.com understand just what it takes to be a groundbreaking volcanologist.

    How did you get into this line of work?

    It was just a lucky accident in graduate school. I went to graduate school at Johns Hopkins University in Baltimore, and my professor there received a research grant to study Mount Rainier National Park in Washington state and prepare a geologic map of the entire park, including the big volcano, Mount Rainier. This work involved tracing layers of different types of rock from place to place and collecting lots of samples and bringing them back to the laboratory where we would study them in great detail. Once you work on a volcano, speaking for myself, you become hooked for life.

    What sort of training or background is required?

    To be a research scientist of any type these days you have to have a PhD and, better yet, have a few years of post-doctoral experience in your chosen field. After getting a PhD in geology at Johns Hopkins, I spent one year in Japan on a postdoc and two additional years back at Johns Hopkins.

    What's an average day like in the field?

    I'm either working on the active volcano in Hawaii, Kilauea volcano, or I go to Japan and join Japanese research scientists on cruises to submarine volcanoes south of Japan. In Hawaii, we're looking for thin deposits of ash made of particles that erupted violently out of the volcano. These thin layers of ash are often very difficult to see, and in many places they've been covered by younger lava flows. So we have to find places where we can look under a young lava flow to see the ash that is covered by it. Generally, this is done in wide cracks maybe three or four feet wide that we're able to climb down into. Sometimes we go as deep as 40 or 50 feet down to see the ash that is preserved there.

    On a research ship, we are mostly asking the crew of the ship to launch an ROV, a remotely operated vehicle. It's a small submarine that's tethered to the ship by a long cable and lowered down to the sea floor. While we're up on the ship we can see exactly what is located on the sea floor, and the submarine has mechanical arms that can be used to reach out, pick up samples and put them in a little basket on the front of the submersible.

    Any exciting discoveries?

    In Japan, I was a member of the team that discovered an actively growing mineral deposit on the ocean floor—a huge deposit of sulfide minerals very rich in gold and silver. This deposit is about as big as the Pentagon and about twice as high, and it's growing. Basically, we discovered an ore deposit that in today's market might be worth several billion dollars. The problem is that it's located at a depth of about 4,000 feet below sea level. So no attempt has been made thus far to mine it. But maybe someday people will figure out ways to do this that are environmentally acceptable.

    What is the biggest misconception about your work?

    The biggest misconception in Hawaii is that the volcanoes are gentle in their activity. There have been many instances in the past 20 years when tourists have been able to walk right up to the edge of actively flowing lava, so that conveys the impression that the volcano is always gentle and safe to be around. But our research has shown that this is not necessarily the case. [On Kilauea volcano], we've found evidence that rocks the size of grapefruits have been hurled for six or seven miles distance, and rocks the size of golf balls have gone all the way down to the south shore of the island, which is a distance of about ten miles from the summit.

    How risky is the job?

    You have to be careful. I've had friends that have been killed or injured by volcanic eruptions, but they made the mistake of going too close. If the volcano is acting strangely or erupting violently, you have to stay away because it can suddenly get more dangerous than it was before. It's very easy to be killed by falling debris or hot gases that come surging out of volcanoes.

    What advice do you have for someone just entering this field?

    The first thing anybody would have to understand is that the field of volcanology is a very small field. Although there are hundreds of volcanoes on the earth, there are not that many people studying them. I would say just get a good, solid geological background, take as much math and physics as you can and try to go to a good graduate school. If you're going to specialize in volcanoes, choose a graduate school where one or more of the professors is also a specialist in volcanoes. That's the way you can be helped to become viable in the marketplace.

    What's the most interesting part of the job?

    The fieldwork. It's like a mystery novel. We're uncovering clues. It's been very exciting.


    1 2 Next »

        Subscribe now for more of Smithsonian's coverage on history, science and nature.



    Digg


     
    Comments (4)

    Do you think I could get a video interview with this guy for my school project? I would love ta meet him! Just have him e-mail meh and ill try ta meet up with him if he accepts!

    Posted by Nicholas Crouch on March 17,2010 | 10:48 AM

    thats kool but where do i get hired as one?

    Posted by jenny on September 2,2008 | 07:35 PM

    The work of Richard Fiske is extremely valuable in the urgent effort to better understand volcanic energies. On the Big Island of Hawai`i, where I live, we enjoy consistent electrical generation by steam from Kilauea. We could develop even more and, in the energy crisis that is finally getting attention, we probably will. The matter of safety that Dr. Fiske mentions in the article is also relevant as this is written because our Halem'aum'au crater exploded a week ago, hurling stones over a 75-acre area. A very large plume of poisonous fumes continues to boil from this large crater's northeast side. Hawai`i Volcanoes National Park receives more than a million visitors a year yet suffers from a lack of funds for roads, trails, bridges and other facilities that would make the park safer and more enjoyable.

    Posted by Bill Eger on March 26,2008 | 05:23 PM

    Hello, In 1997, we visited Hawaii Volcanoes National Park. We hired a geologist for the day and it made our visit so much more interesting. She worked at the volcano research centre there. I have lost contact info. Does this service still exist? Can you help? Thank you from Canada

    Posted by Lynne Bechberger on March 9,2008 | 12:16 PM

    Post a Comment


    Name: (required)

    Email: (required)

    Comment:

    Comments are moderated, and will not appear until Smithsonian.com has approved them. Smithsonian reserves the right not to post any comments that are unlawful, threatening, offensive, defamatory, invasive of a person's privacy, inappropriate, confidential or proprietary, political messages, product endorsements, or other content that might otherwise violate any laws or policies.



    Advertisement


    Advertisement

    Follow Us






    First Name
    Last Name
    Address 1
    Address 2
    City
    State   Zip
    Email



    Smithsonian Store

    Smithsonian Journeys